CHEM 0080A. First Year Seminar- Energy.

An introductory study of the scientific foundation of energy, fundamental physical, chemical, and thermodynamic aspects of common (fossil, nuclear) as well as novel (fuel cells, solar, wind, etc.) energy sources. Concentrates on scientific principles, but includes discussion on resources and reserves, environmental impact, current usage, and future needs. For students of all disciplines who are interested in obtaining an understanding of scientific principles of energy. Enrollment limited to 19 first year students.

CHEM 0080B. Molecular Structures in Chemistry and Biology.

This course will consist of a survey of historical developments and concepts of three dimensional structures of molecules. The course will conclude with a survey of the current state of the art of structure determination and 3D structure motifs for small molecules, nanomaterials and biological macromolecules. This freshman only seminar will be strictly limited to a maximum of 19 students.

CHEM 0080C. Drug Discoveries in the Pharmaceutical Industry.

A Freshman seminar that provides a survey of past and current approaches that enable the discovery and development of therapeutic agents. Topics ranging from target validation to the development of therapeutics (small molecules, biologics, and stem cells) will be discussed. Enrollment limited to 19 first-year students.

CHEM 0080F. Kitchen Chemistry.

Have you ever wondered why olive oil is a liquid but butter is solid? Or why bread and cookies rise when baked? This Kitchen Chemistry course is an experimental approach to chemistry, as seen in cooking. We will examine topics such as trans fats, baking soda as a leavening agent in baking, ripening of fruit, artificial sweeteners, GMOs, and enzymatic and non-enzymatic browning of foods. Edible experiments will be used to discuss the science behind recipes. Enrollment limited to 14 first year students. Instructor permission is required.

CHEM 0090. Kitchen Chemistry.

Kitchen Chemistry is a course that highlights the chemistry underlying food and cooking. We will examine topics such as trans fats, baking soda as a leavening agent in baking, chemical basis for ripening of fruit, pectin as a cellular glue, artificial sweeteners, GMOs, and enzymatic and non-enzymatic browning of foods. In-class demonstrations and edible experiments will be used to discuss the science behind cooking. Content will be discussed using a variety of contexts including primary scientific literature, public policy reports, mainstream media, and food blogs. This class is appropriate for all students interested in chemistry.

CHEM 0100. Introductory Chemistry.

Explores stoichiometry, atomic and molecular structure, chemical bonding, solutions, gases, chemical reactions, equilibria, thermochemistry. S/NC.

CHEM 0330. Equilibrium, Rate, and Structure.

Explores the electronic structure of atoms and molecules, thermodynamics, solution equilibrium, electrochemistry, chemical kinetics, and reaction mechanisms. To successfully register for this course , please include all three components: lecture, lab, and conference. Students who previously passed 0330 lab may be excused from repeating the lab portion of the course, please register for L11 as your lab section. Required background: CHEM 0100 or AP Chemistry 4 or CHEM Placement Test 8 or IBH Chemistry.

CHEM 0330L. Equilibrium, Rate, and Structure Lab.

Please see course description for CHEM 0330.

CHEM 0332. Equilibrium, Rate and Structure - Tutorial.

The CHEM 0332 tutorial program offers students the opportunity to master the concepts taught in the fall semester CHEM 0330: Equilibrium, Rate and Structure course by focusing on active problem solving. Students who struggle in the fall CHEM 0330 course may be invited to join the tutorial program. Students accepted into the tutorial program begin by reviewing compound and reaction stoichiometry at the beginning of the spring semester. Tutorial students enroll in CHEM 0332 during the spring semester to complete their studies of equilibrium, acid-base equilibria, thermodynamics, atomic and molecular structure and kinetics. Students in the CHEM 0332 tutorial program complete weekly problem sets during the spring semester and participate in two mandatory, regularly scheduled problem sessions during each week of the spring semester.
To qualify for consideration, a student must be on track to pass the laboratory component but is below a passing overall score after the last midterm. Accepted students receive a grade of incomplete for the Fall CHEM 0330 course. Upon successful completion of the CHEM 0332 tutorial program in the spring semester, the INC in Fall CHEM 0330 is replaced by the student’s tutorial program grade with the laboratory component imported from the fall course.

