Chemistry
What if you could map molecular structures using Gaussian software, a staple in industrial and academic labs...
Chemistry is the study
of matter and its
infinite transformations
WHAT ISN’T CHEMISTRY?
Like your smart phone? Chemists helped make it possible. In fact, chemists are working right now on creating even longer lasting power sources.
Wondering if humans will live longer in the future? Chemists are at the heart of understanding what happens inside cells as they age.
Chemists seek to understand everything in the world at the level of atoms and molecules, and to examine the composition of substances, their properties and reactions.
Chemistry at Drew is vital, in part, because of its New Jersey location—right in the middle of a nationally important scientific and technical region—through site visits, internships and networking with the many alumni who work locally.
In Drew’s RISE program, chemistry majors also have the rare opportunity to conduct research alongside top veteran scientists from industry, the only program of its kind in the nation.

Students use methanol to extract molecules from bills, then use sophisticated equipment to tease out elements present in the sample. A full 90 percent of the money tested, as it happens, carried trace elements of cocaine. It’s all part of rigorous training in this important field.
Careers Made easy
good chemistry
We are devoted to helping students become complete scientists. Our goal is to graduate accomplished researchers, but also develop students’ interpersonal, leadership, writing and presentation skills, all highly sought in chemistry.
Drew chemistry majors leave knowing how to handle instrumentation they’ll use the first day on the job, such as our time-of-flight mass spectrometer, and our inductively coupled plasma optical emission spectrometer. (And you’re not fighting a bunch of grad students to get time on the machines.)
Graduates take their degrees in a variety of directions. They are accepted to prestigious graduate schools, work for leading pharmaceutical companies and teach at the university and secondary levels.
Full-Impact Students
Alae Kawam
The entire chemistry faculty knows me by name; they have established personal connections with me and know me as a person, not just a chemistry student. Whenever I have a bad day, I knock on my adviser’s office door and complain freely. He’s a good listener!
Full-Impact Students
David Sapiro
I’m learning about the bonds in metals from my lab work synthesizing materials in order to predict their properties. This will help me as a graduate student in materials science and metallurgy. It also helps me better understand my hobby, blacksmithing.
Full-Impact Students
Timothy Barnum
Honorable mention, Goldwater Scholarship
I’m inspired to take on new challenges: This summer, I am doing research in a theoretical chemistry lab at Duke University. It would be an understatement to say that my experience as a chemistry major would not be the same anywhere else.
Passionate Faculty
Ryan Hinrichs
Associate professor
My current work is in expanding the scientific understanding of the atmosphere—specifically the tiny particles that float in the air, like sea salt, smoke and windblown minerals, and how trace pollutants might chemically change these particles and affect cloud formation and the climate.
Ph.D., Cornell University
Passionate Faculty
Adam Cassano
Associate professor
I’m investigating phosphodiester cleavage, the bonds that hold our DNA and RNA together. Because they are important in cellular signaling, they are tied to numerous diseases. I find diving into a topic like this, and trying to learn as much as possible, thoroughly enjoyable. I think that’s a big reason why I enjoy my job so much.
Ph.D., Case Western Reserve University
Passionate Faculty
Juliette Lantz
Professor & chair
I’m directing a national consortium that’s creating a guided-inquiry analytical chemistry curriculum. I also take great satisfaction in being a part of the tight-knit community of learners (faculty and students!) at Drew.
Ph.D., University of Wisconsin–Madison
Passionate Faculty
Alan Rosan
Professor
I once had a student tell me they finally got organic chemistry looking out over the San Francisco Bay Bridge one foggy afternoon when the mist cleared and the dance of electrons came clear. It’s an apt image for me; I’m working on infusing the philosophy and practice of green chemistry into our courses.
Ph.D., Brandeis University
Passionate Faculty
Mary-Ann Pearsall
Professor
My current research focuses on cluster chemistry, specifically the ability of metals to bond to one another.
Ph.D., Cambridge University
Passionate Faculty
Molly W. Crowther
Assistant professor
Whether chemistry ends up being a frustrating experience or an invigorating one depends on how you approach it. I encourage students to collaborate outside the classroom—bouncing ideas and explanations off friends is a powerful way to learn. I’m a Drew alumna. So is my husband—and he was a chemistry major too.
