Recent Changes for "Chemistry" - Davis Wikihttp://daviswiki.org/ChemistryRecent Changes of the page "Chemistry" on Davis Wiki.en-us Chemistryhttp://daviswiki.org/Chemistry2008-11-18 09:47:52CurlyGirl26 <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 136: </td> <td> Line 136: </td> </tr> <tr> <td> </td> <td> <span>+ * Word. It is probably one of the best things I did as an undergrad. Learned a ton and my efforts even culminated in a publication. And I draw upon the skills I learned there even today (and I'm no longer in science!). Do yourself a favor and do research as an undergrad! Yes, I mean, YOU.--["Users/CurlyGirl26"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-11-18 09:41:02CurlyGirl26 <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 60: </td> <td> Line 60: </td> </tr> <tr> <td> </td> <td> <span>+ *Hmmmm . . . I don't remember this course as being "easy", but then again I did take it with Dr. Kurth.--["Users/CurlyGirl26"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-11-17 19:55:27DavidPoole(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 127: </td> <td> Line 127: </td> </tr> <tr> <td> <span>-</span> ==<span>Misc/Envi</span>r<span>onmental</span> Chemistry== </td> <td> <span>+</span> ==<span>Othe</span>r Chemistry<span>&nbsp;Courses</span>== </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-11-17 19:54:56DavidPoole <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 1: </td> <td> Line 1: </td> </tr> <tr> <td> </td> <td> <span>+ [[tableofcontents(right)]]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-11-17 19:54:05DavidPooleRevising, is this good? <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 1: </td> <td> Line 1: </td> </tr> <tr> <td> <span>-</span> The Chemistry Department is located in the creatively named ["Chemistry Building"] and ["Chemistry Annex"]. Some of the labs for certain Chem classes, and certain offices are also located in the ["Sciences Laboratory Building"] on the first and second floors. </td> <td> <span>+</span> The <span>[http://www.chem.ucdavis.edu </span>Chemistry Department<span>]</span> is located in the creatively named ["Chemistry Building"] and ["Chemistry Annex"]. Some of the labs for certain Chem classes, and certain offices are also located in the ["Sciences Laboratory Building"] on the first and second floors. </td> </tr> <tr> <td> Line 3: </td> <td> Line 3: </td> </tr> <tr> <td> <span>-</span> The Department offers BA and BS as well as Masters and PhD. degrees<span>.<br> - In addition</span>, Environmental Chemistry, <span>Pharmaceutical</span> Chemistry<span>, and Chemical Physics</span> BS degrees<span>&nbsp;are available as of Fall 2006</span>. </td> <td> <span>+</span> The Department offers BA and BS as well as Masters and PhD. degrees<span>&nbsp;in Chemistry, additional, Forensic</span>, Environmental<span>, Pharmaceutical, and Physical </span> Chemistry, <span>are offered as Applied</span> Chemistry BS degrees. </td> </tr> <tr> <td> Line 6: </td> <td> Line 5: </td> </tr> <tr> <td> <span>- =Research Groups=<br> - <br> - ''For a complete list, see the [http://www.chem.ucdavis.edu/cfmx/facultygrp.cfm departmental list of current research groups]''.<br> - <br> - * ["The Britt Group"]<br> - * ["The Nanofast Group"]<br> - <br> - =Clubs and Organizations=<br> - <br> - ["Chemistry Club"]<br> - <br> - =Professors=<br> - <br> - ==Active==<br> - <br> - * Dr. ["David Britt"] - Metallobiochemistry focusing on Photosynthesis, EPR.<br> - * Dr. Donald Land<br> - * Dr. Ting Gou<br> - * Dr. Susan Kalzurich<br> - * Dr. Phillip P. Power<br> - *<br> - ==Past==<br> - <br> - * Dr. ["Charles Nash"], former Professor Emeritus.</span> </td> <td> </td> </tr> <tr> <td> Line 33: </td> <td> Line 8: </td> </tr> <tr> <td> <span>- * Environmental Chemistry -- Involves a few classes from environmental toxicology and policy classes, lighter on the chemistry but requires an understanding of environmental physics and politics.<br> - * Forensic Chemistry<br> - * Pharmaceutical Chemistry -- A really good choice for students wanting to go into medicine, it requires slightly less chemistry and more biology.<br> - * Physical Chemistry -- A really good choice for students wanting to go into theoretical chemistry, it requires intensive study into physical chemistry.</span> </td> <td> <span>+ ==Environmental Chemistry==<br> + A multidisciplinary approach to understanding chemistry as it occurs in natural environmental circumstances. Take chemistry courses alongside environmental toxicology, geology, biology, and most other environmental departments on campus.<br> + ==Forensic Chemistry==<br> + ==Pharmaceutical Chemistry==<br> + An excellent choice for those who wish for a career in the pharmaceutical industry. This sort of chemistry has been responsible for many medicinal advances in the recent years.<br> + ==Physical Chemistry==<br> + This is really for people who love physical and theoretical chemistry.</span> </td> </tr> <tr> <td> Line 39: </td> <td> Line 17: </td> </tr> <tr> <td> <span>- </span> </td> <td> <span>+ Sorted by type, instead of just number, types explained at each sub-heading.</span> </td> </tr> <tr> <td> Line 104: </td> <td> Line 82: </td> </tr> <tr> <td> <span>- </span> </td> <td> <span>+ * 10 Forensic Chemistry</span> </td> </tr> <tr> <td> Line 157: </td> <td> Line 135: </td> </tr> <tr> <td> <span>- '''Home Page'''</span> </td> <td> <span>+ =Research Groups=</span> </td> </tr> <tr> <td> Line 159: </td> <td> Line 137: </td> </tr> <tr> <td> <span>- For more information, visit the [http://www.chem.ucdavis.edu Chemistry Department Home Page]</span> </td> <td> <span>+ ''For a complete list, see the [http://www.chem.ucdavis.edu/cfmx/facultygrp.cfm departmental list of current research groups]''.<br> + <br> + * ["The Britt Group"]<br> + * ["The Nanofast Group"]<br> + <br> + =Clubs and Organizations=<br> + <br> + ["Chemistry Club"]<br> + <br> + =Professors=<br> + <br> + ==Active==<br> + <br> + * Dr. ["David Britt"] - Metallobiochemistry focusing on Photosynthesis, EPR.<br> + * Dr. Donald Land<br> + * Dr. Ting Gou<br> + * Dr. Susan Kalzurich<br> + * Dr. Phillip P. Power<br> + *<br> + ==Past==<br> + <br> + * Dr. ["Charles Nash"], former Professor Emeritus.<br> + </span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-11-17 19:43:42DavidPoole <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 22: </td> <td> Line 22: </td> </tr> <tr> <td> <span>- </span> </td> <td> <span>+ * Dr. Donald Land<br> + * Dr. Ting Gou<br> + * Dr. Susan Kalzurich<br> + * Dr. Phillip P. Power<br> + *</span> </td> </tr> <tr> <td> Line 30: </td> <td> Line 34: </td> </tr> <tr> <td> </td> <td> <span>+ * Forensic Chemistry</span> </td> </tr> <tr> <td> Line 37: </td> <td> Line 42: </td> </tr> <tr> <td> <span>- ''Lower Division Courses''</span> </td> <td> <span>+ ==General Chemistry==</span> </td> </tr> <tr> <td> Line 65: </td> <td> Line 70: </td> </tr> <tr> <td> </td> <td> <span>+ ==Organic Chemistry==<br> + </span> </td> </tr> <tr> <td> Line 68: </td> <td> Line 75: </td> </tr> <tr> <td> <span>- <br> - * 99. Special Study for Undergraduates - DO UNDERGRADUATE RESEARCH! Now. It is the only way to get into grad school.<br> - <br> - ''Upper Division Courses''<br> - <br> - * 100 Water Chemistry - A class that runs yearly and is sort of a joint effort with the ["UC Davis Geology Department" geology department]. It applies the concepts learned in the general chemistry courses to the analysis of water.<br> - * This isn't in the general catalog. Has it been changed? I looked and looked, and the closest courses I found were [http://registrar.ucdavis.edu/UCDWebCatalog/programs/SSC/SSCcourses.html#0_pgfId-1066290 SSC 102: Soil and Water Chemistry] and [http://registrar.ucdavis.edu/UCDWebCatalog/programs/HYD/HYDcourses.html#0_pgfId-1053185 HYD 134: Aqueous Geochemistry]. -["Users/NumiaCairaguas" NC]<br> - * It's new this year. Check the [http://registrar.ucdavis.edu/UCDWebCatalog/pdfsupp.html catalog supplement].<br> - * This class has so far been the most useful general chemistry class for me. ~["Users/Davepoole"]<br> - <br> - * 105. Analytical and Physical Chemical Methods - Lots of the same types of calculations as in Chem 2B. Very little new material, just a lot of more in depth labs and write ups. Very long theory sections. You will spend a great deal of time writing up lab reports as well. There is a lecture in addition to the lab that isn't directly related, and the lab manual may need corrections.<br> - * Despite being scary the labs are nice in introducing many techniques in chemistry, though sadly not NMR. ~Dp<br> - * 107A: Physical Chemistry for bio/other majors... part A<br> - * These classes (both of them) are offered over the summer at a discounted price. ~DP<br> - * 107B: Physical Chemistry for bio majors... part 1<br> - * 110A. Physical Chemistry: Introduction to Quantum Mechanics - Quantum Mechanics. If you like math, have a good working knowledge of Math 21A-C, and enjoy theoretical stuffs, it is a fantastic class.<br> - <br> - * 110B. Physical Chemistry: Properties of Atoms and Molecules - Take 124A first or concurrently, because group theory is not given enough lecture time in this class. Not the most interesting of the chemistry classes. More spectroscopy from 110A, a throwback to 124A and a preview of 110C.<br> - <br> - * 110C. Physical Chemistry: Thermodynamics, Equilibria and Kinetics - More and harder Chem 2B.<br> - <br> - *''A Note on P-Chem'' -Physical Chemistry IS difficult. But, I found Organic Chemistry to be MUCH MUCH worse, however. If your math skills are strong, you should be fine. However, if you can get away with taking the Physical Chemistry for life sciences majors (Chem 107/108, I believe) go for that. Also, avoid Ng unless you are madly in love with PowerPoint - he apparently is. -- ["Users/SarahHillard"]<br> - <br> - * 115. Instrumental Analysis - More 105. Very little new material. Long write ups. Neat experiments (roughly 7).<br> - * This is easily the most time consuming class I have taken at Davis. The lab manual is a poorly written joke and the teachers tend to have unreasonably high expectations. Many of the analytical instruments are prone to failure at random times so expect much frustration. - ["Users/DanMasiel"]<br> - * Agreed, as a chemistry student progresses in labs, there is less enrollment in the classes which corresponds to a decrease in funding. This is made worse by the increased cost of maintaining the machines. Lab manuals have yet to be revised and this class promises to consume your dreams and leave you mad. ~DP</span> </td> <td> </td> </tr> <tr> <td> Line 107: </td> <td> Line 88: </td> </tr> <tr> <td> <span>- * 121. Introduction to Molecular Structure and Spectra - Good class. Lots of hard theory and very little reading of actual spectra.<br> - <br> - * 124A. Inorganic Chemistry: Fundamentals - This is one of those classes that focuses a LOT on a very few basic ideas - if you don't understand symmetry and point group assignment, you will have a very difficult time drawing molecular orbital diagrams (the final and hardest topic of the class). Do yourself a favor and take this class before 110B.<br> - <br> - <br> - * 124B. Inorganic Chemistry: Main Group Elements - Lots of memorizing periodic trends and basic facts about the behavior of main group elements. Zero theory. No math above addition and subtraction.<br> - <br> - * 124C. Inorganic Chemistry: d and f Block Elements - Quite a bit of theory. Here we see the return of microstates and reaction mechanisms. Still not a whole lot of math beyond addition.<br> - <br> - * 124L. Laboratory Methods in Inorganic Chemistry - 128A minus the carbon and with more pretty colors. The lab reports don't necessarily have a theory section a la 105, 115 &amp; 125, but the calculations are more complex than the O Chem counterpart. The lab manual and supplement are out of date and the former is usually in short supply in the book store. The class is entirely run by the P.P.Powers research group.<br> - * The techniques used in this class make many of the labs worth it, NMR, IR, and UV-visible spectroscopy are useful skills that will come in handy for the physical chemistry methods classes. ~DP<br> - <br> - * 125. Advanced Methods in Physical Chemistry (4) - More spectroscopy. VERY cool stuff. VERY long write ups - only 4 experiments in the quarter.</span> </td> <td> </td> </tr> <tr> <td> Line 133: </td> <td> Line 101: </td> </tr> <tr> <td> </td> <td> <span>+ * 131. Modern Methods of Organic Synthesis - If you didn't like, nay ABSOLUTELY LOVE as though it were your twisted country cousin, or were not very very VERY nobel prize winning good at Chem 128/129 -DO NOT WHATEVER YOU DO TAKE THIS CLASS. I'm dead serious. I still don't know what possessed me...<br> + <br> + ==Analytical Chemistry==<br> + <br> + * 104. Forensic Chemistry<br> + * 105. Analytical and Physical Chemical Methods - Lots of the same types of calculations as in Chem 2B. Very little new material, just a lot of more in depth labs and write ups. Very long theory sections. You will spend a great deal of time writing up lab reports as well. There is a lecture in addition to the lab that isn't directly related, and the lab manual may need corrections.<br> + * Despite being scary the labs are nice in introducing many techniques in chemistry, though sadly not NMR. ~Dp<br> + <br> + * 115. Instrumental Analysis - More 105. Very little new material. Long write ups. Neat experiments (roughly 7).<br> + * This is easily the most time consuming class I have taken at Davis. The lab manual is a poorly written joke and the teachers tend to have unreasonably high expectations. Many of the analytical instruments are prone to failure at random times so expect much frustration. - ["Users/DanMasiel"]<br> + * Agreed, as a chemistry student progresses in labs, there is less enrollment in the classes which corresponds to a decrease in funding. This is made worse by the increased cost of maintaining the machines. Lab manuals have yet to be revised and this class promises to consume your dreams and leave you mad. ~DP<br> + <br> + * 121. Introduction to Molecular Structure and Spectra - Good class. Lots of hard theory and very little reading of actual spectra.<br> + * 125. Advanced Methods in Physical Chemistry (4) - More spectroscopy. VERY cool stuff. VERY long write ups - only 4 experiments in the quarter.<br> + <br> + <br> + ==Inorganic Chemistry==<br> + <br> + * 124A. Inorganic Chemistry: Fundamentals - This is one of those classes that focuses a LOT on a very few basic ideas - if you don't understand symmetry and point group assignment, you will have a very difficult time drawing molecular orbital diagrams (the final and hardest topic of the class). Do yourself a favor and take this class before 110B or 107A.<br> + <br> + * 124B. Inorganic Chemistry: Main Group Elements - Lots of memorizing periodic trends and basic facts about the behavior of main group elements. Zero theory. No math above addition and subtraction.<br> + <br> + * 124C. Inorganic Chemistry: d and f Block Elements - Quite a bit of theory. Here we see the return of microstates and reaction mechanisms. Still not a whole lot of math beyond addition.<br> + <br> + * 124L. Laboratory Methods in Inorganic Chemistry - 128A minus the carbon and with more pretty colors. The lab reports don't necessarily have a theory section a la 105, 115 &amp; 125, but the calculations are more complex than the O Chem counterpart. The lab manual and supplement are out of date and the former is usually in short supply in the book store. The class is entirely run by the P.P.Powers research group.<br> + * The techniques used in this class make many of the labs worth it, NMR, IR, and UV-visible spectroscopy are useful skills that will come in handy for the physical chemistry methods classes. ~DP<br> + <br> + ==Physical Chemistry==<br> + <br> + * 107A: Physical Chemistry for bio/other majors... part A<br> + * These classes (both of them) are offered over the summer at a discounted price. ~DP<br> + * 107B: Physical Chemistry for bio majors... part 1<br> + <br> + * 110A. Physical Chemistry: Introduction to Quantum Mechanics - Quantum Mechanics. If you like math, have a good working knowledge of Math 21A-C, and enjoy theoretical stuffs, it is a fantastic class.<br> + <br> + * 110B. Physical Chemistry: Properties of Atoms and Molecules - Take 124A first or concurrently, because group theory is not given enough lecture time in this class. Not the most interesting of the chemistry classes. More spectroscopy from 110A, a throwback to 124A and a preview of 110C.<br> + <br> + * 110C. Physical Chemistry: Thermodynamics, Equilibria and Kinetics - More and harder Chem 2B.<br> + <br> + *''A Note on P-Chem'' -Physical Chemistry IS difficult. But, I found Organic Chemistry to be MUCH MUCH worse, however. If your math skills are strong, you should be fine. However, if you can get away with taking the Physical Chemistry for life sciences majors (Chem 107/108, I believe) go for that. Also, avoid Ng unless you are madly in love with PowerPoint - he apparently is. -- ["Users/SarahHillard"]<br> + <br> + ==Pharmaceutical Chemistry==</span> </td> </tr> <tr> <td> Line 137: </td> <td> Line 147: </td> </tr> <tr> <td> <span>- * 131. Modern Methods of Organic Synthesis - If you didn't like, nay ABSOLUTELY LOVE as though it were your twisted country cousin, or were not very very VERY nobel prize winning good at Chem 128/129 -DO NOT WHATEVER YOU DO TAKE THIS CLASS. I'm dead serious. I still don't know what possessed me...</span> </td> <td> <span>+ <br> + ==Misc/Environmental Chemistry==<br> + * 100. Water Chemistry, a slightly difficult class that focuses heavily on the chemistry in natural aqueous environments.</span> </td> </tr> <tr> <td> Line 140: </td> <td> Line 152: </td> </tr> <tr> <td> <span>- </span> </td> <td> <span>+ * 99. Undergraduate Research/Special Study - See 199, same note applies</span> </td> </tr> <tr> <td> Line 142: </td> <td> Line 154: </td> </tr> <tr> <td> <span>-</span> - Read the above over again 2 times. It is the best advice I have seen on the wiki. - ["Users/DanMasiel"] -Don't be scared to show up at a professor's office hour and ask them about working in their lab. Most professors love having free undergrad labor, and I've heard a rumor that if a professor has enough undergrads doing 199/194/99 units they can get out of teaching a class. You will gain experience with things that most undergrads never even touch. DO UNDERGRADUATE RESEARCH! -- ["Users/NathanSchley"] </td> <td> <span>+</span> - Read the above over again 2 times. It is the best advice I have seen on the wiki. - ["Users/DanMasiel"]<span><br> + </span> -Don't be scared to show up at a professor's office hour and ask them about working in their lab. Most professors love having free undergrad labor, and I've heard a rumor that if a professor has enough undergrads doing 199/194/99 units they can get out of teaching a class. You will gain experience with things that most undergrads never even touch. DO UNDERGRADUATE RESEARCH! -- ["Users/NathanSchley"] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-07-25 21:32:53fredchen(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 165: </td> <td> Line 165: </td> </tr> <tr> <td> </td> <td> <span>+ <br> + * the problem with ochem(at least with 118b) is that there is simply too much material to learn in the time given in a quarter and almost no effective strategy of learning the material other than having a photographic memory because there are more exceptions than adherents to the given rules so that every piece of knowledge is pretty unconnected to other pieces --["Users/fredchen"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-07-25 21:13:57fredchen(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 103: </td> <td> Line 103: </td> </tr> <tr> <td> </td> <td> <span>+ *evil. --["Users/fredchen"]<br> + </span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-07-25 21:13:18fredchen(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 99: </td> <td> Line 99: </td> </tr> <tr> <td> </td> <td> <span>+ *not too bad of a course. definitely a class where the material is more easily learned when understood rather than memorized. --["Users/fredchen"]<br> + </span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-07-12 15:42:31JasonAllerlink fixes, the rest of them <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 52: </td> <td> Line 52: </td> </tr> <tr> <td> <span>-</span> - This was my favorite of the General Chemistry series, but it was definitely the hardest. Dr. Augustine teaches it during Winter and although he's a tough teacher, he makes lectures entertaining. For example, when lecturing on entropy, he demonstrated it with a ["forty"] of King Cobra. -["AbbyLawson"] </td> <td> <span>+</span> - This was my favorite of the General Chemistry series, but it was definitely the hardest. Dr. Augustine teaches it during Winter and although he's a tough teacher, he makes lectures entertaining. For example, when lecturing on entropy, he demonstrated it with a ["forty"] of King Cobra. -["<span>Users/</span>AbbyLawson"] </td> </tr> <tr> <td> Line 62: </td> <td> Line 62: </td> </tr> <tr> <td> <span>-</span> *Chem 2CH is TOUGH. But, remember, "F" is a relative term. Many profs aim for a 60 average on the test, which is technically a "D-". Remember the curve - it is your friend. --["SarahHillard"] </td> <td> <span>+</span> *Chem 2CH is TOUGH. But, remember, "F" is a relative term. Many profs aim for a 60 average on the test, which is technically a "D-". Remember the curve - it is your friend. --["<span>Users/</span>SarahHillard"] </td> </tr> <tr> <td> Line 92: </td> <td> Line 92: </td> </tr> <tr> <td> <span>-</span> * This is easily the most time consuming class I have taken at Davis. The lab manual is a poorly written joke and the teachers tend to have unreasonably high expectations. Many of the analytical instruments are prone to failure at random times so expect much frustration. - ["DanMasiel"] </td> <td> <span>+</span> * This is easily the most time consuming class I have taken at Davis. The lab manual is a poorly written joke and the teachers tend to have unreasonably high expectations. Many of the analytical instruments are prone to failure at random times so expect much frustration. - ["<span>Users/</span>DanMasiel"] </td> </tr> <tr> <td> Line 148: </td> <td> Line 148: </td> </tr> <tr> <td> <span>-</span> I second what ["PhilipNeustrom"] said - ["Users/BryanBell"] </td> <td> <span>+</span> I second what ["<span>Users/</span>PhilipNeustrom"] said - ["Users/BryanBell"] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-07-12 12:26:45JasonAllerlink fixes <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 42: </td> <td> Line 42: </td> </tr> <tr> <td> <span>-</span> - 2A was a piece of cake. Don't worry about it, unless you totally were asleep during high school chem. -["PatrickSing"] </td> <td> <span>+</span> - 2A was a piece of cake. Don't worry about it, unless you totally were asleep during high school chem. -["<span>Users/</span>PatrickSing"] </td> </tr> <tr> <td> Line 47: </td> <td> Line 47: </td> </tr> <tr> <td> <span>-</span> * For Trues Fall 2005 class, an 89% total put me in the A+ Range. Of course, it was the last A+ or 89% total I ever received. --["MaxMikalonis"] </td> <td> <span>+</span> * For Trues Fall 2005 class, an 89% total put me in the A+ Range. Of course, it was the last A+ or 89% total I ever received. --["<span>Users/</span>MaxMikalonis"] </td> </tr> <tr> <td> Line 61: </td> <td> Line 61: </td> </tr> <tr> <td> <span>-</span> * This class is worth it in the sense that you already have a strong support group formed if you run into trouble, which with two labs per week and an average professor and one (of two) crazy TA you'll definitely have plenty of. The professor for this course is much better than any chemistry 2C professor you could ever wish for. It is nevertheless a tough class. The average for the first test the past two years has been an F. (Exact numbers witheld to avoid embarressment) --["TusharRawat"] </td> <td> <span>+</span> * This class is worth it in the sense that you already have a strong support group formed if you run into trouble, which with two labs per week and an average professor and one (of two) crazy TA you'll definitely have plenty of. The professor for this course is much better than any chemistry 2C professor you could ever wish for. It is nevertheless a tough class. The average for the first test the past two years has been an F. (Exact numbers witheld to avoid embarressment) --["<span>Users/</span>TusharRawat"] </td> </tr> <tr> <td> Line 63: </td> <td> Line 63: </td> </tr> <tr> <td> <span>-</span> * Chem 2CH can and will run over you if you aren't careful. The two 3hr labs make things much, much more difficult, and the times can limit your options if you, say, want to take Bis 1a the same Quarter (PLEASE DONT!!! TAKE 1B INSTEAD). I mean, it was nice distilling the ethanol from cheap american beer, but it took such a long time. The vast majority of the labs, for all 2h's, are do the 2 series lab, and then take it to that next step. The best thing about 2CH? The other students: No one goes through a full year of Honors Chem and hates it by the end, and the struggle of staying up all night doing your labs is a combination of survival tactics and a bonding experience. After spending up to 9 hrs per week with a group of people, you get to know them. --["MaxMikalonis"] </td> <td> <span>+</span> * Chem 2CH can and will run over you if you aren't careful. The two 3hr labs make things much, much more difficult, and the times can limit your options if you, say, want to take Bis 1a the same Quarter (PLEASE DONT!!! TAKE 1B INSTEAD). I mean, it was nice distilling the ethanol from cheap american beer, but it took such a long time. The vast majority of the labs, for all 2h's, are do the 2 series lab, and then take it to that next step. The best thing about 2CH? The other students: No one goes through a full year of Honors Chem and hates it by the end, and the struggle of staying up all night doing your labs is a combination of survival tactics and a bonding experience. After spending up to 9 hrs per week with a group of people, you get to know them. --["<span>Users/</span>MaxMikalonis"] </td> </tr> <tr> <td> Line 76: </td> <td> Line 76: </td> </tr> <tr> <td> <span>-</span> * This class has so far been the most useful general chemistry class for me. ~["Davepoole"] </td> <td> <span>+</span> * This class has so far been the most useful general chemistry class for me. ~["<span>Users/</span>Davepoole"] </td> </tr> <tr> <td> Line 89: </td> <td> Line 89: </td> </tr> <tr> <td> <span>-</span> *''A Note on P-Chem'' -Physical Chemistry IS difficult. But, I found Organic Chemistry to be MUCH MUCH worse, however. If your math skills are strong, you should be fine. However, if you can get away with taking the Physical Chemistry for life sciences majors (Chem 107/108, I believe) go for that. Also, avoid Ng unless you are madly in love with PowerPoint - he apparently is. -- ["SarahHillard"] </td> <td> <span>+</span> *''A Note on P-Chem'' -Physical Chemistry IS difficult. But, I found Organic Chemistry to be MUCH MUCH worse, however. If your math skills are strong, you should be fine. However, if you can get away with taking the Physical Chemistry for life sciences majors (Chem 107/108, I believe) go for that. Also, avoid Ng unless you are madly in love with PowerPoint - he apparently is. -- ["<span>Users/</span>SarahHillard"] </td> </tr> <tr> <td> Line 97: </td> <td> Line 97: </td> </tr> <tr> <td> <span>-</span> * This class will ease one into Organic Chemistry. A large part of 118A is review from General Chemistry. It begins to get tough when you hit SN1, SN2, E1, and E2 reactions, and alcohol and ether syntheses. If you can, take this class with Dr. Schore. --["TusharRawat"] </td> <td> <span>+</span> * This class will ease one into Organic Chemistry. A large part of 118A is review from General Chemistry. It begins to get tough when you hit SN1, SN2, E1, and E2 reactions, and alcohol and ether syntheses. If you can, take this class with Dr. Schore. --["<span>Users/</span>TusharRawat"] </td> </tr> <tr> <td> Line 138: </td> <td> Line 138: </td> </tr> <tr> <td> <span>-</span> - Read the above over again 2 times. It is the best advice I have seen on the wiki. - ["DanMasiel"] -Don't be scared to show up at a professor's office hour and ask them about working in their lab. Most professors love having free undergrad labor, and I've heard a rumor that if a professor has enough undergrads doing 199/194/99 units they can get out of teaching a class. You will gain experience with things that most undergrads never even touch. DO UNDERGRADUATE RESEARCH! -- ["NathanSchley"] </td> <td> <span>+</span> - Read the above over again 2 times. It is the best advice I have seen on the wiki. - ["<span>Users/</span>DanMasiel"] -Don't be scared to show up at a professor's office hour and ask them about working in their lab. Most professors love having free undergrad labor, and I've heard a rumor that if a professor has enough undergrads doing 199/194/99 units they can get out of teaching a class. You will gain experience with things that most undergrads never even touch. DO UNDERGRADUATE RESEARCH! -- ["<span>Users/</span>NathanSchley"] </td> </tr> <tr> <td> Line 146: </td> <td> Line 146: </td> </tr> <tr> <td> </td> <td> <span>+ ''Perhaps this page would be more useful with personal accounts/summaries of classes instead of a verbatim copy of the ["General Catalog"]. After all, you can just link to the ["General Catalog"] and the website for the major to give people this information'' - ["Users/PhilipNeustrom"]</span> </td> </tr> <tr> <td> Line 147: </td> <td> Line 148: </td> </tr> <tr> <td> <span>- ''Perhaps this page would be more useful with personal accounts/summaries of classes instead of a verbatim copy of the ["General Catalog"]. After all, you can just link to the ["General Catalog"] and the website for the major to give people this information'' - ["PhilipNeustrom"]</span> </td> <td> <span>+ I second what ["PhilipNeustrom"] said - ["Users/BryanBell"]</span> </td> </tr> <tr> <td> Line 149: </td> <td> Line 150: </td> </tr> <tr> <td> <span>- I second what ["PhilipNeustrom"] said - ["BryanBell"]</span> </td> <td> <span>+ Yes!!! Please, add your reviews of these classes. Unless you liked organic chemistry. All people who liked organic chemistry will be shot on sight. - ["Users/SarahHillard"]</span> </td> </tr> <tr> <td> Line 151: </td> <td> Line 152: </td> </tr> <tr> <td> <span>- Yes!!! Please, add your reviews of these classes. Unless you liked organic chemistry. All people who liked organic chemistry will be shot on sight. - ["SarahHillard"]</span> </td> <td> <span>+ Would anyone provide me more info on Physical Chemistry classes? I have finished General and Organic Chemistry, and I am gonna take physical chemistry in the fall. I have heard too many bad things about physical chemistry. I will appreciate any help. Thanks. - ["Users/JineshGheeya"]</span> </td> </tr> <tr> <td> Line 153: </td> <td> Line 154: </td> </tr> <tr> <td> <span>- Would anyone provide me more info on Physical Chemistry classes? I have finished General and Organic Chemistry, and I am gonna take physical chemistry in the fall. I have heard too many bad things about physical chemistry. I will appreciate any help. Thanks. - ["JineshGheeya"]</span> </td> <td> <span>+ Just for note, you can tell a chemist apart from a normal person by the way the pronounce "unionized". --["Users/BrentLaabs"]</span> </td> </tr> <tr> <td> Line 155: </td> <td> Line 156: </td> </tr> <tr> <td> <span>- Just for note, you can tell a chemist apart from a normal person by the way the pronounce "unionized". --["BrentLaabs"]<br> - -----<br> - I do not see why people have such a hard time with organic chemistry, hence I will be starting to post a bit more information on it. On a side note, unionize is not a word, deionize is what you are looking for. --["DavidPoole"]<br> - * Organic Chemistry, at least the 118 series, consists of learning an enormous number or rules concerned with an even more enormous number of synthesis reactions. For people who like doing actual reactions with calculations, this course is hell. Rules, rules, and more rules. It is entirely possible for one who hates Chemistry to get a solid A in an O-Chem class, simply by memorizing said rules. That, and the fact that the vast majority of people don't study everyday, is the reason organic chemistry is hated. Oh, did I mention that it ''is'' a bit hard? --["TusharRawat"]<br> - * I completely agree with you, there are far too many rules, exceptions and exceptions to the rules. The actual concepts are quite interesting, but though we have a theory of how everything works, it would be difficult to sit down and prove how it will work. ~["DavePoole"] (survivor)<br> - *On a side side note, unionize is a word; it just doesn't have too terribly much to do with chemistry. --["PaulCherng"]<br> - * Having survived O-chem now (I hope), the difficulty is that there are quite a few reagents and functional groups, lets say 10 each minimum, this means that there are easily 100 reactions possible (assuming no reaction is a reaction of sorts); now take this system and add to it the complexity of having multiple functional groups on the same molecule, making synthesis difficult by limiting pathways and everything just all the more complex. Note that functional groups are also reagents and that there may be multiple molecules in the same system. This complexity is the reason why organic chemistry is so damn complicated and difficult. However, it also makes the classes pretty difficult for anyone, so stick in there and just don't fall behind more than everyone else (you don't need to out run the bear). ~["DavidPoole"]</span> </td> <td> <span>+ I do not see why people have such a hard time with organic chemistry, hence I will be starting to post a bit more information on it. On a side note, unionize is not a word, deionize is what you are looking for. --["Users/DavidPoole"]<br> + * Organic Chemistry, at least the 118 series, consists of learning an enormous number or rules concerned with an even more enormous number of synthesis reactions. For people who like doing actual reactions with calculations, this course is hell. Rules, rules, and more rules. It is entirely possible for one who hates Chemistry to get a solid A in an O-Chem class, simply by memorizing said rules. That, and the fact that the vast majority of people don't study everyday, is the reason organic chemistry is hated. Oh, did I mention that it ''is'' a bit hard? --["Users/TusharRawat"]<br> + * I completely agree with you, there are far too many rules, exceptions and exceptions to the rules. The actual concepts are quite interesting, but though we have a theory of how everything works, it would be difficult to sit down and prove how it will work. ~["Users/DavePoole"] (survivor)<br> + *On a side side note, unionize is a word; it just doesn't have too terribly much to do with chemistry. --["Users/PaulCherng"]<br> + * Having survived O-chem now (I hope), the difficulty is that there are quite a few reagents and functional groups, lets say 10 each minimum, this means that there are easily 100 reactions possible (assuming no reaction is a reaction of sorts); now take this system and add to it the complexity of having multiple functional groups on the same molecule, making synthesis difficult by limiting pathways and everything just all the more complex. Note that functional groups are also reagents and that there may be multiple molecules in the same system. This complexity is the reason why organic chemistry is so damn complicated and difficult. However, it also makes the classes pretty difficult for anyone, so stick in there and just don't fall behind more than everyone else (you don't need to out run the bear). ~["Users/DavidPoole"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-06-11 10:10:07DavidPoole(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 144: </td> <td> Line 144: </td> </tr> <tr> <td> </td> <td> <span>+ [[comments(Submit a reaction:)]]<br> + </span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-06-11 10:09:16DavidPoole(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 159: </td> <td> Line 159: </td> </tr> <tr> <td> </td> <td> <span>+ * Having survived O-chem now (I hope), the difficulty is that there are quite a few reagents and functional groups, lets say 10 each minimum, this means that there are easily 100 reactions possible (assuming no reaction is a reaction of sorts); now take this system and add to it the complexity of having multiple functional groups on the same molecule, making synthesis difficult by limiting pathways and everything just all the more complex. Note that functional groups are also reagents and that there may be multiple molecules in the same system. This complexity is the reason why organic chemistry is so damn complicated and difficult. However, it also makes the classes pretty difficult for anyone, so stick in there and just don't fall behind more than everyone else (you don't need to out run the bear). ~["DavidPoole"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-06-11 10:04:47DavidPoole(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 92: </td> <td> Line 92: </td> </tr> <tr> <td> <span>- -</span> This is easily the most time consuming class I have taken at Davis. The lab manual is a poorly written joke and the teachers tend to have unreasonably high expectations. Many of the analytical instruments are prone to failure at random times so expect much frustration. - ["DanMasiel"] </td> <td> <span>+ *</span> This is easily the most time consuming class I have taken at Davis. The lab manual is a poorly written joke and the teachers tend to have unreasonably high expectations. Many of the analytical instruments are prone to failure at random times so expect much frustration. - ["DanMasiel"]<span><br> + * Agreed, as a chemistry student progresses in labs, there is less enrollment in the classes which corresponds to a decrease in funding. This is made worse by the increased cost of maintaining the machines. Lab manuals have yet to be revised and this class promises to consume your dreams and leave you mad. ~DP</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-06-11 10:02:13DavidPoole(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 80: </td> <td> Line 80: </td> </tr> <tr> <td> <span>-</span> * 107A: Physical Chemistry for bio majors... part A </td> <td> <span>+</span> * 107A: Physical Chemistry for bio<span>/other</span> majors... part A<span><br> + * These classes (both of them) are offered over the summer at a discounted price. ~DP</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-06-11 10:01:15DavidPoole(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 111: </td> <td> Line 111: </td> </tr> <tr> <td> </td> <td> <span>+ * The techniques used in this class make many of the labs worth it, NMR, IR, and UV-visible spectroscopy are useful skills that will come in handy for the physical chemistry methods classes. ~DP</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-06-11 09:59:47DavidPoole(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 94: </td> <td> Line 94: </td> </tr> <tr> <td> </td> <td> <span>+ * The 118 series is offered over the ["summer"] at a discounted rate, given the increase in the popularity of this series (being the ''easy'' o-chem requirement) this might be a good idea. ~DP</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-06-11 09:58:17DavidPoole(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 79: </td> <td> Line 79: </td> </tr> <tr> <td> </td> <td> <span>+ * Despite being scary the labs are nice in introducing many techniques in chemistry, though sadly not NMR. ~Dp</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-06-11 09:57:26DavidPoole(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 76: </td> <td> Line 76: </td> </tr> <tr> <td> </td> <td> <span>+ * This class has so far been the most useful general chemistry class for me. ~["Davepoole"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-06-11 09:56:20DavidPoole <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 26: </td> <td> Line 26: </td> </tr> <tr> <td> </td> <td> <span>+ <br> + =Degrees=<br> + Not only can you just have your choice of plain vanilla or chocolate A.B. or B.S. degrees in the science, you can now have an emphasis, though the registrar has yet (6-11-08) to add it to the general catalog. The website and department office has more information.<br> + * Environmental Chemistry -- Involves a few classes from environmental toxicology and policy classes, lighter on the chemistry but requires an understanding of environmental physics and politics.<br> + * Pharmaceutical Chemistry -- A really good choice for students wanting to go into medicine, it requires slightly less chemistry and more biology.<br> + * Physical Chemistry -- A really good choice for students wanting to go into theoretical chemistry, it requires intensive study into physical chemistry.</span> </td> </tr> <tr> <td> Line 71: </td> <td> Line 77: </td> </tr> <tr> <td> <span>-</span> * 105. Analytical and Physical Chemical Methods - Lots of the same types of calculations as in Chem 2B. Very little new material, just a lot of more in depth labs and write ups. Very long theory sections. You will spend a great deal of time writing up lab reports as well.<br> <span>- </span> </td> <td> <span>+</span> * 105. Analytical and Physical Chemical Methods - Lots of the same types of calculations as in Chem 2B. Very little new material, just a lot of more in depth labs and write ups. Very long theory sections. You will spend a great deal of time writing up lab reports as well.<span>&nbsp;There is a lecture in addition to the lab that isn't directly related, and the lab manual may need corrections.</span><br> <span>+ * 107A: Physical Chemistry for bio majors... part A<br> + * 107B: Physical Chemistry for bio majors... part 1</span> </td> </tr> <tr> <td> Line 100: </td> <td> Line 107: </td> </tr> <tr> <td> <span>-</span> * 124L. Laboratory Methods in Inorganic Chemistry - 128A minus the carbon. The lab reports don't have a theory section a la 105, 115 &amp; 125, but the calculations are more complex than the O Chem counterpart. </td> <td> <span>+</span> * 124L. Laboratory Methods in Inorganic Chemistry - 128A minus the carbon<span>&nbsp;and with more pretty colors</span>. The lab reports don't<span>&nbsp;necessarily</span> have a theory section a la 105, 115 &amp; 125, but the calculations are more complex than the O Chem counterpart.<span>&nbsp;The lab manual and supplement are out of date and the former is usually in short supply in the book store. The class is entirely run by the P.P.Powers research group.</span> </td> </tr> <tr> <td> Line 108: </td> <td> Line 115: </td> </tr> <tr> <td> <span>-</span> * 128C. Organic Chemistry - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. </td> <td> <span>+</span> * 128C. Organic Chemistry - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction.<span>&nbsp;This class will continue on where the last went off with aromatic compounds, conjugated dyes, amines, azides, carbohydrates and amino acids.</span> </td> </tr> <tr> <td> Line 114: </td> <td> Line 121: </td> </tr> <tr> <td> <span>-</span> * 129C. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry. While you still can. Don't say I didn't warn you. </td> <td> <span>+</span> * 129C. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry. While you still can. Don't say I didn't warn you.<span>&nbsp;If you are a chemical engineer, pharmaceutical or environmental chemistry major, you don't need to worry here.