CHEM 0350. Organic Chemistry I.

Investigates the constitution and properties of organic compounds, with considerable attention to structural motifs, isomerism and chirality, acid/base chemistry, elementary reaction mechanisms (alkene/alkyne addition, nucleophilic substitutions, eliminations, etc.) and synthetic schemes. The laboratory work comprises microscale preparative and analytical techniques fundamental to the manipulation of representative organic compounds. Prerequisite: CHEM 0330 Students must register for the main lecture section and one lab section. Students who previously passed the CHEM 0350 lab may be excused from repeating the lab portion of the course, please register for lab section L11 as your lab section.

CHEM 0350L. Organic Chemistry I Lab.

Please see course description for CHEM 0350.

CHEM 0360. Organic Chemistry II.

Sequel to CHEM 0350. Investigates the constitution and properties of organic compounds at a fundamental level with an introduction to physical organic, bioorganic, and synthetic organic chemistry. Laboratory work is concerned with the identification and characterization of organic compounds, including modern instrumental methods. Prerequisite: CHEM 0350.
Students must register for a lecture section and a lab.
If you previously passed CHEM 0360 laboratory you may be excused from repeating the lab portion of the course, please register for lab section 11.

CHEM 0360L. Organic Chemistry II Lab.

Please see course description for CHEM 0360.

CHEM 0400. Biophysical and Bioinorganic Chemistry.

Examines aspects of physical and inorganic chemistry relevant to biochemistry: thermodynamics of hydrophobic and hydrophilic interactions, electrically charged membranes, coordination chemistry, active and passive transport, enzyme kinetics and mechanisms, metal-based drugs, and physical methods. Prerequisite: CHEM 0360. Prerequisite or corequisite: PHYS 0040 or 0060.

CHEM 0500. Inorganic Chemistry.

Examines the chemistry of main group and transition metal elements with treatment of covalent bonding and molecular structure. Emphasis will be placed on the methods of studying inorganic compounds and reactions, as well as their pervasiveness in real-world applications. Students will have the opportunity to develop their scientific writing through a peer-reviewed review paper project connecting inorganic chemistry to a topic of their choice. Prerequisite: CHEM 0360.

CHEM 0600. Preparative Chemistry Lab.

This course is designed to develop advanced skills in chemical synthesis and analysis as preparation for work in a modern synthetic chemistry research environment. Students will perform synthesis of new chemical compounds using advanced techniques including air-free Schlenk and glovebox techniques, microwave synthesis, photocatalytic methods, and others. Students will also learn how to characterize their synthesized compounds using 2D NMR, ESI mass spectrometry, EPR spectroscopy, and other methods. The course consists of 1 hour of lecture per week discussing various techniques and applications and 4 hours of laboratory time. This course counts for 0.5 credits.

CHEM 0980. Undergraduate Research.

Independent research in chemistry mentored by a faculty member. The student will carry out original research in chemistry or chemical education. Students should consult with their faculty mentor to discuss the selection of a research project and setting objectives for the semester. This course may be repeated for credit. Section numbers vary by instructor. Please check Banner for the correct section number and CRN to use when registering for this course. Instructor override required.

CHEM 0980S. Undergraduate Research - Writing Designated and Mandatory S/NC.

Independent research in chemistry mentored by a faculty member.The student will carry out original research in chemistry or chemical education. Students should consult with their faculty mentor to discuss the selection of a research project and setting objectives for the semester. Students in this independent undergraduate research course will be expected to work on several scaffolded writing assignments throughout the semester. Students will receive feedback on their writing that they can incorporate into a revised version of the assignment or a future submission. Students who will not be engaged in this level of scientific writing should enroll in the traditional undergraduate research course, CHEM0980. This course may be repeated for credit. Section numbers vary by instructor. Please check Banner for the correct section number and CRN to use when registering for this course. Instructor override required.This course is Mandatory S/NC.

