Associate Professors--Trautman
Assistant Professors--Berkman, DeWitt, Gerber, Palmer, Simonis, Wu
Lecturer--Sequin
Adjunct Professors--Banin, Dreyer, Roitman
B.S. in Biochemistry
B.S. in Chemistry
Minor in Chemistry
M.S. in Chemistry
M.S. in Chemistry: Concentration in Biochemistry
The Bachelor of Arts in Chemistry is particularly well-suited for those students whose career goals involve the integration of chemistry with other fields. This program provides excellent preparation for pre-medical students and high school science teachers, as well as those who will pursue further studies in the pharmaceutical sciences, veterinary medicine, and dentistry. Additionally, the B.A. in Chemistry may be combined with a minor in engineering, business, social sciences, the humanities, or the arts to provide the student with a unique synthesis of experience applicable to careers in patent law, management, sales, marketing, chemical engineering, regulatory affairs, technical writing, scientific journalism, library science, environmental protection, and art restoration. Students who are considering teaching chemistry should consult with a credential adviser in the Department of Chemistry and Biochemistry before planning the major. Specific courses in competency assessment are required for the credential program.
The Bachelor of Science in Biochemistry is designed for those students who wish to be particularly well qualified in the rapidly expanding fields between biology and chemistry. This strong laboratory training program provides exceptional preparation for careers in biotechnology and enjoys a favorable reputation among biotechnology companies in the Bay Area. This degree provides a strong foundation for a graduate degree in biochemistry, and it is an excellent degree choice for entry into medical or dental college.
The Bachelor of Science in Chemistry, which is approved by the American Chemical Society, prepares the student to pursue a career in chemically-oriented industry or to begin graduate study in chemistry and other molecular sciences. The degree provides a solid foundation in mathematics and physics, breadth in traditional chemical subdisciplines (analytical, inorganic, organic, and physical chemistry), and depth in one or more areas of chemistry. This program provides excellent training in instrumental analysis and emphasizes quantitative and analytical aspects of the discipline.
The Master of Science in Chemistry, which has been approved by the American Chemical Society, is designed as a balanced program in analytical, inorganic, organic, physical, and biochemistry. The department also offers the Master of Science in Chemistry with a Concentration in Biochemistry for students who want to specialize in the biochemical aspects of chemistry. The American Chemical Society placement examinations, while not greatly influencing the graduate status of the student, will determine where individual weaknesses exist so that corrective emphasis may be applied. The department also offers a cooperative M.S./Ph.D. program with the University of California, Davis for defined minority students and women from all ethnic groups (contact the department chair for further information). Work leading to the master's degree should provide for the best possible balance between theoretical course work and research. A student completing the program should be prepared to pursue a career in the field of chemical research and development at the technical level, teaching, or have the necessary foundation to continue studies toward the doctorate.
The Committee on Professional Training of the American Chemical Society enthusiastically commended the department for the excellence of its undergraduate program. High-quality teaching, one-on-one advising, and opportunities for students to participate in research under the direct supervision of active faculty members who are recognized authorities in their field are significant features of the department. Chemistry and Biochemistry faculty members are actively involved in research, and many undergraduate students work on research projects during their senior year, working closely with their faculty research adviser. Examples of research projects currently under investigation by our faculty members and their research students include:
Analytical Chemistry: Evaluation of Martian soil analog materials. Development and applications of new methods of mass spectrometry.
Biochemistry: Enzyme reaction mechanisms. Synthesis of enzyme inhibitors, including boronic acid peptide transition-state analogs, and enzyme-inhibitor interactions. Isolation and characterization of methyl transferase enzymes. Structure-function relationships in membrane transport proteins and mechanisms of membrane biogenesis, with emphasis on outer membrane proteins of Escherichia coli. Biosynthesis and regulation of the expression of complex carbohydrate cell surface antigens. Characterization of enzymes involved in the nitric oxide cellular signaling pathway.
Metalloprotein Biochemistry: Study of structure-function relationships in redox and metalloproteins with particular emphasis on heme proteins.
Environmental Chemistry: Mechanisms of heavy metal tolerance/accumulation in higher plant systems. Movement of heavy metals from the environment into the biosphere. Characterization of the atmosphere on the Russian Space Station Mir. Detection of trace levels of volatile organic compounds in the atmosphere. Atmospheric degradation pathways of alkanes.