</span> </td> </tr> <tr> <td> Line 116: </td> <td> Line 123: </td> </tr> <tr> <td> <span>-</span> * 130A Pharmaceutical Chemistry - A new class, no description available yet, part of the new Pharmaceutical Chem ma<span>jor</span>. </td> <td> <span>+</span> * 130A Pharmaceutical Chemistry - A new class, no description available yet, part of the new Pharmaceutical Chem <span>e</span>m<span>ph</span>a<span>sis</span>. </td> </tr> <tr> <td> Line 118: </td> <td> Line 125: </td> </tr> <tr> <td> <span>-</span> * 130B Pharmaceutical Chemistry - A new class, no description available yet, part of the new Pharmaceutical Chem ma<span>jor</span>. </td> <td> <span>+</span> * 130B Pharmaceutical Chemistry - A new class, no description available yet, part of the new Pharmaceutical Chem <span>e</span>m<span>ph</span>a<span>sis</span>. </td> </tr> <tr> <td> Line 144: </td> <td> Line 151: </td> </tr> <tr> <td> <span>-</span> * I completely agree with you, there are far too many rules, exceptions and exceptions to the rules. The actual concepts are quite interesting, but though we have a theory of how everything works, it would be difficult to sit down and prove how it will work. ~["DavePoole"] (surviv<span>ing chem 128</span>) </td> <td> <span>+</span> * I completely agree with you, there are far too many rules, exceptions and exceptions to the rules. The actual concepts are quite interesting, but though we have a theory of how everything works, it would be difficult to sit down and prove how it will work. ~["DavePoole"] (surviv<span>or</span>) </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-03-03 20:56:09PaulCherng <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 145: </td> <td> Line 145: </td> </tr> <tr> <td> <span>-</span> *On a side side note, unionize is a word<span>,</span> just n<span>o</span>t <span>in t</span>h<span>e w</span>a<span>y you'r</span>e thi<span>nk</span>i<span>ng</span>. --["PaulCherng"] </td> <td> <span>+</span> *On a side side note, unionize is a word<span>; it</span> just <span>does</span>n<span>'</span>t ha<span>v</span>e t<span>oo terribly muc</span>h<span>&nbsp;to do w</span>i<span>th chem</span>i<span>stry</span>. --["PaulCherng"] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2008-03-03 20:53:39PaulCherng <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 145: </td> <td> Line 145: </td> </tr> <tr> <td> </td> <td> <span>+ *On a side side note, unionize is a word, just not in the way you're thinking. --["PaulCherng"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2007-10-17 08:37:34JabberWokky(As the expert sez, as I don't know what I'm talking about here). <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 21: </td> <td> Line 21: </td> </tr> <tr> <td> <span>-</span> * Dr. ["David Britt"] - Metallobiochemistry focusing on Photosynthesis, <span>NM</span>R. </td> <td> <span>+</span> * Dr. ["David Britt"] - Metallobiochemistry focusing on Photosynthesis, <span>EP</span>R. </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2007-10-17 08:36:27JabberWokky <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 1: </td> <td> Line 1: </td> </tr> <tr> <td> <span>- '''Location'''<br> - </span> </td> <td> </td> </tr> <tr> <td> Line 4: </td> <td> Line 2: </td> </tr> <tr> <td> <span>- <br> - '''Degrees'''</span> </td> <td> </td> </tr> <tr> <td> Line 10: </td> <td> Line 6: </td> </tr> <tr> <td> <span>-</span> <span>'''</span>Research Groups<span>'''</span> </td> <td> <span>+</span> <span>=</span>Research Groups<span>=</span> </td> </tr> <tr> <td> Line 12: </td> <td> Line 8: </td> </tr> <tr> <td> <span>-</span> [http://www.chem.ucdavis.edu/cfmx/facultygrp.cfm <span>L</span>ist of <span>C</span>urrent <span>R</span>esearch <span>G</span>roups] </td> <td> <span>+ ''For a complete list, see the</span> [http://www.chem.ucdavis.edu/cfmx/facultygrp.cfm <span>departmental l</span>ist of <span>c</span>urrent <span>r</span>esearch <span>g</span>roups]<span>''.</span> </td> </tr> <tr> <td> Line 14: </td> <td> Line 10: </td> </tr> <tr> <td> <span>-</span> ["The Nanofast Group"] </td> <td> <span>+ * ["The Britt Group"]<br> + *</span> ["The Nanofast Group"] </td> </tr> <tr> <td> Line 16: </td> <td> Line 13: </td> </tr> <tr> <td> <span>- [http://britts-group.no-ip.org/ The Britt Group]<br> - <br> - '''Clubs'''</span> </td> <td> <span>+ =Clubs and Organizations=</span> </td> </tr> <tr> <td> Line 22: </td> <td> Line 17: </td> </tr> <tr> <td> <span>- '''Courses'''</span> </td> <td> <span>+ =Professors=<br> + <br> + ==Active==<br> + <br> + * Dr. ["David Britt"] - Metallobiochemistry focusing on Photosynthesis, NMR.<br> + <br> + ==Past==<br> + <br> + * Dr. ["Charles Nash"], former Professor Emeritus.<br> + <br> + =Courses=</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2007-06-29 09:33:46WilliamLewis(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 35: </td> <td> Line 35: </td> </tr> <tr> <td> <span>-</span> * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definitely take it. <span>&nbsp;</span>The smaller class is worth it. <span>&nbsp;However, it's tough. If you go in expecting an easy A - or even an easy C - prepare to be disappointed.</span> The labs are much cooler than in 2A. For example, when the class covers gas laws, you get to use liquid nitrogen to verify Gay-Lussac's law. When Prof. True teaches this class, the curve is rather generous, being centered somewhere between a B+ and an A-. </td> <td> <span>+</span> * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definitely take it. The smaller class is worth it. The labs are much cooler than in 2A. For example, when the class covers gas laws, you get to use liquid nitrogen to verify Gay-Lussac's law. When Prof. True teaches this class, the curve is rather generous, being centered somewhere between a B+ and an A-.<span>&nbsp;Don't think that the class is easy, though. Everyone in the class worked their little butts off to get such grades.</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2007-05-14 08:02:37DavidPoole(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 89: </td> <td> Line 89: </td> </tr> <tr> <td> <span>- * Inorganic chemistry is evil, the work of the devil I say, take this after o-chem, and be warned. ~["DavePoole"]</span> </td> <td> <span>+ </span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2007-05-13 23:28:29KateWaterman(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 70: </td> <td> Line 70: </td> </tr> <tr> <td> <span>-</span> * 110B. Physical Chemistry: Properties of Atoms and Molecules - Take 124A first or concurrently, because group theory is not given enough lecture time in this class. Not the most interesting of the chemistry classes. More spectrocopy from 110A, a throwback to 124A and a preview of 110C. </td> <td> <span>+</span> * 110B. Physical Chemistry: Properties of Atoms and Molecules - Take 124A first or concurrently, because group theory is not given enough lecture time in this class. Not the most interesting of the chemistry classes. More spectro<span>s</span>copy from 110A, a throwback to 124A and a preview of 110C. </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2007-05-13 23:27:15KateWaterman <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 64: </td> <td> Line 64: </td> </tr> <tr> <td> </td> <td> <span>+ * It's new this year. Check the [http://registrar.ucdavis.edu/UCDWebCatalog/pdfsupp.html catalog supplement].</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2007-05-13 23:19:34KateWaterman(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 8: </td> <td> Line 8: </td> </tr> <tr> <td> <span>-</span> In addition, Environmental Chemistry<span>&nbsp;and</span> Pharmaceutical Chemistry BS degrees are available as of Fall 2006. </td> <td> <span>+</span> In addition, Environmental Chemistry<span>,</span> Pharmaceutical Chemistry<span>, and Chemical Physics</span> BS degrees are available as of Fall 2006. </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2007-05-12 19:51:30NumiaCairaguasCHE 100 still a course? <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 63: </td> <td> Line 63: </td> </tr> <tr> <td> </td> <td> <span>+ * This isn't in the general catalog. Has it been changed? I looked and looked, and the closest courses I found were [http://registrar.ucdavis.edu/UCDWebCatalog/programs/SSC/SSCcourses.html#0_pgfId-1066290 SSC 102: Soil and Water Chemistry] and [http://registrar.ucdavis.edu/UCDWebCatalog/programs/HYD/HYDcourses.html#0_pgfId-1053185 HYD 134: Aqueous Geochemistry]. -["Users/NumiaCairaguas" NC]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2007-05-12 16:53:35JasonAller(quick edit) <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 62: </td> <td> Line 62: </td> </tr> <tr> <td> <span>-</span> * 100 Water Chemistry - A class that runs yearly and is sort of a joint effort with the ["geology department<span>"</span>]. It applies the concepts learned in the general chemistry courses to the analysis of water. </td> <td> <span>+</span> * 100 Water Chemistry - A class that runs yearly and is sort of a joint effort with the ["<span>UC Davis Geology Department" </span>geology department]. It applies the concepts learned in the general chemistry courses to the analysis of water. </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2007-03-30 12:15:28DavidPooleupdate <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 8: </td> <td> Line 8: </td> </tr> <tr> <td> <span>-</span> In addition<span>&nbsp;to chemistry</span>, Environmental Chemistry and Pharmaceutical Chemistry BS degrees are available as of Fall 2006. </td> <td> <span>+</span> In addition, Environmental Chemistry and Pharmaceutical Chemistry BS degrees are available as of Fall 2006. </td> </tr> <tr> <td> Line 62: </td> <td> Line 62: </td> </tr> <tr> <td> <span>- * 100 Water Chemistry - New class, studies water, not much information yet, this is intended mainly for Environmental Chemistry Majors.</span> </td> <td> <span>+ * 100 Water Chemistry - A class that runs yearly and is sort of a joint effort with the ["geology department"]. It applies the concepts learned in the general chemistry courses to the analysis of water.</span> </td> </tr> <tr> <td> Line 99: </td> <td> Line 99: </td> </tr> <tr> <td> <span>- * 128B. Organic Chemistry - Organic chemistry is evil. Run away. As fast as you can.</span> </td> <td> <span>+ * 128B. Organic Chemistry - Organic chemistry is evil. Run away. As fast as you can. If you are still stuck as a chemistry major, or somehow otherwise forced to continue in this series, this class will be the most difficult of the three. It picks up where 128A left off, and introduces many functional groups, reactions, synthesis, and introduces spectroscopy. The topic include haloalkanes, alkenes, alcohols, aldehydes, ketones, carboxilic acids, ending with adols and esters. The course isn't terrible well suited to the quarter system, however it is possible to survive. This class should be taken in your sophomore year as a chemistry major or chemical engineer.</span> </td> </tr> <tr> <td> Line 105: </td> <td> Line 105: </td> </tr> <tr> <td> <span>-</span> * 129B. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry. </td> <td> <span>+</span> * 129B. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry.<span>&nbsp;This class makes use of all laboratory practices learned in the previous, and focuses mainly on the synthesis of organic products. There are several reactions which will take quite some time in reflux, so bring a book to read or study while you wait.</span> </td> </tr> <tr> <td> Line 109: </td> <td> Line 109: </td> </tr> <tr> <td> <span>-</span> * 130 Pharmaceutical Chemistry - A new class, no description available yet, part of the new Pharmaceutical Chem major. </td> <td> <span>+</span> * 130<span>A</span> Pharmaceutical Chemistry - A new class, no description available yet, part of the new Pharmaceutical Chem major.<span><br> + <br> + * 130B Pharmaceutical Chemistry - A new class, no description available yet, part of the new Pharmaceutical Chem major.</span> </td> </tr> <tr> <td> Line 135: </td> <td> Line 137: </td> </tr> <tr> <td> </td> <td> <span>+ * I completely agree with you, there are far too many rules, exceptions and exceptions to the rules. The actual concepts are quite interesting, but though we have a theory of how everything works, it would be difficult to sit down and prove how it will work. ~["DavePoole"] (surviving chem 128)</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2007-03-12 21:40:28TusharRawat118A comment <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 78: </td> <td> Line 78: </td> </tr> <tr> <td> </td> <td> <span>+ * This class will ease one into Organic Chemistry. A large part of 118A is review from General Chemistry. It begins to get tough when you hit SN1, SN2, E1, and E2 reactions, and alcohol and ether syntheses. If you can, take this class with Dr. Schore. --["TusharRawat"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2007-03-12 21:37:05TusharRawatdamn I couldn't stay away from the wiki for long... <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 133: </td> <td> Line 133: </td> </tr> <tr> <td> </td> <td> <span>+ * Organic Chemistry, at least the 118 series, consists of learning an enormous number or rules concerned with an even more enormous number of synthesis reactions. For people who like doing actual reactions with calculations, this course is hell. Rules, rules, and more rules. It is entirely possible for one who hates Chemistry to get a solid A in an O-Chem class, simply by memorizing said rules. That, and the fact that the vast majority of people don't study everyday, is the reason organic chemistry is hated. Oh, did I mention that it ''is'' a bit hard? --["TusharRawat"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-12-14 17:29:41MaxMikalonisadded in my experiences w/ che 2h series <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 35: </td> <td> Line 35: </td> </tr> <tr> <td> <span>-</span> * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definitely take it. The smaller class is worth it. However, it's tough. If you go in expecting an eas<span>t</span> A - or even an easy C - prepare to be disappointed. The labs are much cooler than in 2A. For example, when the class covers gas laws, you get to use liquid nitrogen to verify Gay-Lussac's law. When Prof. True teaches this class, the curve is rather generous, being centered somewhere between a B+ and an A-. </td> <td> <span>+</span> * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definitely take it. The smaller class is worth it. However, it's tough. If you go in expecting an eas<span>y</span> A - or even an easy C - prepare to be disappointed. The labs are much cooler than in 2A. For example, when the class covers gas laws, you get to use liquid nitrogen to verify Gay-Lussac's law. When Prof. True teaches this class, the curve is rather generous, being centered somewhere between a B+ and an A-.<span><br> + * For Trues Fall 2005 class, an 89% total put me in the A+ Range. Of course, it was the last A+ or 89% total I ever received. --["MaxMikalonis"]</span> </td> </tr> <tr> <td> Line 42: </td> <td> Line 43: </td> </tr> <tr> <td> <span>-</span> * 2BH. Honors General Chemistry - A much smaller class - 50 students. If you qualify based on the assessment tests or your Chem 2A grade, definitely take it. The smaller class is worth it. However, it's tough. If you go in expecting an eas<span>t</span> A - or even an easy C - prepare to be disappointed. </td> <td> <span>+</span> * 2BH. Honors General Chemistry - A much smaller class - 50 students. If you qualify based on the assessment tests or your Chem 2A grade, definitely take it. The smaller class is worth it. However, it's tough. If you go in expecting an eas<span>y</span> A - or even an easy C - prepare to be disappointed. </td> </tr> <tr> <td> Line 51: </td> <td> Line 52: </td> </tr> <tr> <td> </td> <td> <span>+ * Chem 2CH can and will run over you if you aren't careful. The two 3hr labs make things much, much more difficult, and the times can limit your options if you, say, want to take Bis 1a the same Quarter (PLEASE DONT!!! TAKE 1B INSTEAD). I mean, it was nice distilling the ethanol from cheap american beer, but it took such a long time. The vast majority of the labs, for all 2h's, are do the 2 series lab, and then take it to that next step. The best thing about 2CH? The other students: No one goes through a full year of Honors Chem and hates it by the end, and the struggle of staying up all night doing your labs is a combination of survival tactics and a bonding experience. After spending up to 9 hrs per week with a group of people, you get to know them. --["MaxMikalonis"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-12-14 13:51:30JabberWokkyAwwww... I wanted an "east A". ∢ <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 48: </td> <td> Line 48: </td> </tr> <tr> <td> <span>-</span> * 2CH. Honors General Chemistry - A much smaller class - 25 students. If you qualify based on the assessment tests or your Chem2A or Chem 2B grade, definitely take it. The smaller class is worth it. There are also two three hour labs each week instead of one. REALLY fun experiments that actually mean something. However, this is a very tough class - it's a third semester honors class. It's counterpart - Chem 2C is the most difficult and least taken part of the series. If you go in expecting an eas<span>t</span> A - or even an easy C - prepare to be disappointed. </td> <td> <span>+</span> * 2CH. Honors General Chemistry - A much smaller class - 25 students. If you qualify based on the assessment tests or your Chem2A or Chem 2B grade, definitely take it. The smaller class is worth it. There are also two three hour labs each week instead of one. REALLY fun experiments that actually mean something. However, this is a very tough class - it's a third semester honors class. It's counterpart - Chem 2C is the most difficult and least taken part of the series. If you go in expecting an eas<span>y</span> A - or even an easy C - prepare to be disappointed. </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-12-14 13:43:38WilliamLewis+ 2ah info <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 35: </td> <td> Line 35: </td> </tr> <tr> <td> <span>-</span> * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definitely take it. The smaller class is worth it. However, it's tough. If you go in expecting an east A - or even an easy C - prepare to be disappointed. </td> <td> <span>+</span> * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definitely take it. The smaller class is worth it. However, it's tough. If you go in expecting an east A - or even an easy C - prepare to be disappointed.<span>&nbsp;The labs are much cooler than in 2A. For example, when the class covers gas laws, you get to use liquid nitrogen to verify Gay-Lussac's law. When Prof. True teaches this class, the curve is rather generous, being centered somewhere between a B+ and an A-.</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-12-13 15:07:49DavidPooleAdded comment regarding 124A <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 84: </td> <td> Line 84: </td> </tr> <tr> <td> </td> <td> <span>+ * Inorganic chemistry is evil, the work of the devil I say, take this after o-chem, and be warned. ~["DavePoole"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-12-05 12:38:14DavidPoole <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 8: </td> <td> Line 8: </td> </tr> <tr> <td> </td> <td> <span>+ In addition to chemistry, Environmental Chemistry and Pharmaceutical Chemistry BS degrees are available as of Fall 2006.</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-11-27 13:26:21DavidPooleAdded o-chem information, new classes <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 51: </td> <td> Line 51: </td> </tr> <tr> <td> <span>-</span> * 8A. Organic Chemistry - <span>b</span>asic organic chemistry part I, less intensive than the 118 series (see below). not for chem majors. </td> <td> <span>+</span> * 8A. Organic Chemistry - <span>B</span>asic organic chemistry part I,<span>&nbsp;even</span> less intensive than the 118 series (see below). not for chem majors. </td> </tr> <tr> <td> Line 53: </td> <td> Line 53: </td> </tr> <tr> <td> <span>-</span> * 8B. Organic Chemistry - <span>b</span>asic organic chemistry part II. </td> <td> <span>+</span> * 8B. Organic Chemistry - <span>B</span>asic organic chemistry part II. </td> </tr> <tr> <td> Line 58: </td> <td> Line 58: </td> </tr> <tr> <td> </td> <td> <span>+ <br> + * 100 Water Chemistry - New class, studies water, not much information yet, this is intended mainly for Environmental Chemistry Majors.</span> </td> </tr> <tr> <td> Line 90: </td> <td> Line 92: </td> </tr> <tr> <td> <span>- * 128A. Organic Chemistry - Organic chemistry is evil. Run away.<br> - * "As a side note to anyone who is a chemistry major, is required to take organic chemistry, or just likes organic chemistry, you should have a priority to get a seat in 129A as there are severely limited seats." -- ["David Poole"]</span> </td> <td> <span>+ * 128A. Organic Chemistry - Organic chemistry is evil. Run away. However if you are a chem major, or otherwise forced into taking this class, it is not so bad. This class will cover the first few chapters of the text and go into the basic chemistry and nomenclature of simpler organic compounds (Alkanes, Alkenes, and Alkynes), and have a healthy dose of review from previous chemistry classes. This class should be taken Sophomore year for all chemistry, and chemical engineering majors (or anyone who is equally compelled).</span> </td> </tr> <tr> <td> Line 97: </td> <td> Line 98: </td> </tr> <tr> <td> <span>- * 129A. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now.<br> - * "Arrive on time, or early, else you stand a good chance to lose your seat in this class." -- David Poole</span> </td> <td> <span>+ * 129A. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. This class covers the basics of laboratory practices, starting with distillation. It is a fast paced class so it is always good to arrive on time and be in control, do not arrive late for the first day of lab as there are less seats than in 128A, also bring goggles so you can start work quickly. Good luck.</span> </td> </tr> <tr> <td> Line 103: </td> <td> Line 103: </td> </tr> <tr> <td> </td> <td> <span>+ <br> + * 130 Pharmaceutical Chemistry - A new class, no description available yet, part of the new Pharmaceutical Chem major.</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-11-01 22:16:42JasonAller <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 16: </td> <td> Line 16: </td> </tr> <tr> <td> </td> <td> <span>+ <br> + '''Clubs'''<br> + <br> + ["Chemistry Club"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-10-30 14:59:53NathanSchleyAdded some class descriptions <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 55: </td> <td> Line 55: </td> </tr> <tr> <td> <span>-</span> * 105. Analytical and Physical Chemical Methods - Lots of the same types of calculations as in Chem 2B. Very little new material, just a lot of more in depth labs and write ups. Very long theory sections. </td> <td> <span>+</span> * 105. Analytical and Physical Chemical Methods - Lots of the same types of calculations as in Chem 2B. Very little new material, just a lot of more in depth labs and write ups. Very long theory sections.<span>&nbsp;&nbsp;You will spend a great deal of time writing up lab reports as well.</span> </td> </tr> <tr> <td> Line 76: </td> <td> Line 76: </td> </tr> <tr> <td> <span>-</span> * 124A. Inorganic Chemistry: Fundamentals - This is one of those classes that focuses a LOT on a very few basic ideas - if you don't understand symmetry and point group assignment, you will have a very difficult time drawing molecular orbital diagrams (the final and hardest topic of the class). </td> <td> <span>+</span> * 124A. Inorganic Chemistry: Fundamentals - This is one of those classes that focuses a LOT on a very few basic ideas - if you don't understand symmetry and point group assignment, you will have a very difficult time drawing molecular orbital diagrams (the final and hardest topic of the class).<span>&nbsp;&nbsp;Do yourself a favor and take this class before 110B.</span> </td> </tr> <tr> <td> Line 102: </td> <td> Line 102: </td> </tr> <tr> <td> <span>-</span> * 150. Chemistry of Natural Products - VERY cool class. Natural products can do almost anything. </td> <td> <span>+</span> * 150. Chemistry of Natural Products - VERY cool class. Natural products can do almost anything.<span>&nbsp;&nbsp;If however, you don't get aroused by stereochemistry, you might consider skipping it.</span> </td> </tr> <tr> <td> Line 105: </td> <td> Line 105: </td> </tr> <tr> <td> <span>- - Read the above over again 2 times. It is the best advice I have seen on the wiki. - ["DanMasiel"]</span> </td> <td> <span>+ - Read the above over again 2 times. It is the best advice I have seen on the wiki. - ["DanMasiel"] -Don't be scared to show up at a professor's office hour and ask them about working in their lab. Most professors love having free undergrad labor, and I've heard a rumor that if a professor has enough undergrads doing 199/194/99 units they can get out of teaching a class. You will gain experience with things that most undergrads never even touch. DO UNDERGRADUATE RESEARCH! -- ["NathanSchley"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-10-05 13:37:58DavidPoole <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 121: </td> <td> Line 121: </td> </tr> <tr> <td> </td> <td> <span>+ -----<br> + I do not see why people have such a hard time with organic chemistry, hence I will be starting to post a bit more information on it. On a side note, unionize is not a word, deionize is what you are looking for. --["DavidPoole"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-10-05 13:33:18DavidPooleAdvice for chem students, I like o-chem! <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 87: </td> <td> Line 87: </td> </tr> <tr> <td> </td> <td> <span>+ * "As a side note to anyone who is a chemistry major, is required to take organic chemistry, or just likes organic chemistry, you should have a priority to get a seat in 129A as there are severely limited seats." -- ["David Poole"]</span> </td> </tr> <tr> <td> Line 93: </td> <td> Line 94: </td> </tr> <tr> <td> </td> <td> <span>+ * "Arrive on time, or early, else you stand a good chance to lose your seat in this class." -- David Poole</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-09-26 19:20:43KateWatermannumerical order <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 74: </td> <td> Line 74: </td> </tr> <tr> <td> </td> <td> <span>+ * 121. Introduction to Molecular Structure and Spectra - Good class. Lots of hard theory and very little reading of actual spectra.<br> + </span> </td> </tr> <tr> <td> Line 98: </td> <td> Line 100: </td> </tr> <tr> <td> <span>- * 121. Introduction to Molecular Structure and Spectra - Good class. Lots of hard theory and very little reading of actual spectra.<br> - </span> </td> <td> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-09-26 15:18:47SarahHillardToning down gondola comment and commenting on 2*H series. <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 45: </td> <td> Line 45: </td> </tr> <tr> <td> </td> <td> <span>+ *Chem 2CH is TOUGH. But, remember, "F" is a relative term. Many profs aim for a 60 average on the test, which is technically a "D-". Remember the curve - it is your friend. --["SarahHillard"]</span> </td> </tr> <tr> <td> Line 62: </td> <td> Line 63: </td> </tr> <tr> <td> <span>-</span> *''A Note on P-Chem'' -Physical Chemistry IS difficult. But, I found Organic Chemistry to be MUCH MUCH worse, however. If your math skills are strong, you should be fine. However, if you can get away with taking the Physical Chemistry for life sciences majors (Chem 107/108, I believe) go for that. Also, avoid Ng unless you are madly in love with PowerPoint - he apparently is<span>&nbsp;and has been rumored to have had a torrid love affair and eloped to Venise with it where they have been spotted on a gondola being serenaded by a famous opera singer [name left out to avoid embarrassment]</span>. - ["SarahHillard"] </td> <td> <span>+</span> *''A Note on P-Chem'' -Physical Chemistry IS difficult. But, I found Organic Chemistry to be MUCH MUCH worse, however. If your math skills are strong, you should be fine. However, if you can get away with taking the Physical Chemistry for life sciences majors (Chem 107/108, I believe) go for that. Also, avoid Ng unless you are madly in love with PowerPoint - he apparently is. <span>-</span>- ["SarahHillard"] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-09-26 11:42:13BrentLaabscompletely random comment <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 117: </td> <td> Line 117: </td> </tr> <tr> <td> </td> <td> <span>+ Just for note, you can tell a chemist apart from a normal person by the way the pronounce "unionized". --["BrentLaabs"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-09-26 11:32:15NumiaCairaguas <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 40: </td> <td> Line 40: </td> </tr> <tr> <td> <span>- * Electrochemistry, radioactivity, transition elements, an introduction to organic chemistry, bonding and a whole mish-mash of other stuff. The most interesting of the series because of the variety. More concepts and not as many mundane calculations as in A or B.</span> </td> <td> <span>+ * Electrochemistry, radioactivity, transition elements, an introduction to organic chemistry, bonding and a whole mish-mash of other stuff. The most interesting of the series because of the variety (and cool trivia). More concepts and not as many mundane calculations as in A or B.</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-09-26 08:12:35SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 62: </td> <td> Line 62: </td> </tr> <tr> <td> <span>-</span> *<span>&nbsp;</span>A <span>n</span>ote on P-Chem<span><br> - </span> -Physical Chemistry IS difficult. But, I found Organic Chemistry to be MUCH MUCH worse, however. If your math skills are strong, you should be fine. However, if you can get away with taking the Physical Chemistry for life sciences majors (Chem 107/108, I believe) go for that. Also, avoid Ng unless you are madly in love with PowerPoint - he apparently is and has been rumored to have had a torrid love afair and eloped to Venise with it where they have been spotted on a gondola being serenaded by a famous opera singer [name left out to avoid emb<span>e</span>rassment]. - ["SarahHillard"] </td> <td> <span>+ </span> *<span>''</span>A <span>N</span>ote on P-Chem<span>''</span> -Physical Chemistry IS difficult. But, I found Organic Chemistry to be MUCH MUCH worse, however. If your math skills are strong, you should be fine. However, if you can get away with taking the Physical Chemistry for life sciences majors (Chem 107/108, I believe) go for that. Also, avoid Ng unless you are madly in love with PowerPoint - he apparently is and has been rumored to have had a torrid love af<span>f</span>air and eloped to Venise with it where they have been spotted on a gondola being serenaded by a famous opera singer [name left out to avoid emb<span>ar</span>rassment]. - ["SarahHillard"] </td> </tr> <tr> <td> Line 82: </td> <td> Line 81: </td> </tr> <tr> <td> <span>-</span> * 125. Advanced Methods in Physical Chemistry (4) - More spectroscopy. VERY cool stuff. VERY long write ups - only 4 experiments in the quarter. </td> <td> <span>+ </span> * 125. Advanced Methods in Physical Chemistry (4) - More spectroscopy. VERY cool stuff. VERY long write ups - only 4 experiments in the quarter. </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-09-26 08:04:00SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 30: </td> <td> Line 30: </td> </tr> <tr> <td> <span>-</span> * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definitely take it. The smaller class is worth it.<br> <span>- </span> </td> <td> <span>+</span> * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definitely take it. The smaller class is worth it.<span>&nbsp;&nbsp;However, it's tough. If you go in expecting an east A - or even an easy C - prepare to be disappointed.</span><br> <span>+ </span> </td> </tr> <tr> <td> Line 37: </td> <td> Line 37: </td> </tr> <tr> <td> <span>-</span> * 2BH. Honors General Chemistry - A much smaller class - 50 students. If you qualify based on the assessment tests or your Chem 2A grade, definitely take it. The smaller class is worth it. </td> <td> <span>+</span> * 2BH. Honors General Chemistry - A much smaller class - 50 students. If you qualify based on the assessment tests or your Chem 2A grade, definitely take it. The smaller class is worth it.<span>&nbsp;&nbsp;However, it's tough. If you go in expecting an east A - or even an easy C - prepare to be disappointed.</span> </td> </tr> <tr> <td> Line 43: </td> <td> Line 43: </td> </tr> <tr> <td> <span>-</span> * 2CH. Honors General Chemistry - A much smaller class - 25 students. If you qualify based on the assessment tests or your Chem2A or Chem 2B grade, definitely take it. The smaller class is worth it. There are also two three hour labs each week instead of one. REALLY fun experiments that actually mean something. </td> <td> <span>+</span> * 2CH. Honors General Chemistry - A much smaller class - 25 students. If you qualify based on the assessment tests or your Chem2A or Chem 2B grade, definitely take it. The smaller class is worth it. There are also two three hour labs each week instead of one. REALLY fun experiments that actually mean something.<span>&nbsp;&nbsp;However, this is a very tough class - it's a third semester honors class. It's counterpart - Chem 2C is the most difficult and least taken part of the series. If you go in expecting an east A - or even an easy C - prepare to be disappointed.</span> </td> </tr> <tr> <td> Line 58: </td> <td> Line 58: </td> </tr> <tr> <td> <span>-</span> * 110B. Physical Chemistry: Properties of Atoms and Molecules - Take 124A first or concurrently, be<span>ac</span>use group theory is not given enough lecture time in this class. Not the most interesting of the chemistry classes. More spectrocopy from 110A, a throwback to 124A and a preview of 110C. </td> <td> <span>+</span> * 110B. Physical Chemistry: Properties of Atoms and Molecules - Take 124A first or concurrently, be<span>ca</span>use group theory is not given enough lecture time in this class. Not the most interesting of the chemistry classes. More spectrocopy from 110A, a throwback to 124A and a preview of 110C. </td> </tr> <tr> <td> Line 63: </td> <td> Line 63: </td> </tr> <tr> <td> <span>-</span> -Physical Chemistry IS difficult. But, I found Organic Chemistry to be MUCH MUCH worse, however. If your math skills are strong, you hould be fine. However, if you can get away with taking the Physical Chemistry for life sciences majors (Chem 107/108, I believe) go for that. Also, avoid Ng unless you are madly in love with PowerPoint - he apparently is. </td> <td> <span>+</span> -Physical Chemistry IS difficult. But, I found Organic Chemistry to be MUCH MUCH worse, however. If your math skills are strong, you <span>s</span>hould be fine. However, if you can get away with taking the Physical Chemistry for life sciences majors (Chem 107/108, I believe) go for that. Also, avoid Ng unless you are madly in love with PowerPoint - he apparently is<span>&nbsp;and has been rumored to have had a torrid love afair and eloped to Venise with it where they have been spotted on a gondola being serenaded by a famous opera singer [name left out to avoid emberassment]</span>.<span>&nbsp;- ["SarahHillard"]</span> </td> </tr> <tr> <td> Line 65: </td> <td> Line 65: </td> </tr> <tr> <td> <span>-</span> * 115. Instrumental Analysis - More 105. Very little new material. Long write ups. Neat experiments (roughly 7).<span>&nbsp;</span> </td> <td> <span>+</span> * 115. Instrumental Analysis - More 105. Very little new material. Long write ups. Neat experiments (roughly 7). </td> </tr> <tr> <td> Line 67: </td> <td> Line 67: </td> </tr> <tr> <td> <span>- </span> </td> <td> <span>+ </span> </td> </tr> <tr> <td> Line 92: </td> <td> Line 92: </td> </tr> <tr> <td> <span>-</span> * 129B. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry.<span>&nbsp;&nbsp;</span> </td> <td> <span>+</span> * 129B. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry. </td> </tr> <tr> <td> Line 107: </td> <td> Line 107: </td> </tr> <tr> <td> <span>-</span> <span>f</span>or more information, visit the [http://www.chem.ucdavis.edu Chemistry Department Home Page] </td> <td> <span>+</span> <span>F</span>or more information, visit the [http://www.chem.ucdavis.edu Chemistry Department Home Page] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2006-05-02 19:39:49TusharRawat <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 44: </td> <td> Line 44: </td> </tr> <tr> <td> </td> <td> <span>+ * This class is worth it in the sense that you already have a strong support group formed if you run into trouble, which with two labs per week and an average professor and one (of two) crazy TA you'll definitely have plenty of. The professor for this course is much better than any chemistry 2C professor you could ever wish for. It is nevertheless a tough class. The average for the first test the past two years has been an F. (Exact numbers witheld to avoid embarressment) --["TusharRawat"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-12-30 18:51:22LaineWalkerAvina <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 3: </td> <td> Line 3: </td> </tr> <tr> <td> <span>- The Chemistry Department is located in the creatively named ["Chemistry Building"].</span> </td> <td> <span>+ The Chemistry Department is located in the creatively named ["Chemistry Building"] and ["Chemistry Annex"]. Some of the labs for certain Chem classes, and certain offices are also located in the ["Sciences Laboratory Building"] on the first and second floors.</span> </td> </tr> <tr> <td> Line 10: </td> <td> Line 10: </td> </tr> <tr> <td> </td> <td> <span>+ <br> + [http://www.chem.ucdavis.edu/cfmx/facultygrp.cfm List of Current Research Groups]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-12-22 07:14:17SarahHillardMore P-Chem info <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 59: </td> <td> Line 59: </td> </tr> <tr> <td> </td> <td> <span>+ * A note on P-Chem<br> + -Physical Chemistry IS difficult. But, I found Organic Chemistry to be MUCH MUCH worse, however. If your math skills are strong, you hould be fine. However, if you can get away with taking the Physical Chemistry for life sciences majors (Chem 107/108, I believe) go for that. Also, avoid Ng unless you are madly in love with PowerPoint - he apparently is.<br> + </span> </td> </tr> <tr> <td> Line 111: </td> <td> Line 114: </td> </tr> <tr> <td> </td> <td> <span>+ -----</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-09-04 19:22:56JineshGheeya <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 109: </td> <td> Line 109: </td> </tr> <tr> <td> </td> <td> <span>+ -----<br> + Would anyone provide me more info on Physical Chemistry classes? I have finished General and Organic Chemistry, and I am gonna take physical chemistry in the fall. I have heard too many bad things about physical chemistry. I will appreciate any help. Thanks. - ["JineshGheeya"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-06-08 21:28:44SarahHillardformatting. :-p <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 12: </td> <td> Line 12: </td> </tr> <tr> <td> </td> <td> <span>+ </span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-06-08 21:27:52SarahHillardUpdated the entries for classes I have now completed and added the Britt Group <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 12: </td> <td> Line 12: </td> </tr> <tr> <td> </td> <td> <span>+ [http://britts-group.no-ip.org/ The Britt Group]</span> </td> </tr> <tr> <td> Line 41: </td> <td> Line 42: </td> </tr> <tr> <td> <span>-</span> * 8A. basic organic chemistry part I, less intensive than the 118 series (see below). not for chem majors. </td> <td> <span>+</span> * 8A.<span>&nbsp;Organic Chemistry -</span> basic organic chemistry part I, less intensive than the 118 series (see below). not for chem majors. </td> </tr> <tr> <td> Line 43: </td> <td> Line 44: </td> </tr> <tr> <td> <span>-</span> * 8B. basic organic chemistry part II. </td> <td> <span>+</span> * 8B.<span>&nbsp;Organic Chemistry -</span> basic organic chemistry part II. </td> </tr> <tr> <td> Line 60: </td> <td> Line 61: </td> </tr> <tr> <td> <span>-</span> * 118A. First in the series of organic chemistry for health sciences majors. Covers SN1, SN2, E1, E2, stereochemistry, spectroscopy, etc. not for chem majors. </td> <td> <span>+</span> * 118A.<span>&nbsp;Organic Chemistry -</span> First in the series of organic chemistry for health sciences majors. Covers SN1, SN2, E1, E2, stereochemistry, spectroscopy, etc. not for chem majors. </td> </tr> <tr> <td> Line 62: </td> <td> Line 63: </td> </tr> <tr> <td> <span>-</span> * 118B. Covers alkane, alkyne, aldehyde, ketone, aromatic and diels alder reactions. </td> <td> <span>+</span> * 118B.<span>&nbsp;Organic Chemistry -</span> Covers alkane, alkyne, aldehyde, ketone, aromatic and diels alder reactions. </td> </tr> <tr> <td> Line 64: </td> <td> Line 65: </td> </tr> <tr> <td> <span>-</span> * 118C. Carboxylic acids and their derivatives, alkyl and acyl amines, ß-dicarbonyl compounds. Huzzah, you're done. </td> <td> <span>+</span> * 118C.<span>&nbsp;Organic Chemistry -</span> Carboxylic acids and their derivatives, alkyl and acyl amines, ß-dicarbonyl compounds. Huzzah, you're done. </td> </tr> <tr> <td> Line 68: </td> <td> Line 69: </td> </tr> <tr> <td> <span>- * 124B. Inorganic Chemistry: Main Group Elements - So far so good - going into the details and nuances of the main group elements (s and p fillers).</span> </td> <td> <span>+ * 124B. Inorganic Chemistry: Main Group Elements - Lots of memorizing periodic trends and basic facts about the behavior of main group elements. Zero theory. No math above addition and subtraction.</span> </td> </tr> <tr> <td> Line 70: </td> <td> Line 71: </td> </tr> <tr> <td> <span>- * 124C. Inorganic Chemistry: d and f Block Elements - Spring. </span> </td> <td> <span>+ * 124C. Inorganic Chemistry: d and f Block Elements - Quite a bit of theory. Here we see the return of microstates and reaction mechanisms. Still not a whole lot of math beyond addition.</span> </td> </tr> <tr> <td> Line 72: </td> <td> Line 73: </td> </tr> <tr> <td> <span>- * 124L. Laboratory Methods in Inorganic Chemistry - Spring </span> </td> <td> <span>+ * 124L. Laboratory Methods in Inorganic Chemistry - 128A minus the carbon. The lab reports don't have a theory section a la 105, 115 &amp; 125, but the calculations are more complex than the O Chem counterpart.</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-05-08 18:41:01JasonAllerseparating department and building <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 3: </td> <td> Line 3: </td> </tr> <tr> <td> <span>-</span> The Chemistry Department is located in the creatively named Chemistry Building. </td> <td> <span>+</span> The Chemistry Department is located in the creatively named <span>["</span>Chemistry Building<span>"]</span>. </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-05-04 11:10:33ArlenAbrahamadded 118A,B,C 8A,B <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 41: </td> <td> Line 41: </td> </tr> <tr> <td> </td> <td> <span>+ * 8A. basic organic chemistry part I, less intensive than the 118 series (see below). not for chem majors.<br> + <br> + * 8B. basic organic chemistry part II.<br> + </span> </td> </tr> <tr> <td> Line 47: </td> <td> Line 51: </td> </tr> <tr> <td> <span>- * 115. Instrumental Analysis - More 105. Very little new material. Long write ups. Neat experiments (roughly 7). <br> - - This is easily the most time consuming class I have taken at Davis. The lab manual is a poorly written joke and the teachers tend to have unreasonably high expectations. Many of the analytical instruments are prone to failure at random times so expect much frustration. - ["DanMasiel"]<br> - <br> - * 125. Advanced Methods in Physical Chemistry (4) - More spectroscopy. VERY cool stuff. VERY long write ups - only 4 experiments in the quarter.<br> - </span> </td> <td> </td> </tr> <tr> <td> Line 57: </td> <td> Line 56: </td> </tr> <tr> <td> </td> <td> <span>+ <br> + * 115. Instrumental Analysis - More 105. Very little new material. Long write ups. Neat experiments (roughly 7). <br> + - This is easily the most time consuming class I have taken at Davis. The lab manual is a poorly written joke and the teachers tend to have unreasonably high expectations. Many of the analytical instruments are prone to failure at random times so expect much frustration. - ["DanMasiel"]<br> + <br> + * 118A. First in the series of organic chemistry for health sciences majors. Covers SN1, SN2, E1, E2, stereochemistry, spectroscopy, etc. not for chem majors.<br> + <br> + * 118B. Covers alkane, alkyne, aldehyde, ketone, aromatic and diels alder reactions.<br> + <br> + * 118C. Carboxylic acids and their derivatives, alkyl and acyl amines, ß-dicarbonyl compounds. Huzzah, you're done.</span> </td> </tr> <tr> <td> Line 65: </td> <td> Line 73: </td> </tr> <tr> <td> </td> <td> <span>+ <br> + * 125. Advanced Methods in Physical Chemistry (4) - More spectroscopy. VERY cool stuff. VERY long write ups - only 4 experiments in the quarter.