CHEM 0981. Undergraduate Research - Writing Designated.

Independent research in chemistry mentored by a faculty member. The student will carry out original research in chemistry or chemical education. Students should consult with their faculty mentor to discuss the selection of a research project and setting objectives for the semester. Students in this independent undergraduate research course will be expected to work on several scaffolded writing assignments throughout the semester. Students will receive feedback on their writing that they can incorporate into a revised version of the assignment or a future submission. Students who will not be engaged in this level of scientific writing should enroll in the traditional undergraduate research course, CHEM 0980. This course may be repeated for credit. Section numbers vary by instructor. Please check Banner for the correct section number and CRN to use when registering for this course. Instructor override required.

CHEM 0986. From Molecules to Masterpieces: Chemistry's Influence on Culture and Art.

“From Molecules to Masterpieces: Chemistry's Influence on Culture and Art” delves into the intricate connections between chemistry and art within their historical contexts. This interdisciplinary course offers a fresh perspective, placing emphasis on cultural exploration and underscoring chemistry's profound influence on artistic expressions throughout history. Topics encompass the utilization of color in art, chemical analysis of pigments, art conservation, ceramics, pottery, stained glass, and more. The course content will revolve around cultivating engaging discussions through a series of case studies, providing students with opportunities to engage in hands-on activities and complete insightful writing assignments. By the end of the course, students will have acquired a deep-seated understanding of how chemistry has shaped human creativity, cultural identity, and artistic expression.

CHEM 0999. Chemistry and Art.

“Chemistry and Art” is an interdisciplinary course that explores different chemical concepts and techniques through the lenses of art and art history. The topics covered include paint and painting, stained glass; pottery and porcelains; gemstones and jewelry; color and art conservation. Drawing from early artistic texts, we will take a historically informed approach, connecting medieval stained-glass techniques, early pigmentation sourcing, and Qin dynasty pottery work to modern chemical explanations. Throughout the course, lectures, discussions, hands-on activities, and writing are totally integrated and the chemistry principles and techniques behind art objects and art-making are introduced through a series of case studies.

CHEM 1060. Advanced Inorganic Chemistry.

Covers the physical and chemical properties of transition metal compounds as well as current research topics in inorganic chemistry. Laboratory is designed for the practice of modern inorganic chemistry through the synthesis and spectroscopic characterization of air-sensitive transition metal compounds. Prerequisite: CHEM 0500.

CHEM 1140. Physical Chemistry: Quantum Chemistry.

An introduction to the quantum theory of chemical systems. Elements of quantum mechanics; electronic structure of atoms and molecules; study of molecular structure and behavior by spectroscopy; chemical bonding are all explored. Prerequisites: CHEM 0330; and MATH 0180, 0200 or 0350; and PHYS 0030, PHYS0050, or ENGN 0040; and PHYS 0040 or PHYS 0060; or PHYS 0070 and 0470; or minimum score of WAIVE in 'Graduate Student PreReq’.

CHEM 1150. Physical Chemistry: Thermodynamics and Statistical Mechanics.

Examines the question: Where does chemical equilibrium come from? Focuses on macroscopic perspectives on chemical systems and the molecular origins of macroscopic behavior along with elements of statistical mechanics, the laws of thermodynamics, and the relationships between the two. Prerequisite: CHEM 1140

CHEM 1160. Physical Chemistry Laboratory.

An introduction to modern instrumentation and experimental techniques as applied to physical chemistry. Experiments will emphasize application of the ideas of spectroscopy, kinetics, statistical mechanics, and thermodynamics to systems of chemical and biochemical interest. Prerequisites: CHEM 1140 or permission of the instructor.

CHEM 1170. Environmental Chemistry.