Inorganic Chemistry and Bioinorganic Chemistry: Transition metal organometallic chemistry. Solution structures of biologically relevant paramagnetic Fe(III) porphyrin, zinc and organocobalt complexes, which mimic the active sites of important heme proteins, zinc enzymes and vitamin B12. Development and applications of multi-dimensional NMR methodology for structural analysis of paramagnetic molecules. Photochemistry and photophysics of organometallic compounds.
Organic Chemistry and Bioorganic Chemistry: Reaction mechanisms and synthetic applications of organic peroxides. Small rings. Heterocyclic chemistry. Chemistry of singlet oxygen. Mechanisms of fundamental organic reactions: computational approaches to modeling the transition states of nucleophilic substitutions and elimination reactions. Conformations of small peptides. Structure-reactivity relationships in acid- and base-catalyzed organic reactions, including heterolytic cleavage of C-H and C-C bonds. Design and synthesis of substrate analogs to elucidate the catalytic mechanisms of enzymes. Design and synthesis of novel enzyme inhibitors for use in sensitizing tumor cells to common chemotherapeutic strategies.
Physical Chemistry and Biophysical Chemistry: Characterization of structural features and dynamic behavior of natural and synthetic macromolecules in solution using physical methods and theoretical models. Electrical and mechanical properties of nucleic acids, proteins, including molecular motors, and protein-nucleic acid complexes. Biophysical applications of electron spin resonance spin labels. Diffusion and solubility of molecular oxygen in biomembranes and in other tissue.
Students obtain extensive hands-on experience with a wide array of state-of-the-art research instruments, and they obtain valuable training in modern laboratory techniques and computational methods. These include, for example, excellent nuclear magnetic resonance spectrometers, which are used to study molecular structure and dynamics, a state-of-the-art mass spectrometry facility, and numerous modern biochemical instruments used to study biological molecules, including proteins and nucleic acids. Computers are used extensively in chemistry classes, and the department's modern facilities include a computational chemistry and visualization laboratory. This laboratory houses state-of-the-art computer workstations with 3D graphics capabilities and enables us to teach molecular modeling applications and computational chemistry in inorganic chemistry, physical chemistry, organic chemistry, and biochemistry undergraduate lecture and laboratory courses. The advanced capabilities of this computer laboratory places the department at the forefront in the use of innovative methods to teach chemistry to undergraduate students.
It is suggested that students plan the program of courses in the major with the help of the adviser in order that the correct sequence of courses be taken. Otherwise, unnecessary delays may occur in the completion of the program. It is also suggested that students in these programs consult with the adviser before selecting courses to meet General Education requirements. Students who are considering teaching chemistry should see a credential adviser in the Chemistry Department before planning the major. Specific courses and a competency assessment are required for admission to the credential program.
All courses used in the major program except CHEM 694 must be completed with letter grades. CR/NC may be used only for CHEM 694. Courses that are requirements for the major must be completed with a minimum grade point average of 2.0 and a grade of C- or better, with only one exception.
Program | Units | |
Lower Division Requirements | ||
CHEM 111 | General Chemistry I | 5 |
CHEM 113/114 | General Chemistry II and Laboratory (3/2) | 5 |
One of the following sets: | 8-12 | |
PHYS 111/112 | General Physics I (3/1) and | |
PHYS 121/122 General Physics II (3/1) or | ||
PHYS 220/222 | General Physics with Calculus I and Laboratory (3/1) and | |
PHYS 230/232 General Physics with Calculus II and Laboratory (3/1) and | ||
PHYS 240/242 General Physics with Calculus III and Laboratory (3/1) | ||
MATH 220/221 | Calculus and Analytic Geometry I/II (3 each) | 6 |
Total lower division requirements | 24-28 | |
Upper Division Requirements | ||
CHEM 300 | General Physical Chemistry I | 2 |
CHEM 301 | General Physical Chemistry II | 2 |
CHEM 320 | Modern Methods of Quantitative Chemical Analysis | 4 |
CHEM 333 | Organic Chemistry I | 3 |
CHEM 334 | Organic Chemistry I Laboratory | 2 |
CHEM 335 | Organic Chemistry II | 3 |
CHEM 336 | Organic Chemistry II Laboratory [CHEM 338 may be substituted for CHEM 336] | 3 |
CHEM 452 | Integrated Laboratory I | 4 |
Upper division chemistry electives, including one of the following: | 4 | |
CHEM 343 | Biochemistry I Laboratory | |
CHEM 348 | Clinical Biochemistry Laboratory (2) | |
CHEM 453 | Integrated Laboratory II | |
CHEM 470 | Research | |
Total upper division requirements | 27 | |
Total for major | 51-55 |
BACHELOR OF SCIENCE IN CHEMISTRY
Students are required to complete 130 units to meet the requirements for the B.S. in Chemistry.