</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-04-23 00:15:13PatrickSing <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 21: </td> <td> Line 21: </td> </tr> <tr> <td> <span>-</span> - 2A was a piece of cake. Don't worry about it. -["PatrickSing"] </td> <td> <span>+ <br> +</span> - 2A was a piece of cake. Don't worry about it<span>, unless you totally were asleep during high school chem</span>. -["PatrickSing"] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-04-23 00:14:39PatrickSing <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 21: </td> <td> Line 21: </td> </tr> <tr> <td> </td> <td> <span>+ - 2A was a piece of cake. Don't worry about it. -["PatrickSing"]<br> + </span> </td> </tr> <tr> <td> Line 28: </td> <td> Line 30: </td> </tr> <tr> <td> <span>- - 2A was a piece of cake. Don't worry about it. -["PatrickSing"]<br> - <br> -</span> - This was my favorite of the General Chemistry series, but it was definitely the hardest. Dr. Augustine teaches it during Winter and although he's a tough teacher, he makes lectures entertaining. For example, when lecturing on entropy, he demonstrated it with a ["forty"] of King Cobra. -["AbbyLawson"] </td> <td> <span>+ </span> - This was my favorite of the General Chemistry series, but it was definitely the hardest. Dr. Augustine teaches it during Winter and although he's a tough teacher, he makes lectures entertaining. For example, when lecturing on entropy, he demonstrated it with a ["forty"] of King Cobra. -["AbbyLawson"] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-04-23 00:14:06PatrickSing <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 28: </td> <td> Line 28: </td> </tr> <tr> <td> <span>-</span> - 2A was a piece of cake. Don't worry about it. -["PatrickSing"]<span>&nbsp;&nbsp;&nbsp;</span><br> <span>-</span> - This was my favorite of the General Chemistry series, but it was definitely the hardest. Dr. Augustine teaches it during Winter and although he's a tough teacher, he makes lectures entertaining. For example, when lecturing on entropy, he demonstrated it with a ["forty"] of King Cobra. -["AbbyLawson"] </td> <td> <span>+ </span> - 2A was a piece of cake. Don't worry about it. -["PatrickSing"]<br> <span>+ <br> + </span> - This was my favorite of the General Chemistry series, but it was definitely the hardest. Dr. Augustine teaches it during Winter and although he's a tough teacher, he makes lectures entertaining. For example, when lecturing on entropy, he demonstrated it with a ["forty"] of King Cobra. -["AbbyLawson"] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-04-23 00:13:43PatrickSing <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 20: </td> <td> Line 20: </td> </tr> <tr> <td> <span>- * Basic chemistry. Almost all of basic high school chemistry is reviewed with only a few new insights. Bear in mind - that's still a whole year smushed into ten weeks. Supposedly, the class is harder during Fall Quarter because that's when most of the pre-meds enroll, so if you need the class but aren't a pre-med, sometimes waiting until Winter is the best option.</span> </td> <td> <span>+ * Basic chemistry (PV=nRT, electron configuration, limiting reactant problems, etc). Almost all of basic high school chemistry is reviewed with only a few new insights. Bear in mind - that's still a whole year smushed into ten weeks. Supposedly, the class is harder during Fall Quarter because that's when most of the pre-meds enroll, so if you need the class but aren't a pre-med, sometimes waiting until Winter is the best option.</span> </td> </tr> <tr> <td> Line 28: </td> <td> Line 28: </td> </tr> <tr> <td> <span>- - This was my favorite of the General Chemistry series, but it was definitely the hardest. Dr. Augustine teaches it during Winter and although he's a tough teacher, he makes lectures entertaining. For example, when lecturing on entropy, he demonstrated it with a ["forty"] of King Cobra. -["AbbyLawson"]</span> </td> <td> <span>+ - 2A was a piece of cake. Don't worry about it. -["PatrickSing"] <br> + - This was my favorite of the General Chemistry series, but it was definitely the hardest. Dr. Augustine teaches it during Winter and although he's a tough teacher, he makes lectures entertaining. For example, when lecturing on entropy, he demonstrated it with a ["forty"] of King Cobra. -["AbbyLawson"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-03-22 10:33:00MikeIvanovRevert to version dated 2005-02-09 15:23:16. <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 3: </td> <td> Line 3: </td> </tr> <tr> <td> <span>-</span> The<span>[[nbsp]]</span>Chemistry<span>[[nbsp]]</span>Department<span>[[nbsp]]</span>is<span>[[nbsp]]</span>located<span>[[nbsp]]</span>in<span>[[nbsp]]</span>the<span>[[nbsp]]</span>creatively<span>[[nbsp]]</span>named<span>[[nbsp]]</span>Chemistry<span>[[nbsp]]</span>Building. </td> <td> <span>+</span> The<span>&nbsp;</span>Chemistry<span>&nbsp;</span>Department<span>&nbsp;</span>is<span>&nbsp;</span>located<span>&nbsp;</span>in<span>&nbsp;</span>the<span>&nbsp;</span>creatively<span>&nbsp;</span>named<span>&nbsp;</span>Chemistry<span>&nbsp;</span>Building. </td> </tr> <tr> <td> Line 7: </td> <td> Line 7: </td> </tr> <tr> <td> <span>-</span> The<span>[[nbsp]]</span>Department<span>[[nbsp]]</span>offers<span>[[nbsp]]</span>BA<span>[[nbsp]]</span>and<span>[[nbsp]]</span>BS<span>[[nbsp]]</span>as<span>[[nbsp]]</span>well<span>[[nbsp]]</span>as<span>[[nbsp]]</span>Masters<span>[[nbsp]]</span>and<span>[[nbsp]]</span>PhD.<span>[[nbsp]]</span>degrees. </td> <td> <span>+</span> The<span>&nbsp;</span>Department<span>&nbsp;</span>offers<span>&nbsp;</span>BA<span>&nbsp;</span>and<span>&nbsp;</span>BS<span>&nbsp;</span>as<span>&nbsp;</span>well<span>&nbsp;</span>as<span>&nbsp;</span>Masters<span>&nbsp;</span>and<span>&nbsp;</span>PhD.<span>&nbsp;</span>degrees. </td> </tr> <tr> <td> Line 9: </td> <td> Line 9: </td> </tr> <tr> <td> <span>-</span> '''Research<span>[[nbsp]]</span>Groups''' </td> <td> <span>+</span> '''Research<span>&nbsp;</span>Groups''' </td> </tr> <tr> <td> Line 11: </td> <td> Line 11: </td> </tr> <tr> <td> <span>-</span> ["The Nanofast Group"<span>&nbsp;The_Nanofast_Group</span>] </td> <td> <span>+</span> ["The Nanofast Group"] </td> </tr> <tr> <td> Line 15: </td> <td> Line 15: </td> </tr> <tr> <td> <span>-</span> See<span>[[nbsp]]</span>also<span>[[nbsp]]</span>the<span>[[nbsp]]</span>["General Catalog" UC<span>_</span>Davis<span>_</span>General<span>_</span>Catalog] </td> <td> <span>+</span> See<span>&nbsp;</span>also<span>&nbsp;</span>the<span>&nbsp;</span>["General Catalog" UC<span>&nbsp;</span>Davis<span>&nbsp;</span>General<span>&nbsp;</span>Catalog] </td> </tr> <tr> <td> Line 17: </td> <td> Line 17: </td> </tr> <tr> <td> <span>-</span> ''Lower<span>[[nbsp]]</span>Division<span>[[nbsp]]</span>Courses'' </td> <td> <span>+</span> ''Lower<span>&nbsp;</span>Division<span>&nbsp;</span>Courses'' </td> </tr> <tr> <td> Line 19: </td> <td> Line 19: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]2A.[[nbsp]]General[[nbsp]]Chemistry<br> - [[nbsp]][[nbsp]]*[[nbsp]]Basic[[nbsp]]chemistry.[[nbsp]]Almost[[nbsp]]all[[nbsp]]of[[nbsp]]basic[[nbsp]]high[[nbsp]]school[[nbsp]]chemistry[[nbsp]]is[[nbsp]]reviewed[[nbsp]]with[[nbsp]]only[[nbsp]]a[[nbsp]]few[[nbsp]]new[[nbsp]]insights.[[nbsp]][[nbsp]]Bear[[nbsp]]in[[nbsp]]mind[[nbsp]]-[[nbsp]]that's[[nbsp]]still[[nbsp]]a[[nbsp]]whole[[nbsp]]year[[nbsp]]smushed[[nbsp]]into[[nbsp]]ten[[nbsp]]weeks.[[nbsp]]Supposedly,[[nbsp]]the[[nbsp]]class[[nbsp]]is[[nbsp]]harder[[nbsp]]during[[nbsp]]Fall[[nbsp]]Quarter[[nbsp]]because[[nbsp]]that's[[nbsp]]when[[nbsp]]most[[nbsp]]of[[nbsp]]the[[nbsp]]pre-meds[[nbsp]]enroll,[[nbsp]]so[[nbsp]]if[[nbsp]]you[[nbsp]]need[[nbsp]]the[[nbsp]]class[[nbsp]]but[[nbsp]]aren't[[nbsp]]a[[nbsp]]pre-med,[[nbsp]]sometimes[[nbsp]]waiting[[nbsp]]until[[nbsp]]Winter[[nbsp]]is[[nbsp]]the[[nbsp]]best[[nbsp]]option.<br> - [[nbsp]][[nbsp]]*[[nbsp]]If[[nbsp]]you[[nbsp]]liked[[nbsp]]this,[[nbsp]]you'll[[nbsp]]like[[nbsp]]Chem[[nbsp]]110A[[nbsp]]and[[nbsp]]random[[nbsp]]chunks[[nbsp]]of[[nbsp]]Chem[[nbsp]]124A.</span> </td> <td> <span>+ * 2A. General Chemistry<br> + * Basic chemistry. Almost all of basic high school chemistry is reviewed with only a few new insights. Bear in mind - that's still a whole year smushed into ten weeks. Supposedly, the class is harder during Fall Quarter because that's when most of the pre-meds enroll, so if you need the class but aren't a pre-med, sometimes waiting until Winter is the best option.<br> + * If you liked this, you'll like Chem 110A and random chunks of Chem 124A.</span> </td> </tr> <tr> <td> Line 23: </td> <td> Line 23: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]2AH[[nbsp]]Honors[[nbsp]]General[[nbsp]]Chemistry[[nbsp]]-[[nbsp]]A[[nbsp]]much[[nbsp]]smaller[[nbsp]]class[[nbsp]]-[[nbsp]]100[[nbsp]]students.[[nbsp]][[nbsp]]If[[nbsp]]you[[nbsp]]qualify[[nbsp]]based[[nbsp]]on[[nbsp]]the[[nbsp]]assessment[[nbsp]]tests,[[nbsp]]definitely[[nbsp]]take[[nbsp]]it.[[nbsp]][[nbsp]]The[[nbsp]]smaller[[nbsp]]class[[nbsp]]is[[nbsp]]worth[[nbsp]]it.<br> - [[nbsp]][[nbsp]]<br> - [[nbsp]]*[[nbsp]]2B.[[nbsp]]General[[nbsp]]Chemistry<br> - [[nbsp]][[nbsp]]*[[nbsp]]pH[[nbsp]](aka[[nbsp]]solution[[nbsp]]equilibria)[[nbsp]]and[[nbsp]]thermodynamics.[[nbsp]][[nbsp]]The[[nbsp]]MOST[[nbsp]]boring[[nbsp]]of[[nbsp]]the[[nbsp]]series[[nbsp]]and[[nbsp]]possibly[[nbsp]]the[[nbsp]]most[[nbsp]]difficult.[[nbsp]]This[[nbsp]]part[[nbsp]]of[[nbsp]]the[[nbsp]]series[[nbsp]]has[[nbsp]]arguably[[nbsp]]the[[nbsp]]most[[nbsp]]painful[[nbsp]]labs,[[nbsp]]heavy[[nbsp]]emphasis[[nbsp]]on[[nbsp]]titration[[nbsp]]and[[nbsp]]making[[nbsp]]graphs.<br> - [[nbsp]][[nbsp]]*[[nbsp]]If[[nbsp]]you[[nbsp]]liked[[nbsp]]this,[[nbsp]]you'll[[nbsp]]like[[nbsp]]Chem[[nbsp]]105/115,[[nbsp]]Chem[[nbsp]]110C[[nbsp]]and[[nbsp]]parts[[nbsp]]of[[nbsp]]Chem[[nbsp]]110B<br> - [[nbsp]][[nbsp]][[nbsp]][[nbsp]]-[[nbsp]]This[[nbsp]]was[[nbsp]]my[[nbsp]]favorite[[nbsp]]of[[nbsp]]the[[nbsp]]General[[nbsp]]Chemistry[[nbsp]]series,[[nbsp]]but[[nbsp]]it[[nbsp]]was[[nbsp]]definitely[[nbsp]]the[[nbsp]]hardest.[[nbsp]]Dr.[[nbsp]]Augustine[[nbsp]]teaches[[nbsp]]it[[nbsp]]during[[nbsp]]Winter[[nbsp]]and[[nbsp]]although[[nbsp]]he's[[nbsp]]a[[nbsp]]tough[[nbsp]]teacher,[[nbsp]]he[[nbsp]]makes[[nbsp]]lectures[[nbsp]]entertaining.[[nbsp]]For[[nbsp]]example,[[nbsp]]when[[nbsp]]lecturing[[nbsp]]on[[nbsp]]entropy,[[nbsp]]he[[nbsp]]demonstrated[[nbsp]]it[[nbsp]]with[[nbsp]]a[[nbsp]]["forty" forty][[nbsp]]of[[nbsp]]King[[nbsp]]Cobra.[[nbsp]]-["AbbyLawson" AbbyLawson]</span> </td> <td> <span>+ * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definitely take it. The smaller class is worth it.<br> + <br> + * 2B. General Chemistry<br> + * pH (aka solution equilibria) and thermodynamics. The MOST boring of the series and possibly the most difficult. This part of the series has arguably the most painful labs, heavy emphasis on titration and making graphs.<br> + * If you liked this, you'll like Chem 105/115, Chem 110C and parts of Chem 110B<br> + - This was my favorite of the General Chemistry series, but it was definitely the hardest. Dr. Augustine teaches it during Winter and although he's a tough teacher, he makes lectures entertaining. For example, when lecturing on entropy, he demonstrated it with a ["forty"] of King Cobra. -["AbbyLawson"]</span> </td> </tr> <tr> <td> Line 30: </td> <td> Line 30: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]2BH.[[nbsp]]Honors[[nbsp]]General[[nbsp]]Chemistry[[nbsp]]-[[nbsp]]A[[nbsp]]much[[nbsp]]smaller[[nbsp]]class[[nbsp]]-[[nbsp]]50[[nbsp]]students.[[nbsp]][[nbsp]]If[[nbsp]]you[[nbsp]]qualify[[nbsp]]based[[nbsp]]on[[nbsp]]the[[nbsp]]assessment[[nbsp]]tests[[nbsp]]or[[nbsp]]your[[nbsp]]Chem[[nbsp]]2A[[nbsp]]grade,[[nbsp]]definitely[[nbsp]]take[[nbsp]]it.[[nbsp]][[nbsp]]The[[nbsp]]smaller[[nbsp]]class[[nbsp]]is[[nbsp]]worth[[nbsp]]it.</span> </td> <td> <span>+ * 2BH. Honors General Chemistry - A much smaller class - 50 students. If you qualify based on the assessment tests or your Chem 2A grade, definitely take it. The smaller class is worth it.</span> </td> </tr> <tr> <td> Line 32: </td> <td> Line 32: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]2C.[[nbsp]]General[[nbsp]]Chemistry<br> - [[nbsp]][[nbsp]]*[[nbsp]]Electrochemistry,[[nbsp]]radioactivity,[[nbsp]]transition[[nbsp]]elements,[[nbsp]]an[[nbsp]]introduction[[nbsp]]to[[nbsp]]organic[[nbsp]]chemistry,[[nbsp]]bonding[[nbsp]]and[[nbsp]]a[[nbsp]]whole[[nbsp]]mish-mash[[nbsp]]of[[nbsp]]other[[nbsp]]stuff.[[nbsp]][[nbsp]]The[[nbsp]]most[[nbsp]]interesting[[nbsp]]of[[nbsp]]the[[nbsp]]series[[nbsp]]because[[nbsp]]of[[nbsp]]the[[nbsp]]variety.[[nbsp]][[nbsp]]More[[nbsp]]concepts[[nbsp]]and[[nbsp]]not[[nbsp]]as[[nbsp]]many[[nbsp]]mundane[[nbsp]]calculations[[nbsp]]as[[nbsp]]in[[nbsp]]A[[nbsp]]or[[nbsp]]B.<br> - [[nbsp]][[nbsp]]*[[nbsp]]If[[nbsp]]you[[nbsp]]liked[[nbsp]]this,[[nbsp]]you'll[[nbsp]]like[[nbsp]]124A/B,[[nbsp]]Chem[[nbsp]]105/115/125,[[nbsp]]and[[nbsp]]parts[[nbsp]]of[[nbsp]]Chem[[nbsp]]110B</span> </td> <td> <span>+ * 2C. General Chemistry<br> + * Electrochemistry, radioactivity, transition elements, an introduction to organic chemistry, bonding and a whole mish-mash of other stuff. The most interesting of the series because of the variety. More concepts and not as many mundane calculations as in A or B.<br> + * If you liked this, you'll like 124A/B, Chem 105/115/125, and parts of Chem 110B</span> </td> </tr> <tr> <td> Line 36: </td> <td> Line 36: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]2CH.[[nbsp]]Honors[[nbsp]]General[[nbsp]]Chemistry[[nbsp]]-[[nbsp]]A[[nbsp]]much[[nbsp]]smaller[[nbsp]]class[[nbsp]]-[[nbsp]]25[[nbsp]]students.[[nbsp]][[nbsp]]If[[nbsp]]you[[nbsp]]qualify[[nbsp]]based[[nbsp]]on[[nbsp]]the[[nbsp]]assessment[[nbsp]]tests[[nbsp]]or[[nbsp]]your[[nbsp]]Chem2A[[nbsp]]or[[nbsp]]Chem[[nbsp]]2B[[nbsp]]grade,[[nbsp]]definitely[[nbsp]]take[[nbsp]]it.[[nbsp]][[nbsp]]The[[nbsp]]smaller[[nbsp]]class[[nbsp]]is[[nbsp]]worth[[nbsp]]it.[[nbsp]][[nbsp]]There[[nbsp]]are[[nbsp]]also[[nbsp]]two[[nbsp]]three[[nbsp]]hour[[nbsp]]labs[[nbsp]]each[[nbsp]]week[[nbsp]]instead[[nbsp]]of[[nbsp]]one.[[nbsp]][[nbsp]]REALLY[[nbsp]]fun[[nbsp]]experiments[[nbsp]]that[[nbsp]]actually[[nbsp]]mean[[nbsp]]something.</span> </td> <td> <span>+ * 2CH. Honors General Chemistry - A much smaller class - 25 students. If you qualify based on the assessment tests or your Chem2A or Chem 2B grade, definitely take it. The smaller class is worth it. There are also two three hour labs each week instead of one. REALLY fun experiments that actually mean something.</span> </td> </tr> <tr> <td> Line 38: </td> <td> Line 38: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]99.[[nbsp]]Special[[nbsp]]Study[[nbsp]]for[[nbsp]]Undergraduates[[nbsp]]-[[nbsp]]DO[[nbsp]]UNDERGRADUATE[[nbsp]]RESEARCH![[nbsp]][[nbsp]]Now.[[nbsp]][[nbsp]]It[[nbsp]]is[[nbsp]]the[[nbsp]]only[[nbsp]]way[[nbsp]]to[[nbsp]]get[[nbsp]]into[[nbsp]]grad[[nbsp]]school.</span> </td> <td> <span>+ * 99. Special Study for Undergraduates - DO UNDERGRADUATE RESEARCH! Now. It is the only way to get into grad school.</span> </td> </tr> <tr> <td> Line 40: </td> <td> Line 40: </td> </tr> <tr> <td> <span>-</span> ''Upper<span>[[nbsp]]</span>Division<span>[[nbsp]]</span>Courses'' </td> <td> <span>+</span> ''Upper<span>&nbsp;</span>Division<span>&nbsp;</span>Courses'' </td> </tr> <tr> <td> Line 42: </td> <td> Line 42: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]105.[[nbsp]]Analytical[[nbsp]]and[[nbsp]]Physical[[nbsp]]Chemical[[nbsp]]Methods[[nbsp]]-[[nbsp]]Lots[[nbsp]]of[[nbsp]]the[[nbsp]]same[[nbsp]]types[[nbsp]]of[[nbsp]]calculations[[nbsp]]as[[nbsp]]in[[nbsp]]Chem[[nbsp]]2B.[[nbsp]][[nbsp]]Very[[nbsp]]little[[nbsp]]new[[nbsp]]material,[[nbsp]]just[[nbsp]]a[[nbsp]]lot[[nbsp]]of[[nbsp]]more[[nbsp]]in[[nbsp]]depth[[nbsp]]labs[[nbsp]]and[[nbsp]]write[[nbsp]]ups.[[nbsp]][[nbsp]]Very[[nbsp]]long[[nbsp]]theory[[nbsp]]sections.</span> </td> <td> <span>+ * 105. Analytical and Physical Chemical Methods - Lots of the same types of calculations as in Chem 2B. Very little new material, just a lot of more in depth labs and write ups. Very long theory sections.</span> </td> </tr> <tr> <td> Line 44: </td> <td> Line 44: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]115.[[nbsp]]Instrumental[[nbsp]]Analysis[[nbsp]]-[[nbsp]]More[[nbsp]]105.[[nbsp]][[nbsp]]Very[[nbsp]]little[[nbsp]]new[[nbsp]]material.[[nbsp]][[nbsp]]Long[[nbsp]]write[[nbsp]]ups.[[nbsp]][[nbsp]]Neat[[nbsp]]experiments[[nbsp]](roughly[[nbsp]]7).[[nbsp]]<br> - [[nbsp]][[nbsp]][[nbsp]][[nbsp]]-[[nbsp]]This[[nbsp]]is[[nbsp]]easily[[nbsp]]the[[nbsp]]most[[nbsp]]time[[nbsp]]consuming[[nbsp]]class[[nbsp]]I[[nbsp]]have[[nbsp]]taken[[nbsp]]at[[nbsp]]Davis.[[nbsp]]The[[nbsp]]lab[[nbsp]]manual[[nbsp]]is[[nbsp]]a[[nbsp]]poorly[[nbsp]]written[[nbsp]]joke[[nbsp]]and[[nbsp]]the[[nbsp]]teachers[[nbsp]]tend[[nbsp]]to[[nbsp]]have[[nbsp]]unreasonably[[nbsp]]high[[nbsp]]expectations.[[nbsp]]Many[[nbsp]]of[[nbsp]]the[[nbsp]]analytical[[nbsp]]instruments[[nbsp]]are[[nbsp]]prone[[nbsp]]to[[nbsp]]failure[[nbsp]]at[[nbsp]]random[[nbsp]]times[[nbsp]]so[[nbsp]]expect[[nbsp]]much[[nbsp]]frustration.[[nbsp]]-[[nbsp]]["DanMasiel" DanMasiel]<br> - [[nbsp]]<br> - [[nbsp]]*[[nbsp]]125.[[nbsp]]Advanced[[nbsp]]Methods[[nbsp]]in[[nbsp]]Physical[[nbsp]]Chemistry[[nbsp]](4)[[nbsp]]-[[nbsp]]More[[nbsp]]spectroscopy.[[nbsp]][[nbsp]]VERY[[nbsp]]cool[[nbsp]]stuff.[[nbsp]][[nbsp]]VERY[[nbsp]]long[[nbsp]]write[[nbsp]]ups[[nbsp]]-[[nbsp]]only[[nbsp]]4[[nbsp]]experiments[[nbsp]]in[[nbsp]]the[[nbsp]]quarter.</span> </td> <td> <span>+ * 115. Instrumental Analysis - More 105. Very little new material. Long write ups. Neat experiments (roughly 7). <br> + - This is easily the most time consuming class I have taken at Davis. The lab manual is a poorly written joke and the teachers tend to have unreasonably high expectations. Many of the analytical instruments are prone to failure at random times so expect much frustration. - ["DanMasiel"]<br> + <br> + * 125. Advanced Methods in Physical Chemistry (4) - More spectroscopy. VERY cool stuff. VERY long write ups - only 4 experiments in the quarter.</span> </td> </tr> <tr> <td> Line 49: </td> <td> Line 49: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]110A.[[nbsp]]Physical[[nbsp]]Chemistry:[[nbsp]]Introduction[[nbsp]]to[[nbsp]]Quantum[[nbsp]]Mechanics[[nbsp]]-[[nbsp]]Quantum[[nbsp]]Mechanics.[[nbsp]][[nbsp]]If[[nbsp]]you[[nbsp]]like[[nbsp]]math,[[nbsp]]have[[nbsp]]a[[nbsp]]good[[nbsp]]working[[nbsp]]knowledge[[nbsp]]of[[nbsp]]Math[[nbsp]]21A-C,[[nbsp]]and[[nbsp]]enjoy[[nbsp]]theoretical[[nbsp]]stuffs,[[nbsp]]it[[nbsp]]is[[nbsp]]a[[nbsp]]fantastic[[nbsp]]class.</span> </td> <td> <span>+ * 110A. Physical Chemistry: Introduction to Quantum Mechanics - Quantum Mechanics. If you like math, have a good working knowledge of Math 21A-C, and enjoy theoretical stuffs, it is a fantastic class.</span> </td> </tr> <tr> <td> Line 51: </td> <td> Line 51: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]110B.[[nbsp]]Physical[[nbsp]]Chemistry:[[nbsp]]Properties[[nbsp]]of[[nbsp]]Atoms[[nbsp]]and[[nbsp]]Molecules[[nbsp]]-[[nbsp]]Take[[nbsp]]124A[[nbsp]]first[[nbsp]]or[[nbsp]]concurrently,[[nbsp]]beacuse[[nbsp]]group[[nbsp]]theory[[nbsp]]is[[nbsp]]not[[nbsp]]given[[nbsp]]enough[[nbsp]]lecture[[nbsp]]time[[nbsp]]in[[nbsp]]this[[nbsp]]class.[[nbsp]][[nbsp]]Not[[nbsp]]the[[nbsp]]most[[nbsp]]interesting[[nbsp]]of[[nbsp]]the[[nbsp]]chemistry[[nbsp]]classes.[[nbsp]]More[[nbsp]]spectrocopy[[nbsp]]from[[nbsp]]110A,[[nbsp]][[nbsp]]a[[nbsp]]throwback[[nbsp]]to[[nbsp]]124A[[nbsp]]and[[nbsp]]a[[nbsp]]preview[[nbsp]]of[[nbsp]]110C.</span> </td> <td> <span>+ * 110B. Physical Chemistry: Properties of Atoms and Molecules - Take 124A first or concurrently, beacuse group theory is not given enough lecture time in this class. Not the most interesting of the chemistry classes. More spectrocopy from 110A, a throwback to 124A and a preview of 110C.</span> </td> </tr> <tr> <td> Line 53: </td> <td> Line 53: </td> </tr> <tr> <td> <span>-</span> <span>[[nbsp]]</span>*<span>[[nbsp]]</span>110C.<span>[[nbsp]]</span>Physical<span>[[nbsp]]</span>Chemistry:<span>[[nbsp]]</span>Thermodynamics,<span>[[nbsp]]</span>Equilibria<span>[[nbsp]]</span>and<span>[[nbsp]]</span>Kinetics<span>[[nbsp]]</span>-<span>[[nbsp]]</span>More<span>[[nbsp]]</span>and<span>[[nbsp]]</span>harder<span>[[nbsp]]</span>Chem<span>[[nbsp]]</span>2B. </td> <td> <span>+</span> <span>&nbsp;</span>*<span>&nbsp;</span>110C.<span>&nbsp;</span>Physical<span>&nbsp;</span>Chemistry:<span>&nbsp;</span>Thermodynamics,<span>&nbsp;</span>Equilibria<span>&nbsp;</span>and<span>&nbsp;</span>Kinetics<span>&nbsp;</span>-<span>&nbsp;</span>More<span>&nbsp;</span>and<span>&nbsp;</span>harder<span>&nbsp;</span>Chem<span>&nbsp;</span>2B. </td> </tr> <tr> <td> Line 55: </td> <td> Line 55: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]124A.[[nbsp]]Inorganic[[nbsp]]Chemistry:[[nbsp]]Fundamentals[[nbsp]]-[[nbsp]]This[[nbsp]]is[[nbsp]]one[[nbsp]]of[[nbsp]]those[[nbsp]]classes[[nbsp]]that[[nbsp]]focuses[[nbsp]]a[[nbsp]]LOT[[nbsp]]on[[nbsp]]a[[nbsp]]very[[nbsp]]few[[nbsp]]basic[[nbsp]]ideas[[nbsp]]-[[nbsp]]if[[nbsp]]you[[nbsp]]don't[[nbsp]]understand[[nbsp]]symmetry[[nbsp]]and[[nbsp]]point[[nbsp]]group[[nbsp]]assignment,[[nbsp]]you[[nbsp]]will[[nbsp]]have[[nbsp]]a[[nbsp]]very[[nbsp]]difficult[[nbsp]]time[[nbsp]]drawing[[nbsp]][[nbsp]]molecular[[nbsp]]orbital[[nbsp]]diagrams[[nbsp]](the[[nbsp]]final[[nbsp]]and[[nbsp]]hardest[[nbsp]]topic[[nbsp]]of[[nbsp]]the[[nbsp]]class).</span> </td> <td> <span>+ * 124A. Inorganic Chemistry: Fundamentals - This is one of those classes that focuses a LOT on a very few basic ideas - if you don't understand symmetry and point group assignment, you will have a very difficult time drawing molecular orbital diagrams (the final and hardest topic of the class).</span> </td> </tr> <tr> <td> Line 57: </td> <td> Line 57: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]124B.[[nbsp]]Inorganic[[nbsp]]Chemistry:[[nbsp]]Main[[nbsp]]Group[[nbsp]]Elements[[nbsp]]-[[nbsp]]So[[nbsp]]far[[nbsp]]so[[nbsp]]good[[nbsp]]-[[nbsp]]going[[nbsp]]into[[nbsp]]the[[nbsp]]details[[nbsp]]and[[nbsp]]nuances[[nbsp]]of[[nbsp]]the[[nbsp]]main[[nbsp]]group[[nbsp]]elements[[nbsp]](s[[nbsp]]and[[nbsp]]p[[nbsp]]fillers).</span> </td> <td> <span>+ * 124B. Inorganic Chemistry: Main Group Elements - So far so good - going into the details and nuances of the main group elements (s and p fillers).</span> </td> </tr> <tr> <td> Line 59: </td> <td> Line 59: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]124C.[[nbsp]]Inorganic[[nbsp]]Chemistry:[[nbsp]]d[[nbsp]]and[[nbsp]]f[[nbsp]]Block[[nbsp]]Elements[[nbsp]]-[[nbsp]]Spring.[[nbsp]]</span> </td> <td> <span>+ * 124C. Inorganic Chemistry: d and f Block Elements - Spring. </span> </td> </tr> <tr> <td> Line 61: </td> <td> Line 61: </td> </tr> <tr> <td> <span>-</span> <span>[[nbsp]]</span>*<span>[[nbsp]]</span>124L.<span>[[nbsp]]</span>Laboratory<span>[[nbsp]]</span>Methods<span>[[nbsp]]</span>in<span>[[nbsp]]</span>Inorganic<span>[[nbsp]]</span>Chemistry<span>[[nbsp]]</span>-<span>[[nbsp]]</span>Spring<span>[[nbsp]]</span> </td> <td> <span>+</span> <span>&nbsp;</span>*<span>&nbsp;</span>124L.<span>&nbsp;</span>Laboratory<span>&nbsp;</span>Methods<span>&nbsp;</span>in<span>&nbsp;</span>Inorganic<span>&nbsp;</span>Chemistry<span>&nbsp;</span>-<span>&nbsp;</span>Spring<span>&nbsp;</span> </td> </tr> <tr> <td> Line 63: </td> <td> Line 63: </td> </tr> <tr> <td> <span>-</span> <span>[[nbsp]]</span>*<span>[[nbsp]]</span>128A.<span>[[nbsp]]</span>Organic<span>[[nbsp]]</span>Chemistry<span>[[nbsp]]</span>-<span>[[nbsp]]</span>Organic<span>[[nbsp]]</span>chemistry<span>[[nbsp]]</span>is<span>[[nbsp]]</span>evil.<span>[[nbsp]][[nbsp]]</span>Run<span>[[nbsp]]</span>away. </td> <td> <span>+</span> <span>&nbsp;</span>*<span>&nbsp;</span>128A.<span>&nbsp;</span>Organic<span>&nbsp;</span>Chemistry<span>&nbsp;</span>-<span>&nbsp;</span>Organic<span>&nbsp;</span>chemistry<span>&nbsp;</span>is<span>&nbsp;</span>evil.<span>&nbsp;&nbsp;</span>Run<span>&nbsp;</span>away. </td> </tr> <tr> <td> Line 65: </td> <td> Line 65: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]128B.[[nbsp]]Organic[[nbsp]]Chemistry[[nbsp]]-[[nbsp]]Organic[[nbsp]]chemistry[[nbsp]]is[[nbsp]]evil.[[nbsp]][[nbsp]]Run[[nbsp]]away.[[nbsp]]As[[nbsp]]fast[[nbsp]]as[[nbsp]]you[[nbsp]]can.</span> </td> <td> <span>+ * 128B. Organic Chemistry - Organic chemistry is evil. Run away. As fast as you can.</span> </td> </tr> <tr> <td> Line 67: </td> <td> Line 67: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]128C.[[nbsp]]Organic[[nbsp]]Chemistry[[nbsp]]-[[nbsp]]Organic[[nbsp]]chemistry[[nbsp]]is[[nbsp]]evil.[[nbsp]][[nbsp]]Run[[nbsp]]away.[[nbsp]]As[[nbsp]]fast[[nbsp]]as[[nbsp]]you[[nbsp]]can.[[nbsp]][[nbsp]]In[[nbsp]]the[[nbsp]]opposite[[nbsp]]direction.</span> </td> <td> <span>+ * 128C. Organic Chemistry - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction.</span> </td> </tr> <tr> <td> Line 69: </td> <td> Line 69: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]129A.[[nbsp]]Organic[[nbsp]]Chemistry[[nbsp]]Laboratory[[nbsp]]-[[nbsp]]Organic[[nbsp]]chemistry[[nbsp]]is[[nbsp]]evil.[[nbsp]][[nbsp]]Run[[nbsp]]away.[[nbsp]]As[[nbsp]]fast[[nbsp]]as[[nbsp]]you[[nbsp]]can.[[nbsp]][[nbsp]]In[[nbsp]]the[[nbsp]]opposite[[nbsp]]direction.[[nbsp]][[nbsp]]Now.</span> </td> <td> <span>+ * 129A. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now.</span> </td> </tr> <tr> <td> Line 71: </td> <td> Line 71: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]129B.[[nbsp]]Organic[[nbsp]]Chemistry[[nbsp]]Laboratory[[nbsp]]-[[nbsp]]Organic[[nbsp]]chemistry[[nbsp]]is[[nbsp]]evil.[[nbsp]][[nbsp]]Run[[nbsp]]away.[[nbsp]]As[[nbsp]]fast[[nbsp]]as[[nbsp]]you[[nbsp]]can.[[nbsp]][[nbsp]]In[[nbsp]]the[[nbsp]]opposite[[nbsp]]direction.[[nbsp]][[nbsp]]Now.[[nbsp]]Hurry.[[nbsp]][[nbsp]]</span> </td> <td> <span>+ * 129B. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry. </span> </td> </tr> <tr> <td> Line 73: </td> <td> Line 73: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]129C.[[nbsp]]Organic[[nbsp]]Chemistry[[nbsp]]Laboratory[[nbsp]]-[[nbsp]]Organic[[nbsp]]chemistry[[nbsp]]is[[nbsp]]evil.[[nbsp]][[nbsp]]Run[[nbsp]]away.[[nbsp]]As[[nbsp]]fast[[nbsp]]as[[nbsp]]you[[nbsp]]can.[[nbsp]][[nbsp]]In[[nbsp]]the[[nbsp]]opposite[[nbsp]]direction.[[nbsp]][[nbsp]]Now.[[nbsp]]Hurry.[[nbsp]][[nbsp]]While[[nbsp]]you[[nbsp]]still[[nbsp]]can.[[nbsp]][[nbsp]]Don't[[nbsp]]say[[nbsp]]I[[nbsp]]didn't[[nbsp]]warn[[nbsp]]you.</span> </td> <td> <span>+ * 129C. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry. While you still can. Don't say I didn't warn you.</span> </td> </tr> <tr> <td> Line 75: </td> <td> Line 75: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]131.[[nbsp]]Modern[[nbsp]]Methods[[nbsp]]of[[nbsp]]Organic[[nbsp]]Synthesis[[nbsp]]-[[nbsp]][[nbsp]]If[[nbsp]]you[[nbsp]]didn't[[nbsp]]like,[[nbsp]]nay[[nbsp]]ABSOLUTELY[[nbsp]]LOVE[[nbsp]]as[[nbsp]]though[[nbsp]]it[[nbsp]]were[[nbsp]]your[[nbsp]]twisted[[nbsp]]country[[nbsp]]cousin,[[nbsp]]or[[nbsp]]were[[nbsp]]not[[nbsp]]very[[nbsp]]very[[nbsp]]VERY[[nbsp]]nobel[[nbsp]]prize[[nbsp]]winning[[nbsp]]good[[nbsp]]at[[nbsp]]Chem[[nbsp]]128/129[[nbsp]]-DO[[nbsp]]NOT[[nbsp]]WHATEVER[[nbsp]]YOU[[nbsp]]DO[[nbsp]]TAKE[[nbsp]]THIS[[nbsp]]CLASS.[[nbsp]][[nbsp]]I'm[[nbsp]]dead[[nbsp]]serious.[[nbsp]][[nbsp]]I[[nbsp]]still[[nbsp]]don't[[nbsp]]know[[nbsp]]what[[nbsp]]possessed[[nbsp]]me...</span> </td> <td> <span>+ * 131. Modern Methods of Organic Synthesis - If you didn't like, nay ABSOLUTELY LOVE as though it were your twisted country cousin, or were not very very VERY nobel prize winning good at Chem 128/129 -DO NOT WHATEVER YOU DO TAKE THIS CLASS. I'm dead serious. I still don't know what possessed me...</span> </td> </tr> <tr> <td> Line 77: </td> <td> Line 77: </td> </tr> <tr> <td> <span>-</span> <span>[[nbsp]]</span>*<span>[[nbsp]]</span>121.<span>[[nbsp]]</span>Introduction<span>[[nbsp]]</span>to<span>[[nbsp]]</span>Molecular<span>[[nbsp]]</span>Structure<span>[[nbsp]]</span>and<span>[[nbsp]]</span>Spectra<span>[[nbsp]]</span>-<span>[[nbsp]]</span>Good<span>[[nbsp]]</span>class.<span>[[nbsp]][[nbsp]]</span>Lots<span>[[nbsp]]</span>of<span>[[nbsp]]</span>hard<span>[[nbsp]]</span>theory<span>[[nbsp]]</span>and<span>[[nbsp]]</span>very<span>[[nbsp]]</span>little<span>[[nbsp]]</span>reading<span>[[nbsp]]</span>of<span>[[nbsp]]</span>actual<span>[[nbsp]]</span>spectra. </td> <td> <span>+</span> <span>&nbsp;</span>*<span>&nbsp;</span>121.<span>&nbsp;</span>Introduction<span>&nbsp;</span>to<span>&nbsp;</span>Molecular<span>&nbsp;</span>Structure<span>&nbsp;</span>and<span>&nbsp;</span>Spectra<span>&nbsp;</span>-<span>&nbsp;</span>Good<span>&nbsp;</span>class.<span>&nbsp;&nbsp;</span>Lots<span>&nbsp;</span>of<span>&nbsp;</span>hard<span>&nbsp;</span>theory<span>&nbsp;</span>and<span>&nbsp;</span>very<span>&nbsp;</span>little<span>&nbsp;</span>reading<span>&nbsp;</span>of<span>&nbsp;</span>actual<span>&nbsp;</span>spectra. </td> </tr> <tr> <td> Line 79: </td> <td> Line 79: </td> </tr> <tr> <td> <span>-</span> <span>[[nbsp]]</span>*<span>[[nbsp]]</span>150.<span>[[nbsp]]</span>Chemistry<span>[[nbsp]]</span>of<span>[[nbsp]]</span>Natural<span>[[nbsp]]</span>Products<span>[[nbsp]]</span>-<span>[[nbsp]]</span>VERY<span>[[nbsp]]</span>cool<span>[[nbsp]]</span>class.<span>[[nbsp]][[nbsp]]</span>Natural<span>[[nbsp]]</span>products<span>[[nbsp]]</span>can<span>[[nbsp]]</span>do<span>[[nbsp]]</span>almost<span>[[nbsp]]</span>anything. </td> <td> <span>+</span> <span>&nbsp;</span>*<span>&nbsp;</span>150.<span>&nbsp;</span>Chemistry<span>&nbsp;</span>of<span>&nbsp;</span>Natural<span>&nbsp;</span>Products<span>&nbsp;</span>-<span>&nbsp;</span>VERY<span>&nbsp;</span>cool<span>&nbsp;</span>class.<span>&nbsp;&nbsp;</span>Natural<span>&nbsp;</span>products<span>&nbsp;</span>can<span>&nbsp;</span>do<span>&nbsp;</span>almost<span>&nbsp;</span>anything. </td> </tr> <tr> <td> Line 81: </td> <td> Line 81: </td> </tr> <tr> <td> <span>- [[nbsp]]*[[nbsp]]199.[[nbsp]]Special[[nbsp]]Study[[nbsp]]for[[nbsp]]Advanced[[nbsp]]Undergraduates[[nbsp]]-[[nbsp]]DO[[nbsp]]UNDERGRADUATE[[nbsp]]RESEARCH![[nbsp]][[nbsp]]Now.[[nbsp]][[nbsp]]It[[nbsp]]is[[nbsp]]the[[nbsp]]only[[nbsp]]way[[nbsp]]to[[nbsp]]get[[nbsp]]into[[nbsp]]grad[[nbsp]]school.<br> - [[nbsp]][[nbsp]][[nbsp]][[nbsp]][[nbsp]]-[[nbsp]]Read[[nbsp]]the[[nbsp]]above[[nbsp]]over[[nbsp]]again[[nbsp]]2[[nbsp]]times.[[nbsp]]It[[nbsp]]is[[nbsp]]the[[nbsp]]best[[nbsp]]advice[[nbsp]]I[[nbsp]]have[[nbsp]]seen[[nbsp]]on[[nbsp]]the[[nbsp]]wiki.[[nbsp]]-[[nbsp]]["DanMasiel" DanMasiel]</span> </td> <td> <span>+ * 199. Special Study for Advanced Undergraduates - DO UNDERGRADUATE RESEARCH! Now. It is the only way to get into grad school.<br> + - Read the above over again 2 times. It is the best advice I have seen on the wiki. - ["DanMasiel"]</span> </td> </tr> <tr> <td> Line 84: </td> <td> Line 84: </td> </tr> <tr> <td> <span>-</span> '''Home<span>[[nbsp]]</span>Page''' </td> <td> <span>+</span> '''Home<span>&nbsp;</span>Page''' </td> </tr> <tr> <td> Line 86: </td> <td> Line 86: </td> </tr> <tr> <td> <span>-</span> for<span>[[nbsp]]</span>more<span>[[nbsp]]</span>information,<span>[[nbsp]]</span>visit<span>[[nbsp]]</span>the<span>[[nbsp]]</span>[http://www.chem.ucdavis.edu Chemistry Department Home Page] </td> <td> <span>+</span> for<span>&nbsp;</span>more<span>&nbsp;</span>information,<span>&nbsp;</span>visit<span>&nbsp;</span>the<span>&nbsp;</span>[http://www.chem.ucdavis.edu Chemistry Department Home Page] </td> </tr> <tr> <td> Line 89: </td> <td> Line 89: </td> </tr> <tr> <td> <span>- ''Perhaps[[nbsp]]this[[nbsp]]page[[nbsp]]would[[nbsp]]be[[nbsp]]more[[nbsp]]useful[[nbsp]]with[[nbsp]]personal[[nbsp]]accounts/summaries[[nbsp]]of[[nbsp]]classes[[nbsp]]instead[[nbsp]]of[[nbsp]]a[[nbsp]]verbatim[[nbsp]]copy[[nbsp]]of[[nbsp]]the[[nbsp]]["General Catalog" General_Catalog].[[nbsp]][[nbsp]]After[[nbsp]]all,[[nbsp]]you[[nbsp]]can[[nbsp]]just[[nbsp]]link[[nbsp]]to[[nbsp]]the[[nbsp]]["General Catalog" General_Catalog][[nbsp]]and[[nbsp]]the[[nbsp]]website[[nbsp]]for[[nbsp]]the[[nbsp]]major[[nbsp]]to[[nbsp]]give[[nbsp]]people[[nbsp]]this[[nbsp]]information''[[nbsp]]-[[nbsp]]["PhilipNeustrom" PhilipNeustrom]</span> </td> <td> <span>+ ''Perhaps this page would be more useful with personal accounts/summaries of classes instead of a verbatim copy of the ["General Catalog"]. After all, you can just link to the ["General Catalog"] and the website for the major to give people this information'' - ["PhilipNeustrom"]</span> </td> </tr> <tr> <td> Line 91: </td> <td> Line 91: </td> </tr> <tr> <td> <span>-</span> I<span>[[nbsp]]</span>second<span>[[nbsp]]</span>what<span>[[nbsp]]</span>["PhilipNeustrom" <span>PhilipNeustrom][[nbsp]]</span>said<span>[[nbsp]]</span>-<span>[[nbsp]]</span>["BryanBell"<span>&nbsp;BryanBell</span>] </td> <td> <span>+</span> I<span>&nbsp;</span>second<span>&nbsp;</span>what<span>&nbsp;</span>["PhilipNeustrom"<span>]</span> said<span>&nbsp;</span>-<span>&nbsp;</span>["BryanBell"] </td> </tr> <tr> <td> Line 93: </td> <td> Line 93: </td> </tr> <tr> <td> <span>-</span> Yes!!!<span>[[nbsp]][[nbsp]]</span>Please,<span>[[nbsp]]</span>add<span>[[nbsp]]</span>your<span>[[nbsp]]</span>reviews<span>[[nbsp]]</span>of<span>[[nbsp]]</span>these<span>[[nbsp]]</span>classes.<span>[[nbsp]][[nbsp]]</span>Unless<span>[[nbsp]]</span>you<span>[[nbsp]]</span>liked<span>[[nbsp]]</span>organic<span>[[nbsp]]</span>chemistry.<span>[[nbsp]][[nbsp]]</span>All<span>[[nbsp]]</span>people<span>[[nbsp]]</span>who<span>[[nbsp]]</span>liked<span>[[nbsp]]</span>organic<span>[[nbsp]]</span>chemistry<span>[[nbsp]]</span>will<span>[[nbsp]]</span>be<span>[[nbsp]]</span>shot<span>[[nbsp]]</span>on<span>[[nbsp]]</span>sight.<span>[[nbsp]]</span>-<span>[[nbsp]]</span>["SarahHillard"<span>&nbsp;SarahHillard</span>] </td> <td> <span>+</span> Yes!!!<span>&nbsp;&nbsp;</span>Please,<span>&nbsp;</span>add<span>&nbsp;</span>your<span>&nbsp;</span>reviews<span>&nbsp;</span>of<span>&nbsp;</span>these<span>&nbsp;</span>classes.<span>&nbsp;&nbsp;</span>Unless<span>&nbsp;</span>you<span>&nbsp;</span>liked<span>&nbsp;</span>organic<span>&nbsp;</span>chemistry.<span>&nbsp;&nbsp;</span>All<span>&nbsp;</span>people<span>&nbsp;</span>who<span>&nbsp;</span>liked<span>&nbsp;</span>organic<span>&nbsp;</span>chemistry<span>&nbsp;</span>will<span>&nbsp;</span>be<span>&nbsp;</span>shot<span>&nbsp;</span>on<span>&nbsp;</span>sight.<span>&nbsp;</span>-<span>&nbsp;</span>["SarahHillard"] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-03-22 10:05:06RobertMorrisAll Rights Reversed <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 3: </td> <td> Line 3: </td> </tr> <tr> <td> <span>-</span> The<span>&nbsp;</span>Chemistry<span>&nbsp;</span>Department<span>&nbsp;</span>is<span>&nbsp;</span>located<span>&nbsp;</span>in<span>&nbsp;</span>the<span>&nbsp;</span>creatively<span>&nbsp;</span>named<span>&nbsp;</span>Chemistry<span>&nbsp;</span>Building. </td> <td> <span>+</span> The<span>[[nbsp]]</span>Chemistry<span>[[nbsp]]</span>Department<span>[[nbsp]]</span>is<span>[[nbsp]]</span>located<span>[[nbsp]]</span>in<span>[[nbsp]]</span>the<span>[[nbsp]]</span>creatively<span>[[nbsp]]</span>named<span>[[nbsp]]</span>Chemistry<span>[[nbsp]]</span>Building. </td> </tr> <tr> <td> Line 7: </td> <td> Line 7: </td> </tr> <tr> <td> <span>-</span> The<span>&nbsp;</span>Department<span>&nbsp;</span>offers<span>&nbsp;</span>BA<span>&nbsp;</span>and<span>&nbsp;</span>BS<span>&nbsp;</span>as<span>&nbsp;</span>well<span>&nbsp;</span>as<span>&nbsp;</span>Masters<span>&nbsp;</span>and<span>&nbsp;</span>PhD.<span>&nbsp;</span>degrees. </td> <td> <span>+</span> The<span>[[nbsp]]</span>Department<span>[[nbsp]]</span>offers<span>[[nbsp]]</span>BA<span>[[nbsp]]</span>and<span>[[nbsp]]</span>BS<span>[[nbsp]]</span>as<span>[[nbsp]]</span>well<span>[[nbsp]]</span>as<span>[[nbsp]]</span>Masters<span>[[nbsp]]</span>and<span>[[nbsp]]</span>PhD.<span>[[nbsp]]</span>degrees. </td> </tr> <tr> <td> Line 9: </td> <td> Line 9: </td> </tr> <tr> <td> <span>-</span> '''Research<span>&nbsp;</span>Groups''' </td> <td> <span>+</span> '''Research<span>[[nbsp]]</span>Groups''' </td> </tr> <tr> <td> Line 11: </td> <td> Line 11: </td> </tr> <tr> <td> <span>-</span> ["The Nanofast Group"] </td> <td> <span>+</span> ["The Nanofast Group"<span>&nbsp;The_Nanofast_Group</span>] </td> </tr> <tr> <td> Line 15: </td> <td> Line 15: </td> </tr> <tr> <td> <span>-</span> See<span>&nbsp;</span>also<span>&nbsp;</span>the<span>&nbsp;</span>["General Catalog" UC<span>&nbsp;</span>Davis<span>&nbsp;</span>General<span>&nbsp;</span>Catalog] </td> <td> <span>+</span> See<span>[[nbsp]]</span>also<span>[[nbsp]]</span>the<span>[[nbsp]]</span>["General Catalog" UC<span>_</span>Davis<span>_</span>General<span>_</span>Catalog] </td> </tr> <tr> <td> Line 17: </td> <td> Line 17: </td> </tr> <tr> <td> <span>-</span> ''Lower<span>&nbsp;</span>Division<span>&nbsp;</span>Courses'' </td> <td> <span>+</span> ''Lower<span>[[nbsp]]</span>Division<span>[[nbsp]]</span>Courses'' </td> </tr> <tr> <td> Line 19: </td> <td> Line 19: </td> </tr> <tr> <td> <span>- * 2A. General Chemistry<br> - * Basic chemistry. Almost all of basic high school chemistry is reviewed with only a few new insights. Bear in mind - that's still a whole year smushed into ten weeks. Supposedly, the class is harder during Fall Quarter because that's when most of the pre-meds enroll, so if you need the class but aren't a pre-med, sometimes waiting until Winter is the best option.<br> - * If you liked this, you'll like Chem 110A and random chunks of Chem 124A.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]2A.[[nbsp]]General[[nbsp]]Chemistry<br> + [[nbsp]][[nbsp]]*[[nbsp]]Basic[[nbsp]]chemistry.[[nbsp]]Almost[[nbsp]]all[[nbsp]]of[[nbsp]]basic[[nbsp]]high[[nbsp]]school[[nbsp]]chemistry[[nbsp]]is[[nbsp]]reviewed[[nbsp]]with[[nbsp]]only[[nbsp]]a[[nbsp]]few[[nbsp]]new[[nbsp]]insights.[[nbsp]][[nbsp]]Bear[[nbsp]]in[[nbsp]]mind[[nbsp]]-[[nbsp]]that's[[nbsp]]still[[nbsp]]a[[nbsp]]whole[[nbsp]]year[[nbsp]]smushed[[nbsp]]into[[nbsp]]ten[[nbsp]]weeks.[[nbsp]]Supposedly,[[nbsp]]the[[nbsp]]class[[nbsp]]is[[nbsp]]harder[[nbsp]]during[[nbsp]]Fall[[nbsp]]Quarter[[nbsp]]because[[nbsp]]that's[[nbsp]]when[[nbsp]]most[[nbsp]]of[[nbsp]]the[[nbsp]]pre-meds[[nbsp]]enroll,[[nbsp]]so[[nbsp]]if[[nbsp]]you[[nbsp]]need[[nbsp]]the[[nbsp]]class[[nbsp]]but[[nbsp]]aren't[[nbsp]]a[[nbsp]]pre-med,[[nbsp]]sometimes[[nbsp]]waiting[[nbsp]]until[[nbsp]]Winter[[nbsp]]is[[nbsp]]the[[nbsp]]best[[nbsp]]option.<br> + [[nbsp]][[nbsp]]*[[nbsp]]If[[nbsp]]you[[nbsp]]liked[[nbsp]]this,[[nbsp]]you'll[[nbsp]]like[[nbsp]]Chem[[nbsp]]110A[[nbsp]]and[[nbsp]]random[[nbsp]]chunks[[nbsp]]of[[nbsp]]Chem[[nbsp]]124A.</span> </td> </tr> <tr> <td> Line 23: </td> <td> Line 23: </td> </tr> <tr> <td> <span>- * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definitely take it. The smaller class is worth it.<br> - <br> - * 2B. General Chemistry<br> - * pH (aka solution equilibria) and thermodynamics. The MOST boring of the series and possibly the most difficult. This part of the series has arguably the most painful labs, heavy emphasis on titration and making graphs.<br> - * If you liked this, you'll like Chem 105/115, Chem 110C and parts of Chem 110B<br> - - This was my favorite of the General Chemistry series, but it was definitely the hardest. Dr. Augustine teaches it during Winter and although he's a tough teacher, he makes lectures entertaining. For example, when lecturing on entropy, he demonstrated it with a ["forty"] of King Cobra. -["AbbyLawson"]</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]2AH[[nbsp]]Honors[[nbsp]]General[[nbsp]]Chemistry[[nbsp]]-[[nbsp]]A[[nbsp]]much[[nbsp]]smaller[[nbsp]]class[[nbsp]]-[[nbsp]]100[[nbsp]]students.[[nbsp]][[nbsp]]If[[nbsp]]you[[nbsp]]qualify[[nbsp]]based[[nbsp]]on[[nbsp]]the[[nbsp]]assessment[[nbsp]]tests,[[nbsp]]definitely[[nbsp]]take[[nbsp]]it.[[nbsp]][[nbsp]]The[[nbsp]]smaller[[nbsp]]class[[nbsp]]is[[nbsp]]worth[[nbsp]]it.<br> + [[nbsp]][[nbsp]]<br> + [[nbsp]]*[[nbsp]]2B.[[nbsp]]General[[nbsp]]Chemistry<br> + [[nbsp]][[nbsp]]*[[nbsp]]pH[[nbsp]](aka[[nbsp]]solution[[nbsp]]equilibria)[[nbsp]]and[[nbsp]]thermodynamics.[[nbsp]][[nbsp]]The[[nbsp]]MOST[[nbsp]]boring[[nbsp]]of[[nbsp]]the[[nbsp]]series[[nbsp]]and[[nbsp]]possibly[[nbsp]]the[[nbsp]]most[[nbsp]]difficult.[[nbsp]]This[[nbsp]]part[[nbsp]]of[[nbsp]]the[[nbsp]]series[[nbsp]]has[[nbsp]]arguably[[nbsp]]the[[nbsp]]most[[nbsp]]painful[[nbsp]]labs,[[nbsp]]heavy[[nbsp]]emphasis[[nbsp]]on[[nbsp]]titration[[nbsp]]and[[nbsp]]making[[nbsp]]graphs.<br> + [[nbsp]][[nbsp]]*[[nbsp]]If[[nbsp]]you[[nbsp]]liked[[nbsp]]this,[[nbsp]]you'll[[nbsp]]like[[nbsp]]Chem[[nbsp]]105/115,[[nbsp]]Chem[[nbsp]]110C[[nbsp]]and[[nbsp]]parts[[nbsp]]of[[nbsp]]Chem[[nbsp]]110B<br> + [[nbsp]][[nbsp]][[nbsp]][[nbsp]]-[[nbsp]]This[[nbsp]]was[[nbsp]]my[[nbsp]]favorite[[nbsp]]of[[nbsp]]the[[nbsp]]General[[nbsp]]Chemistry[[nbsp]]series,[[nbsp]]but[[nbsp]]it[[nbsp]]was[[nbsp]]definitely[[nbsp]]the[[nbsp]]hardest.[[nbsp]]Dr.[[nbsp]]Augustine[[nbsp]]teaches[[nbsp]]it[[nbsp]]during[[nbsp]]Winter[[nbsp]]and[[nbsp]]although[[nbsp]]he's[[nbsp]]a[[nbsp]]tough[[nbsp]]teacher,[[nbsp]]he[[nbsp]]makes[[nbsp]]lectures[[nbsp]]entertaining.[[nbsp]]For[[nbsp]]example,[[nbsp]]when[[nbsp]]lecturing[[nbsp]]on[[nbsp]]entropy,[[nbsp]]he[[nbsp]]demonstrated[[nbsp]]it[[nbsp]]with[[nbsp]]a[[nbsp]]["forty" forty][[nbsp]]of[[nbsp]]King[[nbsp]]Cobra.[[nbsp]]-["AbbyLawson" AbbyLawson]</span> </td> </tr> <tr> <td> Line 30: </td> <td> Line 30: </td> </tr> <tr> <td> <span>- * 2BH. Honors General Chemistry - A much smaller class - 50 students. If you qualify based on the assessment tests or your Chem 2A grade, definitely take it. The smaller class is worth it.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]2BH.[[nbsp]]Honors[[nbsp]]General[[nbsp]]Chemistry[[nbsp]]-[[nbsp]]A[[nbsp]]much[[nbsp]]smaller[[nbsp]]class[[nbsp]]-[[nbsp]]50[[nbsp]]students.[[nbsp]][[nbsp]]If[[nbsp]]you[[nbsp]]qualify[[nbsp]]based[[nbsp]]on[[nbsp]]the[[nbsp]]assessment[[nbsp]]tests[[nbsp]]or[[nbsp]]your[[nbsp]]Chem[[nbsp]]2A[[nbsp]]grade,[[nbsp]]definitely[[nbsp]]take[[nbsp]]it.[[nbsp]][[nbsp]]The[[nbsp]]smaller[[nbsp]]class[[nbsp]]is[[nbsp]]worth[[nbsp]]it.</span> </td> </tr> <tr> <td> Line 32: </td> <td> Line 32: </td> </tr> <tr> <td> <span>- * 2C. General Chemistry<br> - * Electrochemistry, radioactivity, transition elements, an introduction to organic chemistry, bonding and a whole mish-mash of other stuff. The most interesting of the series because of the variety. More concepts and not as many mundane calculations as in A or B.<br> - * If you liked this, you'll like 124A/B, Chem 105/115/125, and parts of Chem 110B</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]2C.[[nbsp]]General[[nbsp]]Chemistry<br> + [[nbsp]][[nbsp]]*[[nbsp]]Electrochemistry,[[nbsp]]radioactivity,[[nbsp]]transition[[nbsp]]elements,[[nbsp]]an[[nbsp]]introduction[[nbsp]]to[[nbsp]]organic[[nbsp]]chemistry,[[nbsp]]bonding[[nbsp]]and[[nbsp]]a[[nbsp]]whole[[nbsp]]mish-mash[[nbsp]]of[[nbsp]]other[[nbsp]]stuff.[[nbsp]][[nbsp]]The[[nbsp]]most[[nbsp]]interesting[[nbsp]]of[[nbsp]]the[[nbsp]]series[[nbsp]]because[[nbsp]]of[[nbsp]]the[[nbsp]]variety.[[nbsp]][[nbsp]]More[[nbsp]]concepts[[nbsp]]and[[nbsp]]not[[nbsp]]as[[nbsp]]many[[nbsp]]mundane[[nbsp]]calculations[[nbsp]]as[[nbsp]]in[[nbsp]]A[[nbsp]]or[[nbsp]]B.<br> + [[nbsp]][[nbsp]]*[[nbsp]]If[[nbsp]]you[[nbsp]]liked[[nbsp]]this,[[nbsp]]you'll[[nbsp]]like[[nbsp]]124A/B,[[nbsp]]Chem[[nbsp]]105/115/125,[[nbsp]]and[[nbsp]]parts[[nbsp]]of[[nbsp]]Chem[[nbsp]]110B</span> </td> </tr> <tr> <td> Line 36: </td> <td> Line 36: </td> </tr> <tr> <td> <span>- * 2CH. Honors General Chemistry - A much smaller class - 25 students. If you qualify based on the assessment tests or your Chem2A or Chem 2B grade, definitely take it. The smaller class is worth it. There are also two three hour labs each week instead of one. REALLY fun experiments that actually mean something.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]2CH.[[nbsp]]Honors[[nbsp]]General[[nbsp]]Chemistry[[nbsp]]-[[nbsp]]A[[nbsp]]much[[nbsp]]smaller[[nbsp]]class[[nbsp]]-[[nbsp]]25[[nbsp]]students.[[nbsp]][[nbsp]]If[[nbsp]]you[[nbsp]]qualify[[nbsp]]based[[nbsp]]on[[nbsp]]the[[nbsp]]assessment[[nbsp]]tests[[nbsp]]or[[nbsp]]your[[nbsp]]Chem2A[[nbsp]]or[[nbsp]]Chem[[nbsp]]2B[[nbsp]]grade,[[nbsp]]definitely[[nbsp]]take[[nbsp]]it.[[nbsp]][[nbsp]]The[[nbsp]]smaller[[nbsp]]class[[nbsp]]is[[nbsp]]worth[[nbsp]]it.[[nbsp]][[nbsp]]There[[nbsp]]are[[nbsp]]also[[nbsp]]two[[nbsp]]three[[nbsp]]hour[[nbsp]]labs[[nbsp]]each[[nbsp]]week[[nbsp]]instead[[nbsp]]of[[nbsp]]one.[[nbsp]][[nbsp]]REALLY[[nbsp]]fun[[nbsp]]experiments[[nbsp]]that[[nbsp]]actually[[nbsp]]mean[[nbsp]]something.</span> </td> </tr> <tr> <td> Line 38: </td> <td> Line 38: </td> </tr> <tr> <td> <span>- * 99. Special Study for Undergraduates - DO UNDERGRADUATE RESEARCH! Now. It is the only way to get into grad school.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]99.[[nbsp]]Special[[nbsp]]Study[[nbsp]]for[[nbsp]]Undergraduates[[nbsp]]-[[nbsp]]DO[[nbsp]]UNDERGRADUATE[[nbsp]]RESEARCH![[nbsp]][[nbsp]]Now.[[nbsp]][[nbsp]]It[[nbsp]]is[[nbsp]]the[[nbsp]]only[[nbsp]]way[[nbsp]]to[[nbsp]]get[[nbsp]]into[[nbsp]]grad[[nbsp]]school.</span> </td> </tr> <tr> <td> Line 40: </td> <td> Line 40: </td> </tr> <tr> <td> <span>-</span> ''Upper<span>&nbsp;</span>Division<span>&nbsp;</span>Courses'' </td> <td> <span>+</span> ''Upper<span>[[nbsp]]</span>Division<span>[[nbsp]]</span>Courses'' </td> </tr> <tr> <td> Line 42: </td> <td> Line 42: </td> </tr> <tr> <td> <span>- * 105. Analytical and Physical Chemical Methods - Lots of the same types of calculations as in Chem 2B. Very little new material, just a lot of more in depth labs and write ups. Very long theory sections.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]105.[[nbsp]]Analytical[[nbsp]]and[[nbsp]]Physical[[nbsp]]Chemical[[nbsp]]Methods[[nbsp]]-[[nbsp]]Lots[[nbsp]]of[[nbsp]]the[[nbsp]]same[[nbsp]]types[[nbsp]]of[[nbsp]]calculations[[nbsp]]as[[nbsp]]in[[nbsp]]Chem[[nbsp]]2B.[[nbsp]][[nbsp]]Very[[nbsp]]little[[nbsp]]new[[nbsp]]material,[[nbsp]]just[[nbsp]]a[[nbsp]]lot[[nbsp]]of[[nbsp]]more[[nbsp]]in[[nbsp]]depth[[nbsp]]labs[[nbsp]]and[[nbsp]]write[[nbsp]]ups.[[nbsp]][[nbsp]]Very[[nbsp]]long[[nbsp]]theory[[nbsp]]sections.</span> </td> </tr> <tr> <td> Line 44: </td> <td> Line 44: </td> </tr> <tr> <td> <span>- * 115. Instrumental Analysis - More 105. Very little new material. Long write ups. Neat experiments (roughly 7). <br> - - This is easily the most time consuming class I have taken at Davis. The lab manual is a poorly written joke and the teachers tend to have unreasonably high expectations. Many of the analytical instruments are prone to failure at random times so expect much frustration. - ["DanMasiel"]<br> - <br> - * 125. Advanced Methods in Physical Chemistry (4) - More spectroscopy. VERY cool stuff. VERY long write ups - only 4 experiments in the quarter.