Ph.D., Syracuse University
Passionate Faculty
Sandra Keyser
Assistant professor
I teach biochemistry and organic chemistry laboratories, as well as lecture in organic and general chemistry.
Ph.D., University of Pittsburgh University
Successful Alumni
- Senior scientist
Ortho Diagnostics/Johnson & Johnson - Vice president, business development
Worldwide Clinical Trials, Inc. - Ph.D. candidate
Princeton University

Summers spent waiting tables
My Favorite Course
“One of the most interesting concepts I learned was entropy, or disorder of the universe. The universe is becoming more disordered the same way molecules become more disordered. It’s interesting to perceive the sophistication of the universe, despite the disorder.”
Alae Kawam on General Chemistry 2
Major
Requirements for the Major (58-66 credits)
Students must choose one of the five concentrations listed below.Students with AP credit should consult with the department chair.
I. Basic Core (50 credits)
- CHEM 150 - Principles of Chemistry I (4)
An introduction to the fundamental principles of chemistry as a quantitative science, including inorganic reactions, properties of gases, liquids, and solids, thermochemistry, atomic theory, and nuclear chemistry. Appropriate for those with little or no background in chemistry.
Offered: fall semester.
- CHEM 151 - Principles of Chemistry I, Advanced Section (4)
A special section of CHEM 150 for students who have the ability and necessary background to work at an advanced level. Covers topics in CHEM 150 as necessary but in more depth and adds some enrichment topics. All students, regardless of background and without testing at Drew, enter CHEM 150. Placement in CHEM+6A is determined on basis of placement test and in consultation with instructor of course.
Signature of instructor required for registration.
Offered: fall semester.
- CHEM 160 - Principles of Chemistry II (4)
A continuation of CHEM 150/CHEM 151 covering the structure of solids, kinetics, thermodynamics, equilibria, electrochemistry, and the principles of descriptive inorganic chemistry, including the transition metals.
Offered: spring semester.
Prerequisite: CHEM 150/CHEM 151.
- CHEM 250 - Organic Chemistry I (4)
A systematic survey of structure, nomenclature, and reactions of common functional groups and carbon compounds. Topics include stereochemistry, chirality, stereoisomerism, nucleophilic substitution and elimination, insertions, radical processes, oxidation-reduction and acid-base equilibria. Includes spectroscopic analysis. Discusses applications to systems of biological significance.
Offered: fall semester.
Prerequisite: C- or better in CHEM 160 or permission of instructor.
- CHEM 320 - Fundamentals of Analytical Chemistry (4)
A study of the principles of quantitative analytical chemistry, including error analysis and statistics, multiple equilibrium, electrochemistry, and introduction to spectroscopic methods, and an advanced study of acids and bases in aqueous solutions. Laboratory includes titrimetry, spectrophotometry, and electroanalytical methods.
Offered: fall semester.
Prerequisite: CHEM 350 and PHYS 160.
- CHEM 321 - Advanced Analytical Chemistry (4)
A study of the principles of instrumental analysis, including signal/noise ratios, and the fundamentals of spectroscopy and chromatography. The components of a wide variety of instruments are examined in detail. Laboratory provides hands-on experience with modern analytical instrumentation, including gas and liquid chromatography, absorption and fluorescence, mass spectrometry, atomic absorption, Fourier Transform infrared and Fourier Transform nuclear magnetic resonance spectroscopies.
Offered: spring semester in odd-numbered years.
Prerequisite: CHEM 320.
- CHEM 330 - Physical Chemistry I (4)
A study of the basic principles of quantum mechanics, atomic spectroscopy, molecular spectroscopy, and structure. Topics include quantum mechanics of translation, vibration, and rotation, application of quantum mechanics to atomic spectra and atomic structure, molecular orbital theory of diatomics and conjugated polyatomics, electronic spectroscopy of diatomics and conjugate systems, vibrational spectroscopy, mass spectroscopy, and elementary nuclear magnetic resonance spectroscopy. Laboratory experiments emphasize the use of the above mentioned spectroscopies in the determination of molecular structure.
Offered: fall semester.
