GPA and percentages are weighted by recorded letter grades. UW
comparisons use the same terms. Cross-listed courses count once within
this department and once across UW; department totals should not be
added together. Grade counts are not unique students. Offering counts
reflect captured records, not a complete historical schedule.
Spring 2027
Recorded this term
4848courses with offerings
143143instructors recorded
Grades have not been recorded for this term. Historical results remain
in the overview above.
Graduate course covering selected topics in contemporary macromolecular or biophysical chemistry, focusing on discussing current topics of active interest in molecular biophysics.
General Chemistry II covers chemical equilibrium, coordination chemistry, electrochemistry, kinetics, nuclear chemistry, introductory organic chemistry, and laboratory skills.
Past student reviews · Jeremiah Duncan, Paula Piccoli
Exams were frequently cited as difficult, with some students noting they were poorly worded. Success often depended on doing practice problems and reviewing material before lectures.
Chemical Principles II provides a quantitative treatment of macroscopic phenomena including thermodynamics, chemical equilibria, solution behavior, electrochemistry, and chemical kinetics.
ENTERING RESEARCH I introduces skills supporting chemistry research, including literature analysis, oral/written communication of findings, and ethical research practices.
Inorganic chemistry course covering coordination, bioinorganic, solid-state, and main-group topics, including synthesis and characterization of inorganic compounds.
The workload was described as super busy, involving typed lab reports of five to six pages and regular problem sets. Students reported the class was tough and required significant time management.
Covers fundamentals of chemical measurement across disciplines, focusing on equilibria, spectroscopy, electrochemistry, separations, and quantitative laboratory technique.
Covers fundamentals of chemical measurement, equilibria, spectroscopy, electrochemistry, and separations with greater mathematical rigor than CHEM 327.
Past student reviews · Jeanne Hamers, Kyoung-Shin Choi
The project lab was described as taking up a significant portion of the semester, with one student noting it consumed 90% of their time. The lab component was also criticized as poorly designed and incredibly confusing.
Organic Chemistry I covers molecular structure and bonding to predict reactivity of alkanes, alkenes, alkynes, alkyl halides, alcohols, and thiols, emphasizing stereochemical and regiochemical outcomes.
Past student reviews · Matt Bowman, Helen Blackwell
Students emphasized that completing practice exams and problem sets was essential for success. Helen Blackwell’s lectures were described as fast-paced, requiring note-taking and pre-class reading, while her homework was considered easier than the actual exams.
The course demanded significant time, including two multi-hour labs weekly and lengthy postlab reports. One student found the grading criteria on these reports confusing and difficult to navigate.
Organic Chemistry II covers molecular structure and bonding to predict reactivity in aromatic, benzylic, allylic, and carbonyl systems, emphasizing stereochemistry, regiochemistry, and spectroscopic analysis.
The material was tough, and exams were described as test-heavy with difficult questions that required memorizing every detail of organic chemistry without cheat sheets.
Covers basic principles for designing, developing, and using chemical instrumentation in the laboratory, emphasizing spectroscopy, separations, and mass spectrometry.
Physical Chemistry I covers macroscopic theory including laws and equations of thermodynamics, chemical and phase equilibria, and kinetic theory of gases.
Physical Chemistry II covers molecular theory, focusing on quantum chemistry, molecular structure and spectra, statistical mechanics, and the molecular theory of matter in bulk.
Physical Chemistry Laboratory I applies experimental principles to acquire thermodynamic and kinetic data using basic lab equipment, including error analysis and result interpretation.
Physical Chemistry Laboratory II applies experimental physical chemistry principles to acquire and interpret data on molecular structure, dynamics, and macromolecule properties using spectroscopic and electronic instrumentation.
The course required a strong background in cell biology or biochemistry to follow the quick pace, though papers were graded fairly with class averages around 90%.
Discusses laboratory safety regarding chemical, electrical, optical, mechanical, cryogenic, and radiological hazards, introducing safety equipment, first aid techniques, and facilities.
Covers theory of structural chemistry, experimental methods, and uses diffractometric equipment and computer data analysis for actual structure determination.
Introduction to computational chemistry covering new techniques and developments in the literature, plus specific calculations relevant to current research.
The workload was heavy, featuring weekly homework, quizzes, and demos, plus weekly two-hour in-person experiments, which left one student exhausted by mid-October.
Biophysical Chemistry covers equilibrium thermodynamics and chemical kinetics, emphasizing solution behavior and applications to biological macromolecules in solution.
Biophysical Spectroscopy covers principles and applications of spectroscopic and microscopy methods used to solve biological problems at the atomic and molecular level.