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]115.[[nbsp]]Instrumental[[nbsp]]Analysis[[nbsp]]-[[nbsp]]More[[nbsp]]105.[[nbsp]][[nbsp]]Very[[nbsp]]little[[nbsp]]new[[nbsp]]material.[[nbsp]][[nbsp]]Long[[nbsp]]write[[nbsp]]ups.[[nbsp]][[nbsp]]Neat[[nbsp]]experiments[[nbsp]](roughly[[nbsp]]7).[[nbsp]]<br> + [[nbsp]][[nbsp]][[nbsp]][[nbsp]]-[[nbsp]]This[[nbsp]]is[[nbsp]]easily[[nbsp]]the[[nbsp]]most[[nbsp]]time[[nbsp]]consuming[[nbsp]]class[[nbsp]]I[[nbsp]]have[[nbsp]]taken[[nbsp]]at[[nbsp]]Davis.[[nbsp]]The[[nbsp]]lab[[nbsp]]manual[[nbsp]]is[[nbsp]]a[[nbsp]]poorly[[nbsp]]written[[nbsp]]joke[[nbsp]]and[[nbsp]]the[[nbsp]]teachers[[nbsp]]tend[[nbsp]]to[[nbsp]]have[[nbsp]]unreasonably[[nbsp]]high[[nbsp]]expectations.[[nbsp]]Many[[nbsp]]of[[nbsp]]the[[nbsp]]analytical[[nbsp]]instruments[[nbsp]]are[[nbsp]]prone[[nbsp]]to[[nbsp]]failure[[nbsp]]at[[nbsp]]random[[nbsp]]times[[nbsp]]so[[nbsp]]expect[[nbsp]]much[[nbsp]]frustration.[[nbsp]]-[[nbsp]]["DanMasiel" DanMasiel]<br> + [[nbsp]]<br> + [[nbsp]]*[[nbsp]]125.[[nbsp]]Advanced[[nbsp]]Methods[[nbsp]]in[[nbsp]]Physical[[nbsp]]Chemistry[[nbsp]](4)[[nbsp]]-[[nbsp]]More[[nbsp]]spectroscopy.[[nbsp]][[nbsp]]VERY[[nbsp]]cool[[nbsp]]stuff.[[nbsp]][[nbsp]]VERY[[nbsp]]long[[nbsp]]write[[nbsp]]ups[[nbsp]]-[[nbsp]]only[[nbsp]]4[[nbsp]]experiments[[nbsp]]in[[nbsp]]the[[nbsp]]quarter.</span> </td> </tr> <tr> <td> Line 49: </td> <td> Line 49: </td> </tr> <tr> <td> <span>-</span> <span>&nbsp;</span>*<span>&nbsp;</span>110A.<span>&nbsp;</span>Physical<span>&nbsp;</span>Chemistry:<span>&nbsp;</span>Introduction<span>&nbsp;to </span>Quantum<span>&nbsp;</span>Mechanics<span>&nbsp;</span>-<span>&nbsp;</span>Quantum<span>&nbsp;</span>Mechanics.<span>&nbsp;&nbsp;</span>If<span>&nbsp;</span>you<span>&nbsp;</span>like<span>&nbsp;</span>math,<span>&nbsp;</span>have<span>&nbsp;a </span>good<span>&nbsp;</span>working<span>&nbsp;</span>knowledge<span>&nbsp;</span>of<span>&nbsp;</span>Math<span>&nbsp;</span>21A-C,<span>&nbsp;</span>and<span>&nbsp;</span>enjoy<span>&nbsp;</span>theoretical<span>&nbsp;</span>stuffs,<span>&nbsp;it is a </span>fantastic<span>&nbsp;</span>class. </td> <td> <span>+</span> <span>[[nbsp]]</span>*<span>[[nbsp]]</span>110A.<span>[[nbsp]]</span>Physical<span>[[nbsp]]</span>Chemistry:<span>[[nbsp]]</span>Introduction<span>[[nbsp]]to[[nbsp]]</span>Quantum<span>[[nbsp]]</span>Mechanics<span>[[nbsp]]</span>-<span>[[nbsp]]</span>Quantum<span>[[nbsp]]</span>Mechanics.<span>[[nbsp]][[nbsp]]</span>If<span>[[nbsp]]</span>you<span>[[nbsp]]</span>like<span>[[nbsp]]</span>math,<span>[[nbsp]]</span>have<span>[[nbsp]]a[[nbsp]]</span>good<span>[[nbsp]]</span>working<span>[[nbsp]]</span>knowledge<span>[[nbsp]]</span>of<span>[[nbsp]]</span>Math<span>[[nbsp]]</span>21A-C,<span>[[nbsp]]</span>and<span>[[nbsp]]</span>enjoy<span>[[nbsp]]</span>theoretical<span>[[nbsp]]</span>stuffs,<span>[[nbsp]]it[[nbsp]]is[[nbsp]]a[[nbsp]]</span>fantastic<span>[[nbsp]]</span>class. </td> </tr> <tr> <td> Line 51: </td> <td> Line 51: </td> </tr> <tr> <td> <span>- * 110B. Physical Chemistry: Properties of Atoms and Molecules - Take 124A first or concurrently, beacuse group theory is not given enough lecture time in this class. Not the most interesting of the chemistry classes. More spectrocopy from 110A, a throwback to 124A and a preview of 110C.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]110B.[[nbsp]]Physical[[nbsp]]Chemistry:[[nbsp]]Properties[[nbsp]]of[[nbsp]]Atoms[[nbsp]]and[[nbsp]]Molecules[[nbsp]]-[[nbsp]]Take[[nbsp]]124A[[nbsp]]first[[nbsp]]or[[nbsp]]concurrently,[[nbsp]]beacuse[[nbsp]]group[[nbsp]]theory[[nbsp]]is[[nbsp]]not[[nbsp]]given[[nbsp]]enough[[nbsp]]lecture[[nbsp]]time[[nbsp]]in[[nbsp]]this[[nbsp]]class.[[nbsp]][[nbsp]]Not[[nbsp]]the[[nbsp]]most[[nbsp]]interesting[[nbsp]]of[[nbsp]]the[[nbsp]]chemistry[[nbsp]]classes.[[nbsp]]More[[nbsp]]spectrocopy[[nbsp]]from[[nbsp]]110A,[[nbsp]][[nbsp]]a[[nbsp]]throwback[[nbsp]]to[[nbsp]]124A[[nbsp]]and[[nbsp]]a[[nbsp]]preview[[nbsp]]of[[nbsp]]110C.</span> </td> </tr> <tr> <td> Line 53: </td> <td> Line 53: </td> </tr> <tr> <td> <span>-</span> <span>&nbsp;</span>*<span>&nbsp;</span>110C.<span>&nbsp;</span>Physical<span>&nbsp;</span>Chemistry:<span>&nbsp;</span>Thermodynamics,<span>&nbsp;</span>Equilibria<span>&nbsp;</span>and<span>&nbsp;</span>Kinetics<span>&nbsp;</span>-<span>&nbsp;</span>More<span>&nbsp;</span>and<span>&nbsp;</span>harder<span>&nbsp;</span>Chem<span>&nbsp;</span>2B. </td> <td> <span>+</span> <span>[[nbsp]]</span>*<span>[[nbsp]]</span>110C.<span>[[nbsp]]</span>Physical<span>[[nbsp]]</span>Chemistry:<span>[[nbsp]]</span>Thermodynamics,<span>[[nbsp]]</span>Equilibria<span>[[nbsp]]</span>and<span>[[nbsp]]</span>Kinetics<span>[[nbsp]]</span>-<span>[[nbsp]]</span>More<span>[[nbsp]]</span>and<span>[[nbsp]]</span>harder<span>[[nbsp]]</span>Chem<span>[[nbsp]]</span>2B. </td> </tr> <tr> <td> Line 55: </td> <td> Line 55: </td> </tr> <tr> <td> <span>- * 124A. Inorganic Chemistry: Fundamentals - This is one of those classes that focuses a LOT on a very few basic ideas - if you don't understand symmetry and point group assignment, you will have a very difficult time drawing molecular orbital diagrams (the final and hardest topic of the class).</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]124A.[[nbsp]]Inorganic[[nbsp]]Chemistry:[[nbsp]]Fundamentals[[nbsp]]-[[nbsp]]This[[nbsp]]is[[nbsp]]one[[nbsp]]of[[nbsp]]those[[nbsp]]classes[[nbsp]]that[[nbsp]]focuses[[nbsp]]a[[nbsp]]LOT[[nbsp]]on[[nbsp]]a[[nbsp]]very[[nbsp]]few[[nbsp]]basic[[nbsp]]ideas[[nbsp]]-[[nbsp]]if[[nbsp]]you[[nbsp]]don't[[nbsp]]understand[[nbsp]]symmetry[[nbsp]]and[[nbsp]]point[[nbsp]]group[[nbsp]]assignment,[[nbsp]]you[[nbsp]]will[[nbsp]]have[[nbsp]]a[[nbsp]]very[[nbsp]]difficult[[nbsp]]time[[nbsp]]drawing[[nbsp]][[nbsp]]molecular[[nbsp]]orbital[[nbsp]]diagrams[[nbsp]](the[[nbsp]]final[[nbsp]]and[[nbsp]]hardest[[nbsp]]topic[[nbsp]]of[[nbsp]]the[[nbsp]]class).</span> </td> </tr> <tr> <td> Line 57: </td> <td> Line 57: </td> </tr> <tr> <td> <span>- * 124B. Inorganic Chemistry: Main Group Elements - So far so good - going into the details and nuances of the main group elements (s and p fillers).</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]124B.[[nbsp]]Inorganic[[nbsp]]Chemistry:[[nbsp]]Main[[nbsp]]Group[[nbsp]]Elements[[nbsp]]-[[nbsp]]So[[nbsp]]far[[nbsp]]so[[nbsp]]good[[nbsp]]-[[nbsp]]going[[nbsp]]into[[nbsp]]the[[nbsp]]details[[nbsp]]and[[nbsp]]nuances[[nbsp]]of[[nbsp]]the[[nbsp]]main[[nbsp]]group[[nbsp]]elements[[nbsp]](s[[nbsp]]and[[nbsp]]p[[nbsp]]fillers).</span> </td> </tr> <tr> <td> Line 59: </td> <td> Line 59: </td> </tr> <tr> <td> <span>- * 124C. Inorganic Chemistry: d and f Block Elements - Spring. </span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]124C.[[nbsp]]Inorganic[[nbsp]]Chemistry:[[nbsp]]d[[nbsp]]and[[nbsp]]f[[nbsp]]Block[[nbsp]]Elements[[nbsp]]-[[nbsp]]Spring.[[nbsp]]</span> </td> </tr> <tr> <td> Line 61: </td> <td> Line 61: </td> </tr> <tr> <td> <span>-</span> <span>&nbsp;</span>*<span>&nbsp;</span>124L.<span>&nbsp;</span>Laboratory<span>&nbsp;</span>Methods<span>&nbsp;</span>in<span>&nbsp;</span>Inorganic<span>&nbsp;</span>Chemistry<span>&nbsp;</span>-<span>&nbsp;</span>Spring<span>&nbsp;</span> </td> <td> <span>+</span> <span>[[nbsp]]</span>*<span>[[nbsp]]</span>124L.<span>[[nbsp]]</span>Laboratory<span>[[nbsp]]</span>Methods<span>[[nbsp]]</span>in<span>[[nbsp]]</span>Inorganic<span>[[nbsp]]</span>Chemistry<span>[[nbsp]]</span>-<span>[[nbsp]]</span>Spring<span>[[nbsp]]</span> </td> </tr> <tr> <td> Line 63: </td> <td> Line 63: </td> </tr> <tr> <td> <span>-</span> <span>&nbsp;</span>*<span>&nbsp;</span>128A.<span>&nbsp;</span>Organic<span>&nbsp;</span>Chemistry<span>&nbsp;</span>-<span>&nbsp;</span>Organic<span>&nbsp;</span>chemistry<span>&nbsp;</span>is<span>&nbsp;</span>evil.<span>&nbsp;&nbsp;</span>Run<span>&nbsp;</span>away. </td> <td> <span>+</span> <span>[[nbsp]]</span>*<span>[[nbsp]]</span>128A.<span>[[nbsp]]</span>Organic<span>[[nbsp]]</span>Chemistry<span>[[nbsp]]</span>-<span>[[nbsp]]</span>Organic<span>[[nbsp]]</span>chemistry<span>[[nbsp]]</span>is<span>[[nbsp]]</span>evil.<span>[[nbsp]][[nbsp]]</span>Run<span>[[nbsp]]</span>away. </td> </tr> <tr> <td> Line 65: </td> <td> Line 65: </td> </tr> <tr> <td> <span>- * 128B. Organic Chemistry - Organic chemistry is evil. Run away. As fast as you can.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]128B.[[nbsp]]Organic[[nbsp]]Chemistry[[nbsp]]-[[nbsp]]Organic[[nbsp]]chemistry[[nbsp]]is[[nbsp]]evil.[[nbsp]][[nbsp]]Run[[nbsp]]away.[[nbsp]]As[[nbsp]]fast[[nbsp]]as[[nbsp]]you[[nbsp]]can.</span> </td> </tr> <tr> <td> Line 67: </td> <td> Line 67: </td> </tr> <tr> <td> <span>- * 128C. Organic Chemistry - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]128C.[[nbsp]]Organic[[nbsp]]Chemistry[[nbsp]]-[[nbsp]]Organic[[nbsp]]chemistry[[nbsp]]is[[nbsp]]evil.[[nbsp]][[nbsp]]Run[[nbsp]]away.[[nbsp]]As[[nbsp]]fast[[nbsp]]as[[nbsp]]you[[nbsp]]can.[[nbsp]][[nbsp]]In[[nbsp]]the[[nbsp]]opposite[[nbsp]]direction.</span> </td> </tr> <tr> <td> Line 69: </td> <td> Line 69: </td> </tr> <tr> <td> <span>- * 129A. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]129A.[[nbsp]]Organic[[nbsp]]Chemistry[[nbsp]]Laboratory[[nbsp]]-[[nbsp]]Organic[[nbsp]]chemistry[[nbsp]]is[[nbsp]]evil.[[nbsp]][[nbsp]]Run[[nbsp]]away.[[nbsp]]As[[nbsp]]fast[[nbsp]]as[[nbsp]]you[[nbsp]]can.[[nbsp]][[nbsp]]In[[nbsp]]the[[nbsp]]opposite[[nbsp]]direction.[[nbsp]][[nbsp]]Now.</span> </td> </tr> <tr> <td> Line 71: </td> <td> Line 71: </td> </tr> <tr> <td> <span>- * 129B. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry. </span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]129B.[[nbsp]]Organic[[nbsp]]Chemistry[[nbsp]]Laboratory[[nbsp]]-[[nbsp]]Organic[[nbsp]]chemistry[[nbsp]]is[[nbsp]]evil.[[nbsp]][[nbsp]]Run[[nbsp]]away.[[nbsp]]As[[nbsp]]fast[[nbsp]]as[[nbsp]]you[[nbsp]]can.[[nbsp]][[nbsp]]In[[nbsp]]the[[nbsp]]opposite[[nbsp]]direction.[[nbsp]][[nbsp]]Now.[[nbsp]]Hurry.[[nbsp]][[nbsp]]</span> </td> </tr> <tr> <td> Line 73: </td> <td> Line 73: </td> </tr> <tr> <td> <span>- * 129C. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry. While you still can. Don't say I didn't warn you.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]129C.[[nbsp]]Organic[[nbsp]]Chemistry[[nbsp]]Laboratory[[nbsp]]-[[nbsp]]Organic[[nbsp]]chemistry[[nbsp]]is[[nbsp]]evil.[[nbsp]][[nbsp]]Run[[nbsp]]away.[[nbsp]]As[[nbsp]]fast[[nbsp]]as[[nbsp]]you[[nbsp]]can.[[nbsp]][[nbsp]]In[[nbsp]]the[[nbsp]]opposite[[nbsp]]direction.[[nbsp]][[nbsp]]Now.[[nbsp]]Hurry.[[nbsp]][[nbsp]]While[[nbsp]]you[[nbsp]]still[[nbsp]]can.[[nbsp]][[nbsp]]Don't[[nbsp]]say[[nbsp]]I[[nbsp]]didn't[[nbsp]]warn[[nbsp]]you.</span> </td> </tr> <tr> <td> Line 75: </td> <td> Line 75: </td> </tr> <tr> <td> <span>- * 131. Modern Methods of Organic Synthesis - If you didn't like, nay ABSOLUTELY LOVE as though it were your twisted country cousin, or were not very very VERY nobel prize winning good at Chem 128/129 -DO NOT WHATEVER YOU DO TAKE THIS CLASS. I'm dead serious. I still don't know what possessed me...</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]131.[[nbsp]]Modern[[nbsp]]Methods[[nbsp]]of[[nbsp]]Organic[[nbsp]]Synthesis[[nbsp]]-[[nbsp]][[nbsp]]If[[nbsp]]you[[nbsp]]didn't[[nbsp]]like,[[nbsp]]nay[[nbsp]]ABSOLUTELY[[nbsp]]LOVE[[nbsp]]as[[nbsp]]though[[nbsp]]it[[nbsp]]were[[nbsp]]your[[nbsp]]twisted[[nbsp]]country[[nbsp]]cousin,[[nbsp]]or[[nbsp]]were[[nbsp]]not[[nbsp]]very[[nbsp]]very[[nbsp]]VERY[[nbsp]]nobel[[nbsp]]prize[[nbsp]]winning[[nbsp]]good[[nbsp]]at[[nbsp]]Chem[[nbsp]]128/129[[nbsp]]-DO[[nbsp]]NOT[[nbsp]]WHATEVER[[nbsp]]YOU[[nbsp]]DO[[nbsp]]TAKE[[nbsp]]THIS[[nbsp]]CLASS.[[nbsp]][[nbsp]]I'm[[nbsp]]dead[[nbsp]]serious.[[nbsp]][[nbsp]]I[[nbsp]]still[[nbsp]]don't[[nbsp]]know[[nbsp]]what[[nbsp]]possessed[[nbsp]]me...</span> </td> </tr> <tr> <td> Line 77: </td> <td> Line 77: </td> </tr> <tr> <td> <span>- * 121. Introduction to Molecular Structure and Spectra - Good class. Lots of hard theory and very little reading of actual spectra.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]121.[[nbsp]]Introduction[[nbsp]]to[[nbsp]]Molecular[[nbsp]]Structure[[nbsp]]and[[nbsp]]Spectra[[nbsp]]-[[nbsp]]Good[[nbsp]]class.[[nbsp]][[nbsp]]Lots[[nbsp]]of[[nbsp]]hard[[nbsp]]theory[[nbsp]]and[[nbsp]]very[[nbsp]]little[[nbsp]]reading[[nbsp]]of[[nbsp]]actual[[nbsp]]spectra.</span> </td> </tr> <tr> <td> Line 79: </td> <td> Line 79: </td> </tr> <tr> <td> <span>- * 150. Chemistry of Natural Products - VERY cool class. Natural products can do almost anything.</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]150.[[nbsp]]Chemistry[[nbsp]]of[[nbsp]]Natural[[nbsp]]Products[[nbsp]]-[[nbsp]]VERY[[nbsp]]cool[[nbsp]]class.[[nbsp]][[nbsp]]Natural[[nbsp]]products[[nbsp]]can[[nbsp]]do[[nbsp]]almost[[nbsp]]anything.</span> </td> </tr> <tr> <td> Line 81: </td> <td> Line 81: </td> </tr> <tr> <td> <span>- * 199. Special Study for Advanced Undergraduates - DO UNDERGRADUATE RESEARCH! Now. It is the only way to get into grad school.<br> - - Read the above over again 2 times. It is the best advice I have seen on the wiki. - ["DanMasiel"]</span> </td> <td> <span>+ [[nbsp]]*[[nbsp]]199.[[nbsp]]Special[[nbsp]]Study[[nbsp]]for[[nbsp]]Advanced[[nbsp]]Undergraduates[[nbsp]]-[[nbsp]]DO[[nbsp]]UNDERGRADUATE[[nbsp]]RESEARCH![[nbsp]][[nbsp]]Now.[[nbsp]][[nbsp]]It[[nbsp]]is[[nbsp]]the[[nbsp]]only[[nbsp]]way[[nbsp]]to[[nbsp]]get[[nbsp]]into[[nbsp]]grad[[nbsp]]school.<br> + [[nbsp]][[nbsp]][[nbsp]][[nbsp]][[nbsp]]-[[nbsp]]Read[[nbsp]]the[[nbsp]]above[[nbsp]]over[[nbsp]]again[[nbsp]]2[[nbsp]]times.[[nbsp]]It[[nbsp]]is[[nbsp]]the[[nbsp]]best[[nbsp]]advice[[nbsp]]I[[nbsp]]have[[nbsp]]seen[[nbsp]]on[[nbsp]]the[[nbsp]]wiki.[[nbsp]]-[[nbsp]]["DanMasiel" DanMasiel]</span> </td> </tr> <tr> <td> Line 84: </td> <td> Line 84: </td> </tr> <tr> <td> <span>-</span> '''Home<span>&nbsp;</span>Page''' </td> <td> <span>+</span> '''Home<span>[[nbsp]]</span>Page''' </td> </tr> <tr> <td> Line 86: </td> <td> Line 86: </td> </tr> <tr> <td> <span>-</span> for<span>&nbsp;</span>more<span>&nbsp;</span>information,<span>&nbsp;</span>visit<span>&nbsp;</span>the<span>&nbsp;</span>[http://www.chem.ucdavis.edu Chemistry Department Home Page] </td> <td> <span>+</span> for<span>[[nbsp]]</span>more<span>[[nbsp]]</span>information,<span>[[nbsp]]</span>visit<span>[[nbsp]]</span>the<span>[[nbsp]]</span>[http://www.chem.ucdavis.edu Chemistry Department Home Page] </td> </tr> <tr> <td> Line 89: </td> <td> Line 89: </td> </tr> <tr> <td> <span>- ''Perhaps this page would be more useful with personal accounts/summaries of classes instead of a verbatim copy of the ["General Catalog"]. After all, you can just link to the ["General Catalog"] and the website for the major to give people this information'' - ["PhilipNeustrom"]</span> </td> <td> <span>+ ''Perhaps[[nbsp]]this[[nbsp]]page[[nbsp]]would[[nbsp]]be[[nbsp]]more[[nbsp]]useful[[nbsp]]with[[nbsp]]personal[[nbsp]]accounts/summaries[[nbsp]]of[[nbsp]]classes[[nbsp]]instead[[nbsp]]of[[nbsp]]a[[nbsp]]verbatim[[nbsp]]copy[[nbsp]]of[[nbsp]]the[[nbsp]]["General Catalog" General_Catalog].[[nbsp]][[nbsp]]After[[nbsp]]all,[[nbsp]]you[[nbsp]]can[[nbsp]]just[[nbsp]]link[[nbsp]]to[[nbsp]]the[[nbsp]]["General Catalog" General_Catalog][[nbsp]]and[[nbsp]]the[[nbsp]]website[[nbsp]]for[[nbsp]]the[[nbsp]]major[[nbsp]]to[[nbsp]]give[[nbsp]]people[[nbsp]]this[[nbsp]]information''[[nbsp]]-[[nbsp]]["PhilipNeustrom" PhilipNeustrom]</span> </td> </tr> <tr> <td> Line 91: </td> <td> Line 91: </td> </tr> <tr> <td> <span>-</span> I<span>&nbsp;</span>second<span>&nbsp;</span>what<span>&nbsp;</span>["PhilipNeustrom"]<span>&nbsp;</span>said<span>&nbsp;</span>-<span>&nbsp;</span>["BryanBell"] </td> <td> <span>+</span> I<span>[[nbsp]]</span>second<span>[[nbsp]]</span>what<span>[[nbsp]]</span>["PhilipNeustrom"<span>&nbsp;PhilipNeustrom</span>]<span>[[nbsp]]</span>said<span>[[nbsp]]</span>-<span>[[nbsp]]</span>["BryanBell"<span>&nbsp;BryanBell</span>] </td> </tr> <tr> <td> Line 93: </td> <td> Line 93: </td> </tr> <tr> <td> <span>- Yes!!! Please, add your reviews of these classes. Unless you liked organic chemistry. All people who liked organic chemistry will be shot on sight. - ["SarahHillard"]</span> </td> <td> <span>+ Yes!!![[nbsp]][[nbsp]]Please,[[nbsp]]add[[nbsp]]your[[nbsp]]reviews[[nbsp]]of[[nbsp]]these[[nbsp]]classes.[[nbsp]][[nbsp]]Unless[[nbsp]]you[[nbsp]]liked[[nbsp]]organic[[nbsp]]chemistry.[[nbsp]][[nbsp]]All[[nbsp]]people[[nbsp]]who[[nbsp]]liked[[nbsp]]organic[[nbsp]]chemistry[[nbsp]]will[[nbsp]]be[[nbsp]]shot[[nbsp]]on[[nbsp]]sight.[[nbsp]]-[[nbsp]]["SarahHillard" SarahHillard]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-02-09 15:23:16AbbyLawsonAdded General Chem. comment <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 20: </td> <td> Line 20: </td> </tr> <tr> <td> <span>- * Basic chemistry. Almost all of high school chemistry is reviewed with only a few new insights. Bear in mind - that's still a whole year smushed into ten weeks. </span> </td> <td> <span>+ * Basic chemistry. Almost all of basic high school chemistry is reviewed with only a few new insights. Bear in mind - that's still a whole year smushed into ten weeks. Supposedly, the class is harder during Fall Quarter because that's when most of the pre-meds enroll, so if you need the class but aren't a pre-med, sometimes waiting until Winter is the best option.</span> </td> </tr> <tr> <td> Line 26: </td> <td> Line 26: </td> </tr> <tr> <td> <span>-</span> * pH (aka solution equilibria) and thermodynamics. The MOST boring of the series and possibly the most difficult. </td> <td> <span>+</span> * pH (aka solution equilibria) and thermodynamics. The MOST boring of the series and possibly the most difficult.<span>&nbsp;This part of the series has arguably the most painful labs, heavy emphasis on titration and making graphs.</span> </td> </tr> <tr> <td> Line 28: </td> <td> Line 28: </td> </tr> <tr> <td> </td> <td> <span>+ - This was my favorite of the General Chemistry series, but it was definitely the hardest. Dr. Augustine teaches it during Winter and although he's a tough teacher, he makes lectures entertaining. For example, when lecturing on entropy, he demonstrated it with a ["forty"] of King Cobra. -["AbbyLawson"]</span> </td> </tr> <tr> <td> Line 32: </td> <td> Line 33: </td> </tr> <tr> <td> <span>-</span> * Electrochemistry, radioactivity, bonding and a whole mish-mash of other stuff. The most interesting of the series because of the variety. More concepts and not as many mundane calculations as in A or B. </td> <td> <span>+</span> * Electrochemistry, radioactivit<span>y, transition elements, an introduction to organic chemistr</span>y, bonding and a whole mish-mash of other stuff. The most interesting of the series because of the variety. More concepts and not as many mundane calculations as in A or B. </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-02-09 15:01:07DanMasiel <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 8: </td> <td> Line 8: </td> </tr> <tr> <td> </td> <td> <span>+ <br> + '''Research Groups'''<br> + <br> + ["The Nanofast Group"]</span> </td> </tr> <tr> <td> Line 20: </td> <td> Line 24: </td> </tr> <tr> <td> <span>- </span> </td> <td> <span>+ </span> </td> </tr> <tr> <td> Line 39: </td> <td> Line 43: </td> </tr> <tr> <td> <span>- * 115. Instrumental Analysis - More 105. Very little new material. Long write ups. Neat experiments.<br> - </span> </td> <td> <span>+ * 115. Instrumental Analysis - More 105. Very little new material. Long write ups. Neat experiments (roughly 7). <br> + - This is easily the most time consuming class I have taken at Davis. The lab manual is a poorly written joke and the teachers tend to have unreasonably high expectations. Many of the analytical instruments are prone to failure at random times so expect much frustration. - ["DanMasiel"]<br> + </span> </td> </tr> <tr> <td> Line 45: </td> <td> Line 50: </td> </tr> <tr> <td> <span>-</span> * 110B. Physical Chemistry: Properties of Atoms and Molecules - <span>It helps to have t</span>ake<span>n</span> 124A first. Not the most interesting of the chemistry classes.<span>&nbsp;</span> More spectrocopy from 110A, a throwback to 124A and a preview of 110C. </td> <td> <span>+</span> * 110B. Physical Chemistry: Properties of Atoms and Molecules - <span>T</span>ake 124A first<span>&nbsp;or concurrently, beacuse group theory is not given enough lecture time in this class</span>. Not the most interesting of the chemistry classes. More spectrocopy from 110A, a throwback to 124A and a preview of 110C. </td> </tr> <tr> <td> Line 76: </td> <td> Line 81: </td> </tr> <tr> <td> </td> <td> <span>+ - Read the above over again 2 times. It is the best advice I have seen on the wiki. - ["DanMasiel"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-01-19 18:37:54SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 17: </td> <td> Line 17: </td> </tr> <tr> <td> <span>-</span> * If you liked this, you'll like Chem 110A </td> <td> <span>+</span> * If you liked this, you'll like Chem 110A<span>&nbsp;and random chunks of Chem 124A.</span> </td> </tr> <tr> <td> Line 31: </td> <td> Line 31: </td> </tr> <tr> <td> <span>-</span> * 2CH. Honors General Chemistry - A much smaller class - 25 students. If you qualify based on the assessment tests or your Chem2A or Chem 2B grade, definitely take it. The smaller class is worth it. There are also two three hour labs each week instead of one. REALLY fun experiments<span>.</span> </td> <td> <span>+</span> * 2CH. Honors General Chemistry - A much smaller class - 25 students. If you qualify based on the assessment tests or your Chem2A or Chem 2B grade, definitely take it. The smaller class is worth it. There are also two three hour labs each week instead of one. REALLY fun experiments<span>&nbsp;that actually mean something.</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-01-19 18:36:26SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 29: </td> <td> Line 29: </td> </tr> <tr> <td> <span>-</span> * If you liked this, you'll like 124A, 105/115/125, and parts of Chem 110B </td> <td> <span>+</span> * If you liked this, you'll like 124A<span>/B</span>,<span>&nbsp;Chem</span> 105/115/125, and parts of Chem 110B </td> </tr> <tr> <td> Line 45: </td> <td> Line 45: </td> </tr> <tr> <td> <span>-</span> * 110B. Physical Chemistry: Properties of Atoms and Molecules - It helps to have taken 124A first. Not the most interesting of the chemistry classes. </td> <td> <span>+</span> * 110B. Physical Chemistry: Properties of Atoms and Molecules - It helps to have taken 124A first. Not the most interesting of the chemistry classes.<span>&nbsp;&nbsp;More spectrocopy from 110A, a throwback to 124A and a preview of 110C.</span> </td> </tr> <tr> <td> Line 49: </td> <td> Line 49: </td> </tr> <tr> <td> <span>- * 124A. Inorganic Chemistry: Fundamentals - Good stuff. I JUST took the final. Please don't make me think about it right now.</span> </td> <td> <span>+ * 124A. Inorganic Chemistry: Fundamentals - This is one of those classes that focuses a LOT on a very few basic ideas - if you don't understand symmetry and point group assignment, you will have a very difficult time drawing molecular orbital diagrams (the final and hardest topic of the class).</span> </td> </tr> <tr> <td> Line 51: </td> <td> Line 51: </td> </tr> <tr> <td> <span>- * 124B. Inorganic Chemistry: Main Group Elements - Registered for it for next quarter</span> </td> <td> <span>+ * 124B. Inorganic Chemistry: Main Group Elements - So far so good - going into the details and nuances of the main group elements (s and p fillers).</span> </td> </tr> <tr> <td> Line 69: </td> <td> Line 69: </td> </tr> <tr> <td> <span>-</span> * 131. Modern Methods of Organic Synthesis - If you didn't like or were not very very VERY good at Chem 128/129 -DO NOT WHATEVER YOU DO TAKE THIS CLASS. I still don't know what possessed me... </td> <td> <span>+</span> * 131. Modern Methods of Organic Synthesis - If you didn't like<span>, nay ABSOLUTELY LOVE as though it were your twisted country cousin,</span> or were not very very VERY<span>&nbsp;nobel prize winning</span> good at Chem 128/129 -DO NOT WHATEVER YOU DO TAKE THIS CLASS. I<span>'m dead serious. I</span> still don't know what possessed me... </td> </tr> <tr> <td> Line 79: </td> <td> Line 79: </td> </tr> <tr> <td> <span>-</span> for more information, visit the [http://www.chem.ucdavis.edu <span>c</span>hemistry <span>d</span>epartment <span>h</span>ome <span>p</span>age] </td> <td> <span>+</span> for more information, visit the [http://www.chem.ucdavis.edu <span>C</span>hemistry <span>D</span>epartment <span>H</span>ome <span>P</span>age] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2005-01-19 18:25:42JabberWokkySpalling. <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 3: </td> <td> Line 3: </td> </tr> <tr> <td> <span>-</span> The Chemistry Department is located in the creativly named Chemistry Building. </td> <td> <span>+</span> The Chemistry Department is located in the creativ<span>e</span>ly named Chemistry Building. </td> </tr> <tr> <td> Line 19: </td> <td> Line 19: </td> </tr> <tr> <td> <span>-</span> * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definitly take it. The smaller class is worth it. </td> <td> <span>+</span> * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definit<span>e</span>ly take it. The smaller class is worth it. </td> </tr> <tr> <td> Line 22: </td> <td> Line 22: </td> </tr> <tr> <td> <span>-</span> * pH (aka solution equilibra) and thermodynamics. The MOST boring of the series and possibly the most difficult. </td> <td> <span>+</span> * pH (aka solution equilibr<span>i</span>a) and thermodynamics. The MOST boring of the series and possibly the most difficult. </td> </tr> <tr> <td> Line 25: </td> <td> Line 25: </td> </tr> <tr> <td> <span>-</span> * 2BH. Honors General Chemistry - A much smaller class - 50 students. If you qualify based on the assessment tests or your Chem 2A grade, definitly take it. The smaller class is worth it. </td> <td> <span>+</span> * 2BH. Honors General Chemistry - A much smaller class - 50 students. If you qualify based on the assessment tests or your Chem 2A grade, definit<span>e</span>ly take it. The smaller class is worth it. </td> </tr> <tr> <td> Line 28: </td> <td> Line 28: </td> </tr> <tr> <td> <span>- * Electrochemistry, radioactivity, bonding and a whole mish-mash of other stuff. The most interesting of the series because of the variety. More concepts and not as many mundane calulations as in A or B.</span> </td> <td> <span>+ * Electrochemistry, radioactivity, bonding and a whole mish-mash of other stuff. The most interesting of the series because of the variety. More concepts and not as many mundane calculations as in A or B.</span> </td> </tr> <tr> <td> Line 31: </td> <td> Line 31: </td> </tr> <tr> <td> - <span>&nbsp;* 2CH. Honors General Chemistry</span> - A <span>much smaller class - 25 students. If you qualify based on the assessment tests or your Chem2A </span>or Chem 2B grade, definitly take it. The smaller class is worth it. There are also two three hour labs each week instead of one. REALLY fun experiments. </td> <td> <span>+ * 2CH. Honors General Chemistry </span>- <span>A much smaller class</span> - <span>25 students. If you qualify based on the assessment tests or your Chem2</span>A or Chem 2B grade, definit<span>e</span>ly take it. The smaller class is worth it. There are also two three hour labs each week instead of one. REALLY fun experiments. </td> </tr> <tr> <td> Line 43: </td> <td> Line 43: </td> </tr> <tr> <td> <span>-</span> * 110A. Physical Chemistry: Introduction to Quantum Mechanics - Quantum Mechanics. If you like mat, have a good working knowledge of Math 21A-C, and enjoy theoretical stuffs, it is a fantastic class. </td> <td> <span>+</span> * 110A. Physical Chemistry: Introduction to Quantum Mechanics - Quantum Mechanics. If you like mat<span>h</span>, have a good working knowledge of Math 21A-C, and enjoy theoretical stuffs, it is a fantastic class. </td> </tr> <tr> <td> Line 49: </td> <td> Line 49: </td> </tr> <tr> <td> <span>-</span> * 124A. Inorganic Chemistry: Fundamentals - Good stuff. I JUST took the final. Please don't make me thin<span>g</span> about it right now. </td> <td> <span>+</span> * 124A. Inorganic Chemistry: Fundamentals - Good stuff. I JUST took the final. Please don't make me thin<span>k</span> about it right now. </td> </tr> <tr> <td> Line 69: </td> <td> Line 69: </td> </tr> <tr> <td> <span>-</span> * 131. Modern Methods of Organic Synthesis - If you didn't like or were not very very VERY good at Chem 128/129 -DO NOT WHATEVER YOU DO TAKE THIS CLASS. I still don't know what posessed me... </td> <td> <span>+</span> * 131. Modern Methods of Organic Synthesis - If you didn't like or were not very very VERY good at Chem 128/129 -DO NOT WHATEVER YOU DO TAKE THIS CLASS. I still don't know what pos<span>s</span>essed me... </td> </tr> <tr> <td> Line 82: </td> <td> Line 82: </td> </tr> <tr> <td> <span>-</span> ''Perhaps this page would be more useful with personal accounts/summaries of classes instead of a verbati<span>u</span>m copy of the ["General Catalog"]. After all, you can just link to the ["General Catalog"] and the website for the major to give people this information'' - ["PhilipNeustrom"] </td> <td> <span>+</span> ''Perhaps this page would be more useful with personal accounts/summaries of classes instead of a verbatim copy of the ["General Catalog"]. After all, you can just link to the ["General Catalog"] and the website for the major to give people this information'' - ["PhilipNeustrom"] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-19 00:10:02SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 65: </td> <td> Line 65: </td> </tr> <tr> <td> <span>-</span> * 129B. Organic Chemistry Laboratory<span>&nbsp;(2)</span> - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry. </td> <td> <span>+</span> * 129B. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry. </td> </tr> <tr> <td> Line 69: </td> <td> Line 69: </td> </tr> <tr> <td> <span>-</span> * 131. Modern Methods of Organic Synthesis - If you didn't like or were not very very128/129 -DO NOT WHATEVER YOU DO TAKE THIS CLASS. I still don't know what posessed me... </td> <td> <span>+</span> * 131. Modern Methods of Organic Synthesis - If you didn't like or were not very very<span>&nbsp;VERY good at Chem </span>128/129 -DO NOT WHATEVER YOU DO TAKE THIS CLASS. I still don't know what posessed me... </td> </tr> <tr> <td> Line 71: </td> <td> Line 71: </td> </tr> <tr> <td> <span>-</span> * 121. Introduction to Molecular Structure and Spectra<span>&nbsp;(4)</span> - Good class. Lots of hard theory and very little reading of actual spectra. </td> <td> <span>+</span> * 121. Introduction to Molecular Structure and Spectra - Good class. Lots of hard theory and very little reading of actual spectra. </td> </tr> <tr> <td> Line 75: </td> <td> Line 75: </td> </tr> <tr> <td> <span>- * 199. Special Study for Advanced Undergraduates (1-5)<br> - * Prerequisite: consent of instructor based upon adequate preparation in chemistry, mathematics, and physics. (P/NP grading only.)</span> </td> <td> <span>+ * 199. Special Study for Advanced Undergraduates - DO UNDERGRADUATE RESEARCH! Now. It is the only way to get into grad school.</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-19 00:02:32SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 23: </td> <td> Line 23: </td> </tr> <tr> <td> <span>-</span> * If you liked this, you'll like Chem 105, Chem 110C and parts of Chem 110B </td> <td> <span>+</span> * If you liked this, you'll like Chem 105<span>/115</span>, Chem 110C and parts of Chem 110B </td> </tr> <tr> <td> Line 33: </td> <td> Line 33: </td> </tr> <tr> <td> <span>- * 99</span> </td> <td> <span>+ * 99. Special Study for Undergraduates - DO UNDERGRADUATE RESEARCH! Now. It is the only way to get into grad school.</span> </td> </tr> <tr> <td> Line 39: </td> <td> Line 39: </td> </tr> <tr> <td> <span>- * 115. Instrumental Analysis (4)</span> </td> <td> <span>+ * 115. Instrumental Analysis - More 105. Very little new material. Long write ups. Neat experiments.</span> </td> </tr> <tr> <td> Line 41: </td> <td> Line 41: </td> </tr> <tr> <td> <span>-</span> * 125. Advanced Methods in Physical Chemistry (4) </td> <td> <span>+</span> * 125. Advanced Methods in Physical Chemistry (4)<span>&nbsp;- More spectroscopy. VERY cool stuff. VERY long write ups - only 4 experiments in the quarter.</span> </td> </tr> <tr> <td> Line 49: </td> <td> Line 49: </td> </tr> <tr> <td> <span>- * 124A. Inorganic Chemistry: Fundamentals (3)<br> - * Lecture—3 hours. Prerequisite: course 2C. Symmetry, molecular geometry and structure, molecular orbital theory of bonding (polyatomic molecules and transition metals), solid state chemistry, energetics and spectroscopy of inorganic compounds.</span> </td> <td> <span>+ * 124A. Inorganic Chemistry: Fundamentals - Good stuff. I JUST took the final. Please don't make me thing about it right now.</span> </td> </tr> <tr> <td> Line 52: </td> <td> Line 51: </td> </tr> <tr> <td> <span>- * 124B. Inorganic Chemistry: Main Group Elements (3)<br> - * Lecture—3 hours. Prerequisite: course 124A. Synthesis, structure and reactivity of inorganic and heteroorganic molecules containing the main group elements.</span> </td> <td> <span>+ * 124B. Inorganic Chemistry: Main Group Elements - Registered for it for next quarter</span> </td> </tr> <tr> <td> Line 55: </td> <td> Line 53: </td> </tr> <tr> <td> <span>- * 124C. Inorganic Chemistry: d and f Block Elements (3)<br> - * Lecture—3 hours. Prerequisite: course 124A. Synthesis, structure and reactivity of transition metal complexes, organometallic and bioinorganic chemistry, the lanthanides and actinides.</span> </td> <td> <span>+ * 124C. Inorganic Chemistry: d and f Block Elements - Spring. </span> </td> </tr> <tr> <td> Line 58: </td> <td> Line 55: </td> </tr> <tr> <td> <span>- * 124L. Laboratory Methods in Inorganic Chemistry (2)<br> - * Laboratory—6 hours. Prerequisite: course 124B or 124C (may be taken concurrently). The preparation, purification and characterization of main group and transition metal inorganic and organometallic compounds.</span> </td> <td> <span>+ * 124L. Laboratory Methods in Inorganic Chemistry - Spring </span> </td> </tr> <tr> <td> Line 61: </td> <td> Line 57: </td> </tr> <tr> <td> <span>- * 128A. Organic Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: course 2C with a grade of C or higher; chemistry majors should enroll in course 129A concurrently. Introduction to the basic concepts of organic chemistry with emphasis on stereochemistry and the chemistry of hydrocarbons. Designed primarily for majors in chemistry.</span> </td> <td> <span>+ * 128A. Organic Chemistry - Organic chemistry is evil. Run away.</span> </td> </tr> <tr> <td> Line 64: </td> <td> Line 59: </td> </tr> <tr> <td> <span>- * 128B. Organic Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: course 128A or consent of instructor, course 129A strongly recommended; chemistry majors should enroll in course 129B concurrently. Continuation of course 128A with emphasis on aromatic and aliphatic substitution reactions, elimination reactions, and the chemistry of carbonyl compounds. Introduction to the application of spectroscopic methods to organic chemistry.</span> </td> <td> <span>+ * 128B. Organic Chemistry - Organic chemistry is evil. Run away. As fast as you can.</span> </td> </tr> <tr> <td> Line 67: </td> <td> Line 61: </td> </tr> <tr> <td> <span>- * 128C. Organic Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: course 128B, chemistry majors should enroll in course 129C concurrently. Continuation of course 128B with emphasis on enolate condensations and the chemistry of amines, phenols, and sugars; selected biologically important compounds.</span> </td> <td> <span>+ * 128C. Organic Chemistry - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction.</span> </td> </tr> <tr> <td> Line 70: </td> <td> Line 63: </td> </tr> <tr> <td> <span>- * 129A. Organic Chemistry Laboratory (2)<br> - * Lecture—1 hour; laboratory—3 hours. Prerequisite: course 2C with a grade of C or higher; course 128A (may be taken concurrently). Introduction to laboratory techniques of organic chemistry. Emphasis is on methods used for separation and purification of organic compounds.</span> </td> <td> <span>+ * 129A. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now.</span> </td> </tr> <tr> <td> Line 73: </td> <td> Line 65: </td> </tr> <tr> <td> <span>- * 129B. Organic Chemistry Laboratory (2)<br> - * Laboratory—6 hours. Prerequisite: courses 128B (may be taken concurrently) and 129A. Continuation of course 129A. Emphasis is on methods used for synthesis and isolation of organic compounds.</span> </td> <td> <span>+ * 129B. Organic Chemistry Laboratory (2) - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry. </span> </td> </tr> <tr> <td> Line 76: </td> <td> Line 67: </td> </tr> <tr> <td> <span>- * 129C. Organic Chemistry Laboratory (2)<br> - *Laboratory—6 hours. Prerequisite: courses 128C (may be taken concurrently) and 129B. Continuation of course 129B.</span> </td> <td> <span>+ * 129C. Organic Chemistry Laboratory - Organic chemistry is evil. Run away. As fast as you can. In the opposite direction. Now. Hurry. While you still can. Don't say I didn't warn you.</span> </td> </tr> <tr> <td> Line 79: </td> <td> Line 69: </td> </tr> <tr> <td> <span>- * 131. Modern Methods of Organic Synthesis (3)<br> - *Lecture—3 hours. Prerequisite: course 128C. Introduction to modern synthetic methodology in organic chemistry with emphasis on stereoselective reactions and application to multistep syntheses of organic molecules containing multifunctionality.</span> </td> <td> <span>+ * 131. Modern Methods of Organic Synthesis - If you didn't like or were not very very128/129 -DO NOT WHATEVER YOU DO TAKE THIS CLASS. I still don't know what posessed me...</span> </td> </tr> <tr> <td> Line 82: </td> <td> Line 71: </td> </tr> <tr> <td> <span>-</span> * 121. Introduction to Molecular Structure and Spectra (4) </td> <td> <span>+</span> * 121. Introduction to Molecular Structure and Spectra (4)<span>&nbsp;- Good class. Lots of hard theory and very little reading of actual spectra.</span> </td> </tr> <tr> <td> Line 84: </td> <td> Line 73: </td> </tr> <tr> <td> <span>- * 150. Chemistry of Natural Products (3)<br> - *Lecture—3 hours. Prerequisite; course 128C. Chemistry of terpenes, steroids, acetogenins, and alkaloids: isolation, structure determination, biosynthesis, chemical transformations, and total synthesis. GE credit: SciEng, Wrt.</span> </td> <td> <span>+ * 150. Chemistry of Natural Products - VERY cool class. Natural products can do almost anything.</span> </td> </tr> <tr> <td> Line 96: </td> <td> Line 84: </td> </tr> <tr> <td> <span>- ----- /!\ Edit conflict! Other version: -----<br> - </span> </td> <td> <span>+ -----</span> </td> </tr> <tr> <td> Line 99: </td> <td> Line 86: </td> </tr> <tr> <td> <span>- ----- /!\ Edit conflict! Your version:</span> -----<br> <span>- <br> -</span> Yes!!! Please, add your reviews of these classes. Unless you liked organic chemistry. All people who liked organic chemistry will be shot on sight. - ["SarahHillard"]<span>----- /!\ End of edit conflict -----</span> </td> <td> <span>+</span> -----<br> <span>+</span> Yes!!! Please, add your reviews of these classes. Unless you liked organic chemistry. All people who liked organic chemistry will be shot on sight. - ["SarahHillard"] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-18 23:45:23SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 11: </td> <td> Line 11: </td> </tr> <tr> <td> <span>-</span> as<span>&nbsp;taken directly fr</span>o<span>m</span> the ["General Catalog" UC Davis General Catalog] </td> <td> <span>+ See</span> a<span>l</span>so the ["General Catalog" UC Davis General Catalog] </td> </tr> <tr> <td> Line 15: </td> <td> Line 15: </td> </tr> <tr> <td> <span>- * 2A. General Chemistry (5)<br> - * Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: High school chemistry and physics strongly recommended; satisfactory score on diagnostic examinations. Periodic table, stoichiometry, chemical equations, physical properties and kinetic theory of gases, atomic and molecular structure and chemical bonding. Laboratory experiments in stoichiometric relations, properties and collection of gases, atomic spectroscopy, and introductory quantitative analysis. Only 3 units of credit allowed to students who have completed course 9. GE credit: SciEng.</span> </td> <td> <span>+ * 2A. General Chemistry<br> + * Basic chemistry. Almost all of high school chemistry is reviewed with only a few new insights. Bear in mind - that's still a whole year smushed into ten weeks. <br> + * If you liked this, you'll like Chem 110A</span> </td> </tr> <tr> <td> Line 18: </td> <td> Line 19: </td> </tr> <tr> <td> <span>- * 2AH. Honors General Chemistry (5)<br> - * Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: High school chemistry and physics; satisfactory score on diagnostic examinations; Mathematics 21A (may be taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2A. Students completing course 2AH can continue with course 2BH or 2B.</span> </td> <td> <span>+ * 2AH Honors General Chemistry - A much smaller class - 100 students. If you qualify based on the assessment tests, definitly take it. The smaller class is worth it.</span> </td> </tr> <tr> <td> Line 21: </td> <td> Line 21: </td> </tr> <tr> <td> <span>- * 2B. General Chemistry (5)<br> - * Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2A or 2AH. Continuation of course 2A. Condensed phases and intermolecular forces, chemical thermodynamics, chemical equilibria, acids and bases, solubility. Laboratory experiments in thermochemistry, equilibria, and quantitative analysis using volumetric methods. GE credit</span> </td> <td> <span>+ * 2B. General Chemistry<br> + * pH (aka solution equilibra) and thermodynamics. The MOST boring of the series and possibly the most difficult.<br> + * If you liked this, you'll like Chem 105, Chem 110C and parts of Chem 110B</span> </td> </tr> <tr> <td> Line 24: </td> <td> Line 25: </td> </tr> <tr> <td> <span>- * 2BH. Honors General Chemistry (5)<br> - * Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2A with consent of instructor or course 2AH with a grade of C or better; and Mathematics 21B (maybe taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2B. Students completing course 2BH can continue with course 2CH or 2C.</span> </td> <td> <span>+ * 2BH. Honors General Chemistry - A much smaller class - 50 students. If you qualify based on the assessment tests or your Chem 2A grade, definitly take it. The smaller class is worth it.</span> </td> </tr> <tr> <td> Line 27: </td> <td> Line 27: </td> </tr> <tr> <td> <span>- * 2C. General Chemistry (5)<br> - * Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2B or 2BH. Continuation of course 2B. Kinetics, electrochemistry, spectroscopy, structure and bonding in transition metal compounds, application of principles to chemical reactions. Laboratory experiments in selected analytical methods and syntheses. GE credit: SciEng.</span> </td> <td> <span>+ * 2C. General Chemistry<br> + * Electrochemistry, radioactivity, bonding and a whole mish-mash of other stuff. The most interesting of the series because of the variety. More concepts and not as many mundane calulations as in A or B.<br> + * If you liked this, you'll like 124A, 105/115/125, and parts of Chem 110B</span> </td> </tr> <tr> <td> Line 30: </td> <td> Line 31: </td> </tr> <tr> <td> <span>- * 2CH. Honors General Chemistry (5)<br> - * Lecture—3 hours; laboratory—6 hours. Prerequisite: course 2B with consent of instructor or course 2BH with a grade of C or better; and Mathematics 21C (maybe taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2C.</span> </td> <td> <span>+ * 2CH. Honors General Chemistry - A much smaller class - 25 students. If you qualify based on the assessment tests or your Chem2A or Chem 2B grade, definitly take it. The smaller class is worth it. There are also two three hour labs each week instead of one. REALLY fun experiments.</span> </td> </tr> <tr> <td> Line 33: </td> <td> Line 33: </td> </tr> <tr> <td> <span>- * 8A. Organic Chemistry: Brief Course (2)<br> - * Lecture—2 hours. Prerequisite: course 2B with a grade of C– or higher. With course 8B, an introduction to the nomenclature, structure, chemistry, and reaction mechanisms of organic compounds. Intended for students majoring in areas other than organic chemistry.<br> - <br> - * 8B. Organic Chemistry: Brief Course (4)<br> - * Lecture—3 hours; laboratory—3 hours. Prerequisite: course 8A or 118A. Continuation of course 8A. Laboratory concerned primarily with organic laboratory techniques and the chemistry of the common classes of organic compounds.<br> - <br> - * 10. Concepts of Chemistry (4)<br> - * Lecture—4 hours. A survey of basic concepts and contemporary applications of chemistry. Designed for non-science majors and not as preparation for Chemistry 2A. Course Not open for credit to students who have had Chemistry 2A; but students with credit for course 10 may take Chemistry 2A for full credit. GE credit: SciEng, Wrt.