Prerequisite: CHEM 350 and MATH 151 and PHYS 160.
- CHEM 342 - Laboratory in Advanced Inorganic Chemistry (1)
A study of advanced inorganic synthesis and characterization techniques, including magnetic susceptibility, non-aqueous solvents, the preparation and resolution of chiral coordination complexes, synthesis of organotransition metal compounds, and inorganic polymers.
Offered: spring semester.
Prerequisite: CHEM 340, CHEM 320.
- CHEM 350 - Organic Chemistry II (4)
A continuing systematic study of organic reactions organized on the basis of reaction mechanisms. Topics include aromaticity, carbonyls, carboxyls, amines, orbital symmetry controlled processes, and organic synthesis. Includes spectroscopic analysis. Discusses classes of compounds of biological significance.
Offered: spring semester.
Prerequisite: C- or better in CHEM 250.
- CHEM 395 - Research in Chemistry (4)
An opportunity for upper-level students to receive credit for independent and/or original work, which may lead to candidacy for honors. A one-hour weekly research seminar meeting plus a minimum of six hours laboratory per week working under the supervision of either chemistry or RISE faculty. Independent library work is also expected. Research seminar includes discussion of research results, online chemical database searching and current topics in chemistry. Attendance at department colloquia is also required. Credit for research is awarded on satisfactory completion of a research paper. Registration is accepted only after a student has selected a project following consultation with at least two possible research advisers. May be taken for a second semester but total credits may not exceed eight credits.
Signature of instructor required for registration.
Course may be repeated.
Offered: every semester.
Prerequisite: CHEM 320
- CHEM 400 - Senior Seminar (Capstone) (1)
Open only to senior chemistry majors. Required for graduation and involves a formal presentation of the student research project completed in CHEM 395 Research in Chemistry, and a pass in the departmental comprehensive oral exam.
Offered: spring semester.
Prerequisite: CHEM 395.
- MATH 150 - Calculus and Analytic Geometry I (4)
Functions, limits, continuity, and differentiation and its applications; introduction to integration including definite and indefinite integrals and the fundamental theorem of calculus; analysis of graphical and numerical information.
Offered: fall semester.
Prerequisite: Three years of high school mathematics including trigonometry.
- MATH 151 - Calculus and Analytic Geometry II (4)
Integration, including techniques of integration, improper integrals, and applications; polar coordinates, parametric equations, Taylor polynomials, sequences and series.
Offered: spring semester.
Prerequisite: C- or better in MATH 150.
- PHYS 150 - University Physics I (4)
PHYS 150 is required for physics majors and 3/2 engineering students; it is also the normal introductory physics course recommended for most science majors. Because many students take calculus and PHYS 150 in the same semester, calculus is introduced gradually and discussed as needed. Offers topics in mechanics: motion, Newton's laws, energy, conservation laws, collisions, gravitation, oscillations, and waves.
Offered: fall semester.
- PHYS 160 - University Physics II (4)
PHYS 160 is required for physics majors and 3/2 engineering students; it is also the normal second semester introductory physics course recommended for most science majors. This course includes electricity, magnetism, electrical circuits and an introduction to Maxwell's equations. In addition topics in optics such as lenses, mirrors, diffraction and interference of light.
Offered: spring semester.
Prerequisite: PHYS 150 and MATH 150.
II. Core - Non-Teaching-Certification (8 credits):
Students not pursuing the teaching-certification concentration (C) must also take the following courses:
- CHEM 340 - Intermediate Inorganic Chemistry (4)
A systematic study of modern inorganic chemistry beginning with the chemistry of the main group elements. Topics include periodic trends and chemical relationships and unusual bonding interactions. Focuses on the chemistry of the transition elements, including stereochemistry and isomerism, bonding (crystal and ligand field theory), magnetic and spectroscopic properties, metal-metal bonds, metal clusters, organometallic and bioinorganic chemistry.
Offered: fall semester.
- CHEM 360 - Foundations in Biochemistry (4)
A study of the fundamental principles of protein biochemistry with an introduction to cell signaling and metabolism and bioenergetics. Topics include chemistry of amino acids, basic protein structure and function, enzyme kinetics and mechanisms, and regulation of enzymatic activity. The laboratory focuses on the application of biochemical principles to the solving of biological problems in living systems. Laboratory experimental methods include protein characterization, purification of enzymes, enzyme kinetic measurements, and experimental design.