A laboratory course using analytical methods to help in the study and description of several realistic environmental problems. Illustrates scientific methodology and measurement techniques as they apply to these important problems. A problem-solving course employing a kind of environmental chemical detective work. Two laboratory sessions per week. Prerequisites: MATH 0100 or the equivalent, or permission of the instructor. Enrollment limited to 8. Instructor permission required.

CHEM 1220. Computational Tools in Biochemistry and Chemical Biology.

Introduction to computational tools used to analyze protein sequences and structures, DNA sequence analysis, RNA structure, biochemical pathways and the analysis of microarray data. Extensive use of programs such as AMBER, BLAST, PSIBLAST and a discussion of their limitations.

CHEM 1230. Chemical Biology.

This course covers topics at the interface of chemistry and biology and, specifically, the use of chemical tools to probe biological systems. Using examples from the recent literature, we will discuss using the central methods of chemistry, namely the ability to design and synthesize compounds with a particular set of properties, to analyze biological problems. Specific topics include molecular recognition of DNA, artificial enzymes, small molecule sensors, and in vivo imaging of proteins, nucleic acids, and cell-surface carbohydrates. Prerequisites: CHEM 0360 and BIOL 0280.

CHEM 1240. Biochemistry.

Examines the chemical, mechanistic, and structural basis for enzymatic catalysis. Uses examples from the recent literature to examine how the experimental and conceptual tools of chemical synthesis, isotopic labeling, stereochemistry, enzymology, kinetics, and protein structure can be brought to bear to unravel the chemical and physical principles underlying the enormous catalytic acceleration and exquisite structural specificity of enzyme-catalyzed reactions. Prerequisites: CHEM 0360, BIOL 0280.

CHEM 1450. Advanced Organic Chemistry.

Lectures cover topics of current interest in organic reaction mechanisms, synthesis, and structure determination. Prerequisite: CHEM 0360.

CHEM 1560A. Molecular Modeling.

No description available.

CHEM 1560C. Advanced Spectroscopy.

No description available.

CHEM 1560E. Biological Mass Spectrometry.

This seminar course will survey the instrumentation, methods, and applications of modern biological mass spectrometry. Through lecture and interactive discussions, we will explore the fundamentals of mass spectrometry. We will then proceed to cover a series of topics relevant to protein and peptides analysis. The seminar will conclude with an exploration of recent developments in instrumentation or applications of particular interest to the participants. Recommended pre-requisites: CHEM 0360, BIOL 0280, PHYS 0040. Enrollment limited to 20.

CHEM 1560F. Organic Structure Analysis.

CHEM 1560G. Nuclear Magnetic Resonance.

These special topics courses cover the basics of modern NMR spectroscopy. Topics to be included are as follows: modern Fourier transform methodology, modern NMR instrumentation, and a comprehensive discussion of one and two dimensional experiments that are routinely performed. Topics such as coherence transfer and pulsed field gradients will also be included. Experimental methods covered in detail include COSY, TOCSY, HSQC, HMBC, NOSEY, ROSEY, EXSY and DOSY methodology. This course will not focus on structure determination or spectral interpretation but rather on experimental methodology.

CHEM 1560H. Chemical Glycobiology.

This course examines the chemistry and biology of carbohydrates in living systems. Topics to be covered may include - principles of carbohydrate recognition, enzymes involved in synthesis and modification of carbohydrates, carbohydrates in bacterial/viral and other cellular interactions, glycomics, carbohydrate synthesis. Prerequisites: CHEM 0360 and BIOL 0280. Instructor permission required. Attendance at the first class meeting is required for enrollment.

CHEM 1560I. DNA Damage and Repair.

This course analyzes the chemistry of DNA damaging agents and the molecular mechanisms of DNA replication and DNA repair. We will also analyze the mutagenic and toxic consequences of modifications to DNA structure. Specific topics include the reactions of alkylating agents, ultraviolet radiation, and oxidizing radicals with DNA; additionally, chemotherapeutics that modify DNA will be discussed. Multiple cellular repair pathways will be covered including base excision repair, nucleotide excision repair, mismatch repair, and direct reversal. Prerequisites: CHEM 0350, CHEM 0360, BIOL 0280, BIOL 1270, or by permission.