<br> - <br> - * 98. Directed Group Study (1-5)<br> - * Prerequisite: consent of instructor. Primarily for lower division students. (P/NP grading only.)<br> - <br> - * 99. Special Study for Undergraduates (1-5)<br> - * Prerequisite: consent of instructor. (P/NP grading only.</span> </td> <td> <span>+ * 99</span> </td> </tr> <tr> <td> Line 50: </td> <td> Line 37: </td> </tr> <tr> <td> <span>- * 105. Analytical and Physical Chemical Methods (4)<br> - * Lecture—2 hours; laboratory—6 hours. Prerequisite: course 110A (may be taken concurrently) or consent of instructor. Fundamental theory and laboratory techniques in analytical and physical chemistry. Errors and data analysis methods. Basic electrical circuits in instruments. Advanced solution equilibria. Potentiometric analysis. Chromatographic separations. UV-visible spectroscopy. Lasers.<br> - <br> - * 107A. Physical Chemistry for the Life Sciences (3)<br> - * Lecture—3 hours. Prerequisite: course 2C, Mathematics 16C or 21C, one year of college level physics. Physical chemistry intended for majors in the life science area. Introductory development of classical and statistical thermodynamics including equilibrium processes and solutions of both non-electrolytes and electrolytes. The thermodynamic basis of electrochemistry and membrane potentials.<br> - <br> - * 107B. Physical Chemistry for the Life Sciences (3)<br> - * Lecture—3 hours. Prerequisite: course 107A. Continuation of course 107A. Kinetic theory of gases and transport processes in liquids. Chemical kinetics, enzyme kinetics and theories of reaction rates. Introduction to quantum theory, atomic and molecular structure, and spectroscopy. Application to problems in the biological sciences.<br> - <br> - * 108. Physical Chemistry of Macromolecules (3)<br> - * Lecture—3 hours. Prerequisite: course 107B or 110C. Physical properties and characterization of macromolecules with emphasis upon those of biological interest. Structural thermodynamic, optical and transport properties of polymers in bulk and in solution. Physical characterization methods. Special topics on the properties of polyelectrolyte systems.<br> - <br> - * 110A. Physical Chemistry: Introduction to Quantum Mechanics (4)<br> - * Lecture—3 hours; discussion—1 hour. Prerequisite: course 2C, Mathematics 16C or 21C; one year of college physics. Introduction to the postulates and general principles of quantum mechanics. Approximations based on variational method and time independent perturbation theory. Application to harmonic oscillator, rigid rotor, one-electron and many-electron atoms, and homo-and hetero-nuclear diatomic molecules.<br> - <br> - * 110B. Physical Chemistry: Properties of Atoms and Molecules (4)<br> - * Lecture—3 hours; discussion—1 hour. Prerequisite: course 110A. Group theory. Application of quantum mechanics to polyatomic molecules and molecular spectroscopy. Intermolecular forces and the gas, liquid and solid states. Distributions, ensembles and partition functions. Transport properties.<br> - <br> - * 110C. Physical Chemistry: Thermodynamics, Equilibria and Kinetics (4)<br> - * Lecture—3 hours; discussion—1 hour. Prerequisite: course 110B. Development and application of the general principles of thermodynamics and statistical thermodynamics. Chemical kinetics, rate laws for chemical reactions and reaction mechanisms.</span> </td> <td> <span>+ * 105. Analytical and Physical Chemical Methods - Lots of the same types of calculations as in Chem 2B. Very little new material, just a lot of more in depth labs and write ups. Very long theory sections.</span> </td> </tr> <tr> <td> Line 72: </td> <td> Line 40: </td> </tr> <tr> <td> <span>- * Lecture—2 hours; laboratory—6 hours. Prerequisite: course 105 and 110B (may be taken concurrently). Intermediate theory and laboratory techniques in analytical and physical chemistry. Advanced data analysis methods and goodness-of-fit criteria. Fourier-transform spectroscopic methods and instrumentation. Mass spectrometry. Electrochemistry. Liquid chromatography. GE credit: Wrt.</span> </td> <td> </td> </tr> <tr> <td> Line 74: </td> <td> Line 41: </td> </tr> <tr> <td> <span>- * 118A. Organic Chemistry for Health and Life Sciences (4)<br> - * Lecture—3 hours; laboratory/discussion—1.5 hours. Prerequisite: course 2C with a grade of C– or higher. The 118A, 118B, 118C series is for students planning professional school studies in health and life sciences. A rigorous, in-depth presentation of basic principles with emphasis on stereochemistry and spectroscopy and preparations and reactions of nonaromatic hydrocarbons, haloalkanes, alcohols and ethers.</span> </td> <td> <span>+ * 125. Advanced Methods in Physical Chemistry (4)</span> </td> </tr> <tr> <td> Line 77: </td> <td> Line 43: </td> </tr> <tr> <td> <span>- * 118B. Organic Chemistry for Health and Life Sciences (4)<br> - * Lecture—3 hours; laboratory—3 hours. Prerequisite: course 118A. Continuation of course 118A, with emphasis on spectroscopy and the preparation and reactions of aromatic hydrocarbons, organometallic compounds, aldehydes and ketones.</span> </td> <td> <span>+ * 110A. Physical Chemistry: Introduction to Quantum Mechanics - Quantum Mechanics. If you like mat, have a good working knowledge of Math 21A-C, and enjoy theoretical stuffs, it is a fantastic class.</span> </td> </tr> <tr> <td> Line 80: </td> <td> Line 45: </td> </tr> <tr> <td> <span>- * 118C. Organic Chemistry for Health and Life Sciences (4)<br> - * Lecture—3 hours; laboratory—3 hours. Prerequisite: course 118B. Continuation of course 118B, with emphasis on the preparation, reactions and identification of carboxylic acids and their derivatives, alkyl and acyl amines, ß-dicarbonyl compounds, and various classes of naturally occurring, biologically important compounds.</span> </td> <td> <span>+ * 110B. Physical Chemistry: Properties of Atoms and Molecules - It helps to have taken 124A first. Not the most interesting of the chemistry classes.</span> </td> </tr> <tr> <td> Line 83: </td> <td> Line 47: </td> </tr> <tr> <td> <span>- * 121. Introduction to Molecular Structure and Spectra (4)<br> - * Lecture—4 hours. Prerequisite: course 110B. Modern theoretical and experimental methods used to study problems of molecular structure and bonding; emphasis on spectroscopic techniques.</span> </td> <td> <span>+ * 110C. Physical Chemistry: Thermodynamics, Equilibria and Kinetics - More and harder Chem 2B.</span> </td> </tr> <tr> <td> Line 97: </td> <td> Line 60: </td> </tr> <tr> <td> <span>- <br> - * 125. Advanced Methods in Physical Chemistry (4)<br> - * Lecture—2 hours; laboratory—6 hours. Prerequisite: course 110C (may be taken concurrently) and 115. Advanced theory and laboratory techniques in analytical and physical chemistry. Advanced spectroscopic methods. Thermodynamics. Kinetics. Chemical literature. Digital electronics and computer interfacing. Laboratory measurements and vacuum techniques. GE credit: Wrt.</span> </td> <td> </td> </tr> <tr> <td> Line 122: </td> <td> Line 82: </td> </tr> <tr> <td> <span>- * 135. Advanced Organic Chemistry Laboratory (3)<br> - * Lecture—1 hour; laboratory—6 hours. Prerequisite: courses 115 and 129C. Separation, purification and identification of organic compounds using modern methods of synthesis and instrumentation.</span> </td> <td> <span>+ * 121. Introduction to Molecular Structure and Spectra (4)</span> </td> </tr> <tr> <td> Line 128: </td> <td> Line 87: </td> </tr> <tr> <td> <span>- * 192. Internship in Chemistry (1-6)<br> - * Internship—3-18 hours. Prerequisite: upper division standing; project approval by faculty sponsor prior to enrollment. Supervised internship in chemistry; re-quires a final written report. May be repeated for credit for a total of 6 units. (P/NP grading only.)<br> - <br> - * 194HA-194HB-194HC. Undergraduate Honors Research (2-2-2)<br> - *Independent study—2 hours. Prerequisite: open only to chemistry majors who have completed 135 units and who qualify for the honors program. Original research under the guidance of a faculty adviser, culminating in the writing of an extensive report. (Deferred grading only, pending completion of sequence.)<br> - <br> - * 195. Careers in Chemistry (1)<br> - *Seminar—2 hours. Prerequisite: junior or senior standing in Chemistry. Designed to give Chemistry undergraduate students an in-depth appreciation of career opportunities with a bachelors degree in chemistry. Professional chemists (and allied professionals) describe research and provide career insights. (P/NP grading only.)—I.<br> - <br> - * 197. Projects in Chemical Education (1-4) <br> - * Discussion and/or laboratory. Prerequisite: consent of instructor. Participation may include development of laboratory experiments, lecture demonstrations, autotutorial modules or assistance with laboratory sessions. May be repeated for credit for a total of 12 units. (P/NP grading only.)<br> - <br> - * 198. Directed Group Study (1-5)<br> - * Prerequisite: consent of instructor based upon adequate preparation in chemistry, mathematics and physics. (P/NP grading only.)<br> - </span> </td> <td> </td> </tr> <tr> <td> Line 145: </td> <td> Line 89: </td> </tr> <tr> <td> <span>- <br> - ''Graduate Courses''<br> - * 201. Chemical Uses of Symmetry and Group Theory (3)<br> - * Lecture—3 hours. Prerequisite: course 124A and 110B, or consent of instructor. Symmetry elements and operations, point groups, representations of groups. Applications to molecular orbital theory, ligand field theory, molecular vibrations, and angular momentum. Crystallographic symmetry.<br> - <br> - * 205. Symmetry, Spectroscopy, and Structure (3)<br> - * Lecture—3 hours. Prerequisite: course 201 or the equivalent. Vibrational and rotational spectra; electronic spectra and photoelectron spectroscopy; magnetism; electron spin and nuclear quadrapole resonance spectroscopy; nuclear magnetic resonance spectroscopy; other spectroscopic methods<br> - <br> - * 210A. Quantum Chemistry: Introduction and Stationary-State Properties (3)<br> - * Lecture—3 hours. Prerequisite: course 110B and 110C or consent of instructor. Stationary-state quantum chemistry: postulates of quantum mechanics, simple solutions, central field problems and angular momenta, hydrogen atom, perturbation theory, variational theory, atoms and molecules.<br> - <br> - * 210B. Quantum Chemistry: Time-Dependent Systems (3)<br> - * Lecture—3 hours. Prerequisite: course 210A. Matrix mechanics and time-dependent quantum chemistry: matrix formulation of quantum mechanics, Heisenberg representation, time-dependent perturbation theory, selection rules, density matrices, and miscellaneous molecular properties.<br> - <br> - * 210C. Quantum Chemistry: Molecular Spectroscopy (3)<br> - * Lecture—3 hours. Prerequisite: course 210B. Molecular spectroscopy: Born-Oppenheimer approximation, rotational, vibrational and electronic spectroscopy, spin systems, and molecular photophysics.<br> - <br> - * 211A. Advanced Physical Chemistry: Statistical Thermodynamics (3)<br> - * Lecture—3 hours. Prerequisite: consent of instructor. Principles and applications of statistical mechanics; ensemble theory; statistical thermodynamics of gases, solids, liquids, electrolyte solutions and polymers; chemical equilibrium.<br> - <br> - * 211B. Statistical Mechanics (3)<br> - * Lecture—3 hours. Prerequisite: course 211A. Statistical mechanics of nonequilibrium systems, including the rigorous kinetic theory of gases, continuum mechanics transport in dense fluids, stochastic processes, brownian motion and linear response theory. Offered in alternate years.<br> - <br> - * 212. Chemical Dynamics (3)<br> - * Lecture—3 hours. Prerequisite: consent of instructor. Introduction to modern concepts in chemical reaction dynamics for graduate students in chemistry. Emphasis will be placed on experimental techniques as well as emerging physical models for characterizing chemical reactivity at a microscopic level. Offered in alternate years.<br> - <br> - * 215. Theoretical and Computational Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: courses 211A and 210B or consent of instructor. Mathematics of wide utility in chemistry, computational methods for guidance or alternative to experiment, and modern formulations of chemical theory. Emphasis will vary in successive years. May be repeated for credit when topic differs. Offered in alternate years.<br> - <br> - * 216. Magnetic Resonance Spectroscopy (3)<br> - * Lecture—3 hours. Prerequisite: courses 210A, 210B (may be taken concurrently). Quantum mechanics of spin and orbital angular momentum, nuclear magnetic resonance, theory of chemical shift and multiplet structures, electron spin resonance, theory of g-tensor in organic and transition ions, spin Hamiltonians, nuclear quadrupolar resonance, spin relaxation processes. Offered in alternate years.<br> - <br> - * 217. X-Ray Structure Determination (3)<br> - * Lecture—3 hours. Prerequisite: consent of instructor. Introduction to x-ray structure determination; crystals, symmetry, diffraction geometry, sample preparation and handling, diffraction apparatus and data collection, methods of structure solution and refinement, presentation of results, text, tables and graphics, crystallographic literature.<br> - <br> - * 218. Macromolecules: Physical Principles (3)<br> - * Lecture—3 hours. Prerequisite: courses 110A, 110B, 110C or the equivalent. Relationship of higher order macromolecular structure to subunit composition; equilibrium properties and macromolecular dynamics; physical chemical determination of macromolecular structure. Offered in alternate years.<br> - <br> - * 219. Spectroscopy of Organic Compounds (4)<br> - * Lecture—3 hours; laboratory—2.5 hours. Prerequisite: course 128C or the equivalent. Identification of organic compounds and investigation of stereochemical and reaction mechanism phenomena using spectroscopic methods—principally NMR, IR and MS.<br> - <br> - * 221A-H. Special Topics in Organic Chemistry (3)<br> - * Lecture—3 hours. Selected topics of current interest in organic chemistry. Topics will vary each time the course is offered, and in general will emphasize the research interests of the staff member giving the course.<br> - <br> - * 226. Principles of Transition Metal Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: course 124A or the equivalent. Electronic structures, bonding, and reactivity of transition metal compounds.<br> - <br> - * 228A. Bio-inorganic Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: course 226 or consent of instructor. Defines role of inorganic chemistry in the functioning of biological systems by identifying the functions of metal ions and main group compounds in biological systems and discussing the chemistry of model and isolated biological compounds. Offered every third year.<br> - <br> - * 228B. Main Group Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: course 226 or consent of instructor. Synthesis, physical properties, reactions and bonding of main group compounds. Discussions of concepts of electron deficiency, hypervalency, and non-classical bonding. Chemistry of the main group elements will be treated systematically. Offered every third year.<br> - <br> - * 228C. Solid-State Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: courses 124A, 110B, 226, or the equivalent. Design and synthesis, structure and bonding of solid-state compounds; physical properties and characterization of solids; topics of current interest such as low-dimensional materials, inorganic polymers, materials for catalysis. Offered every third year.<br> - <br> - * 228D. Homogeneous Catalysis (3)<br> - * Lecture—3 hours. Prerequisite: course 226. Overview of homogeneous catalysis and related methods, with emphasis on kinetics, mechanisms, and applications for organic synthesis. The related methods may include cluster, colloid, phase transfer, enzymatic, heterogeneous and polymer-supported catalysis. Offered in alternate years.<br> - <br> - * 231. Organic Synthesis: Methods and Strategies (3) <br> - * Lecture—3 hours. Prerequisite: course 131 or the equivalent. Provides a broadly based discussion of current strategies in synthetic organic chemistry. Focus on methods for constructing carbon frameworks, controlling relative stereochemistry, and controlling absolute stereochemistry. Retrosynthetic strategies will be discussed throughout the lectures.<br> - <br> - * 233. Physical-Organic Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: courses 128A-128B-128C and 110A-110B-110C or the equivalent. Introduction to elementary concepts in physical-organic chemistry including the application of simple numerical techniques in characterizing and modeling organic reactions.<br> - <br> - * 235. Organometallic Chemistry in Organic Synthesis (3)<br> - * Lecture—3 hours. Prerequisite: course 128C. Current trends in use of organometallics for organic synthesis; preparations, properties, applications, and limitations of organometallic reagents derived from transition and/or main group metals. Offered in alternate years.<br> - <br> - * 236. Chemistry of Natural Products (3)<br> - * Lecture—3 hours. Prerequisite: course 128C or the equivalent. Advanced treatment of chemistry of naturally occurring compounds isolated from a variety of sources. Topics will include isolation, structure determination, chemical transformations, total synthesis, biological activity, and biosynthesis. Biosynthetic origin will be used as a unifying theme.<br> - <br> - * 237. Bio-organic Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: course 128C or the equivalent. Structure and function of biomolecules; molecular recognition; enzyme reaction mechanisms; design of suicide substrates for enzymes; enzyme engineering; design of artificial enzymes and application of enzymes in organic synthesis. Offered in alternate years.<br> - <br> - * 240. Advanced Analytical Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: courses 110A and 115 or the equivalent. Numerical treatment of experimental data; thermodynamics of electrolyte and non-electrolyte solutions; complex equilibria in aqueous and non-aqueous solutions; potentiometry and specific ion electrodes; mass transfer in liquid solutions; fundamentals of separation science, including column, gas and liquid chromatography.<br> - <br> - * 241A. Surface Analytical Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: course 110C or the equivalent. Concepts of surfaces and interfaces: physical properties, unique chemistry and electronic effects. Focus on gas-solid interfaces, with some discussion of liquid-solid interfaces. Offered in alternate years.<br> - <br> - * 241B. Laser and X-ray Spectroscopy (3)<br> - * Lecture—3 hours. Prerequisite: course 110B or the equivalent. Concepts and mechanisms of light-matter interactions. Chemical applications of modern spectroscopic methods, including multiphoton spectroscopy, time-resolved laser and x-ray photolysis, and phase-contrast x-ray imaging. Offered in alternate years.<br> - <br> - * 241C. Mass Spectrometry (3)<br> - * Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Mass spectrometry and related methods with emphasis on ionization methods, mass analyzers, and detectors. Related methods may include ion-molecule reactions, unimolecular dissociation of organic and bio-organic compounds, and applications in biological and environmental analysis. Offered in alternate years.<br> - <br> - * 241D. Electroanalytical Chemistry (3)<br> - * Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Electroanalytical chemistry with consideration of mass transfer and electrode kinetics for polarizable electrodes. Current-potential curves for a variety of conditions, including both potentiostatic and galvanostatic control, and their application in chemical analysis. Offered in alternate years.<br> - <br> - * 241E. Microscopy and Imaging Techniques (3)<br> - * Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Introduction to modern microscopy and imaging techniques: scanning tunneling, atomic force, far-field optical, fluorescence, scanning near-field optical, and scanning electron microscopy. Application to nanoscience and analytical and bioanalytical chemistry. Some laboratory demonstrations. Offered in alternate years.<br> - <br> - * 261. Current Topics in Chemical Research (2)<br> - * Lecture—2 hours. Prerequisite: graduate standing in Chemistry or consent of instructor. Designed to help chemistry graduate students develop and maintain familiarity with the current and past literature in their immediate field of research and related areas. May be repeated for credit when topics differ.<br> - <br> - * 263. Introduction to Chemical Research Methodology (3)<br> - * Laboratory/discussion—9 hours. Prerequisite: course 293 and graduate student standing in Chemistry; consent of instructor. Introduction to identification, formulation, and solution of meaningful scientific problems including experimental design and/or theoretical analyses of new and prevailing techniques, theories and hypotheses. May be repeated for credit when topic differs. (S/U grading only.)<br> - <br> - * 264. Advanced Chemical Research Methodology (6)<br> - * Laboratory/discussion—18 hours. Prerequisite: course 263 or consent of instructor. Applications of the methodology developed in Chemistry 263 to experimental and theoretical studies. Advanced methods of interpretation of results are developed. Includes the preparation of manuscripts for publication. May be repeated for credit when topic differs. (S/U grading only.)<br> - <br> - * 290. Seminar (2)<br> - * Seminar—2 hours. Prerequisite: consent of instructor. (S/U grading only.)<br> - <br> - * 293. Introduction to Chemistry Research (1)<br> - * Discussion—2 hours. Designed for incoming graduate students preparing for higher degrees in chemistry. Group and individual discussion of research activities in the Department and research topic selection. <br> - <br> - * 295. Careers in Chemistry (1)<br> - * Seminar—2 hours. Prerequisite: graduate standing in Chemistry. Designed to give Chemistry graduate students an in-depth appreciation of career opportunities with a M.S. or Ph.D. degree in chemistry. Professional chemists (and allied professionals) give seminars describing both research and career insights. May be repeated for credit 3 times. (S/U grading only.)—I.<br> - <br> - * 298. Group Study (1-5)<br> - <br> - * 299. Research (1-12)<br> - * The laboratory is open to qualified graduate students who wish to pursue original investigation. Students wishing to enroll should communicate with the department well in advance of the quarter in which the work is to be undertaken. (S/U grading only.)<br> - <br> - ''Professional Courses''<br> - <br> - * 390. Methods of Teaching Chemistry (2)<br> - * Lecture—1 hour; discussion—1 hour. Prerequisite: graduate student standing in Chemistry and consent of instructor. Practical experience in methods and problems of teaching chemistry. Includes analyses of texts and supporting material, discussion of teaching techniques, preparing for and conducting of discussion sessions and student laboratories. Participation in the teaching program required for Ph.D. in chemistry. May be repeated for credit. (S/U grading only.)<br> - <br> - * 392. Advanced Methods of Teaching Chemistry (2)<br> - * Lecture—2 hours. Prerequisite: course 390. Advanced topics in teaching chemistry. Analysis and discussion of curricular design, curricula materials, teaching methods and evaluation. For students who are planning a career in teaching chemistry. (P/NP grading only.)</span> </td> <td> </td> </tr> <tr> <td> Line 274: </td> <td> Line 96: </td> </tr> <tr> <td> </td> <td> <span>+ ----- /!\ Edit conflict! Other version: -----</span> </td> </tr> <tr> <td> Line 276: </td> <td> Line 99: </td> </tr> <tr> <td> </td> <td> <span>+ ----- /!\ Edit conflict! Your version: -----<br> + <br> + Yes!!! Please, add your reviews of these classes. Unless you liked organic chemistry. All people who liked organic chemistry will be shot on sight. - ["SarahHillard"]----- /!\ End of edit conflict -----</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-18 23:25:46BryanBell <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 274: </td> <td> Line 274: </td> </tr> <tr> <td> </td> <td> <span>+ <br> + I second what ["PhilipNeustrom"] said - ["BryanBell"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-18 23:12:45PhilipNeustromadded comment for sarah <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 271: </td> <td> Line 271: </td> </tr> <tr> <td> </td> <td> <span>+ <br> + -----<br> + ''Perhaps this page would be more useful with personal accounts/summaries of classes instead of a verbatium copy of the ["General Catalog"]. After all, you can just link to the ["General Catalog"] and the website for the major to give people this information'' - ["PhilipNeustrom"]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-18 20:46:48SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 269: </td> <td> Line 269: </td> </tr> <tr> <td> </td> <td> <span>+ </span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-18 20:45:52SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 2: </td> <td> Line 2: </td> </tr> <tr> <td> </td> <td> <span>+ </span> </td> </tr> <tr> <td> Line 5: </td> <td> Line 6: </td> </tr> <tr> <td> <span>-</span> The Department offers BA and BS as well a<span>d</span> Masters and PhD. degrees. </td> <td> <span>+ <br> +</span> The Department offers BA and BS as well a<span>s</span> Masters and PhD. degrees. </td> </tr> <tr> <td> Line 8: </td> <td> Line 10: </td> </tr> <tr> <td> </td> <td> <span>+ </span> </td> </tr> <tr> <td> Line 10: </td> <td> Line 13: </td> </tr> <tr> <td> <span>- "</span>Lower Division Courses<span>"</span><br> <span>-</span> 2A. General Chemistry (5)<br> <span>-</span> Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: High school chemistry and physics strongly recommended; satisfactory score on diagnostic examinations. Periodic table, stoichiometry, chemical equations, physical properties and kinetic theory of gases, atomic and molecular structure and chemical bonding. Laboratory experiments in stoichiometric relations, properties and collection of gases, atomic spectroscopy, and introductory quantitative analysis. Only 3 units of credit allowed to students who have completed course 9. GE credit: SciEng.<br> <span>-</span> <br> <span>-</span> 2AH. Honors General Chemistry (5)<br> <span>-</span> Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: High school chemistry and physics; satisfactory score on diagnostic examinations; Mathematics 21A (may be taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2A. Students completing course 2AH can continue with course 2BH or 2B.<br> <span>-</span> <br> <span>-</span> 2B. General Chemistry (5)<br> <span>-</span> Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2A or 2AH. Continuation of course 2A. Condensed phases and intermolecular forces, chemical thermodynamics, chemical equilibria, acids and bases, solubility. Laboratory experiments in thermochemistry, equilibria, and quantitative analysis using volumetric methods. GE credit<br> <span>-</span> <br> <span>-</span> 2BH. Honors General Chemistry (5)<br> <span>-</span> Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2A with consent of instructor or course 2AH with a grade of C or better; and Mathematics 21B (maybe taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2B. Students completing course 2BH can continue with course 2CH or 2C.<br> <span>-</span> <br> <span>-</span> 2C. General Chemistry (5)<br> <span>-</span> Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2B or 2BH. Continuation of course 2B. Kinetics, electrochemistry, spectroscopy, structure and bonding in transition metal compounds, application of principles to chemical reactions. Laboratory experiments in selected analytical methods and syntheses. GE credit: SciEng.<br> <span>-</span> <br> <span>-</span> 2CH. Honors General Chemistry (5)<br> <span>-</span> Lecture—3 hours; laboratory—6 hours. Prerequisite: course 2B with consent of instructor or course 2BH with a grade of C or better; and Mathematics 21C (maybe taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2C.<br> <span>-</span> <br> <span>-</span> 8A. Organic Chemistry: Brief Course (2)<br> <span>-</span> Lecture—2 hours. Prerequisite: course 2B with a grade of C– or higher. With course 8B, an introduction to the nomenclature, structure, chemistry, and reaction mechanisms of organic compounds. Intended for students majoring in areas other than organic chemistry.<br> <span>-</span> <br> <span>-</span> 8B. Organic Chemistry: Brief Course (4)<br> <span>-</span> Lecture—3 hours; laboratory—3 hours. Prerequisite: course 8A or 118A. Continuation of course 8A. Laboratory concerned primarily with organic laboratory techniques and the chemistry of the common classes of organic compounds.<br> <span>-</span> <br> <span>-</span> 10. Concepts of Chemistry (4)<br> <span>-</span> Lecture—4 hours. A survey of basic concepts and contemporary applications of chemistry. Designed for non-science majors and not as preparation for Chemistry 2A. Course Not open for credit to students who have had Chemistry 2A; but students with credit for course 10 may take Chemistry 2A for full credit. GE credit: SciEng, Wrt.<br> <span>-</span> <br> <span>-</span> 98. Directed Group Study (1-5)<br> <span>-</span> Prerequisite: consent of instructor. Primarily for lower division students. (P/NP grading only.)<br> <span>-</span> <br> <span>-</span> 99. Special Study for Undergraduates (1-5)<br> <span>-</span> Prerequisite: consent of instructor. (P/NP grading only.<br> <span>-</span> <br> <span>- "</span>Upper Division Courses<span>"</span><br> <span>-</span> 105. Analytical and Physical Chemical Methods (4)<br> <span>-</span> Lecture—2 hours; laboratory—6 hours. Prerequisite: course 110A (may be taken concurrently) or consent of instructor. Fundamental theory and laboratory techniques in analytical and physical chemistry. Errors and data analysis methods. Basic electrical circuits in instruments. Advanced solution equilibria. Potentiometric analysis. Chromatographic separations. UV-visible spectroscopy. Lasers.<br> <span>-</span> <br> <span>-</span> 107A. Physical Chemistry for the Life Sciences (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 2C, Mathematics 16C or 21C, one year of college level physics. Physical chemistry intended for majors in the life science area. Introductory development of classical and statistical thermodynamics including equilibrium processes and solutions of both non-electrolytes and electrolytes. The thermodynamic basis of electrochemistry and membrane potentials.<br> <span>-</span> <br> <span>-</span> 107B. Physical Chemistry for the Life Sciences (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 107A. Continuation of course 107A. Kinetic theory of gases and transport processes in liquids. Chemical kinetics, enzyme kinetics and theories of reaction rates. Introduction to quantum theory, atomic and molecular structure, and spectroscopy. Application to problems in the biological sciences.<br> <span>-</span> <br> <span>-</span> 108. Physical Chemistry of Macromolecules (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 107B or 110C. Physical properties and characterization of macromolecules with emphasis upon those of biological interest. Structural thermodynamic, optical and transport properties of polymers in bulk and in solution. Physical characterization methods. Special topics on the properties of polyelectrolyte systems.<br> <span>-</span> <br> <span>-</span> 110A. Physical Chemistry: Introduction to Quantum Mechanics (4)<br> <span>-</span> Lecture—3 hours; discussion—1 hour. Prerequisite: course 2C, Mathematics 16C or 21C; one year of college physics. Introduction to the postulates and general principles of quantum mechanics. Approximations based on variational method and time independent perturbation theory. Application to harmonic oscillator, rigid rotor, one-electron and many-electron atoms, and homo-and hetero-nuclear diatomic molecules.<span>-</span><br> <span>-</span> <br> <span>-</span> 110B. Physical Chemistry: Properties of Atoms and Molecules (4)<br> <span>-</span> Lecture—3 hours; discussion—1 hour. Prerequisite: course 110A. Group theory. Application of quantum mechanics to polyatomic molecules and molecular spectroscopy. Intermolecular forces and the gas, liquid and solid states. Distributions, ensembles and partition functions. Transport properties.<br> <span>-</span> <br> <span>-</span> 110C. Physical Chemistry: Thermodynamics, Equilibria and Kinetics (4)<br> <span>-</span> Lecture—3 hours; discussion—1 hour. Prerequisite: course 110B. Development and application of the general principles of thermodynamics and statistical thermodynamics. Chemical kinetics, rate laws for chemical reactions and reaction mechanisms.<span>—I</span><br> <span>-</span> <br> <span>-</span> 115. Instrumental Analysis (4)<br> <span>-</span> Lecture—2 hours; laboratory—6 hours. Prerequisite: course 105 and 110B (may be taken concurrently). Intermediate theory and laboratory techniques in analytical and physical chemistry. Advanced data analysis methods and goodness-of-fit criteria. Fourier-transform spectroscopic methods and instrumentation. Mass spectrometry. Electrochemistry. Liquid chromatography. GE credit: Wrt.<br> <span>-</span> <br> <span>-</span> 118A. Organic Chemistry for Health and Life Sciences (4)<br> <span>-</span> Lecture—3 hours; laboratory/discussion—1.5 hours. Prerequisite: course 2C with a grade of C– or higher. The 118A, 118B, 118C series is for students planning professional school studies in health and life sciences. A rigorous, in-depth presentation of basic principles with emphasis on stereochemistry and spectroscopy and preparations and reactions of nonaromatic hydrocarbons, haloalkanes, alcohols and ethers.<br> <span>-</span> <br> <span>-</span> 118B. Organic Chemistry for Health and Life Sciences (4)<br> <span>-</span> Lecture—3 hours; laboratory—3 hours. Prerequisite: course 118A. Continuation of course 118A, with emphasis on spectroscopy and the preparation and reactions of aromatic hydrocarbons, organometallic compounds, aldehydes and ketones.<br> <span>-</span> <br> <span>-</span> 118C. Organic Chemistry for Health and Life Sciences (4)<br> <span>-</span> Lecture—3 hours; laboratory—3 hours. Prerequisite: course 118B. Continuation of course 118B, with emphasis on the preparation, reactions and identification of carboxylic acids and their derivatives, alkyl and acyl amines, ß-dicarbonyl compounds, and various classes of naturally occurring, biologically important compounds.<br> <span>-</span> <br> <span>-</span> 121. Introduction to Molecular Structure and Spectra (4)<br> <span>-</span> Lecture—4 hours. Prerequisite: course 110B. Modern theoretical and experimental methods used to study problems of molecular structure and bonding; emphasis on spectroscopic techniques.<br> <span>-</span> <br> <span>-</span> 124A. Inorganic Chemistry: Fundamentals (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 2C. Symmetry, molecular geometry and structure, molecular orbital theory of bonding (polyatomic molecules and transition metals), solid state chemistry, energetics and spectroscopy of inorganic compounds.<br> <span>-</span> <br> <span>-</span> 124B. Inorganic Chemistry: Main Group Elements (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 124A. Synthesis, structure and reactivity of inorganic and heteroorganic molecules containing the main group elements.<br> <span>-</span> <br> <span>-</span> 124C. Inorganic Chemistry: d and f Block Elements (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 124A. Synthesis, structure and reactivity of transition metal complexes, organometallic and bioinorganic chemistry, the lanthanides and actinides.<br> <span>-</span> <br> <span>-</span> 124L. Laboratory Methods in Inorganic Chemistry (2)<br> <span>-</span> Laboratory—6 hours. Prerequisite: course 124B or 124C (may be taken concurrently). The preparation, purification and characterization of main group and transition metal inorganic and organometallic compounds.<br> <span>-</span> <br> <span>-</span> 125. Advanced Methods in Physical Chemistry (4)<br> <span>-</span> Lecture—2 hours; laboratory—6 hours. Prerequisite: course 110C (may be taken concurrently) and 115. Advanced theory and laboratory techniques in analytical and physical chemistry. Advanced spectroscopic methods. Thermodynamics. Kinetics. Chemical literature. Digital electronics and computer interfacing. Laboratory measurements and vacuum techniques. GE credit: Wrt.<br> <span>-</span> <br> <span>-</span> 128A. Organic Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 2C with a grade of C or higher; chemistry majors should enroll in course 129A concurrently. Introduction to the basic concepts of organic chemistry with emphasis on stereochemistry and the chemistry of hydrocarbons. Designed primarily for majors in chemistry.<br> <span>-</span> <br> <span>-</span> 128B. Organic Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 128A or consent of instructor, course 129A strongly recommended; chemistry majors should enroll in course 129B concurrently. Continuation of course 128A with emphasis on aromatic and aliphatic substitution reactions, elimination reactions, and the chemistry of carbonyl compounds. Introduction to the application of spectroscopic methods to organic chemistry.<br> <span>-</span> <br> <span>-</span> 128C. Organic Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 128B, chemistry majors should enroll in course 129C concurrently. Continuation of course 128B with emphasis on enolate condensations and the chemistry of amines, phenols, and sugars; selected biologically important compounds.<br> <span>-</span> <br> <span>-</span> 129A. Organic Chemistry Laboratory (2)<br> <span>-</span> Lecture—1 hour; laboratory—3 hours. Prerequisite: course 2C with a grade of C or higher; course 128A (may be taken concurrently). Introduction to laboratory techniques of organic chemistry. Emphasis is on methods used for separation and purification of organic compounds.<br> <span>-</span> <br> <span>-</span> 129B. Organic Chemistry Laboratory (2)<br> <span>-</span> Laboratory—6 hours. Prerequisite: courses 128B (may be taken concurrently) and 129A. Continuation of course 129A. Emphasis is on methods used for synthesis and isolation of organic compounds.<br> <span>-</span> <br> <span>-</span> 129C. Organic Chemistry Laboratory (2)<br> <span>- </span>Laboratory—6 hours. Prerequisite: courses 128C (may be taken concurrently) and 129B. Continuation of course 129B.<br> <span>-</span> <br> <span>-</span> 131. Modern Methods of Organic Synthesis (3)<br> <span>- </span>Lecture—3 hours. Prerequisite: course 128C. Introduction to modern synthetic methodology in organic chemistry with emphasis on stereoselective reactions and application to multistep syntheses of organic molecules containing multifunctionality.<span>—II. (II.)</span><br> <span>-</span> <br> <span>-</span> 135. Advanced Organic Chemistry Laboratory (3)<br> <span>-</span> Lecture—1 hour; laboratory—6 hours. Prerequisite: courses 115 and 129C. Separation, purification and identification of organic compounds using modern methods of synthesis and instrumentation.<br> <span>-</span> <br> <span>-</span> 150. Chemistry of Natural Products (3)<br> <span>- </span>Lecture—3 hours. Prerequisite; course 128C. Chemistry of terpenes, steroids, acetogenins, and alkaloids: isolation, structure determination, biosynthesis, chemical transformations, and total synthesis. GE credit: SciEng, Wrt.<span>—I. (I.)</span><br> <span>-</span> <br> <span>-</span> 192. Internship in Chemistry (1-6)<br> <span>-</span> Internship—3-18 hours. Prerequisite: upper division standing; project approval by faculty sponsor prior to enrollment. Supervised internship in chemistry; re-quires a final written report. May be repeated for credit for a total of 6 units. (P/NP grading only.)<br> <span>-</span> <br> <span>-</span> 194HA-194HB-194HC. Undergraduate Honors Research (2-2-2)<br> <span>- </span>Independent study—2 hours. Prerequisite: open only to chemistry majors who have completed 135 units and who qualify for the honors program. Original research under the guidance of a faculty adviser, culminating in the writing of an extensive report. (Deferred grading only, pending completion of sequence.)<br> <span>-</span> <br> <span>-</span> 195. Careers in Chemistry (1)<br> <span>- </span>Seminar—2 hours. Prerequisite: junior or senior standing in Chemistry. Designed to give Chemistry undergraduate students an in-depth appreciation of career opportunities with a bachelors degree in chemistry. Professional chemists (and allied professionals) describe research and provide career insights. (P/NP grading only.)—I.<br> <span>-</span> <br> <span>- <br> -</span> 197. Projects in Chemical Education (1-4) <br> <span>-</span> Discussion and/or laboratory. Prerequisite: consent of instructor. Participation may include development of laboratory experiments, lecture demonstrations, autotutorial modules or assistance with laboratory sessions. May be repeated for credit for a total of 12 units. (P/NP grading only.)<span>—I, II, III. (I, II, III.)</span><br> <span>-</span> <br> <span>-</span> 198. Directed Group Study (1-5)<br> <span>-</span> Prerequisite: consent of instructor based upon adequate preparation in chemistry, mathematics and physics. (P/NP grading only.)<br> <span>-</span> <br> <span>-</span> 199. Special Study for Advanced Undergraduates (1-5)<br> <span>-</span> Prerequisite: consent of instructor based upon adequate preparation in chemistry, mathematics, and physics. (P/NP grading only.)<br> <span>-</span> <br> <span>- "</span>Graduate Courses<span>"</span><br> <span>-</span> 201. Chemical Uses of Symmetry and Group Theory (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 124A and 110B, or consent of instructor. Symmetry elements and operations, point groups, representations of groups. Applications to molecular orbital theory, ligand field theory, molecular vibrations, and angular momentum. Crystallographic symmetry.<br> <span>-</span> <br> <span>-</span> 205. Symmetry, Spectroscopy, and Structure (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 201 or the equivalent. Vibrational and rotational spectra; electronic spectra and photoelectron spectroscopy; magnetism; electron spin and nuclear quadrapole resonance spectroscopy; nuclear magnetic resonance spectroscopy; other spectroscopic methods<br> <span>-</span> <br> <span>-</span> 210A. Quantum Chemistry: Introduction and Stationary-State Properties (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 110B and 110C or consent of instructor. Stationary-state quantum chemistry: postulates of quantum mechanics, simple solutions, central field problems and angular momenta, hydrogen atom, perturbation theory, variational theory, atoms and molecules.<br> <span>-</span> <br> <span>-</span> 210B. Quantum Chemistry: Time-Dependent Systems (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 210A. Matrix mechanics and time-dependent quantum chemistry: matrix formulation of quantum mechanics, Heisenberg representation, time-dependent perturbation theory, selection rules, density matrices, and miscellaneous molecular properties.<br> <span>-</span> <br> <span>-</span> 210C. Quantum Chemistry: Molecular Spectroscopy (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 210B. Molecular spectroscopy: Born-Oppenheimer approximation, rotational, vibrational and electronic spectroscopy, spin systems, and molecular photophysics.<br> <span>-</span> <br> <span>-</span> 211A. Advanced Physical Chemistry: Statistical Thermodynamics (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: consent of instructor. Principles and applications of statistical mechanics; ensemble theory; statistical thermodynamics of gases, solids, liquids, electrolyte solutions and polymers; chemical equilibrium.<br> <span>-</span> <br> <span>-</span> 211B. Statistical Mechanics (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 211A. Statistical mechanics of nonequilibrium systems, including the rigorous kinetic theory of gases, continuum mechanics transport in dense fluids, stochastic processes, brownian motion and linear response theory. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 212. Chemical Dynamics (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: consent of instructor. Introduction to modern concepts in chemical reaction dynamics for graduate students in chemistry. Emphasis will be placed on experimental techniques as well as emerging physical models for characterizing chemical reactivity at a microscopic level. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 215. Theoretical and Computational Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: courses 211A and 210B or consent of instructor. Mathematics of wide utility in chemistry, computational methods for guidance or alternative to experiment, and modern formulations of chemical theory. Emphasis will vary in successive years. May be repeated for credit when topic differs. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 216. Magnetic Resonance Spectroscopy (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: courses 210A, 210B (may be taken concurrently). Quantum mechanics of spin and orbital angular momentum, nuclear magnetic resonance, theory of chemical shift and multiplet structures, electron spin resonance, theory of g-tensor in organic and transition ions, spin Hamiltonians, nuclear quadrupolar resonance, spin relaxation processes. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 217. X-Ray Structure Determination (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: consent of instructor. Introduction to x-ray structure determination; crystals, symmetry, diffraction geometry, sample preparation and handling, diffraction apparatus and data collection, methods of structure solution and refinement, presentation of results, text, tables and graphics, crystallographic literature.<br> <span>-</span> <br> <span>-</span> 218. Macromolecules: Physical Principles (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: courses 110A, 110B, 110C or the equivalent. Relationship of higher order macromolecular structure to subunit composition; equilibrium properties and macromolecular dynamics; physical chemical determination of macromolecular structure. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 219. Spectroscopy of Organic Compounds (4)<br> <span>-</span> Lecture—3 hours; laboratory—2.5 hours. Prerequisite: course 128C or the equivalent. Identification of organic compounds and investigation of stereochemical and reaction mechanism phenomena using spectroscopic methods—principally NMR, IR and MS.<br> <span>-</span> <br> <span>-</span> 221A-H. Special Topics in Organic Chemistry (3)<br> <span>-</span> Lecture—3 hours. Selected topics of current interest in organic chemistry. Topics will vary each time the course is offered, and in general will emphasize the research interests of the staff member giving the course.<br> <span>-</span> <br> <span>-</span> 226. Principles of Transition Metal Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 124A or the equivalent. Electronic structures, bonding, and reactivity of transition metal compounds.<br> <span>-</span> <br> <span>-</span> 228A. Bio-inorganic Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 226 or consent of instructor. Defines role of inorganic chemistry in the functioning of biological systems by identifying the functions of metal ions and main group compounds in biological systems and discussing the chemistry of model and isolated biological compounds. Offered every third year.<br> <span>-</span> <br> <span>-</span> 228B. Main Group Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 226 or consent of instructor. Synthesis, physical properties, reactions and bonding of main group compounds. Discussions of concepts of electron deficiency, hypervalency, and non-classical bonding. Chemistry of the main group elements will be treated systematically. Offered every third year.<br> <span>-</span> <br> <span>-</span> 228C. Solid-State Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: courses 124A, 110B, 226, or the equivalent. Design and synthesis, structure and bonding of solid-state compounds; physical properties and characterization of solids; topics of current interest such as low-dimensional materials, inorganic polymers, materials for catalysis. Offered every third year.<br> <span>-</span> <br> <span>-</span> 228D. Homogeneous Catalysis (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 226. Overview of homogeneous catalysis and related methods, with emphasis on kinetics, mechanisms, and applications for organic synthesis. The related methods may include cluster, colloid, phase transfer, enzymatic, heterogeneous and polymer-supported catalysis. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 231. Organic Synthesis: Methods and Strategies (3) <br> <span>-</span> Lecture—3 hours. Prerequisite: course 131 or the equivalent. Provides a broadly based discussion of current strategies in synthetic organic chemistry. Focus on methods for constructing carbon frameworks, controlling relative stereochemistry, and controlling absolute stereochemistry. Retrosynthetic strategies will be discussed throughout the lectures.<br> <span>-</span> <br> <span>-</span> 233. Physical-Organic Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: courses 128A-128B-128C and 110A-110B-110C or the equivalent. Introduction to elementary concepts in physical-organic chemistry including the application of simple numerical techniques in characterizing and modeling organic reactions.<br> <span>-</span> <br> <span>-</span> 235. Organometallic Chemistry in Organic Synthesis (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 128C. Current trends in use of organometallics for organic synthesis; preparations, properties, applications, and limitations of organometallic reagents derived from transition and/or main group metals. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 236. Chemistry of Natural Products (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 128C or the equivalent. Advanced treatment of chemistry of naturally occurring compounds isolated from a variety of sources. Topics will include isolation, structure determination, chemical transformations, total synthesis, biological activity, and biosynthesis. Biosynthetic origin will be used as a unifying theme.<br> <span>-</span> <br> <span>-</span> 237. Bio-organic Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 128C or the equivalent. Structure and function of biomolecules; molecular recognition; enzyme reaction mechanisms; design of suicide substrates for enzymes; enzyme engineering; design of artificial enzymes and application of enzymes in organic synthesis. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 240. Advanced Analytical Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: courses 110A and 115 or the equivalent. Numerical treatment of experimental data; thermodynamics of electrolyte and non-electrolyte solutions; complex equilibria in aqueous and non-aqueous solutions; potentiometry and specific ion electrodes; mass transfer in liquid solutions; fundamentals of separation science, including column, gas and liquid chromatography.<br> <span>-</span> <br> <span>-</span> 241A. Surface Analytical Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 110C or the equivalent. Concepts of surfaces and interfaces: physical properties, unique chemistry and electronic effects. Focus on gas-solid interfaces, with some discussion of liquid-solid interfaces. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 241B. Laser and X-ray Spectroscopy (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 110B or the equivalent. Concepts and mechanisms of light-matter interactions. Chemical applications of modern spectroscopic methods, including multiphoton spectroscopy, time-resolved laser and x-ray photolysis, and phase-contrast x-ray imaging. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 241C. Mass Spectrometry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Mass spectrometry and related methods with emphasis on ionization methods, mass analyzers, and detectors. Related methods may include ion-molecule reactions, unimolecular dissociation of organic and bio-organic compounds, and applications in biological and environmental analysis. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 241D. Electroanalytical Chemistry (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Electroanalytical chemistry with consideration of mass transfer and electrode kinetics for polarizable electrodes. Current-potential curves for a variety of conditions, including both potentiostatic and galvanostatic control, and their application in chemical analysis. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 241E. Microscopy and Imaging Techniques (3)<br> <span>-</span> Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Introduction to modern microscopy and imaging techniques: scanning tunneling, atomic force, far-field optical, fluorescence, scanning near-field optical, and scanning electron microscopy. Application to nanoscience and analytical and bioanalytical chemistry. Some laboratory demonstrations. Offered in alternate years.<br> <span>-</span> <br> <span>-</span> 261. Current Topics in Chemical Research (2)<br> <span>-</span> Lecture—2 hours. Prerequisite: graduate standing in Chemistry or consent of instructor. Designed to help chemistry graduate students develop and maintain familiarity with the current and past literature in their immediate field of research and related areas. May be repeated for credit when topics differ.<br> <span>-</span> <br> <span>-</span> 263. Introduction to Chemical Research Methodology (3)<br> <span>-</span> Laboratory/discussion—9 hours. Prerequisite: course 293 and graduate student standing in Chemistry; consent of instructor. Introduction to identification, formulation, and solution of meaningful scientific problems including experimental design and/or theoretical analyses of new and prevailing techniques, theories and hypotheses. May be repeated for credit when topic differs. (S/U grading only.)<br> <span>-</span> <br> <span>-</span> 264. Advanced Chemical Research Methodology (6)<br> <span>-</span> Laboratory/discussion—18 hours. Prerequisite: course 263 or consent of instructor. Applications of the methodology developed in Chemistry 263 to experimental and theoretical studies. Advanced methods of interpretation of results are developed. Includes the preparation of manuscripts for publication. May be repeated for credit when topic differs. (S/U grading only.)<br> <span>-</span> <br> <span>-</span> 290. Seminar (2)<br> <span>-</span> Seminar—2 hours. Prerequisite: consent of instructor. (S/U grading only.)<br> <span>-</span> <br> <span>-</span> 293. Introduction to Chemistry Research (1)<br> <span>-</span> Discussion—2 hours. Designed for incoming graduate students preparing for higher degrees in chemistry. Group and individual discussion of research activities in the Department and research topic selection. <br> <span>-</span> <br> <span>-</span> 295. Careers in Chemistry (1)<br> <span>-</span> Seminar—2 hours. Prerequisite: graduate standing in Chemistry. Designed to give Chemistry graduate students an in-depth appreciation of career opportunities with a M.S. or Ph.D. degree in chemistry. Professional chemists (and allied professionals) give seminars describing both research and career insights. May be repeated for credit 3 times. (S/U grading only.)—I.<br> <span>-</span> <br> <span>-</span> 298. Group Study (1-5)<br> <span>-</span> <br> <span>-</span> 299. Research (1-12)<br> <span>-</span> The laboratory is open to qualified graduate students who wish to pursue original investigation. Students wishing to enroll should communicate with the department well in advance of the quarter in which the work is to be undertaken. (S/U grading only.)<br> <span>-</span> <br> <span>- </span>'Professional Courses'<br> <span>-</span> 390. Methods of Teaching Chemistry (2)<br> <span>-</span> Lecture—1 hour; discussion—1 hour. Prerequisite: graduate student standing in Chemistry and consent of instructor. Practical experience in methods and problems of teaching chemistry. Includes analyses of texts and supporting material, discussion of teaching techniques, preparing for and conducting of discussion sessions and student laboratories. Participation in the teaching program required for Ph.D. in chemistry. May be repeated for credit. (S/U grading only.)<br> <span>-</span> <br> <span>-</span> 392. Advanced Methods of Teaching Chemistry (2)<br> <span>-</span> Lecture—2 hours. Prerequisite: course 390. Advanced topics in teaching chemistry. Analysis and discussion of curricular design, curricula materials, teaching methods and evaluation. For students who are planning a career in teaching chemistry. (P/NP grading only.)<br> <span>-</span> <br> <span>- "</span>Home Page<span>"</span> </td> <td> <span>+ ''</span>Lower Division Courses<span>''</span><br> <span>+ <br> + *</span> 2A. General Chemistry (5)<br> <span>+ *</span> Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: High school chemistry and physics strongly recommended; satisfactory score on diagnostic examinations. Periodic table, stoichiometry, chemical equations, physical properties and kinetic theory of gases, atomic and molecular structure and chemical bonding. Laboratory experiments in stoichiometric relations, properties and collection of gases, atomic spectroscopy, and introductory quantitative analysis. Only 3 units of credit allowed to students who have completed course 9. GE credit: SciEng.<br> <span>+</span> <br> <span>+ *</span> 2AH. Honors General Chemistry (5)<br> <span>+ *</span> Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: High school chemistry and physics; satisfactory score on diagnostic examinations; Mathematics 21A (may be taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2A. Students completing course 2AH can continue with course 2BH or 2B.<br> <span>+</span> <br> <span>+ *</span> 2B. General Chemistry (5)<br> <span>+ *</span> Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2A or 2AH. Continuation of course 2A. Condensed phases and intermolecular forces, chemical thermodynamics, chemical equilibria, acids and bases, solubility. Laboratory experiments in thermochemistry, equilibria, and quantitative analysis using volumetric methods. GE credit<br> <span>+</span> <br> <span>+ *</span> 2BH. Honors General Chemistry (5)<br> <span>+ *</span> Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2A with consent of instructor or course 2AH with a grade of C or better; and Mathematics 21B (maybe taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2B. Students completing course 2BH can continue with course 2CH or 2C.<br> <span>+</span> <br> <span>+ *</span> 2C. General Chemistry (5)<br> <span>+ *</span> Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2B or 2BH. Continuation of course 2B. Kinetics, electrochemistry, spectroscopy, structure and bonding in transition metal compounds, application of principles to chemical reactions. Laboratory experiments in selected analytical methods and syntheses. GE credit: SciEng.<br> <span>+</span> <br> <span>+ *</span> 2CH. Honors General Chemistry (5)<br> <span>+ *</span> Lecture—3 hours; laboratory—6 hours. Prerequisite: course 2B with consent of instructor or course 2BH with a grade of C or better; and Mathematics 21C (maybe taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2C.<br> <span>+</span> <br> <span>+ *</span> 8A. Organic Chemistry: Brief Course (2)<br> <span>+ *</span> Lecture—2 hours. Prerequisite: course 2B with a grade of C– or higher. With course 8B, an introduction to the nomenclature, structure, chemistry, and reaction mechanisms of organic compounds. Intended for students majoring in areas other than organic chemistry.<br> <span>+</span> <br> <span>+ *</span> 8B. Organic Chemistry: Brief Course (4)<br> <span>+ *</span> Lecture—3 hours; laboratory—3 hours. Prerequisite: course 8A or 118A. Continuation of course 8A. Laboratory concerned primarily with organic laboratory techniques and the chemistry of the common classes of organic compounds.<br> <span>+</span> <br> <span>+ *</span> 10. Concepts of Chemistry (4)<br> <span>+ *</span> Lecture—4 hours. A survey of basic concepts and contemporary applications of chemistry. Designed for non-science majors and not as preparation for Chemistry 2A. Course Not open for credit to students who have had Chemistry 2A; but students with credit for course 10 may take Chemistry 2A for full credit. GE credit: SciEng, Wrt.<br> <span>+</span> <br> <span>+ *</span> 98. Directed Group Study (1-5)<br> <span>+ *</span> Prerequisite: consent of instructor. Primarily for lower division students. (P/NP grading only.)<br> <span>+</span> <br> <span>+ *</span> 99. Special Study for Undergraduates (1-5)<br> <span>+ *</span> Prerequisite: consent of instructor. (P/NP grading only.<br> <span>+</span> <br> <span>+ ''</span>Upper Division Courses<span>''</span><br> <span>+ <br> + *</span> 105. Analytical and Physical Chemical Methods (4)<br> <span>+ *</span> Lecture—2 hours; laboratory—6 hours. Prerequisite: course 110A (may be taken concurrently) or consent of instructor. Fundamental theory and laboratory techniques in analytical and physical chemistry. Errors and data analysis methods. Basic electrical circuits in instruments. Advanced solution equilibria. Potentiometric analysis. Chromatographic separations. UV-visible spectroscopy. Lasers.<br> <span>+</span> <br> <span>+ *</span> 107A. Physical Chemistry for the Life Sciences (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 2C, Mathematics 16C or 21C, one year of college level physics. Physical chemistry intended for majors in the life science area. Introductory development of classical and statistical thermodynamics including equilibrium processes and solutions of both non-electrolytes and electrolytes. The thermodynamic basis of electrochemistry and membrane potentials.<br> <span>+</span> <br> <span>+ *</span> 107B. Physical Chemistry for the Life Sciences (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 107A. Continuation of course 107A. Kinetic theory of gases and transport processes in liquids. Chemical kinetics, enzyme kinetics and theories of reaction rates. Introduction to quantum theory, atomic and molecular structure, and spectroscopy. Application to problems in the biological sciences.<br> <span>+</span> <br> <span>+ *</span> 108. Physical Chemistry of Macromolecules (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 107B or 110C. Physical properties and characterization of macromolecules with emphasis upon those of biological interest. Structural thermodynamic, optical and transport properties of polymers in bulk and in solution. Physical characterization methods. Special topics on the properties of polyelectrolyte systems.<br> <span>+</span> <br> <span>+ *</span> 110A. Physical Chemistry: Introduction to Quantum Mechanics (4)<br> <span>+ *</span> Lecture—3 hours; discussion—1 hour. Prerequisite: course 2C, Mathematics 16C or 21C; one year of college physics. Introduction to the postulates and general principles of quantum mechanics. Approximations based on variational method and time independent perturbation theory. Application to harmonic oscillator, rigid rotor, one-electron and many-electron atoms, and homo-and hetero-nuclear diatomic molecules.<br> <span>+</span> <br> <span>+ *</span> 110B. Physical Chemistry: Properties of Atoms and Molecules (4)<br> <span>+ *</span> Lecture—3 hours; discussion—1 hour. Prerequisite: course 110A. Group theory. Application of quantum mechanics to polyatomic molecules and molecular spectroscopy. Intermolecular forces and the gas, liquid and solid states. Distributions, ensembles and partition functions. Transport properties.<br> <span>+</span> <br> <span>+ *</span> 110C. Physical Chemistry: Thermodynamics, Equilibria and Kinetics (4)<br> <span>+ *</span> Lecture—3 hours; discussion—1 hour. Prerequisite: course 110B. Development and application of the general principles of thermodynamics and statistical thermodynamics. Chemical kinetics, rate laws for chemical reactions and reaction mechanisms.<br> <span>+</span> <br> <span>+ *</span> 115. Instrumental Analysis (4)<br> <span>+ *</span> Lecture—2 hours; laboratory—6 hours. Prerequisite: course 105 and 110B (may be taken concurrently). Intermediate theory and laboratory techniques in analytical and physical chemistry. Advanced data analysis methods and goodness-of-fit criteria. Fourier-transform spectroscopic methods and instrumentation. Mass spectrometry. Electrochemistry. Liquid chromatography. GE credit: Wrt.<br> <span>+</span> <br> <span>+ *</span> 118A. Organic Chemistry for Health and Life Sciences (4)<br> <span>+ *</span> Lecture—3 hours; laboratory/discussion—1.5 hours. Prerequisite: course 2C with a grade of C– or higher. The 118A, 118B, 118C series is for students planning professional school studies in health and life sciences. A rigorous, in-depth presentation of basic principles with emphasis on stereochemistry and spectroscopy and preparations and reactions of nonaromatic hydrocarbons, haloalkanes, alcohols and ethers.<br> <span>+</span> <br> <span>+ *</span> 118B. Organic Chemistry for Health and Life Sciences (4)<br> <span>+ *</span> Lecture—3 hours; laboratory—3 hours. Prerequisite: course 118A. Continuation of course 118A, with emphasis on spectroscopy and the preparation and reactions of aromatic hydrocarbons, organometallic compounds, aldehydes and ketones.<br> <span>+</span> <br> <span>+ *</span> 118C. Organic Chemistry for Health and Life Sciences (4)<br> <span>+ *</span> Lecture—3 hours; laboratory—3 hours. Prerequisite: course 118B. Continuation of course 118B, with emphasis on the preparation, reactions and identification of carboxylic acids and their derivatives, alkyl and acyl amines, ß-dicarbonyl compounds, and various classes of naturally occurring, biologically important compounds.<br> <span>+</span> <br> <span>+ *</span> 121. Introduction to Molecular Structure and Spectra (4)<br> <span>+ *</span> Lecture—4 hours. Prerequisite: course 110B. Modern theoretical and experimental methods used to study problems of molecular structure and bonding; emphasis on spectroscopic techniques.<br> <span>+</span> <br> <span>+ *</span> 124A. Inorganic Chemistry: Fundamentals (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 2C. Symmetry, molecular geometry and structure, molecular orbital theory of bonding (polyatomic molecules and transition metals), solid state chemistry, energetics and spectroscopy of inorganic compounds.<br> <span>+</span> <br> <span>+ *</span> 124B. Inorganic Chemistry: Main Group Elements (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 124A. Synthesis, structure and reactivity of inorganic and heteroorganic molecules containing the main group elements.<br> <span>+</span> <br> <span>+ *</span> 124C. Inorganic Chemistry: d and f Block Elements (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 124A. Synthesis, structure and reactivity of transition metal complexes, organometallic and bioinorganic chemistry, the lanthanides and actinides.<br> <span>+</span> <br> <span>+ *</span> 124L. Laboratory Methods in Inorganic Chemistry (2)<br> <span>+ *</span> Laboratory—6 hours. Prerequisite: course 124B or 124C (may be taken concurrently). The preparation, purification and characterization of main group and transition metal inorganic and organometallic compounds.<br> <span>+</span> <br> <span>+ *</span> 125. Advanced Methods in Physical Chemistry (4)<br> <span>+ *</span> Lecture—2 hours; laboratory—6 hours. Prerequisite: course 110C (may be taken concurrently) and 115. Advanced theory and laboratory techniques in analytical and physical chemistry. Advanced spectroscopic methods. Thermodynamics. Kinetics. Chemical literature. Digital electronics and computer interfacing. Laboratory measurements and vacuum techniques. GE credit: Wrt.<br> <span>+</span> <br> <span>+ *</span> 128A. Organic Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 2C with a grade of C or higher; chemistry majors should enroll in course 129A concurrently. Introduction to the basic concepts of organic chemistry with emphasis on stereochemistry and the chemistry of hydrocarbons. Designed primarily for majors in chemistry.<br> <span>+</span> <br> <span>+ *</span> 128B. Organic Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 128A or consent of instructor, course 129A strongly recommended; chemistry majors should enroll in course 129B concurrently. Continuation of course 128A with emphasis on aromatic and aliphatic substitution reactions, elimination reactions, and the chemistry of carbonyl compounds. Introduction to the application of spectroscopic methods to organic chemistry.<br> <span>+</span> <br> <span>+ *</span> 128C. Organic Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 128B, chemistry majors should enroll in course 129C concurrently. Continuation of course 128B with emphasis on enolate condensations and the chemistry of amines, phenols, and sugars; selected biologically important compounds.<br> <span>+</span> <br> <span>+ *</span> 129A. Organic Chemistry Laboratory (2)<br> <span>+ *</span> Lecture—1 hour; laboratory—3 hours. Prerequisite: course 2C with a grade of C or higher; course 128A (may be taken concurrently). Introduction to laboratory techniques of organic chemistry. Emphasis is on methods used for separation and purification of organic compounds.<br> <span>+</span> <br> <span>+ *</span> 129B. Organic Chemistry Laboratory (2)<br> <span>+ *</span> Laboratory—6 hours. Prerequisite: courses 128B (may be taken concurrently) and 129A. Continuation of course 129A. Emphasis is on methods used for synthesis and isolation of organic compounds.<br> <span>+</span> <br> <span>+ *</span> 129C. Organic Chemistry Laboratory (2)<br> <span>+ *</span>Laboratory—6 hours. Prerequisite: courses 128C (may be taken concurrently) and 129B. Continuation of course 129B.<br> <span>+</span> <br> <span>+ *</span> 131. Modern Methods of Organic Synthesis (3)<br> <span>+ *</span>Lecture—3 hours. Prerequisite: course 128C. Introduction to modern synthetic methodology in organic chemistry with emphasis on stereoselective reactions and application to multistep syntheses of organic molecules containing multifunctionality.<br> <span>+</span> <br> <span>+ *</span> 135. Advanced Organic Chemistry Laboratory (3)<br> <span>+ *</span> Lecture—1 hour; laboratory—6 hours. Prerequisite: courses 115 and 129C. Separation, purification and identification of organic compounds using modern methods of synthesis and instrumentation.<br> <span>+</span> <br> <span>+ *</span> 150. Chemistry of Natural Products (3)<br> <span>+ *</span>Lecture—3 hours. Prerequisite; course 128C. Chemistry of terpenes, steroids, acetogenins, and alkaloids: isolation, structure determination, biosynthesis, chemical transformations, and total synthesis. GE credit: SciEng, Wrt.<br> <span>+</span> <br> <span>+ *</span> 192. Internship in Chemistry (1-6)<br> <span>+ *</span> Internship—3-18 hours. Prerequisite: upper division standing; project approval by faculty sponsor prior to enrollment. Supervised internship in chemistry; re-quires a final written report. May be repeated for credit for a total of 6 units. (P/NP grading only.)<br> <span>+</span> <br> <span>+ *</span> 194HA-194HB-194HC. Undergraduate Honors Research (2-2-2)<br> <span>+ *</span>Independent study—2 hours. Prerequisite: open only to chemistry majors who have completed 135 units and who qualify for the honors program. Original research under the guidance of a faculty adviser, culminating in the writing of an extensive report. (Deferred grading only, pending completion of sequence.)<br> <span>+</span> <br> <span>+ *</span> 195. Careers in Chemistry (1)<br> <span>+ *</span>Seminar—2 hours. Prerequisite: junior or senior standing in Chemistry. Designed to give Chemistry undergraduate students an in-depth appreciation of career opportunities with a bachelors degree in chemistry. Professional chemists (and allied professionals) describe research and provide career insights. (P/NP grading only.)—I.<br> <span>+</span> <br> <span>+ *</span> 197. Projects in Chemical Education (1-4) <br> <span>+ *</span> Discussion and/or laboratory. Prerequisite: consent of instructor. Participation may include development of laboratory experiments, lecture demonstrations, autotutorial modules or assistance with laboratory sessions. May be repeated for credit for a total of 12 units. (P/NP grading only.)<br> <span>+</span> <br> <span>+ *</span> 198. Directed Group Study (1-5)<br> <span>+ *</span> Prerequisite: consent of instructor based upon adequate preparation in chemistry, mathematics and physics. (P/NP grading only.)<br> <span>+</span> <br> <span>+ *</span> 199. Special Study for Advanced Undergraduates (1-5)<br> <span>+ *</span> Prerequisite: consent of instructor based upon adequate preparation in chemistry, mathematics, and physics. (P/NP grading only.)<br> <span>+</span> <br> <span>+ ''</span>Graduate Courses<span>''</span><br> <span>+ *</span> 201. Chemical Uses of Symmetry and Group Theory (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 124A and 110B, or consent of instructor. Symmetry elements and operations, point groups, representations of groups. Applications to molecular orbital theory, ligand field theory, molecular vibrations, and angular momentum. Crystallographic symmetry.<br> <span>+</span> <br> <span>+ *</span> 205. Symmetry, Spectroscopy, and Structure (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 201 or the equivalent. Vibrational and rotational spectra; electronic spectra and photoelectron spectroscopy; magnetism; electron spin and nuclear quadrapole resonance spectroscopy; nuclear magnetic resonance spectroscopy; other spectroscopic methods<br> <span>+</span> <br> <span>+ *</span> 210A. Quantum Chemistry: Introduction and Stationary-State Properties (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 110B and 110C or consent of instructor. Stationary-state quantum chemistry: postulates of quantum mechanics, simple solutions, central field problems and angular momenta, hydrogen atom, perturbation theory, variational theory, atoms and molecules.<br> <span>+</span> <br> <span>+ *</span> 210B. Quantum Chemistry: Time-Dependent Systems (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 210A. Matrix mechanics and time-dependent quantum chemistry: matrix formulation of quantum mechanics, Heisenberg representation, time-dependent perturbation theory, selection rules, density matrices, and miscellaneous molecular properties.<br> <span>+</span> <br> <span>+ *</span> 210C. Quantum Chemistry: Molecular Spectroscopy (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 210B. Molecular spectroscopy: Born-Oppenheimer approximation, rotational, vibrational and electronic spectroscopy, spin systems, and molecular photophysics.<br> <span>+</span> <br> <span>+ *</span> 211A. Advanced Physical Chemistry: Statistical Thermodynamics (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: consent of instructor. Principles and applications of statistical mechanics; ensemble theory; statistical thermodynamics of gases, solids, liquids, electrolyte solutions and polymers; chemical equilibrium.<br> <span>+</span> <br> <span>+ *</span> 211B. Statistical Mechanics (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 211A. Statistical mechanics of nonequilibrium systems, including the rigorous kinetic theory of gases, continuum mechanics transport in dense fluids, stochastic processes, brownian motion and linear response theory. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 212. Chemical Dynamics (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: consent of instructor. Introduction to modern concepts in chemical reaction dynamics for graduate students in chemistry. Emphasis will be placed on experimental techniques as well as emerging physical models for characterizing chemical reactivity at a microscopic level. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 215. Theoretical and Computational Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: courses 211A and 210B or consent of instructor. Mathematics of wide utility in chemistry, computational methods for guidance or alternative to experiment, and modern formulations of chemical theory. Emphasis will vary in successive years. May be repeated for credit when topic differs. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 216. Magnetic Resonance Spectroscopy (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: courses 210A, 210B (may be taken concurrently). Quantum mechanics of spin and orbital angular momentum, nuclear magnetic resonance, theory of chemical shift and multiplet structures, electron spin resonance, theory of g-tensor in organic and transition ions, spin Hamiltonians, nuclear quadrupolar resonance, spin relaxation processes. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 217. X-Ray Structure Determination (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: consent of instructor. Introduction to x-ray structure determination; crystals, symmetry, diffraction geometry, sample preparation and handling, diffraction apparatus and data collection, methods of structure solution and refinement, presentation of results, text, tables and graphics, crystallographic literature.<br> <span>+</span> <br> <span>+ *</span> 218. Macromolecules: Physical Principles (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: courses 110A, 110B, 110C or the equivalent. Relationship of higher order macromolecular structure to subunit composition; equilibrium properties and macromolecular dynamics; physical chemical determination of macromolecular structure. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 219. Spectroscopy of Organic Compounds (4)<br> <span>+ *</span> Lecture—3 hours; laboratory—2.5 hours. Prerequisite: course 128C or the equivalent. Identification of organic compounds and investigation of stereochemical and reaction mechanism phenomena using spectroscopic methods—principally NMR, IR and MS.<br> <span>+</span> <br> <span>+ *</span> 221A-H. Special Topics in Organic Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Selected topics of current interest in organic chemistry. Topics will vary each time the course is offered, and in general will emphasize the research interests of the staff member giving the course.<br> <span>+</span> <br> <span>+ *</span> 226. Principles of Transition Metal Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 124A or the equivalent. Electronic structures, bonding, and reactivity of transition metal compounds.<br> <span>+</span> <br> <span>+ *</span> 228A. Bio-inorganic Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 226 or consent of instructor. Defines role of inorganic chemistry in the functioning of biological systems by identifying the functions of metal ions and main group compounds in biological systems and discussing the chemistry of model and isolated biological compounds. Offered every third year.<br> <span>+</span> <br> <span>+ *</span> 228B. Main Group Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 226 or consent of instructor. Synthesis, physical properties, reactions and bonding of main group compounds. Discussions of concepts of electron deficiency, hypervalency, and non-classical bonding. Chemistry of the main group elements will be treated systematically. Offered every third year.<br> <span>+</span> <br> <span>+ *</span> 228C. Solid-State Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: courses 124A, 110B, 226, or the equivalent. Design and synthesis, structure and bonding of solid-state compounds; physical properties and characterization of solids; topics of current interest such as low-dimensional materials, inorganic polymers, materials for catalysis. Offered every third year.<br> <span>+</span> <br> <span>+ *</span> 228D. Homogeneous Catalysis (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 226. Overview of homogeneous catalysis and related methods, with emphasis on kinetics, mechanisms, and applications for organic synthesis. The related methods may include cluster, colloid, phase transfer, enzymatic, heterogeneous and polymer-supported catalysis. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 231. Organic Synthesis: Methods and Strategies (3) <br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 131 or the equivalent. Provides a broadly based discussion of current strategies in synthetic organic chemistry. Focus on methods for constructing carbon frameworks, controlling relative stereochemistry, and controlling absolute stereochemistry. Retrosynthetic strategies will be discussed throughout the lectures.<br> <span>+</span> <br> <span>+ *</span> 233. Physical-Organic Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: courses 128A-128B-128C and 110A-110B-110C or the equivalent. Introduction to elementary concepts in physical-organic chemistry including the application of simple numerical techniques in characterizing and modeling organic reactions.<br> <span>+</span> <br> <span>+ *</span> 235. Organometallic Chemistry in Organic Synthesis (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 128C. Current trends in use of organometallics for organic synthesis; preparations, properties, applications, and limitations of organometallic reagents derived from transition and/or main group metals. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 236. Chemistry of Natural Products (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 128C or the equivalent. Advanced treatment of chemistry of naturally occurring compounds isolated from a variety of sources. Topics will include isolation, structure determination, chemical transformations, total synthesis, biological activity, and biosynthesis. Biosynthetic origin will be used as a unifying theme.<br> <span>+</span> <br> <span>+ *</span> 237. Bio-organic Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 128C or the equivalent. Structure and function of biomolecules; molecular recognition; enzyme reaction mechanisms; design of suicide substrates for enzymes; enzyme engineering; design of artificial enzymes and application of enzymes in organic synthesis. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 240. Advanced Analytical Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: courses 110A and 115 or the equivalent. Numerical treatment of experimental data; thermodynamics of electrolyte and non-electrolyte solutions; complex equilibria in aqueous and non-aqueous solutions; potentiometry and specific ion electrodes; mass transfer in liquid solutions; fundamentals of separation science, including column, gas and liquid chromatography.<br> <span>+</span> <br> <span>+ *</span> 241A. Surface Analytical Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 110C or the equivalent. Concepts of surfaces and interfaces: physical properties, unique chemistry and electronic effects. Focus on gas-solid interfaces, with some discussion of liquid-solid interfaces. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 241B. Laser and X-ray Spectroscopy (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 110B or the equivalent. Concepts and mechanisms of light-matter interactions. Chemical applications of modern spectroscopic methods, including multiphoton spectroscopy, time-resolved laser and x-ray photolysis, and phase-contrast x-ray imaging. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 241C. Mass Spectrometry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Mass spectrometry and related methods with emphasis on ionization methods, mass analyzers, and detectors. Related methods may include ion-molecule reactions, unimolecular dissociation of organic and bio-organic compounds, and applications in biological and environmental analysis. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 241D. Electroanalytical Chemistry (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Electroanalytical chemistry with consideration of mass transfer and electrode kinetics for polarizable electrodes. Current-potential curves for a variety of conditions, including both potentiostatic and galvanostatic control, and their application in chemical analysis. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 241E. Microscopy and Imaging Techniques (3)<br> <span>+ *</span> Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Introduction to modern microscopy and imaging techniques: scanning tunneling, atomic force, far-field optical, fluorescence, scanning near-field optical, and scanning electron microscopy. Application to nanoscience and analytical and bioanalytical chemistry. Some laboratory demonstrations. Offered in alternate years.<br> <span>+</span> <br> <span>+ *</span> 261. Current Topics in Chemical Research (2)<br> <span>+ *</span> Lecture—2 hours. Prerequisite: graduate standing in Chemistry or consent of instructor. Designed to help chemistry graduate students develop and maintain familiarity with the current and past literature in their immediate field of research and related areas. May be repeated for credit when topics differ.<br> <span>+</span> <br> <span>+ *</span> 263. Introduction to Chemical Research Methodology (3)<br> <span>+ *</span> Laboratory/discussion—9 hours. Prerequisite: course 293 and graduate student standing in Chemistry; consent of instructor. Introduction to identification, formulation, and solution of meaningful scientific problems including experimental design and/or theoretical analyses of new and prevailing techniques, theories and hypotheses. May be repeated for credit when topic differs. (S/U grading only.)<br> <span>+</span> <br> <span>+ *</span> 264. Advanced Chemical Research Methodology (6)<br> <span>+ *</span> Laboratory/discussion—18 hours. Prerequisite: course 263 or consent of instructor. Applications of the methodology developed in Chemistry 263 to experimental and theoretical studies. Advanced methods of interpretation of results are developed. Includes the preparation of manuscripts for publication. May be repeated for credit when topic differs. (S/U grading only.)<br> <span>+</span> <br> <span>+ *</span> 290. Seminar (2)<br> <span>+ *</span> Seminar—2 hours. Prerequisite: consent of instructor. (S/U grading only.)<br> <span>+</span> <br> <span>+ *</span> 293. Introduction to Chemistry Research (1)<br> <span>+ *</span> Discussion—2 hours. Designed for incoming graduate students preparing for higher degrees in chemistry. Group and individual discussion of research activities in the Department and research topic selection. <br> <span>+</span> <br> <span>+ *</span> 295. Careers in Chemistry (1)<br> <span>+ *</span> Seminar—2 hours. Prerequisite: graduate standing in Chemistry. Designed to give Chemistry graduate students an in-depth appreciation of career opportunities with a M.S. or Ph.D. degree in chemistry. Professional chemists (and allied professionals) give seminars describing both research and career insights. May be repeated for credit 3 times. (S/U grading only.)—I.<br> <span>+</span> <br> <span>+ *</span> 298. Group Study (1-5)<br> <span>+</span> <br> <span>+ *</span> 299. Research (1-12)<br> <span>+ *</span> The laboratory is open to qualified graduate students who wish to pursue original investigation. Students wishing to enroll should communicate with the department well in advance of the quarter in which the work is to be undertaken. (S/U grading only.)<br> <span>+</span> <br> <span>+ '</span>'Professional Courses'<span>'</span><br> <span>+ <br> + *</span> 390. Methods of Teaching Chemistry (2)<br> <span>+ *</span> Lecture—1 hour; discussion—1 hour. Prerequisite: graduate student standing in Chemistry and consent of instructor. Practical experience in methods and problems of teaching chemistry. Includes analyses of texts and supporting material, discussion of teaching techniques, preparing for and conducting of discussion sessions and student laboratories. Participation in the teaching program required for Ph.D. in chemistry. May be repeated for credit. (S/U grading only.)<br> <span>+</span> <br> <span>+ *</span> 392. Advanced Methods of Teaching Chemistry (2)<br> <span>+ *</span> Lecture—2 hours. Prerequisite: course 390. Advanced topics in teaching chemistry. Analysis and discussion of curricular design, curricula materials, teaching methods and evaluation. For students who are planning a career in teaching chemistry. (P/NP grading only.)<br> <span>+</span> <br> <span>+ '''</span>Home Page<span>'''</span> </td> </tr> <tr> <td> Line 265: </td> <td> Line 270: </td> </tr> <tr> <td> <span>- ----- /!\ Edit conflict! Your version: -----<br> - "'Location"<br> - The Chemistry Department is located in the creativly named Chemistry Building.<br> - <br> - "Degrees"<br> - The Department offers BA and BS as well ad Masters and PhD. degrees.<br> - <br> - ''Courses"<br> - as taken directly from the ["General Catalog" UC Davis General Catalog]<br> - <br> - 'Lower Division Courses'<br> - 2A. General Chemistry (5)<br> - Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: High school chemistry and physics strongly recommended; satisfactory score on diagnostic examinations. Periodic table, stoichiometry, chemical equations, physical properties and kinetic theory of gases, atomic and molecular structure and chemical bonding. Laboratory experiments in stoichiometric relations, properties and collection of gases, atomic spectroscopy, and introductory quantitative analysis. Only 3 units of credit allowed to students who have completed course 9. GE credit: SciEng.<br> - <br> - 2AH. Honors General Chemistry (5)<br> - Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: High school chemistry and physics; satisfactory score on diagnostic examinations; Mathematics 21A (may be taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2A. Students completing course 2AH can continue with course 2BH or 2B.