Offered: fall semester.
Prerequisite: Prerequisite: CHEM 350. Recommended: BIOL 250.
III. Concentrations
A. Basic Major (0 credits)
No further courses are required.PHYS 111 ,PHYS 112 may be substituted forPHYS 150, PHYS 160 with approval of the Chemistry Department.
B. ACS - Chemistry Traditional (8 credits)
8 credits from the following, including a course with lab:
- CHEM 331 - Physical Chemistry II (4)
A study of the principles of chemical thermodynamics and kinetics. Topics include the first and second laws of thermodynamics describing the state functions-internal energy, enthalpy, entropy, Gibbs free energy, physical and chemical equilibria, statistical thermodynamics, rate laws and their determination, theories of reaction rates, reaction mechanism and catalysis. Laboratory experiments seek to determine the thermodynamic and kinetic behavior of systems using spectroscopic techniques as far as possible.
Offered: spring semester.
Prerequisite: CHEM 330.
- CHEM 341 - Advanced Topics in Physical and Inorganic Chemistry (4)
A study of advanced topics in both physical and inorganic chemistry. Topics in physical chemistry include molecular symmetry and group theory and their application to electronic and vibrational spectra of molecules, Fourier Transform nuclear magnetic resonance, electron paramagnetic resonance, Mossbauer and photoelectron spectroscopies. Topics in inorganic chemistry include coordination and organometallic chemistry. Builds on CHEM 340 and CHEM 330 to consider theoretical spectroscopic perspectives of coordination compounds. Topics in organometallic chemistry include the Effective Atomic Number Rule, reactions and catalysis, and transition metal clusters.
Offered: spring semester in even-numbered years.
Prerequisite: CHEM 340 and CHEM 330.
- CHEM 351 - Advanced Organic Chemistry (4)
An advanced treatment of organic chemical reactions and processes pertaining to the design, syntheses, and analysis of various types of compounds, including biologically important medicinal and pharmaceutical agents, industrial and specialty chemicals and molecules of theoretical significance. The laboratory segment involves multistep organic synthesis, qualitative instrumental and advanced spectroscopic analysis.
Offered: spring semester in odd-numbered years.
Prerequisite: CHEM 350.
- CHEM 361 - Advanced Biomolecular Structure and Function (4)
An advanced examination of the principles introduced in Foundations in Biochemistry. Topics include methods for studying biolmolecular structure and function, nucleic acid chemistry, complex enzymatic mechanisms, and integrated metabolic pathways. Connections will be made with critical biological processes such as the regulation of gene expression and the molecular basis of various diseases.
Offered: spring semester every other year.
Prerequisite: CHEM 360.
C. ACS with Biochemistry Emphasis (16 credits)
Biology (8 credits)
- BIOL 150 - Ecology and Evolution (4)
An exploration of evolutionary and ecological processes and consequences, with close examination of population dynamics, population genetics, principles of heredity, the evolution of adaptations, community interactions, ecosystems, and biodiversity. Laboratory includes field-based investigations of upland and wetland ecosystems, as well as simulations and laboratory experiments.
Offered: fall semester.
- BIOL 160 - Diversity of Life: Animals, Plants, and Microbes (4)
A survey of the animals, plants, fungi, protista, and bacteria of Planet Earth, with comparative analysis of adaptations for survival, reproduction, development, and metabolism. Laboratory emphasizes experimental methods of science as well as morphology and physiology of the major phyla.
Offered: spring semester.
- BIOL 250 - Molecular and Cellular Biology (4)
An introduction to composition, structure, and function of prokaryotic and eukaryotic cells, using themes of energy and reproduction. Topics include DNA replication, transcription, and translation, mutations, gene regulation, membrane function, cellular communication, motility, absorption, and secretion. Laboratory includes current research techniques such as cell culture nucleic acid characterization, cloning, and restriction mapping.
Offered: fall semester.
Prerequisite: BIOL 150, BIOL 160 and CHEM 160.