CHEM 1560J. Topics in Bioinorganic Chemistry.

Covers current topics of bioinorganic chemistry with review of fundamental inorganic and biological chemistry. Topics include metal ion transport and storage, oxygen metabolism, electron transfer, respiration and photosynthesis, metal ion receptors and signaling, hydrolytic chemistry, metallo-neurochemistry, and medicinal bioinorganic chemistry. Students are strongly urged to complete both CHEM 0500 and CHEM 0360 prior to this special topics course.

CHEM 1560K. Computational Chemistry: Accelerating Chemical Discovery via Computation and Data Science.

Introduction to computational tools for studying the structure of molecules, chemical bonding and chemical reactions. A survey of computational approaches for calculating electron distribution such as molecular mechanics, semi-empirical and ab initio methods (Hartree-Fock, configuration interaction, perturbation theory and density functional theory) will be given. Methods for calculating dynamics of atoms in molecular vibration and chemical reactions will be covered. The course is intended for seniors and graduate students in all subdivisions of chemistry. The goal is to make students capable of using research level tools and carry out simple calculations related to their research interests.

CHEM 1560M. Applied Materials Chemistry.

Materials chemistry is the study of the synthesis, structure, properties, and application of solid materials. Our technology-driven world is fueled by advances in materials chemistry with examples of application in areas such as microelectronics, polymers, and energy technology. This course will explain the application of materials chemistry through the materials properties and characterization, detailing how the crystalline and molecular structure of materials can be related to electronic, optical, thermal, and mechanical properties.

CHEM 1560N. Organometallic Chemistry.

Modern organometallic chemistry continues to find unique applications including next generation lighting displays, therapeutics and imaging, energy science, and green chemical synthesis. In this course we will briefly review fundamentals of inorganic chemistry (MO theory, ligand field theory, Pearson’s HSAB theory), and then delve into the structure, bonding, synthesis, reactivity, and mechanisms associated with organometallic complexes and their associated applications. Significant emphasis will be placed on effective oral and written communication skills, with frequent peer and instructor feedback provided. Prerequisites: CHEM 0360, CHEM 0500. PLEASE NOTE: This class is WRIT designated for Undergraduates Only. Graduate students should register for CHEM 2310. Undergraduates should register for CHEM 1560N.

CHEM 1560P. Applications of Modern Physical Methods in Synthesis.

The modern synthetic chemist leverages a wide range of physical methods to answer research questions in diverse application areas ranging from renewable energy, medicine, materials, complex molecule synthesis, and others. Students will develop a working knowledge of modern techniques applied to synthesis, learning fundamental principles, experimental limitations, and interpretation of experimental results. Selected techniques may include: Nuclear Magnetic Resonance (NMR), Electron Paramagnetic Resonance (EPR), Fluorimetry, Absorption Spectroscopy (UV-Vis, IR, X-ray), Diffraction (X-ray), Magnetometry, Electrochemistry, and Mass-Spectrometry. Emphasis will be placed on how techniques are relevant in current research areas, and the instrumental capabilities available at Brown University.

CHEM 1560Q. Accelerating Chemical Discovery.

For centuries, chemists have relied upon chemical intuition to guide their chemical discovery. However, with the advent of high-throughput synthesis and characterization techniques and spectroscopies that produce TBs of images, chemists are now being inundated with data. This course will equip you with the tools of data science and computational chemistry so that you can fully leverage your data for discovery. It consists of four key modules: Intro to Data Science, Chemical Discovery (RDKit, chemical databases, and machine learning), Modern Spectroscopy (image recognition and computational chemistry), and Atomistic Simulation (computational catalysis and molecular dynamics simulations) that will challenge you to solve practical chemistry problems via data science and/or simulation. While previous computing knowledge will be an advantage, it will not be required. Recommended prerequisites: CHEM0330/0350/0360, PHYS0030/0040, MATH0100. CHEM1140/1150/2770/2780/2020 would be beneficial, but are not required.