<br> - <br> - 2B. General Chemistry (5)<br> - Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2A or 2AH. Continuation of course 2A. Condensed phases and intermolecular forces, chemical thermodynamics, chemical equilibria, acids and bases, solubility. Laboratory experiments in thermochemistry, equilibria, and quantitative analysis using volumetric methods. GE credit<br> - <br> - 2BH. Honors General Chemistry (5)<br> - Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2A with consent of instructor or course 2AH with a grade of C or better; and Mathematics 21B (maybe taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2B. Students completing course 2BH can continue with course 2CH or 2C.<br> - <br> - 2C. General Chemistry (5)<br> - Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2B or 2BH. Continuation of course 2B. Kinetics, electrochemistry, spectroscopy, structure and bonding in transition metal compounds, application of principles to chemical reactions. Laboratory experiments in selected analytical methods and syntheses. GE credit: SciEng.<br> - <br> - 2CH. Honors General Chemistry (5)<br> - Lecture—3 hours; laboratory—6 hours. Prerequisite: course 2B with consent of instructor or course 2BH with a grade of C or better; and Mathematics 21C (maybe taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2C.<br> - <br> - 8A. Organic Chemistry: Brief Course (2)<br> - Lecture—2 hours. Prerequisite: course 2B with a grade of C– or higher. With course 8B, an introduction to the nomenclature, structure, chemistry, and reaction mechanisms of organic compounds. Intended for students majoring in areas other than organic chemistry.<br> - <br> - 8B. Organic Chemistry: Brief Course (4)<br> - Lecture—3 hours; laboratory—3 hours. Prerequisite: course 8A or 118A. Continuation of course 8A. Laboratory concerned primarily with organic laboratory techniques and the chemistry of the common classes of organic compounds.<br> - <br> - 10. Concepts of Chemistry (4)<br> - Lecture—4 hours. A survey of basic concepts and contemporary applications of chemistry. Designed for non-science majors and not as preparation for Chemistry 2A. Course Not open for credit to students who have had Chemistry 2A; but students with credit for course 10 may take Chemistry 2A for full credit. GE credit: SciEng, Wrt.<br> - <br> - 98. Directed Group Study (1-5)<br> - Prerequisite: consent of instructor. Primarily for lower division students. (P/NP grading only.)<br> - <br> - 99. Special Study for Undergraduates (1-5)<br> - Prerequisite: consent of instructor. (P/NP grading only.<br> - <br> - "Upper Division Courses"<br> - 105. Analytical and Physical Chemical Methods (4)<br> - Lecture—2 hours; laboratory—6 hours. Prerequisite: course 110A (may be taken concurrently) or consent of instructor. Fundamental theory and laboratory techniques in analytical and physical chemistry. Errors and data analysis methods. Basic electrical circuits in instruments. Advanced solution equilibria. Potentiometric analysis. Chromatographic separations. UV-visible spectroscopy. Lasers.<br> - <br> - 107A. Physical Chemistry for the Life Sciences (3)<br> - Lecture—3 hours. Prerequisite: course 2C, Mathematics 16C or 21C, one year of college level physics. Physical chemistry intended for majors in the life science area. Introductory development of classical and statistical thermodynamics including equilibrium processes and solutions of both non-electrolytes and electrolytes. The thermodynamic basis of electrochemistry and membrane potentials.<br> - <br> - 107B. Physical Chemistry for the Life Sciences (3)<br> - Lecture—3 hours. Prerequisite: course 107A. Continuation of course 107A. Kinetic theory of gases and transport processes in liquids. Chemical kinetics, enzyme kinetics and theories of reaction rates. Introduction to quantum theory, atomic and molecular structure, and spectroscopy. Application to problems in the biological sciences.<br> - <br> - 108. Physical Chemistry of Macromolecules (3)<br> - Lecture—3 hours. Prerequisite: course 107B or 110C. Physical properties and characterization of macromolecules with emphasis upon those of biological interest. Structural thermodynamic, optical and transport properties of polymers in bulk and in solution. Physical characterization methods. Special topics on the properties of polyelectrolyte systems.<br> - <br> - 110A. Physical Chemistry: Introduction to Quantum Mechanics (4)<br> - Lecture—3 hours; discussion—1 hour. Prerequisite: course 2C, Mathematics 16C or 21C; one year of college physics. Introduction to the postulates and general principles of quantum mechanics. Approximations based on variational method and time independent perturbation theory. Application to harmonic oscillator, rigid rotor, one-electron and many-electron atoms, and homo-and hetero-nuclear diatomic molecules.-<br> - <br> - 110B. Physical Chemistry: Properties of Atoms and Molecules (4)<br> - Lecture—3 hours; discussion—1 hour. Prerequisite: course 110A. Group theory. Application of quantum mechanics to polyatomic molecules and molecular spectroscopy. Intermolecular forces and the gas, liquid and solid states. Distributions, ensembles and partition functions. Transport properties.<br> - <br> - 110C. Physical Chemistry: Thermodynamics, Equilibria and Kinetics (4)<br> - Lecture—3 hours; discussion—1 hour. Prerequisite: course 110B. Development and application of the general principles of thermodynamics and statistical thermodynamics. Chemical kinetics, rate laws for chemical reactions and reaction mechanisms.—I<br> - <br> - 115. Instrumental Analysis (4)<br> - Lecture—2 hours; laboratory—6 hours. Prerequisite: course 105 and 110B (may be taken concurrently). Intermediate theory and laboratory techniques in analytical and physical chemistry. Advanced data analysis methods and goodness-of-fit criteria. Fourier-transform spectroscopic methods and instrumentation. Mass spectrometry. Electrochemistry. Liquid chromatography. GE credit: Wrt.<br> - <br> - 118A. Organic Chemistry for Health and Life Sciences (4)<br> - Lecture—3 hours; laboratory/discussion—1.5 hours. Prerequisite: course 2C with a grade of C– or higher. The 118A, 118B, 118C series is for students planning professional school studies in health and life sciences. A rigorous, in-depth presentation of basic principles with emphasis on stereochemistry and spectroscopy and preparations and reactions of nonaromatic hydrocarbons, haloalkanes, alcohols and ethers.<br> - <br> - 118B. Organic Chemistry for Health and Life Sciences (4)<br> - Lecture—3 hours; laboratory—3 hours. Prerequisite: course 118A. Continuation of course 118A, with emphasis on spectroscopy and the preparation and reactions of aromatic hydrocarbons, organometallic compounds, aldehydes and ketones.<br> - <br> - 118C. Organic Chemistry for Health and Life Sciences (4)<br> - Lecture—3 hours; laboratory—3 hours. Prerequisite: course 118B. Continuation of course 118B, with emphasis on the preparation, reactions and identification of carboxylic acids and their derivatives, alkyl and acyl amines, ß-dicarbonyl compounds, and various classes of naturally occurring, biologically important compounds.<br> - <br> - 121. Introduction to Molecular Structure and Spectra (4)<br> - Lecture—4 hours. Prerequisite: course 110B. Modern theoretical and experimental methods used to study problems of molecular structure and bonding; emphasis on spectroscopic techniques.<br> - <br> - 124A. Inorganic Chemistry: Fundamentals (3)<br> - Lecture—3 hours. Prerequisite: course 2C. Symmetry, molecular geometry and structure, molecular orbital theory of bonding (polyatomic molecules and transition metals), solid state chemistry, energetics and spectroscopy of inorganic compounds.<br> - <br> - 124B. Inorganic Chemistry: Main Group Elements (3)<br> - Lecture—3 hours. Prerequisite: course 124A. Synthesis, structure and reactivity of inorganic and heteroorganic molecules containing the main group elements.<br> - <br> - 124C. Inorganic Chemistry: d and f Block Elements (3)<br> - Lecture—3 hours. Prerequisite: course 124A. Synthesis, structure and reactivity of transition metal complexes, organometallic and bioinorganic chemistry, the lanthanides and actinides.<br> - <br> - 124L. Laboratory Methods in Inorganic Chemistry (2)<br> - Laboratory—6 hours. Prerequisite: course 124B or 124C (may be taken concurrently). The preparation, purification and characterization of main group and transition metal inorganic and organometallic compounds.<br> - <br> - 125. Advanced Methods in Physical Chemistry (4)<br> - Lecture—2 hours; laboratory—6 hours. Prerequisite: course 110C (may be taken concurrently) and 115. Advanced theory and laboratory techniques in analytical and physical chemistry. Advanced spectroscopic methods. Thermodynamics. Kinetics. Chemical literature. Digital electronics and computer interfacing. Laboratory measurements and vacuum techniques. GE credit: Wrt.<br> - <br> - 128A. Organic Chemistry (3)<br> - Lecture—3 hours. Prerequisite: course 2C with a grade of C or higher; chemistry majors should enroll in course 129A concurrently. Introduction to the basic concepts of organic chemistry with emphasis on stereochemistry and the chemistry of hydrocarbons. Designed primarily for majors in chemistry.<br> - <br> - 128B. Organic Chemistry (3)<br> - Lecture—3 hours. Prerequisite: course 128A or consent of instructor, course 129A strongly recommended; chemistry majors should enroll in course 129B concurrently. Continuation of course 128A with emphasis on aromatic and aliphatic substitution reactions, elimination reactions, and the chemistry of carbonyl compounds. Introduction to the application of spectroscopic methods to organic chemistry.<br> - <br> - 128C. Organic Chemistry (3)<br> - Lecture—3 hours. Prerequisite: course 128B, chemistry majors should enroll in course 129C concurrently. Continuation of course 128B with emphasis on enolate condensations and the chemistry of amines, phenols, and sugars; selected biologically important compounds.<br> - <br> - 129A. Organic Chemistry Laboratory (2)<br> - Lecture—1 hour; laboratory—3 hours. Prerequisite: course 2C with a grade of C or higher; course 128A (may be taken concurrently). Introduction to laboratory techniques of organic chemistry. Emphasis is on methods used for separation and purification of organic compounds.<br> - <br> - 129B. Organic Chemistry Laboratory (2)<br> - Laboratory—6 hours. Prerequisite: courses 128B (may be taken concurrently) and 129A. Continuation of course 129A. Emphasis is on methods used for synthesis and isolation of organic compounds.<br> - <br> - 129C. Organic Chemistry Laboratory (2)<br> - Laboratory—6 hours. Prerequisite: courses 128C (may be taken concurrently) and 129B. Continuation of course 129B.<br> - <br> - 131. Modern Methods of Organic Synthesis (3)<br> - Lecture—3 hours. Prerequisite: course 128C. Introduction to modern synthetic methodology in organic chemistry with emphasis on stereoselective reactions and application to multistep syntheses of organic molecules containing multifunctionality.—II. (II.)<br> - <br> - 135. Advanced Organic Chemistry Laboratory (3)<br> - Lecture—1 hour; laboratory—6 hours. Prerequisite: courses 115 and 129C. Separation, purification and identification of organic compounds using modern methods of synthesis and instrumentation.<br> - <br> - 150. Chemistry of Natural Products (3)<br> - Lecture—3 hours. Prerequisite; course 128C. Chemistry of terpenes, steroids, acetogenins, and alkaloids: isolation, structure determination, biosynthesis, chemical transformations, and total synthesis. GE credit: SciEng, Wrt.—I. (I.)<br> - <br> - 192. Internship in Chemistry (1-6)<br> - Internship—3-18 hours. Prerequisite: upper division standing; project approval by faculty sponsor prior to enrollment. Supervised internship in chemistry; re-quires a final written report. May be repeated for credit for a total of 6 units. (P/NP grading only.)<br> - <br> - 194HA-194HB-194HC. Undergraduate Honors Research (2-2-2)<br> - Independent study—2 hours. Prerequisite: open only to chemistry majors who have completed 135 units and who qualify for the honors program. Original research under the guidance of a faculty adviser, culminating in the writing of an extensive report. (Deferred grading only, pending completion of sequence.)<br> - <br> - 195. Careers in Chemistry (1)<br> - Seminar—2 hours. Prerequisite: junior or senior standing in Chemistry. Designed to give Chemistry undergraduate students an in-depth appreciation of career opportunities with a bachelors degree in chemistry. Professional chemists (and allied professionals) describe research and provide career insights. (P/NP grading only.)—I.<br> - <br> - <br> - 197. Projects in Chemical Education (1-4) <br> - Discussion and/or laboratory. Prerequisite: consent of instructor. Participation may include development of laboratory experiments, lecture demonstrations, autotutorial modules or assistance with laboratory sessions. May be repeated for credit for a total of 12 units. (P/NP grading only.)—I, II, III. (I, II, III.)<br> - <br> - 198. Directed Group Study (1-5)<br> - Prerequisite: consent of instructor based upon adequate preparation in chemistry, mathematics and physics. (P/NP grading only.)<br> - <br> - 199. Special Study for Advanced Undergraduates (1-5)<br> - Prerequisite: consent of instructor based upon adequate preparation in chemistry, mathematics, and physics. (P/NP grading only.)<br> - <br> - "Graduate Courses"<br> - 201. Chemical Uses of Symmetry and Group Theory (3)<br> - Lecture—3 hours. Prerequisite: course 124A and 110B, or consent of instructor. Symmetry elements and operations, point groups, representations of groups. Applications to molecular orbital theory, ligand field theory, molecular vibrations, and angular momentum. Crystallographic symmetry.<br> - <br> - 205. Symmetry, Spectroscopy, and Structure (3)<br> - Lecture—3 hours. Prerequisite: course 201 or the equivalent. Vibrational and rotational spectra; electronic spectra and photoelectron spectroscopy; magnetism; electron spin and nuclear quadrapole resonance spectroscopy; nuclear magnetic resonance spectroscopy; other spectroscopic methods<br> - <br> - 210A. Quantum Chemistry: Introduction and Stationary-State Properties (3)<br> - Lecture—3 hours. Prerequisite: course 110B and 110C or consent of instructor. Stationary-state quantum chemistry: postulates of quantum mechanics, simple solutions, central field problems and angular momenta, hydrogen atom, perturbation theory, variational theory, atoms and molecules.<br> - <br> - 210B. Quantum Chemistry: Time-Dependent Systems (3)<br> - Lecture—3 hours. Prerequisite: course 210A. Matrix mechanics and time-dependent quantum chemistry: matrix formulation of quantum mechanics, Heisenberg representation, time-dependent perturbation theory, selection rules, density matrices, and miscellaneous molecular properties.<br> - <br> - 210C. Quantum Chemistry: Molecular Spectroscopy (3)<br> - Lecture—3 hours. Prerequisite: course 210B. Molecular spectroscopy: Born-Oppenheimer approximation, rotational, vibrational and electronic spectroscopy, spin systems, and molecular photophysics.<br> - <br> - 211A. Advanced Physical Chemistry: Statistical Thermodynamics (3)<br> - Lecture—3 hours. Prerequisite: consent of instructor. Principles and applications of statistical mechanics; ensemble theory; statistical thermodynamics of gases, solids, liquids, electrolyte solutions and polymers; chemical equilibrium.<br> - <br> - 211B. Statistical Mechanics (3)<br> - Lecture—3 hours. Prerequisite: course 211A. Statistical mechanics of nonequilibrium systems, including the rigorous kinetic theory of gases, continuum mechanics transport in dense fluids, stochastic processes, brownian motion and linear response theory. Offered in alternate years.<br> - <br> - 212. Chemical Dynamics (3)<br> - Lecture—3 hours. Prerequisite: consent of instructor. Introduction to modern concepts in chemical reaction dynamics for graduate students in chemistry. Emphasis will be placed on experimental techniques as well as emerging physical models for characterizing chemical reactivity at a microscopic level. Offered in alternate years.<br> - <br> - 215. Theoretical and Computational Chemistry (3)<br> - Lecture—3 hours. Prerequisite: courses 211A and 210B or consent of instructor. Mathematics of wide utility in chemistry, computational methods for guidance or alternative to experiment, and modern formulations of chemical theory. Emphasis will vary in successive years. May be repeated for credit when topic differs. Offered in alternate years.<br> - <br> - 216. Magnetic Resonance Spectroscopy (3)<br> - Lecture—3 hours. Prerequisite: courses 210A, 210B (may be taken concurrently). Quantum mechanics of spin and orbital angular momentum, nuclear magnetic resonance, theory of chemical shift and multiplet structures, electron spin resonance, theory of g-tensor in organic and transition ions, spin Hamiltonians, nuclear quadrupolar resonance, spin relaxation processes. Offered in alternate years.<br> - <br> - 217. X-Ray Structure Determination (3)<br> - Lecture—3 hours. Prerequisite: consent of instructor. Introduction to x-ray structure determination; crystals, symmetry, diffraction geometry, sample preparation and handling, diffraction apparatus and data collection, methods of structure solution and refinement, presentation of results, text, tables and graphics, crystallographic literature.<br> - <br> - 218. Macromolecules: Physical Principles (3)<br> - Lecture—3 hours. Prerequisite: courses 110A, 110B, 110C or the equivalent. Relationship of higher order macromolecular structure to subunit composition; equilibrium properties and macromolecular dynamics; physical chemical determination of macromolecular structure. Offered in alternate years.<br> - <br> - 219. Spectroscopy of Organic Compounds (4)<br> - Lecture—3 hours; laboratory—2.5 hours. Prerequisite: course 128C or the equivalent. Identification of organic compounds and investigation of stereochemical and reaction mechanism phenomena using spectroscopic methods—principally NMR, IR and MS.<br> - <br> - 221A-H. Special Topics in Organic Chemistry (3)<br> - Lecture—3 hours. Selected topics of current interest in organic chemistry. Topics will vary each time the course is offered, and in general will emphasize the research interests of the staff member giving the course.<br> - <br> - 226. Principles of Transition Metal Chemistry (3)<br> - Lecture—3 hours. Prerequisite: course 124A or the equivalent. Electronic structures, bonding, and reactivity of transition metal compounds.<br> - <br> - 228A. Bio-inorganic Chemistry (3)<br> - Lecture—3 hours. Prerequisite: course 226 or consent of instructor. Defines role of inorganic chemistry in the functioning of biological systems by identifying the functions of metal ions and main group compounds in biological systems and discussing the chemistry of model and isolated biological compounds. Offered every third year.<br> - <br> - 228B. Main Group Chemistry (3)<br> - Lecture—3 hours. Prerequisite: course 226 or consent of instructor. Synthesis, physical properties, reactions and bonding of main group compounds. Discussions of concepts of electron deficiency, hypervalency, and non-classical bonding. Chemistry of the main group elements will be treated systematically. Offered every third year.<br> - <br> - 228C. Solid-State Chemistry (3)<br> - Lecture—3 hours. Prerequisite: courses 124A, 110B, 226, or the equivalent. Design and synthesis, structure and bonding of solid-state compounds; physical properties and characterization of solids; topics of current interest such as low-dimensional materials, inorganic polymers, materials for catalysis. Offered every third year.<br> - <br> - 228D. Homogeneous Catalysis (3)<br> - Lecture—3 hours. Prerequisite: course 226. Overview of homogeneous catalysis and related methods, with emphasis on kinetics, mechanisms, and applications for organic synthesis. The related methods may include cluster, colloid, phase transfer, enzymatic, heterogeneous and polymer-supported catalysis. Offered in alternate years.<br> - <br> - 231. Organic Synthesis: Methods and Strategies (3) <br> - Lecture—3 hours. Prerequisite: course 131 or the equivalent. Provides a broadly based discussion of current strategies in synthetic organic chemistry. Focus on methods for constructing carbon frameworks, controlling relative stereochemistry, and controlling absolute stereochemistry. Retrosynthetic strategies will be discussed throughout the lectures.<br> - <br> - 233. Physical-Organic Chemistry (3)<br> - Lecture—3 hours. Prerequisite: courses 128A-128B-128C and 110A-110B-110C or the equivalent. Introduction to elementary concepts in physical-organic chemistry including the application of simple numerical techniques in characterizing and modeling organic reactions.<br> - <br> - 235. Organometallic Chemistry in Organic Synthesis (3)<br> - Lecture—3 hours. Prerequisite: course 128C. Current trends in use of organometallics for organic synthesis; preparations, properties, applications, and limitations of organometallic reagents derived from transition and/or main group metals. Offered in alternate years.<br> - <br> - 236. Chemistry of Natural Products (3)<br> - Lecture—3 hours. Prerequisite: course 128C or the equivalent. Advanced treatment of chemistry of naturally occurring compounds isolated from a variety of sources. Topics will include isolation, structure determination, chemical transformations, total synthesis, biological activity, and biosynthesis. Biosynthetic origin will be used as a unifying theme.<br> - <br> - 237. Bio-organic Chemistry (3)<br> - Lecture—3 hours. Prerequisite: course 128C or the equivalent. Structure and function of biomolecules; molecular recognition; enzyme reaction mechanisms; design of suicide substrates for enzymes; enzyme engineering; design of artificial enzymes and application of enzymes in organic synthesis. Offered in alternate years.<br> - <br> - 240. Advanced Analytical Chemistry (3)<br> - Lecture—3 hours. Prerequisite: courses 110A and 115 or the equivalent. Numerical treatment of experimental data; thermodynamics of electrolyte and non-electrolyte solutions; complex equilibria in aqueous and non-aqueous solutions; potentiometry and specific ion electrodes; mass transfer in liquid solutions; fundamentals of separation science, including column, gas and liquid chromatography.<br> - <br> - 241A. Surface Analytical Chemistry (3)<br> - Lecture—3 hours. Prerequisite: course 110C or the equivalent. Concepts of surfaces and interfaces: physical properties, unique chemistry and electronic effects. Focus on gas-solid interfaces, with some discussion of liquid-solid interfaces. Offered in alternate years.<br> - <br> - 241B. Laser and X-ray Spectroscopy (3)<br> - Lecture—3 hours. Prerequisite: course 110B or the equivalent. Concepts and mechanisms of light-matter interactions. Chemical applications of modern spectroscopic methods, including multiphoton spectroscopy, time-resolved laser and x-ray photolysis, and phase-contrast x-ray imaging. Offered in alternate years.<br> - <br> - 241C. Mass Spectrometry (3)<br> - Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Mass spectrometry and related methods with emphasis on ionization methods, mass analyzers, and detectors. Related methods may include ion-molecule reactions, unimolecular dissociation of organic and bio-organic compounds, and applications in biological and environmental analysis. Offered in alternate years.<br> - <br> - 241D. Electroanalytical Chemistry (3)<br> - Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Electroanalytical chemistry with consideration of mass transfer and electrode kinetics for polarizable electrodes. Current-potential curves for a variety of conditions, including both potentiostatic and galvanostatic control, and their application in chemical analysis. Offered in alternate years.<br> - <br> - 241E. Microscopy and Imaging Techniques (3)<br> - Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Introduction to modern microscopy and imaging techniques: scanning tunneling, atomic force, far-field optical, fluorescence, scanning near-field optical, and scanning electron microscopy. Application to nanoscience and analytical and bioanalytical chemistry. Some laboratory demonstrations. Offered in alternate years.<br> - <br> - 261. Current Topics in Chemical Research (2)<br> - Lecture—2 hours. Prerequisite: graduate standing in Chemistry or consent of instructor. Designed to help chemistry graduate students develop and maintain familiarity with the current and past literature in their immediate field of research and related areas. May be repeated for credit when topics differ.<br> - <br> - 263. Introduction to Chemical Research Methodology (3)<br> - Laboratory/discussion—9 hours. Prerequisite: course 293 and graduate student standing in Chemistry; consent of instructor. Introduction to identification, formulation, and solution of meaningful scientific problems including experimental design and/or theoretical analyses of new and prevailing techniques, theories and hypotheses. May be repeated for credit when topic differs. (S/U grading only.)<br> - <br> - 264. Advanced Chemical Research Methodology (6)<br> - Laboratory/discussion—18 hours. Prerequisite: course 263 or consent of instructor. Applications of the methodology developed in Chemistry 263 to experimental and theoretical studies. Advanced methods of interpretation of results are developed. Includes the preparation of manuscripts for publication. May be repeated for credit when topic differs. (S/U grading only.)<br> - <br> - 290. Seminar (2)<br> - Seminar—2 hours. Prerequisite: consent of instructor. (S/U grading only.)<br> - <br> - 293. Introduction to Chemistry Research (1)<br> - Discussion—2 hours. Designed for incoming graduate students preparing for higher degrees in chemistry. Group and individual discussion of research activities in the Department and research topic selection. <br> - <br> - 295. Careers in Chemistry (1)<br> - Seminar—2 hours. Prerequisite: graduate standing in Chemistry. Designed to give Chemistry graduate students an in-depth appreciation of career opportunities with a M.S. or Ph.D. degree in chemistry. Professional chemists (and allied professionals) give seminars describing both research and career insights. May be repeated for credit 3 times. (S/U grading only.)—I.<br> - <br> - 298. Group Study (1-5)<br> - <br> - 299. Research (1-12)<br> - The laboratory is open to qualified graduate students who wish to pursue original investigation. Students wishing to enroll should communicate with the department well in advance of the quarter in which the work is to be undertaken. (S/U grading only.)<br> - <br> - "Professional Courses"<br> - 390. Methods of Teaching Chemistry (2)<br> - Lecture—1 hour; discussion—1 hour. Prerequisite: graduate student standing in Chemistry and consent of instructor. Practical experience in methods and problems of teaching chemistry. Includes analyses of texts and supporting material, discussion of teaching techniques, preparing for and conducting of discussion sessions and student laboratories. Participation in the teaching program required for Ph.D. in chemistry. May be repeated for credit. (S/U grading only.)<br> - <br> - 392. Advanced Methods of Teaching Chemistry (2)<br> - Lecture—2 hours. Prerequisite: course 390. Advanced topics in teaching chemistry. Analysis and discussion of curricular design, curricula materials, teaching methods and evaluation. For students who are planning a career in teaching chemistry. (P/NP grading only.)<br> - <br> - '''Home Page'''<br> - for more information, visit the [http://www.chem.ucdavis.edu chemistry department home page]----- /!\ End of edit conflict -----</span> </td> <td> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-18 20:19:34SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 1: </td> <td> Line 1: </td> </tr> <tr> <td> <span>-</span> '<span>"</span>'Location<span>"</span>'<span><br> - </span> </td> <td> <span>+</span> '<span>'</span>'Location'<span>''</span> </td> </tr> <tr> <td> Line 5: </td> <td> Line 4: </td> </tr> <tr> <td> <span>-</span> '<span>"</span>Degrees<span>"</span>''<span><br> - </span> </td> <td> <span>+</span> '<span>''</span>Degrees''<span>'</span> </td> </tr> <tr> <td> Line 9: </td> <td> Line 7: </td> </tr> <tr> <td> <span>-</span> '''Courses<span>"</span>'<span><br> - </span> </td> <td> <span>+</span> '''Courses'<span>''</span> </td> </tr> <tr> <td> Line 13: </td> <td> Line 10: </td> </tr> <tr> <td> <span>-</span> <span><br> - '</span>Lower Division Courses<span>'</span> </td> <td> <span>+</span> <span>"</span>Lower Division Courses<span>"</span> </td> </tr> <tr> <td> Line 48: </td> <td> Line 44: </td> </tr> <tr> <td> <span>-</span> <span>'</span>Upper Division Courses<span>'</span> </td> <td> <span>+</span> <span>"</span>Upper Division Courses<span>"</span> </td> </tr> <tr> <td> Line 146: </td> <td> Line 142: </td> </tr> <tr> <td> <span>-</span> Graduate Courses<span>'</span> </td> <td> <span>+</span> <span>"</span>Graduate Courses<span>"</span> </td> </tr> <tr> <td> Line 313: </td> <td> Line 309: </td> </tr> <tr> <td> <span>-</span> <span>'</span>Upper Division Courses<span>'</span> </td> <td> <span>+</span> <span>"</span>Upper Division Courses<span>"</span> </td> </tr> <tr> <td> Line 411: </td> <td> Line 407: </td> </tr> <tr> <td> <span>-</span> Graduate Courses<span>'</span> </td> <td> <span>+</span> <span>"</span>Graduate Courses<span>"</span> </td> </tr> <tr> <td> Line 525: </td> <td> Line 521: </td> </tr> <tr> <td> <span>-</span> <span>'</span>Professional Courses<span>'</span> </td> <td> <span>+</span> <span>"</span>Professional Courses<span>"</span> </td> </tr> <tr> <td> Line 532: </td> <td> Line 528: </td> </tr> <tr> <td> <span>-</span> <span>"</span>Home Page<span>"</span> </td> <td> <span>+</span> <span>'''</span>Home Page<span>'''</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-18 20:13:02SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 1: </td> <td> Line 1: </td> </tr> <tr> <td> <span>-</span> "'Location" </td> <td> <span>+</span> <span>'</span>"'Location"<span>'<br> + </span> </td> </tr> <tr> <td> Line 4: </td> <td> Line 5: </td> </tr> <tr> <td> <span>-</span> "Degrees"' </td> <td> <span>+</span> <span>'</span>"Degrees"'<span>'<br> + </span> </td> </tr> <tr> <td> Line 7: </td> <td> Line 9: </td> </tr> <tr> <td> <span>-</span> ''Courses" </td> <td> <span>+</span> <span>'</span>''Courses"<span>'<br> + </span> </td> </tr> <tr> <td> Line 9: </td> <td> Line 12: </td> </tr> <tr> <td> </td> <td> <span>+ </span> </td> </tr> <tr> <td> Line 265: </td> <td> Line 269: </td> </tr> <tr> <td> </td> <td> <span>+ ----- /!\ Edit conflict! Your version: -----<br> + "'Location"<br> + The Chemistry Department is located in the creativly named Chemistry Building.<br> + <br> + "Degrees"<br> + The Department offers BA and BS as well ad Masters and PhD. degrees.<br> + <br> + ''Courses"<br> + as taken directly from the ["General Catalog" UC Davis General Catalog]<br> + <br> + 'Lower Division Courses'<br> + 2A. General Chemistry (5)<br> + Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: High school chemistry and physics strongly recommended; satisfactory score on diagnostic examinations. Periodic table, stoichiometry, chemical equations, physical properties and kinetic theory of gases, atomic and molecular structure and chemical bonding. Laboratory experiments in stoichiometric relations, properties and collection of gases, atomic spectroscopy, and introductory quantitative analysis. Only 3 units of credit allowed to students who have completed course 9. GE credit: SciEng.<br> + <br> + 2AH. Honors General Chemistry (5)<br> + Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: High school chemistry and physics; satisfactory score on diagnostic examinations; Mathematics 21A (may be taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2A. Students completing course 2AH can continue with course 2BH or 2B.<br> + <br> + 2B. General Chemistry (5)<br> + Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2A or 2AH. Continuation of course 2A. Condensed phases and intermolecular forces, chemical thermodynamics, chemical equilibria, acids and bases, solubility. Laboratory experiments in thermochemistry, equilibria, and quantitative analysis using volumetric methods. GE credit<br> + <br> + 2BH. Honors General Chemistry (5)<br> + Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2A with consent of instructor or course 2AH with a grade of C or better; and Mathematics 21B (maybe taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2B. Students completing course 2BH can continue with course 2CH or 2C.<br> + <br> + 2C. General Chemistry (5)<br> + Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2B or 2BH. Continuation of course 2B. Kinetics, electrochemistry, spectroscopy, structure and bonding in transition metal compounds, application of principles to chemical reactions. Laboratory experiments in selected analytical methods and syntheses. GE credit: SciEng.<br> + <br> + 2CH. Honors General Chemistry (5)<br> + Lecture—3 hours; laboratory—6 hours. Prerequisite: course 2B with consent of instructor or course 2BH with a grade of C or better; and Mathematics 21C (maybe taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2C.<br> + <br> + 8A. Organic Chemistry: Brief Course (2)<br> + Lecture—2 hours. Prerequisite: course 2B with a grade of C– or higher. With course 8B, an introduction to the nomenclature, structure, chemistry, and reaction mechanisms of organic compounds. Intended for students majoring in areas other than organic chemistry.<br> + <br> + 8B. Organic Chemistry: Brief Course (4)<br> + Lecture—3 hours; laboratory—3 hours. Prerequisite: course 8A or 118A. Continuation of course 8A. Laboratory concerned primarily with organic laboratory techniques and the chemistry of the common classes of organic compounds.<br> + <br> + 10. Concepts of Chemistry (4)<br> + Lecture—4 hours. A survey of basic concepts and contemporary applications of chemistry. Designed for non-science majors and not as preparation for Chemistry 2A. Course Not open for credit to students who have had Chemistry 2A; but students with credit for course 10 may take Chemistry 2A for full credit. GE credit: SciEng, Wrt.<br> + <br> + 98. Directed Group Study (1-5)<br> + Prerequisite: consent of instructor. Primarily for lower division students. (P/NP grading only.)<br> + <br> + 99. Special Study for Undergraduates (1-5)<br> + Prerequisite: consent of instructor. (P/NP grading only.<br> + <br> + 'Upper Division Courses'<br> + 105. Analytical and Physical Chemical Methods (4)<br> + Lecture—2 hours; laboratory—6 hours. Prerequisite: course 110A (may be taken concurrently) or consent of instructor. Fundamental theory and laboratory techniques in analytical and physical chemistry. Errors and data analysis methods. Basic electrical circuits in instruments. Advanced solution equilibria. Potentiometric analysis. Chromatographic separations. UV-visible spectroscopy. Lasers.<br> + <br> + 107A. Physical Chemistry for the Life Sciences (3)<br> + Lecture—3 hours. Prerequisite: course 2C, Mathematics 16C or 21C, one year of college level physics. Physical chemistry intended for majors in the life science area. Introductory development of classical and statistical thermodynamics including equilibrium processes and solutions of both non-electrolytes and electrolytes. The thermodynamic basis of electrochemistry and membrane potentials.<br> + <br> + 107B. Physical Chemistry for the Life Sciences (3)<br> + Lecture—3 hours. Prerequisite: course 107A. Continuation of course 107A. Kinetic theory of gases and transport processes in liquids. Chemical kinetics, enzyme kinetics and theories of reaction rates. Introduction to quantum theory, atomic and molecular structure, and spectroscopy. Application to problems in the biological sciences.<br> + <br> + 108. Physical Chemistry of Macromolecules (3)<br> + Lecture—3 hours. Prerequisite: course 107B or 110C. Physical properties and characterization of macromolecules with emphasis upon those of biological interest. Structural thermodynamic, optical and transport properties of polymers in bulk and in solution. Physical characterization methods. Special topics on the properties of polyelectrolyte systems.<br> + <br> + 110A. Physical Chemistry: Introduction to Quantum Mechanics (4)<br> + Lecture—3 hours; discussion—1 hour. Prerequisite: course 2C, Mathematics 16C or 21C; one year of college physics. Introduction to the postulates and general principles of quantum mechanics. Approximations based on variational method and time independent perturbation theory. Application to harmonic oscillator, rigid rotor, one-electron and many-electron atoms, and homo-and hetero-nuclear diatomic molecules.-<br> + <br> + 110B. Physical Chemistry: Properties of Atoms and Molecules (4)<br> + Lecture—3 hours; discussion—1 hour. Prerequisite: course 110A. Group theory. Application of quantum mechanics to polyatomic molecules and molecular spectroscopy. Intermolecular forces and the gas, liquid and solid states. Distributions, ensembles and partition functions. Transport properties.<br> + <br> + 110C. Physical Chemistry: Thermodynamics, Equilibria and Kinetics (4)<br> + Lecture—3 hours; discussion—1 hour. Prerequisite: course 110B. Development and application of the general principles of thermodynamics and statistical thermodynamics. Chemical kinetics, rate laws for chemical reactions and reaction mechanisms.—I<br> + <br> + 115. Instrumental Analysis (4)<br> + Lecture—2 hours; laboratory—6 hours. Prerequisite: course 105 and 110B (may be taken concurrently). Intermediate theory and laboratory techniques in analytical and physical chemistry. Advanced data analysis methods and goodness-of-fit criteria. Fourier-transform spectroscopic methods and instrumentation. Mass spectrometry. Electrochemistry. Liquid chromatography. GE credit: Wrt.<br> + <br> + 118A. Organic Chemistry for Health and Life Sciences (4)<br> + Lecture—3 hours; laboratory/discussion—1.5 hours. Prerequisite: course 2C with a grade of C– or higher. The 118A, 118B, 118C series is for students planning professional school studies in health and life sciences. A rigorous, in-depth presentation of basic principles with emphasis on stereochemistry and spectroscopy and preparations and reactions of nonaromatic hydrocarbons, haloalkanes, alcohols and ethers.<br> + <br> + 118B. Organic Chemistry for Health and Life Sciences (4)<br> + Lecture—3 hours; laboratory—3 hours. Prerequisite: course 118A. Continuation of course 118A, with emphasis on spectroscopy and the preparation and reactions of aromatic hydrocarbons, organometallic compounds, aldehydes and ketones.<br> + <br> + 118C. Organic Chemistry for Health and Life Sciences (4)<br> + Lecture—3 hours; laboratory—3 hours. Prerequisite: course 118B. Continuation of course 118B, with emphasis on the preparation, reactions and identification of carboxylic acids and their derivatives, alkyl and acyl amines, ß-dicarbonyl compounds, and various classes of naturally occurring, biologically important compounds.<br> + <br> + 121. Introduction to Molecular Structure and Spectra (4)<br> + Lecture—4 hours. Prerequisite: course 110B. Modern theoretical and experimental methods used to study problems of molecular structure and bonding; emphasis on spectroscopic techniques.<br> + <br> + 124A. Inorganic Chemistry: Fundamentals (3)<br> + Lecture—3 hours. Prerequisite: course 2C. Symmetry, molecular geometry and structure, molecular orbital theory of bonding (polyatomic molecules and transition metals), solid state chemistry, energetics and spectroscopy of inorganic compounds.<br> + <br> + 124B. Inorganic Chemistry: Main Group Elements (3)<br> + Lecture—3 hours. Prerequisite: course 124A. Synthesis, structure and reactivity of inorganic and heteroorganic molecules containing the main group elements.<br> + <br> + 124C. Inorganic Chemistry: d and f Block Elements (3)<br> + Lecture—3 hours. Prerequisite: course 124A. Synthesis, structure and reactivity of transition metal complexes, organometallic and bioinorganic chemistry, the lanthanides and actinides.<br> + <br> + 124L. Laboratory Methods in Inorganic Chemistry (2)<br> + Laboratory—6 hours. Prerequisite: course 124B or 124C (may be taken concurrently). The preparation, purification and characterization of main group and transition metal inorganic and organometallic compounds.<br> + <br> + 125. Advanced Methods in Physical Chemistry (4)<br> + Lecture—2 hours; laboratory—6 hours. Prerequisite: course 110C (may be taken concurrently) and 115. Advanced theory and laboratory techniques in analytical and physical chemistry. Advanced spectroscopic methods. Thermodynamics. Kinetics. Chemical literature. Digital electronics and computer interfacing. Laboratory measurements and vacuum techniques. GE credit: Wrt.<br> + <br> + 128A. Organic Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 2C with a grade of C or higher; chemistry majors should enroll in course 129A concurrently. Introduction to the basic concepts of organic chemistry with emphasis on stereochemistry and the chemistry of hydrocarbons. Designed primarily for majors in chemistry.<br> + <br> + 128B. Organic Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 128A or consent of instructor, course 129A strongly recommended; chemistry majors should enroll in course 129B concurrently. Continuation of course 128A with emphasis on aromatic and aliphatic substitution reactions, elimination reactions, and the chemistry of carbonyl compounds. Introduction to the application of spectroscopic methods to organic chemistry.<br> + <br> + 128C. Organic Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 128B, chemistry majors should enroll in course 129C concurrently. Continuation of course 128B with emphasis on enolate condensations and the chemistry of amines, phenols, and sugars; selected biologically important compounds.<br> + <br> + 129A. Organic Chemistry Laboratory (2)<br> + Lecture—1 hour; laboratory—3 hours. Prerequisite: course 2C with a grade of C or higher; course 128A (may be taken concurrently). Introduction to laboratory techniques of organic chemistry. Emphasis is on methods used for separation and purification of organic compounds.<br> + <br> + 129B. Organic Chemistry Laboratory (2)<br> + Laboratory—6 hours. Prerequisite: courses 128B (may be taken concurrently) and 129A. Continuation of course 129A. Emphasis is on methods used for synthesis and isolation of organic compounds.<br> + <br> + 129C. Organic Chemistry Laboratory (2)<br> + Laboratory—6 hours. Prerequisite: courses 128C (may be taken concurrently) and 129B. Continuation of course 129B.<br> + <br> + 131. Modern Methods of Organic Synthesis (3)<br> + Lecture—3 hours. Prerequisite: course 128C. Introduction to modern synthetic methodology in organic chemistry with emphasis on stereoselective reactions and application to multistep syntheses of organic molecules containing multifunctionality.—II. (II.)<br> + <br> + 135. Advanced Organic Chemistry Laboratory (3)<br> + Lecture—1 hour; laboratory—6 hours. Prerequisite: courses 115 and 129C. Separation, purification and identification of organic compounds using modern methods of synthesis and instrumentation.<br> + <br> + 150. Chemistry of Natural Products (3)<br> + Lecture—3 hours. Prerequisite; course 128C. Chemistry of terpenes, steroids, acetogenins, and alkaloids: isolation, structure determination, biosynthesis, chemical transformations, and total synthesis. GE credit: SciEng, Wrt.—I. (I.)<br> + <br> + 192. Internship in Chemistry (1-6)<br> + Internship—3-18 hours. Prerequisite: upper division standing; project approval by faculty sponsor prior to enrollment. Supervised internship in chemistry; re-quires a final written report. May be repeated for credit for a total of 6 units. (P/NP grading only.)<br> + <br> + 194HA-194HB-194HC. Undergraduate Honors Research (2-2-2)<br> + Independent study—2 hours. Prerequisite: open only to chemistry majors who have completed 135 units and who qualify for the honors program. Original research under the guidance of a faculty adviser, culminating in the writing of an extensive report. (Deferred grading only, pending completion of sequence.)<br> + <br> + 195. Careers in Chemistry (1)<br> + Seminar—2 hours. Prerequisite: junior or senior standing in Chemistry. Designed to give Chemistry undergraduate students an in-depth appreciation of career opportunities with a bachelors degree in chemistry. Professional chemists (and allied professionals) describe research and provide career insights. (P/NP grading only.)—I.<br> + <br> + <br> + 197. Projects in Chemical Education (1-4) <br> + Discussion and/or laboratory. Prerequisite: consent of instructor. Participation may include development of laboratory experiments, lecture demonstrations, autotutorial modules or assistance with laboratory sessions. May be repeated for credit for a total of 12 units. (P/NP grading only.)—I, II, III. (I, II, III.)<br> + <br> + 198. Directed Group Study (1-5)<br> + Prerequisite: consent of instructor based upon adequate preparation in chemistry, mathematics and physics. (P/NP grading only.)<br> + <br> + 199. Special Study for Advanced Undergraduates (1-5)<br> + Prerequisite: consent of instructor based upon adequate preparation in chemistry, mathematics, and physics. (P/NP grading only.)