Program | Units | |
Lower Division Requirements | ||
CHEM 111 | General Chemistry I | 5 |
CHEM 113/114 | General Chemistry II and Laboratory (3/2) | 5 |
One of the following sets | 12 | |
MATH 220-223 | Calculus and Analytic Geometry I-IV (3 each) | |
MATH 226-228 | Calculus I-III (4 each) | |
PHYS 220/222 | General Physics with Calculus I and Laboratory (3/1) | 4 |
PHYS 230/232 | General Physics with Calculus II and Laboratory (3/1) | 4 |
PHYS 240/242 | General Physics with Calculus III and Laboratory (3/1) | 4 |
Total lower division requirements | 34 | |
Upper Division Requirements | ||
CHEM 320 | Modern Methods of Quantitative Chemical Analysis | 4 |
CHEM 333 | Organic Chemistry I | 3 |
CHEM 334 | Organic Chemistry I Laboratory | 2 |
CHEM 335 | Organic Chemistry II | 3 |
CHEM 336 | Organic Chemistry II Laboratory [CHEM 338 may be substituted for CHEM 336] | 3 |
CHEM 351 | Physical Chemistry I | 3 |
CHEM 353 | Physical Chemistry II | 3 |
CHEM 425 | Inorganic Chemistry | 3 |
CHEM 452 | Integrated Laboratory I | 4 |
CHEM 453 | Integrated Laboratory II | 3 |
Electives, including at least two units of laboratory, on advisement from the following list (other upper division and graduate courses that have a physical chemistry prerequisite can also be elected, with consent of an adviser): | 8 | |
CHEM 340 | Biochemistry I | |
CHEM 341 | Biochemistry II | |
CHEM 343 | Biochemistry I Laboratory | |
CHEM 347 | Clinical Biochemistry (2) | |
CHEM 423 | Chemical Instrumentation | |
CHEM 433 | Advanced Organic Chemistry | |
CHEM 470 | Research (May be repeated once for a maximum of six units) [Strongly recommended for students preparing for graduate college and professional positions] | |
CHEM 694 | Cooperative Education in Chemistry (1) [maximum of two units with approval] | |
CHEM 825 | Theoretical Inorganic Chemistry | |
CHEM 831 | Theoretical Organic Chemistry | |
CHEM 834 | Organic Spectroscopic Methods | |
CHEM 841 | Enzymology | |
CHEM 850 | Valency and Spectroscopy | |
PHYS 320 | Modern Physics I | |
PHYS 321 | Modern Physics Laboratory (1) | |
Total upper division requirements | 39 | |
Total for major | 73 |
PHYS 220, 222, 230, 232, 240, and 242 may be substituted for PHYS 111 and 121. CHEM 351 and 353 may be substituted for CHEM 300 and 301.