Additional (8 credits)
- CHEM 331 - Physical Chemistry II (4)
A study of the principles of chemical thermodynamics and kinetics. Topics include the first and second laws of thermodynamics describing the state functions-internal energy, enthalpy, entropy, Gibbs free energy, physical and chemical equilibria, statistical thermodynamics, rate laws and their determination, theories of reaction rates, reaction mechanism and catalysis. Laboratory experiments seek to determine the thermodynamic and kinetic behavior of systems using spectroscopic techniques as far as possible.
Offered: spring semester.
Prerequisite: CHEM 330.
- CHEM 361 - Advanced Biomolecular Structure and Function (4)
An advanced examination of the principles introduced in Foundations in Biochemistry. Topics include methods for studying biolmolecular structure and function, nucleic acid chemistry, complex enzymatic mechanisms, and integrated metabolic pathways. Connections will be made with critical biological processes such as the regulation of gene expression and the molecular basis of various diseases.
Offered: spring semester every other year.
Prerequisite: CHEM 360.
D. Teacher Certification
Curriculum in Chemistry Education courses are offered through an exchange program with the College of Saint Elizabeth.
Additional Chemistry at Drew (4 credits)
- CHEM 331 - Physical Chemistry II (4)
A study of the principles of chemical thermodynamics and kinetics. Topics include the first and second laws of thermodynamics describing the state functions-internal energy, enthalpy, entropy, Gibbs free energy, physical and chemical equilibria, statistical thermodynamics, rate laws and their determination, theories of reaction rates, reaction mechanism and catalysis. Laboratory experiments seek to determine the thermodynamic and kinetic behavior of systems using spectroscopic techniques as far as possible.
Offered: spring semester.
Prerequisite: CHEM 330.
Additional at Drew
- MATH 150 - Calculus and Analytic Geometry I (4)
Functions, limits, continuity, and differentiation and its applications; introduction to integration including definite and indefinite integrals and the fundamental theorem of calculus; analysis of graphical and numerical information.
Offered: fall semester.
Prerequisite: Three years of high school mathematics including trigonometry.
- MATH 151 - Calculus and Analytic Geometry II (4)
Integration, including techniques of integration, improper integrals, and applications; polar coordinates, parametric equations, Taylor polynomials, sequences and series.
Offered: spring semester.
Prerequisite: C- or better in MATH 150.
- PHYS 150 - University Physics I (4)
PHYS 150 is required for physics majors and 3/2 engineering students; it is also the normal introductory physics course recommended for most science majors. Because many students take calculus and PHYS 150 in the same semester, calculus is introduced gradually and discussed as needed. Offers topics in mechanics: motion, Newton's laws, energy, conservation laws, collisions, gravitation, oscillations, and waves.
Offered: fall semester.
- PHYS 160 - University Physics II (4)
PHYS 160 is required for physics majors and 3/2 engineering students; it is also the normal second semester introductory physics course recommended for most science majors. This course includes electricity, magnetism, electrical circuits and an introduction to Maxwell's equations. In addition topics in optics such as lenses, mirrors, diffraction and interference of light.
Offered: spring semester.
Prerequisite: PHYS 150 and MATH 150.
Education at St. Elizabeth (32 credits)
- ED 253C - Behavior Observation and the Assessment Process in Curriculum Development (3)
- ED 353 - Language and Learning Across the Curriculum, K-12 (3)
- ED 359 - Using Integrated Language to Improve Learning, K-12 (3)
- ED 461 - School Organization and Curriculum Design (3)
- ED 465C - Senior Practicum (3)
- ED 467C - Student Teaching (6)
- ED 471C - Student Teaching Seminar (2)
- ID 273 - American Culture Studies (3)
- PSY 241 - Psychology of the Exceptional Child (3)
- PSY 251 - Educational Psychology (3)
E. Co-op (13 credits)
Admission to this program requires a grade point average of at least 3.0. Application to be made in the fall semester of the sophomore year; job interviews in January of that academic year. Final admission contingent on job placement. Student spends the summer between the sophomore and junior years and the following summer and first semester of the senior year in full-time employment.