<br> + <br> + Graduate Courses'<br> + 201. Chemical Uses of Symmetry and Group Theory (3)<br> + Lecture—3 hours. Prerequisite: course 124A and 110B, or consent of instructor. Symmetry elements and operations, point groups, representations of groups. Applications to molecular orbital theory, ligand field theory, molecular vibrations, and angular momentum. Crystallographic symmetry.<br> + <br> + 205. Symmetry, Spectroscopy, and Structure (3)<br> + Lecture—3 hours. Prerequisite: course 201 or the equivalent. Vibrational and rotational spectra; electronic spectra and photoelectron spectroscopy; magnetism; electron spin and nuclear quadrapole resonance spectroscopy; nuclear magnetic resonance spectroscopy; other spectroscopic methods<br> + <br> + 210A. Quantum Chemistry: Introduction and Stationary-State Properties (3)<br> + Lecture—3 hours. Prerequisite: course 110B and 110C or consent of instructor. Stationary-state quantum chemistry: postulates of quantum mechanics, simple solutions, central field problems and angular momenta, hydrogen atom, perturbation theory, variational theory, atoms and molecules.<br> + <br> + 210B. Quantum Chemistry: Time-Dependent Systems (3)<br> + Lecture—3 hours. Prerequisite: course 210A. Matrix mechanics and time-dependent quantum chemistry: matrix formulation of quantum mechanics, Heisenberg representation, time-dependent perturbation theory, selection rules, density matrices, and miscellaneous molecular properties.<br> + <br> + 210C. Quantum Chemistry: Molecular Spectroscopy (3)<br> + Lecture—3 hours. Prerequisite: course 210B. Molecular spectroscopy: Born-Oppenheimer approximation, rotational, vibrational and electronic spectroscopy, spin systems, and molecular photophysics.<br> + <br> + 211A. Advanced Physical Chemistry: Statistical Thermodynamics (3)<br> + Lecture—3 hours. Prerequisite: consent of instructor. Principles and applications of statistical mechanics; ensemble theory; statistical thermodynamics of gases, solids, liquids, electrolyte solutions and polymers; chemical equilibrium.<br> + <br> + 211B. Statistical Mechanics (3)<br> + Lecture—3 hours. Prerequisite: course 211A. Statistical mechanics of nonequilibrium systems, including the rigorous kinetic theory of gases, continuum mechanics transport in dense fluids, stochastic processes, brownian motion and linear response theory. Offered in alternate years.<br> + <br> + 212. Chemical Dynamics (3)<br> + Lecture—3 hours. Prerequisite: consent of instructor. Introduction to modern concepts in chemical reaction dynamics for graduate students in chemistry. Emphasis will be placed on experimental techniques as well as emerging physical models for characterizing chemical reactivity at a microscopic level. Offered in alternate years.<br> + <br> + 215. Theoretical and Computational Chemistry (3)<br> + Lecture—3 hours. Prerequisite: courses 211A and 210B or consent of instructor. Mathematics of wide utility in chemistry, computational methods for guidance or alternative to experiment, and modern formulations of chemical theory. Emphasis will vary in successive years. May be repeated for credit when topic differs. Offered in alternate years.<br> + <br> + 216. Magnetic Resonance Spectroscopy (3)<br> + Lecture—3 hours. Prerequisite: courses 210A, 210B (may be taken concurrently). Quantum mechanics of spin and orbital angular momentum, nuclear magnetic resonance, theory of chemical shift and multiplet structures, electron spin resonance, theory of g-tensor in organic and transition ions, spin Hamiltonians, nuclear quadrupolar resonance, spin relaxation processes. Offered in alternate years.<br> + <br> + 217. X-Ray Structure Determination (3)<br> + Lecture—3 hours. Prerequisite: consent of instructor. Introduction to x-ray structure determination; crystals, symmetry, diffraction geometry, sample preparation and handling, diffraction apparatus and data collection, methods of structure solution and refinement, presentation of results, text, tables and graphics, crystallographic literature.<br> + <br> + 218. Macromolecules: Physical Principles (3)<br> + Lecture—3 hours. Prerequisite: courses 110A, 110B, 110C or the equivalent. Relationship of higher order macromolecular structure to subunit composition; equilibrium properties and macromolecular dynamics; physical chemical determination of macromolecular structure. Offered in alternate years.<br> + <br> + 219. Spectroscopy of Organic Compounds (4)<br> + Lecture—3 hours; laboratory—2.5 hours. Prerequisite: course 128C or the equivalent. Identification of organic compounds and investigation of stereochemical and reaction mechanism phenomena using spectroscopic methods—principally NMR, IR and MS.<br> + <br> + 221A-H. Special Topics in Organic Chemistry (3)<br> + Lecture—3 hours. Selected topics of current interest in organic chemistry. Topics will vary each time the course is offered, and in general will emphasize the research interests of the staff member giving the course.<br> + <br> + 226. Principles of Transition Metal Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 124A or the equivalent. Electronic structures, bonding, and reactivity of transition metal compounds.<br> + <br> + 228A. Bio-inorganic Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 226 or consent of instructor. Defines role of inorganic chemistry in the functioning of biological systems by identifying the functions of metal ions and main group compounds in biological systems and discussing the chemistry of model and isolated biological compounds. Offered every third year.<br> + <br> + 228B. Main Group Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 226 or consent of instructor. Synthesis, physical properties, reactions and bonding of main group compounds. Discussions of concepts of electron deficiency, hypervalency, and non-classical bonding. Chemistry of the main group elements will be treated systematically. Offered every third year.<br> + <br> + 228C. Solid-State Chemistry (3)<br> + Lecture—3 hours. Prerequisite: courses 124A, 110B, 226, or the equivalent. Design and synthesis, structure and bonding of solid-state compounds; physical properties and characterization of solids; topics of current interest such as low-dimensional materials, inorganic polymers, materials for catalysis. Offered every third year.<br> + <br> + 228D. Homogeneous Catalysis (3)<br> + Lecture—3 hours. Prerequisite: course 226. Overview of homogeneous catalysis and related methods, with emphasis on kinetics, mechanisms, and applications for organic synthesis. The related methods may include cluster, colloid, phase transfer, enzymatic, heterogeneous and polymer-supported catalysis. Offered in alternate years.<br> + <br> + 231. Organic Synthesis: Methods and Strategies (3) <br> + Lecture—3 hours. Prerequisite: course 131 or the equivalent. Provides a broadly based discussion of current strategies in synthetic organic chemistry. Focus on methods for constructing carbon frameworks, controlling relative stereochemistry, and controlling absolute stereochemistry. Retrosynthetic strategies will be discussed throughout the lectures.<br> + <br> + 233. Physical-Organic Chemistry (3)<br> + Lecture—3 hours. Prerequisite: courses 128A-128B-128C and 110A-110B-110C or the equivalent. Introduction to elementary concepts in physical-organic chemistry including the application of simple numerical techniques in characterizing and modeling organic reactions.<br> + <br> + 235. Organometallic Chemistry in Organic Synthesis (3)<br> + Lecture—3 hours. Prerequisite: course 128C. Current trends in use of organometallics for organic synthesis; preparations, properties, applications, and limitations of organometallic reagents derived from transition and/or main group metals. Offered in alternate years.<br> + <br> + 236. Chemistry of Natural Products (3)<br> + Lecture—3 hours. Prerequisite: course 128C or the equivalent. Advanced treatment of chemistry of naturally occurring compounds isolated from a variety of sources. Topics will include isolation, structure determination, chemical transformations, total synthesis, biological activity, and biosynthesis. Biosynthetic origin will be used as a unifying theme.<br> + <br> + 237. Bio-organic Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 128C or the equivalent. Structure and function of biomolecules; molecular recognition; enzyme reaction mechanisms; design of suicide substrates for enzymes; enzyme engineering; design of artificial enzymes and application of enzymes in organic synthesis. Offered in alternate years.<br> + <br> + 240. Advanced Analytical Chemistry (3)<br> + Lecture—3 hours. Prerequisite: courses 110A and 115 or the equivalent. Numerical treatment of experimental data; thermodynamics of electrolyte and non-electrolyte solutions; complex equilibria in aqueous and non-aqueous solutions; potentiometry and specific ion electrodes; mass transfer in liquid solutions; fundamentals of separation science, including column, gas and liquid chromatography.<br> + <br> + 241A. Surface Analytical Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 110C or the equivalent. Concepts of surfaces and interfaces: physical properties, unique chemistry and electronic effects. Focus on gas-solid interfaces, with some discussion of liquid-solid interfaces. Offered in alternate years.<br> + <br> + 241B. Laser and X-ray Spectroscopy (3)<br> + Lecture—3 hours. Prerequisite: course 110B or the equivalent. Concepts and mechanisms of light-matter interactions. Chemical applications of modern spectroscopic methods, including multiphoton spectroscopy, time-resolved laser and x-ray photolysis, and phase-contrast x-ray imaging. Offered in alternate years.<br> + <br> + 241C. Mass Spectrometry (3)<br> + Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Mass spectrometry and related methods with emphasis on ionization methods, mass analyzers, and detectors. Related methods may include ion-molecule reactions, unimolecular dissociation of organic and bio-organic compounds, and applications in biological and environmental analysis. Offered in alternate years.<br> + <br> + 241D. Electroanalytical Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Electroanalytical chemistry with consideration of mass transfer and electrode kinetics for polarizable electrodes. Current-potential curves for a variety of conditions, including both potentiostatic and galvanostatic control, and their application in chemical analysis. Offered in alternate years.<br> + <br> + 241E. Microscopy and Imaging Techniques (3)<br> + Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Introduction to modern microscopy and imaging techniques: scanning tunneling, atomic force, far-field optical, fluorescence, scanning near-field optical, and scanning electron microscopy. Application to nanoscience and analytical and bioanalytical chemistry. Some laboratory demonstrations. Offered in alternate years.<br> + <br> + 261. Current Topics in Chemical Research (2)<br> + Lecture—2 hours. Prerequisite: graduate standing in Chemistry or consent of instructor. Designed to help chemistry graduate students develop and maintain familiarity with the current and past literature in their immediate field of research and related areas. May be repeated for credit when topics differ.<br> + <br> + 263. Introduction to Chemical Research Methodology (3)<br> + Laboratory/discussion—9 hours. Prerequisite: course 293 and graduate student standing in Chemistry; consent of instructor. Introduction to identification, formulation, and solution of meaningful scientific problems including experimental design and/or theoretical analyses of new and prevailing techniques, theories and hypotheses. May be repeated for credit when topic differs. (S/U grading only.)<br> + <br> + 264. Advanced Chemical Research Methodology (6)<br> + Laboratory/discussion—18 hours. Prerequisite: course 263 or consent of instructor. Applications of the methodology developed in Chemistry 263 to experimental and theoretical studies. Advanced methods of interpretation of results are developed. Includes the preparation of manuscripts for publication. May be repeated for credit when topic differs. (S/U grading only.)<br> + <br> + 290. Seminar (2)<br> + Seminar—2 hours. Prerequisite: consent of instructor. (S/U grading only.)<br> + <br> + 293. Introduction to Chemistry Research (1)<br> + Discussion—2 hours. Designed for incoming graduate students preparing for higher degrees in chemistry. Group and individual discussion of research activities in the Department and research topic selection. <br> + <br> + 295. Careers in Chemistry (1)<br> + Seminar—2 hours. Prerequisite: graduate standing in Chemistry. Designed to give Chemistry graduate students an in-depth appreciation of career opportunities with a M.S. or Ph.D. degree in chemistry. Professional chemists (and allied professionals) give seminars describing both research and career insights. May be repeated for credit 3 times. (S/U grading only.)—I.<br> + <br> + 298. Group Study (1-5)<br> + <br> + 299. Research (1-12)<br> + The laboratory is open to qualified graduate students who wish to pursue original investigation. Students wishing to enroll should communicate with the department well in advance of the quarter in which the work is to be undertaken. (S/U grading only.)<br> + <br> + 'Professional Courses'<br> + 390. Methods of Teaching Chemistry (2)<br> + Lecture—1 hour; discussion—1 hour. Prerequisite: graduate student standing in Chemistry and consent of instructor. Practical experience in methods and problems of teaching chemistry. Includes analyses of texts and supporting material, discussion of teaching techniques, preparing for and conducting of discussion sessions and student laboratories. Participation in the teaching program required for Ph.D. in chemistry. May be repeated for credit. (S/U grading only.)<br> + <br> + 392. Advanced Methods of Teaching Chemistry (2)<br> + Lecture—2 hours. Prerequisite: course 390. Advanced topics in teaching chemistry. Analysis and discussion of curricular design, curricula materials, teaching methods and evaluation. For students who are planning a career in teaching chemistry. (P/NP grading only.)<br> + <br> + "Home Page"<br> + for more information, visit the [http://www.chem.ucdavis.edu chemistry department home page]----- /!\ End of edit conflict -----</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-18 20:10:48SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 1: </td> <td> Line 1: </td> </tr> <tr> <td> <span>- for information, visit the [http://www.chem.ucdavis.edu chemistry department home page]</span> </td> <td> <span>+ "'Location"<br> + The Chemistry Department is located in the creativly named Chemistry Building.<br> + <br> + "Degrees"'<br> + The Department offers BA and BS as well ad Masters and PhD. degrees.<br> + <br> + ''Courses"<br> + as taken directly from the ["General Catalog" UC Davis General Catalog]<br> + <br> + 'Lower Division Courses'<br> + 2A. General Chemistry (5)<br> + Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: High school chemistry and physics strongly recommended; satisfactory score on diagnostic examinations. Periodic table, stoichiometry, chemical equations, physical properties and kinetic theory of gases, atomic and molecular structure and chemical bonding. Laboratory experiments in stoichiometric relations, properties and collection of gases, atomic spectroscopy, and introductory quantitative analysis. Only 3 units of credit allowed to students who have completed course 9. GE credit: SciEng.<br> + <br> + 2AH. Honors General Chemistry (5)<br> + Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: High school chemistry and physics; satisfactory score on diagnostic examinations; Mathematics 21A (may be taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2A. Students completing course 2AH can continue with course 2BH or 2B.<br> + <br> + 2B. General Chemistry (5)<br> + Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2A or 2AH. Continuation of course 2A. Condensed phases and intermolecular forces, chemical thermodynamics, chemical equilibria, acids and bases, solubility. Laboratory experiments in thermochemistry, equilibria, and quantitative analysis using volumetric methods. GE credit<br> + <br> + 2BH. Honors General Chemistry (5)<br> + Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2A with consent of instructor or course 2AH with a grade of C or better; and Mathematics 21B (maybe taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2B. Students completing course 2BH can continue with course 2CH or 2C.<br> + <br> + 2C. General Chemistry (5)<br> + Lecture—3 hours; laboratory/discussion—4 hours. Prerequisite: course 2B or 2BH. Continuation of course 2B. Kinetics, electrochemistry, spectroscopy, structure and bonding in transition metal compounds, application of principles to chemical reactions. Laboratory experiments in selected analytical methods and syntheses. GE credit: SciEng.<br> + <br> + 2CH. Honors General Chemistry (5)<br> + Lecture—3 hours; laboratory—6 hours. Prerequisite: course 2B with consent of instructor or course 2BH with a grade of C or better; and Mathematics 21C (maybe taken concurrently) or consent of instructor. Limited enrollment course with a more rigorous treatment of material covered in course 2C.<br> + <br> + 8A. Organic Chemistry: Brief Course (2)<br> + Lecture—2 hours. Prerequisite: course 2B with a grade of C– or higher. With course 8B, an introduction to the nomenclature, structure, chemistry, and reaction mechanisms of organic compounds. Intended for students majoring in areas other than organic chemistry.<br> + <br> + 8B. Organic Chemistry: Brief Course (4)<br> + Lecture—3 hours; laboratory—3 hours. Prerequisite: course 8A or 118A. Continuation of course 8A. Laboratory concerned primarily with organic laboratory techniques and the chemistry of the common classes of organic compounds.<br> + <br> + 10. Concepts of Chemistry (4)<br> + Lecture—4 hours. A survey of basic concepts and contemporary applications of chemistry. Designed for non-science majors and not as preparation for Chemistry 2A. Course Not open for credit to students who have had Chemistry 2A; but students with credit for course 10 may take Chemistry 2A for full credit. GE credit: SciEng, Wrt.<br> + <br> + 98. Directed Group Study (1-5)<br> + Prerequisite: consent of instructor. Primarily for lower division students. (P/NP grading only.)<br> + <br> + 99. Special Study for Undergraduates (1-5)<br> + Prerequisite: consent of instructor. (P/NP grading only.<br> + <br> + 'Upper Division Courses'<br> + 105. Analytical and Physical Chemical Methods (4)<br> + Lecture—2 hours; laboratory—6 hours. Prerequisite: course 110A (may be taken concurrently) or consent of instructor. Fundamental theory and laboratory techniques in analytical and physical chemistry. Errors and data analysis methods. Basic electrical circuits in instruments. Advanced solution equilibria. Potentiometric analysis. Chromatographic separations. UV-visible spectroscopy. Lasers.<br> + <br> + 107A. Physical Chemistry for the Life Sciences (3)<br> + Lecture—3 hours. Prerequisite: course 2C, Mathematics 16C or 21C, one year of college level physics. Physical chemistry intended for majors in the life science area. Introductory development of classical and statistical thermodynamics including equilibrium processes and solutions of both non-electrolytes and electrolytes. The thermodynamic basis of electrochemistry and membrane potentials.<br> + <br> + 107B. Physical Chemistry for the Life Sciences (3)<br> + Lecture—3 hours. Prerequisite: course 107A. Continuation of course 107A. Kinetic theory of gases and transport processes in liquids. Chemical kinetics, enzyme kinetics and theories of reaction rates. Introduction to quantum theory, atomic and molecular structure, and spectroscopy. Application to problems in the biological sciences.<br> + <br> + 108. Physical Chemistry of Macromolecules (3)<br> + Lecture—3 hours. Prerequisite: course 107B or 110C. Physical properties and characterization of macromolecules with emphasis upon those of biological interest. Structural thermodynamic, optical and transport properties of polymers in bulk and in solution. Physical characterization methods. Special topics on the properties of polyelectrolyte systems.<br> + <br> + 110A. Physical Chemistry: Introduction to Quantum Mechanics (4)<br> + Lecture—3 hours; discussion—1 hour. Prerequisite: course 2C, Mathematics 16C or 21C; one year of college physics. Introduction to the postulates and general principles of quantum mechanics. Approximations based on variational method and time independent perturbation theory. Application to harmonic oscillator, rigid rotor, one-electron and many-electron atoms, and homo-and hetero-nuclear diatomic molecules.-<br> + <br> + 110B. Physical Chemistry: Properties of Atoms and Molecules (4)<br> + Lecture—3 hours; discussion—1 hour. Prerequisite: course 110A. Group theory. Application of quantum mechanics to polyatomic molecules and molecular spectroscopy. Intermolecular forces and the gas, liquid and solid states. Distributions, ensembles and partition functions. Transport properties.<br> + <br> + 110C. Physical Chemistry: Thermodynamics, Equilibria and Kinetics (4)<br> + Lecture—3 hours; discussion—1 hour. Prerequisite: course 110B. Development and application of the general principles of thermodynamics and statistical thermodynamics. Chemical kinetics, rate laws for chemical reactions and reaction mechanisms.—I<br> + <br> + 115. Instrumental Analysis (4)<br> + Lecture—2 hours; laboratory—6 hours. Prerequisite: course 105 and 110B (may be taken concurrently). Intermediate theory and laboratory techniques in analytical and physical chemistry. Advanced data analysis methods and goodness-of-fit criteria. Fourier-transform spectroscopic methods and instrumentation. Mass spectrometry. Electrochemistry. Liquid chromatography. GE credit: Wrt.<br> + <br> + 118A. Organic Chemistry for Health and Life Sciences (4)<br> + Lecture—3 hours; laboratory/discussion—1.5 hours. Prerequisite: course 2C with a grade of C– or higher. The 118A, 118B, 118C series is for students planning professional school studies in health and life sciences. A rigorous, in-depth presentation of basic principles with emphasis on stereochemistry and spectroscopy and preparations and reactions of nonaromatic hydrocarbons, haloalkanes, alcohols and ethers.<br> + <br> + 118B. Organic Chemistry for Health and Life Sciences (4)<br> + Lecture—3 hours; laboratory—3 hours. Prerequisite: course 118A. Continuation of course 118A, with emphasis on spectroscopy and the preparation and reactions of aromatic hydrocarbons, organometallic compounds, aldehydes and ketones.<br> + <br> + 118C. Organic Chemistry for Health and Life Sciences (4)<br> + Lecture—3 hours; laboratory—3 hours. Prerequisite: course 118B. Continuation of course 118B, with emphasis on the preparation, reactions and identification of carboxylic acids and their derivatives, alkyl and acyl amines, ß-dicarbonyl compounds, and various classes of naturally occurring, biologically important compounds.<br> + <br> + 121. Introduction to Molecular Structure and Spectra (4)<br> + Lecture—4 hours. Prerequisite: course 110B. Modern theoretical and experimental methods used to study problems of molecular structure and bonding; emphasis on spectroscopic techniques.<br> + <br> + 124A. Inorganic Chemistry: Fundamentals (3)<br> + Lecture—3 hours. Prerequisite: course 2C. Symmetry, molecular geometry and structure, molecular orbital theory of bonding (polyatomic molecules and transition metals), solid state chemistry, energetics and spectroscopy of inorganic compounds.<br> + <br> + 124B. Inorganic Chemistry: Main Group Elements (3)<br> + Lecture—3 hours. Prerequisite: course 124A. Synthesis, structure and reactivity of inorganic and heteroorganic molecules containing the main group elements.<br> + <br> + 124C. Inorganic Chemistry: d and f Block Elements (3)<br> + Lecture—3 hours. Prerequisite: course 124A. Synthesis, structure and reactivity of transition metal complexes, organometallic and bioinorganic chemistry, the lanthanides and actinides.<br> + <br> + 124L. Laboratory Methods in Inorganic Chemistry (2)<br> + Laboratory—6 hours. Prerequisite: course 124B or 124C (may be taken concurrently). The preparation, purification and characterization of main group and transition metal inorganic and organometallic compounds.<br> + <br> + 125. Advanced Methods in Physical Chemistry (4)<br> + Lecture—2 hours; laboratory—6 hours. Prerequisite: course 110C (may be taken concurrently) and 115. Advanced theory and laboratory techniques in analytical and physical chemistry. Advanced spectroscopic methods. Thermodynamics. Kinetics. Chemical literature. Digital electronics and computer interfacing. Laboratory measurements and vacuum techniques. GE credit: Wrt.<br> + <br> + 128A. Organic Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 2C with a grade of C or higher; chemistry majors should enroll in course 129A concurrently. Introduction to the basic concepts of organic chemistry with emphasis on stereochemistry and the chemistry of hydrocarbons. Designed primarily for majors in chemistry.<br> + <br> + 128B. Organic Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 128A or consent of instructor, course 129A strongly recommended; chemistry majors should enroll in course 129B concurrently. Continuation of course 128A with emphasis on aromatic and aliphatic substitution reactions, elimination reactions, and the chemistry of carbonyl compounds. Introduction to the application of spectroscopic methods to organic chemistry.<br> + <br> + 128C. Organic Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 128B, chemistry majors should enroll in course 129C concurrently. Continuation of course 128B with emphasis on enolate condensations and the chemistry of amines, phenols, and sugars; selected biologically important compounds.<br> + <br> + 129A. Organic Chemistry Laboratory (2)<br> + Lecture—1 hour; laboratory—3 hours. Prerequisite: course 2C with a grade of C or higher; course 128A (may be taken concurrently). Introduction to laboratory techniques of organic chemistry. Emphasis is on methods used for separation and purification of organic compounds.<br> + <br> + 129B. Organic Chemistry Laboratory (2)<br> + Laboratory—6 hours. Prerequisite: courses 128B (may be taken concurrently) and 129A. Continuation of course 129A. Emphasis is on methods used for synthesis and isolation of organic compounds.<br> + <br> + 129C. Organic Chemistry Laboratory (2)<br> + Laboratory—6 hours. Prerequisite: courses 128C (may be taken concurrently) and 129B. Continuation of course 129B.<br> + <br> + 131. Modern Methods of Organic Synthesis (3)<br> + Lecture—3 hours. Prerequisite: course 128C. Introduction to modern synthetic methodology in organic chemistry with emphasis on stereoselective reactions and application to multistep syntheses of organic molecules containing multifunctionality.—II. (II.)<br> + <br> + 135. Advanced Organic Chemistry Laboratory (3)<br> + Lecture—1 hour; laboratory—6 hours. Prerequisite: courses 115 and 129C. Separation, purification and identification of organic compounds using modern methods of synthesis and instrumentation.<br> + <br> + 150. Chemistry of Natural Products (3)<br> + Lecture—3 hours. Prerequisite; course 128C. Chemistry of terpenes, steroids, acetogenins, and alkaloids: isolation, structure determination, biosynthesis, chemical transformations, and total synthesis. GE credit: SciEng, Wrt.—I. (I.)<br> + <br> + 192. Internship in Chemistry (1-6)<br> + Internship—3-18 hours. Prerequisite: upper division standing; project approval by faculty sponsor prior to enrollment. Supervised internship in chemistry; re-quires a final written report. May be repeated for credit for a total of 6 units. (P/NP grading only.)<br> + <br> + 194HA-194HB-194HC. Undergraduate Honors Research (2-2-2)<br> + Independent study—2 hours. Prerequisite: open only to chemistry majors who have completed 135 units and who qualify for the honors program. Original research under the guidance of a faculty adviser, culminating in the writing of an extensive report. (Deferred grading only, pending completion of sequence.)<br> + <br> + 195. Careers in Chemistry (1)<br> + Seminar—2 hours. Prerequisite: junior or senior standing in Chemistry. Designed to give Chemistry undergraduate students an in-depth appreciation of career opportunities with a bachelors degree in chemistry. Professional chemists (and allied professionals) describe research and provide career insights. (P/NP grading only.)—I.<br> + <br> + <br> + 197. Projects in Chemical Education (1-4) <br> + Discussion and/or laboratory. Prerequisite: consent of instructor. Participation may include development of laboratory experiments, lecture demonstrations, autotutorial modules or assistance with laboratory sessions. May be repeated for credit for a total of 12 units. (P/NP grading only.)—I, II, III. (I, II, III.)<br> + <br> + 198. Directed Group Study (1-5)<br> + Prerequisite: consent of instructor based upon adequate preparation in chemistry, mathematics and physics. (P/NP grading only.)<br> + <br> + 199. Special Study for Advanced Undergraduates (1-5)<br> + Prerequisite: consent of instructor based upon adequate preparation in chemistry, mathematics, and physics. (P/NP grading only.)<br> + <br> + Graduate Courses'<br> + 201. Chemical Uses of Symmetry and Group Theory (3)<br> + Lecture—3 hours. Prerequisite: course 124A and 110B, or consent of instructor. Symmetry elements and operations, point groups, representations of groups. Applications to molecular orbital theory, ligand field theory, molecular vibrations, and angular momentum. Crystallographic symmetry.<br> + <br> + 205. Symmetry, Spectroscopy, and Structure (3)<br> + Lecture—3 hours. Prerequisite: course 201 or the equivalent. Vibrational and rotational spectra; electronic spectra and photoelectron spectroscopy; magnetism; electron spin and nuclear quadrapole resonance spectroscopy; nuclear magnetic resonance spectroscopy; other spectroscopic methods<br> + <br> + 210A. Quantum Chemistry: Introduction and Stationary-State Properties (3)<br> + Lecture—3 hours. Prerequisite: course 110B and 110C or consent of instructor. Stationary-state quantum chemistry: postulates of quantum mechanics, simple solutions, central field problems and angular momenta, hydrogen atom, perturbation theory, variational theory, atoms and molecules.<br> + <br> + 210B. Quantum Chemistry: Time-Dependent Systems (3)<br> + Lecture—3 hours. Prerequisite: course 210A. Matrix mechanics and time-dependent quantum chemistry: matrix formulation of quantum mechanics, Heisenberg representation, time-dependent perturbation theory, selection rules, density matrices, and miscellaneous molecular properties.<br> + <br> + 210C. Quantum Chemistry: Molecular Spectroscopy (3)<br> + Lecture—3 hours. Prerequisite: course 210B. Molecular spectroscopy: Born-Oppenheimer approximation, rotational, vibrational and electronic spectroscopy, spin systems, and molecular photophysics.<br> + <br> + 211A. Advanced Physical Chemistry: Statistical Thermodynamics (3)<br> + Lecture—3 hours. Prerequisite: consent of instructor. Principles and applications of statistical mechanics; ensemble theory; statistical thermodynamics of gases, solids, liquids, electrolyte solutions and polymers; chemical equilibrium.<br> + <br> + 211B. Statistical Mechanics (3)<br> + Lecture—3 hours. Prerequisite: course 211A. Statistical mechanics of nonequilibrium systems, including the rigorous kinetic theory of gases, continuum mechanics transport in dense fluids, stochastic processes, brownian motion and linear response theory. Offered in alternate years.<br> + <br> + 212. Chemical Dynamics (3)<br> + Lecture—3 hours. Prerequisite: consent of instructor. Introduction to modern concepts in chemical reaction dynamics for graduate students in chemistry. Emphasis will be placed on experimental techniques as well as emerging physical models for characterizing chemical reactivity at a microscopic level. Offered in alternate years.<br> + <br> + 215. Theoretical and Computational Chemistry (3)<br> + Lecture—3 hours. Prerequisite: courses 211A and 210B or consent of instructor. Mathematics of wide utility in chemistry, computational methods for guidance or alternative to experiment, and modern formulations of chemical theory. Emphasis will vary in successive years. May be repeated for credit when topic differs. Offered in alternate years.<br> + <br> + 216. Magnetic Resonance Spectroscopy (3)<br> + Lecture—3 hours. Prerequisite: courses 210A, 210B (may be taken concurrently). Quantum mechanics of spin and orbital angular momentum, nuclear magnetic resonance, theory of chemical shift and multiplet structures, electron spin resonance, theory of g-tensor in organic and transition ions, spin Hamiltonians, nuclear quadrupolar resonance, spin relaxation processes. Offered in alternate years.<br> + <br> + 217. X-Ray Structure Determination (3)<br> + Lecture—3 hours. Prerequisite: consent of instructor. Introduction to x-ray structure determination; crystals, symmetry, diffraction geometry, sample preparation and handling, diffraction apparatus and data collection, methods of structure solution and refinement, presentation of results, text, tables and graphics, crystallographic literature.<br> + <br> + 218. Macromolecules: Physical Principles (3)<br> + Lecture—3 hours. Prerequisite: courses 110A, 110B, 110C or the equivalent. Relationship of higher order macromolecular structure to subunit composition; equilibrium properties and macromolecular dynamics; physical chemical determination of macromolecular structure. Offered in alternate years.<br> + <br> + 219. Spectroscopy of Organic Compounds (4)<br> + Lecture—3 hours; laboratory—2.5 hours. Prerequisite: course 128C or the equivalent. Identification of organic compounds and investigation of stereochemical and reaction mechanism phenomena using spectroscopic methods—principally NMR, IR and MS.<br> + <br> + 221A-H. Special Topics in Organic Chemistry (3)<br> + Lecture—3 hours. Selected topics of current interest in organic chemistry. Topics will vary each time the course is offered, and in general will emphasize the research interests of the staff member giving the course.<br> + <br> + 226. Principles of Transition Metal Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 124A or the equivalent. Electronic structures, bonding, and reactivity of transition metal compounds.<br> + <br> + 228A. Bio-inorganic Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 226 or consent of instructor. Defines role of inorganic chemistry in the functioning of biological systems by identifying the functions of metal ions and main group compounds in biological systems and discussing the chemistry of model and isolated biological compounds. Offered every third year.<br> + <br> + 228B. Main Group Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 226 or consent of instructor. Synthesis, physical properties, reactions and bonding of main group compounds. Discussions of concepts of electron deficiency, hypervalency, and non-classical bonding. Chemistry of the main group elements will be treated systematically. Offered every third year.<br> + <br> + 228C. Solid-State Chemistry (3)<br> + Lecture—3 hours. Prerequisite: courses 124A, 110B, 226, or the equivalent. Design and synthesis, structure and bonding of solid-state compounds; physical properties and characterization of solids; topics of current interest such as low-dimensional materials, inorganic polymers, materials for catalysis. Offered every third year.<br> + <br> + 228D. Homogeneous Catalysis (3)<br> + Lecture—3 hours. Prerequisite: course 226. Overview of homogeneous catalysis and related methods, with emphasis on kinetics, mechanisms, and applications for organic synthesis. The related methods may include cluster, colloid, phase transfer, enzymatic, heterogeneous and polymer-supported catalysis. Offered in alternate years.<br> + <br> + 231. Organic Synthesis: Methods and Strategies (3) <br> + Lecture—3 hours. Prerequisite: course 131 or the equivalent. Provides a broadly based discussion of current strategies in synthetic organic chemistry. Focus on methods for constructing carbon frameworks, controlling relative stereochemistry, and controlling absolute stereochemistry. Retrosynthetic strategies will be discussed throughout the lectures.<br> + <br> + 233. Physical-Organic Chemistry (3)<br> + Lecture—3 hours. Prerequisite: courses 128A-128B-128C and 110A-110B-110C or the equivalent. Introduction to elementary concepts in physical-organic chemistry including the application of simple numerical techniques in characterizing and modeling organic reactions.<br> + <br> + 235. Organometallic Chemistry in Organic Synthesis (3)<br> + Lecture—3 hours. Prerequisite: course 128C. Current trends in use of organometallics for organic synthesis; preparations, properties, applications, and limitations of organometallic reagents derived from transition and/or main group metals. Offered in alternate years.<br> + <br> + 236. Chemistry of Natural Products (3)<br> + Lecture—3 hours. Prerequisite: course 128C or the equivalent. Advanced treatment of chemistry of naturally occurring compounds isolated from a variety of sources. Topics will include isolation, structure determination, chemical transformations, total synthesis, biological activity, and biosynthesis. Biosynthetic origin will be used as a unifying theme.<br> + <br> + 237. Bio-organic Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 128C or the equivalent. Structure and function of biomolecules; molecular recognition; enzyme reaction mechanisms; design of suicide substrates for enzymes; enzyme engineering; design of artificial enzymes and application of enzymes in organic synthesis. Offered in alternate years.<br> + <br> + 240. Advanced Analytical Chemistry (3)<br> + Lecture—3 hours. Prerequisite: courses 110A and 115 or the equivalent. Numerical treatment of experimental data; thermodynamics of electrolyte and non-electrolyte solutions; complex equilibria in aqueous and non-aqueous solutions; potentiometry and specific ion electrodes; mass transfer in liquid solutions; fundamentals of separation science, including column, gas and liquid chromatography.<br> + <br> + 241A. Surface Analytical Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 110C or the equivalent. Concepts of surfaces and interfaces: physical properties, unique chemistry and electronic effects. Focus on gas-solid interfaces, with some discussion of liquid-solid interfaces. Offered in alternate years.<br> + <br> + 241B. Laser and X-ray Spectroscopy (3)<br> + Lecture—3 hours. Prerequisite: course 110B or the equivalent. Concepts and mechanisms of light-matter interactions. Chemical applications of modern spectroscopic methods, including multiphoton spectroscopy, time-resolved laser and x-ray photolysis, and phase-contrast x-ray imaging. Offered in alternate years.<br> + <br> + 241C. Mass Spectrometry (3)<br> + Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Mass spectrometry and related methods with emphasis on ionization methods, mass analyzers, and detectors. Related methods may include ion-molecule reactions, unimolecular dissociation of organic and bio-organic compounds, and applications in biological and environmental analysis. Offered in alternate years.<br> + <br> + 241D. Electroanalytical Chemistry (3)<br> + Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Electroanalytical chemistry with consideration of mass transfer and electrode kinetics for polarizable electrodes. Current-potential curves for a variety of conditions, including both potentiostatic and galvanostatic control, and their application in chemical analysis. Offered in alternate years.<br> + <br> + 241E. Microscopy and Imaging Techniques (3)<br> + Lecture—3 hours. Prerequisite: course 110C and 115 or the equivalent. Introduction to modern microscopy and imaging techniques: scanning tunneling, atomic force, far-field optical, fluorescence, scanning near-field optical, and scanning electron microscopy. Application to nanoscience and analytical and bioanalytical chemistry. Some laboratory demonstrations. Offered in alternate years.<br> + <br> + 261. Current Topics in Chemical Research (2)<br> + Lecture—2 hours. Prerequisite: graduate standing in Chemistry or consent of instructor. Designed to help chemistry graduate students develop and maintain familiarity with the current and past literature in their immediate field of research and related areas. May be repeated for credit when topics differ.<br> + <br> + 263. Introduction to Chemical Research Methodology (3)<br> + Laboratory/discussion—9 hours. Prerequisite: course 293 and graduate student standing in Chemistry; consent of instructor. Introduction to identification, formulation, and solution of meaningful scientific problems including experimental design and/or theoretical analyses of new and prevailing techniques, theories and hypotheses. May be repeated for credit when topic differs. (S/U grading only.)<br> + <br> + 264. Advanced Chemical Research Methodology (6)<br> + Laboratory/discussion—18 hours. Prerequisite: course 263 or consent of instructor. Applications of the methodology developed in Chemistry 263 to experimental and theoretical studies. Advanced methods of interpretation of results are developed. Includes the preparation of manuscripts for publication. May be repeated for credit when topic differs. (S/U grading only.)<br> + <br> + 290. Seminar (2)<br> + Seminar—2 hours. Prerequisite: consent of instructor. (S/U grading only.)<br> + <br> + 293. Introduction to Chemistry Research (1)<br> + Discussion—2 hours. Designed for incoming graduate students preparing for higher degrees in chemistry. Group and individual discussion of research activities in the Department and research topic selection. <br> + <br> + 295. Careers in Chemistry (1)<br> + Seminar—2 hours. Prerequisite: graduate standing in Chemistry. Designed to give Chemistry graduate students an in-depth appreciation of career opportunities with a M.S. or Ph.D. degree in chemistry. Professional chemists (and allied professionals) give seminars describing both research and career insights. May be repeated for credit 3 times. (S/U grading only.)—I.<br> + <br> + 298. Group Study (1-5)<br> + <br> + 299. Research (1-12)<br> + The laboratory is open to qualified graduate students who wish to pursue original investigation. Students wishing to enroll should communicate with the department well in advance of the quarter in which the work is to be undertaken. (S/U grading only.)<br> + <br> + 'Professional Courses'<br> + 390. Methods of Teaching Chemistry (2)<br> + Lecture—1 hour; discussion—1 hour. Prerequisite: graduate student standing in Chemistry and consent of instructor. Practical experience in methods and problems of teaching chemistry. Includes analyses of texts and supporting material, discussion of teaching techniques, preparing for and conducting of discussion sessions and student laboratories. Participation in the teaching program required for Ph.D. in chemistry. May be repeated for credit. (S/U grading only.)<br> + <br> + 392. Advanced Methods of Teaching Chemistry (2)<br> + Lecture—2 hours. Prerequisite: course 390. Advanced topics in teaching chemistry. Analysis and discussion of curricular design, curricula materials, teaching methods and evaluation. For students who are planning a career in teaching chemistry. (P/NP grading only.)<br> + <br> + "Home Page"<br> + for more information, visit the [http://www.chem.ucdavis.edu chemistry department home page]</span> </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-18 19:49:51SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 1: </td> <td> Line 1: </td> </tr> <tr> <td> <span>-</span> for information, visit the [<span>"</span>http//<span>:</span>www.chem.ucdavis.edu<span>"</span> chemistry department home page] </td> <td> <span>+</span> for information, visit the [http<span>:</span>//www.chem.ucdavis.edu chemistry department home page] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-18 19:48:59SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 1: </td> <td> Line 1: </td> </tr> <tr> <td> <span>-</span> for information, visit the ["http<span>:</span>//www.chem.ucdavis.edu" chemistry department home page] </td> <td> <span>+</span> for information, visit the ["http//<span>:</span>www.chem.ucdavis.edu" chemistry department home page] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-18 19:47:49SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 1: </td> <td> Line 1: </td> </tr> <tr> <td> <span>-</span> for information, visit the [www.chem.ucdavis.edu chemistry department home page] </td> <td> <span>+</span> for information, visit the [<span>"http://</span>www.chem.ucdavis.edu<span>"</span> chemistry department home page] </td> </tr> </table> </div> Chemistryhttp://daviswiki.org/Chemistry2004-12-18 19:47:18SarahHillard <div id="content" class="wikipage content"> Differences for Chemistry<p><strong></strong></p><table> <tr> <td> <span> Deletions are marked with - . </span> </td> <td> <span> Additions are marked with +. </span> </td> </tr> <tr> <td> Line 1: </td> <td> Line 1: </td> </tr> <tr> <td> </td> <td> <span>+ for information, visit the [www.chem.ucdavis.edu chemistry department home page]</span> </td> </tr> </table> </div>