Program | Units | |
Lower Division Requirements | ||
CHEM 111 | General Chemistry I | 5 |
CHEM 113/114 | General Chemistry II and Laboratory (3/2) | 5 |
PHYS 111/112 | General Physics I (3/1) | 4 |
PHYS 121/122 | General Physics II (3/1) | 4 |
MATH 220/222 | Calculus and Analytic Geometry I-III (3 each) | 9 |
BIOL 230 | Introductory Biology I | 5 |
Total lower division requirements | 32 | |
Upper Division Requirements | ||
CHEM 300 | General Physical Chemistry I | 2 |
CHEM 301 | General Physical Chemistry II | 2 |
CHEM 320 | Modern Methods of Quantitative Chemical Analysis | 4 |
CHEM 333 | Organic Chemistry I | 3 |
CHEM 334 | Organic Chemistry I Laboratory | 2 |
CHEM 335 | Organic Chemistry II | 3 |
CHEM 336 | Organic Chemistry II Laboratory [CHEM 338 may be substituted for CHEM 336] | 3 |
CHEM 340 | Biochemistry I | 3 |
CHEM 341 | Biochemistry II | 3 |
CHEM 343 | Biochemistry I Laboratory | 3 |
CHEM 452 | Integrated Laboratory I | 4 |
Total upper division requirements | 32 | |
Biochemistry or Biology Option (see below) | 8-10 | |
Total for major | 72-74 | |
Biochemistry Option (8 units) | ||
Electives from the following (must include at least two units of laboratory course work): | 8 | |
CHEM 347 | Clinical Biochemistry (2) | |
CHEM 470 | Research (Biochemistry related research with prior consent of Biochemistry adviser) | |
CHEM 640 | Advanced Topics in Biochemistry (1-3) [may be repeated for a maximum of four units for different topics] | |
CHEM 694 | Cooperative Education in Chemistry (1) [maximum of two units with approval; biochemistry related research with prior consent of Biochemistry adviser] | |
CHEM 699 | Special Study in Chemistry (1) [maximum of one unit with approval; biochemistry related research with prior consent of Biochemistry adviser] | |
Biology Option (8-10 units) | ||
BIOL 240 | Introductory Biology II | 5 |
Electives from the following: | 3-5 | |
BIOL 350 | Cell Biology | |
BIOL 351 | Experiments in Cell Biology and Genetics (4) | |
BIOL 355 | Genetics | |
BIOL 401 | General Microbiology | |
BIOL 402 | General Microbiology Laboratory (2) | |
BIOL 525 | Plant Physiology | |
BIOL 526 | Plant Physiology Laboratory (2) | |
BIOL 612 | Human Physiology | |
BIOL 613 | Human Physiology Laboratory (2) |
MINOR PROGRAM IN CHEMISTRY
Twenty-four units of chemistry are required, including CHEM 111, 113, and 114, or their equivalents. Twelve of these units, including four upper-division units, must be taken at San Francisco State University. Twelve of the twenty-four units must be upper division. Eight of the twenty-four units must correspond to upper-division courses at San Francisco State University. Clinical Science majors who elect CHEM 334 usually meet all these requirements; they should consult a chemistry adviser regarding the Chemistry Minor.GRADUATE PROGRAMS IN CHEMISTRY AND BIOCHEMISTRY
Admission to Program
Students must meet these criteria:
Program | Units | |
CHEM 834 | Organic Spectroscopic Methods | 3 |
One of the following courses selected on advisement of graduate major adviser: | 3 | |
CHEM 850 | Valency and Spectroscopy | |
CHEM 851 | Biochemical Spectroscopy | |
CHEM 880 | Seminar | 3 |
Other Requirements | ||
CHEM 897 | Research (After initiating a research project, a graduate student must enroll each semester in CHEM 897 while actively engaged in research for the M.S. degree. A maximum of six units of CHEM 897 may be included on the Graduate Approved Program.) | 6 |
CHEM 898 | Master's Thesis | 3 |
Related Study | ||
Upper division or graduate courses in chemistry, physics, mathematics, or biology on advisement of graduate major adviser | 12 | |
Minimum total | 30 |
Program | Units | |
CHEM 834 | Organic Spectroscopic Methods | 3 |
One of the following courses selected on advisement of graduate major adviser: | 3 | |
CHEM 850 | Valency and Spectroscopy | |
CHEM 851 | Biochemical Spectroscopy | |
CHEM 880 | Seminar | 3 |
Other Requirements | ||
Courses in biochemistry selected from the following: | 6 | |
CHEM 841 | Enzymology | |
CHEM 843 | Membrane Biochemistry | |
CHEM 844 | Bioinorganic Chemistry | |
CHEM 845 | Glycoconjugate Biochemistry | |
Upper division or graduate courses in chemistry, physics, mathematics, or biology on advisement of graduate major adviser. (May include courses listed above which have not been taken to satisfy either the core requirement or the six-unit biochemistry requirement.) | 6 | |
CHEM 897 | Research | 6 |
CHEM 898 | Master's Thesis | 3 |
Minimum total | 30 |