- CHEM 291 - Co-op Work I (4)
Each student is located in a chemical or pharmaceutical company under the direct supervision of an industrial "mentor" for a minimum of 10 weeks. The exact projects vary but are usually at the technician level. Precise objectives are arranged in each individual case by the mentor and the co-op director. Final reports and evaluations are required. At least one on-site visit is made by the co-op director.
Offered: in summer.
Prerequisite: Admission to the co-op program.
- CHEM 391 - Co-op Work II (8)
A continuation of CHEM 291 but at a more advanced level. Normally a student is located in the same company as in CHEM 291 and has the same mentor. The work is more specialized and includes a project in such areas as research, computing, technical library work, marketing, production, or personnel. The exact project and objectives are determined before work begins. Emphasizes safety, use of the chemical literature, and reporting (oral and written). At least one on-site visit is made by the co-op director.
Offered: from June to December.
Prerequisite: CHEM 291.
- CHEM 401 - Co-op Seminar (1)
Final reports are presented by co-op seniors. Held on campus with industrial mentors in attendance. Final discussion and evaluation of projects.
Prerequisite: CHEM 391.
F. Three-Two (3/2) Chemical Engineering (credits vary, depending on courses taken at engineering school)
Admission to this program requires a grade point average of at least 3.0. Interested students may need to take elective Summer Term courses. Interested students should see the department chair soon after entering Drew to plan their schedules.
- CHEM 331 - Physical Chemistry II (4)
A study of the principles of chemical thermodynamics and kinetics. Topics include the first and second laws of thermodynamics describing the state functions-internal energy, enthalpy, entropy, Gibbs free energy, physical and chemical equilibria, statistical thermodynamics, rate laws and their determination, theories of reaction rates, reaction mechanism and catalysis. Laboratory experiments seek to determine the thermodynamic and kinetic behavior of systems using spectroscopic techniques as far as possible.
Offered: spring semester.
Prerequisite: CHEM 330.
- MATH 250 - Calculus and Analytic Geometry III (4)
Extending the concepts of calculus from two to three or more dimensions: partial differentiation, multiple integration; analytic geometry in three dimensions, vectors, line and surface integrals, applications.
Offered: fall semester.
Prerequisite: C- or better in MATH 151.
- MATH 303 - Linear Algebra (4)
Matrices, determinants, systems of linear equations, linear transformations, vector spaces, eigenvalues, applications, and additional topics chosen from numerical methods for solving linear equations, canonical forms, quadratic forms.
Offered: spring semester.
Prerequisite: C- or better in MATH 250 or MATH 310.
- MATH 315 - Differential Equations (4)
Ordinary differential equations: basic existence and uniqueness theory, analytic and qualitative solution techniques for different classes of equations, using technology to visualize and compute solutions to equations and systems of equations, modeling and applications; additional topics chosen from systems of differential equations, physical and biological models, nonlinear systems, numerical methods for solution, transorm methods, and partial differential equations.
Offered: spring semester.
Prerequisite: C- or better in MATH 250.
Minor
Requirements for the Minor (23 credits)
I. Core (8 credits)
- CHEM 150 - Principles of Chemistry I (4)
An introduction to the fundamental principles of chemistry as a quantitative science, including inorganic reactions, properties of gases, liquids, and solids, thermochemistry, atomic theory, and nuclear chemistry. Appropriate for those with little or no background in chemistry.
Offered: fall semester.
- CHEM 151 - Principles of Chemistry I, Advanced Section (4)
A special section of CHEM 150 for students who have the ability and necessary background to work at an advanced level. Covers topics in CHEM 150 as necessary but in more depth and adds some enrichment topics. All students, regardless of background and without testing at Drew, enter CHEM 150. Placement in CHEM+6A is determined on basis of placement test and in consultation with instructor of course.
Signature of instructor required for registration.
Offered: fall semester.
- CHEM 160 - Principles of Chemistry II (4)
A continuation of CHEM 150/CHEM 151 covering the structure of solids, kinetics, thermodynamics, equilibria, electrochemistry, and the principles of descriptive inorganic chemistry, including the transition metals.
Offered: spring semester.
Prerequisite: CHEM 150/CHEM 151.
II. Intermediate and Upper Level (15 credits)
15intermediate and upper-levelcredits in Chemistry, including one upper-level laboratory, selected in consultation with the department.