CHEM 1560R. Reimagining the Role of Chemists.

Reimagining the Role of Chemists teaches chemistry in the context of today’s issues. This course investigates chemistry’s entanglements with colonialism, anti-black racism, and environmental injustice. In the hopes of regrounding chemistry, reorienting its values, and reimagining its future, we engage with diverse histories, perspectives, and impacts that have often been rendered invisible. Together, we will consider how to transition from a false pretense of objectivity to a just and beneficial practice of chemistry.

CHEM 1560S. The Chemistry of Polymeric Organic Materials.

The 21st century has seen the transition of carbon-based polymers from commodity bulk materials to sophisticated and intricately engineered materials with applications in biotechnology, energy harvesting and storage, separations, and sensing schemes. At the heart of these thrusts have been developments in the synthesis of organic polymers and methods for their fabrication into materials and devices. The aim of this course is to build a fundamental knowledge of polymer chemistry and survey their application to functional materials and devices. Topics covered in this course can be broken into three major categories: 1. Synthesis and characterization of polymers; 2. Processing and characterization of polymeric materials; 3. Applications of organic materials to modern challenges.

CHEM 1620B. Spectroscopy.

Prerequisite: CHEM 1140 or equivalent.

CHEM 1620C. Topics in Modern Physical Chemistry.

No description available.

CHEM 1660. Instrumental Analysis with Environmental Applications.

This course covers the principles and practical applications of important analytical chemistry tools used to study environmental problems, including discussions of method selection and statistical treatment of data. Students will strategize and implement a study of a field site. Includes lab sessions with hands-on experience of instrumental analysis using atomic and molecular spectroscopic techniques, separations by gas and liquid chromatography, and electrochemical methods. Prerequisite: CHEM 0330 or GEOL 1370. Enrollment limited to 20. Instructor permission required.

CHEM 1700. Nanoscale Materials: Synthesis and Applications.

Focuses on synthesis, properties, and applications of nanoscale materials. It begins with the introduction to size-dependent properties and to general characterization methods of nanomaterials. It then outlines the synthesis, surface chemistry and self-assembly of nanomaterials. It further reviews catalytic, optical and magnetic properties of nanomateirals. Finally, the course highlights the applications of nanomaterials in information storage, energy conversion, and biomedicine. Prerequisites : CHEM0350, PHYS 0030 or 0050, BIOL0280 recommended.

CHEM 2010. Advanced Thermodynamics.

Fundamental principles of macroscopic equilibrium thermodynamics. The three laws of thermodynamics, the thermodynamic potentials, temperature scales, heat engines and refrigerators, entropy, kinetic theory, and transport phenomena. Applications to solids, fluids, and magnetic systems; Gibbs relations, first and second order phase traditions, thermal radiation, gas expansions.

CHEM 2020. Statistical Mechanics.

Introduction to modern equilibrium statistical mechanics, including the classical and quantum descriptions of ideal gases, the molecular basis of thermodynamics, the concepts of ensembles and fluctuations, and the implications of quantum mechanical indistinguishability. Applications include chemical and phase equilibria, the transition-state theory of chemical reaction rates, and the theory of liquids.

CHEM 2210. Chemical Crystallography.

Introduces the principles of crystallography (plane groups, point groups, space groups, Bravais lattice, crystal classes), crystallographic methods (single-crystal, powder XRD, macromolecular), strategies for data collection, methods for data reduction, and structure interpretation; reviews modern crystal structure databases (CSD, ICSD) and search engines; reviews the historical development of crystallography and the scope, potential and application of X-ray analysis.

CHEM 2310. Organometallic Chemistry.

Modern organometallic chemistry continues to find unique applications including next generation lighting displays, therapeutics and imaging, energy science, and green chemical synthesis. In this course we will briefly review fundamentals of inorganic chemistry (MO theory, ligand field theory, Pearson’s HSAB theory), and then delve into the structure, bonding, synthesis, reactivity, and mechanisms associated with organometallic complexes and their associated applications. Significant emphasis will be placed on effective oral and written communication skills, with frequent peer and instructor feedback provided. Prerequisites: CHEM 0360, CHEM 0500. PLEASE NOTE: This class is WRIT designated for Undergraduates Only. Graduate students should register for CHEM 2310. Undergraduates should register for CHEM 1560N.

CHEM 2320. Solid State Chemistry.

This course focuses on descriptive understanding of structures and properties of inorganic materials. It covers symmetry operations in crystals, crystal structure, physical properties of inorganic materials, materials phase diagram and preparation, and solid state electrochemistry for battery, fuel cell and supercapacitor applications. Prerequisites: CHEM 0500 and 1060 or equivalents or written permission. Recommended for seniors and first-year graduate students.

CHEM 2410. Organic Mechanisms.

This course examines methods for deteremining organic reaction mechanisms. Types of experiments introduced may include kinetics, free energy relationships, isotope effects, molecular orbital theory, spectroscopy, and product distribution analysis. Reactions typically covered inlcude pericyclic reactions, reactive intermediates, organometallic reactions, and substituion/addltion/elimination. The course makes extensive use of the primary literature, with a strong emphasis on the development of effective communication strategies. Completion of CHEM0500, and CHEM1140 is strongly recommended.

CHEM 2420. Organic Reactions.

Study of organic reactions and reaction mechanisms. Discussion and analysis of organic transformations. Topics can include arrow pushing strategies and synthetic methods.

CHEM 2430. Synthetic Organic Chemistry.

Methods, strategies, and mechanisms. Topics may include the chemistry of anions, cations, and radicals, concerted reactions, conformational analysis, and stereochemistry.

CHEM 2770. Quantum Mechanics.

The course discusses the foundations of quantum mechanics and applications to chemical systems and phenomena. Using a rigorous mathematical treatment and Dirac notation, important time-independent model systems include two-level systems, one- and three-dimensional problems and angular momentum. Elements of time-dependent quantum mechanics focus on wavepacket motions. The semester will close out with a discussion of the spin and symmetry postulates.

CHEM 2780. Quantum Mechanics.

The second semester sequel of Quantum Mechanics covers many body systems and matter-radiation interactions. It starts with a discussion of the symmetry postulates of quantum mechanics, followed by applications to the electronic structure of atoms and molecules, including angular momenta, the nature of chemical bonds, the Born-Oppenheimer approximation and conical intersections as well as molecular vibrations. The semester closes out with a discussion of time-dependent perturbation theory and spectroscopy, including the quantum adiabatic theorem, as well as the theory of electron and x-ray scattering.
Prerequisite: CHEM 2770.

CHEM 2810. Departmental Seminars.

No description available.

CHEM 2820. Departmental Seminars.

No description available.

CHEM 2870. Departmental Colloquia.

Open to first year chemistry graduate students only.

CHEM 2880. Departmental Colloquia.

No description available. Open to graduate students only.

CHEM 2920C. Topics in Modern Spectroscopy.

No description available.

CHEM 2970. Preliminary Examination Preparation.

For graduate students who have met the tuition requirement and are paying the registration fee to continue active enrollment while preparing for a preliminary examination.

CHEM 2980. Research.

Section numbers vary by instructor. Please check Banner for the correct section number and CRN to use when registering for this course.

CHEM 2981. Research.

Section numbers vary by instructor. Please check Banner for the correct section number and CRN to use when registering for this course. CHEM 2981 is mandatory S/NC.

CHEM 2990. Thesis Preparation.

For graduate students who have met the residency requirement and are continuing research on a full time basis.

CHEM XLIST. Courses of Interest to Students wishing to Study Chemistry.