DIVISION OF NATURAL SCIENCES AND MATHEMATICS

CHEMISTRY

CHEM 101 Basic Principles of Chemistry I


Professor: D. Freedman

CRN: 91719 Distribution: E/G/Q

Time:M Th 10:30 am ­ 12:30 pm HEG 102

Lab A M 1:30 pm - 4:00 pm HEG 204

Lab B Tue 1:30 pm - 4:00 pm HEG 204


An introduction to the composition, structure, and properties of matter. The first semester covers atomic structure, stoichiometry, periodic trends, bonding and molecular geometry, and the behavior of gases, liquids, and solids. Facility with algebra is required. Topics covered in the second semester include properties of solutions, reaction rates, chemical equilibrium, electrochemistry, and key ideas about spontaneity and change. The laboratory stresses basic laboratory techniques and quantitative applications. Basic skills in mathematics are required. Concurrent enrollment in calculus is recommended for students who intend to go on in chemistry.

CHEM 201 Organic Chemistry


Professor: H. Weiss

CRN: 91720 Distribution: E/G/Q

Time: Tue F 10:30 am ­ 12:30 pm HEG 201

Lab A Tue 1:30 pm - 5:30 pm ROSE 205

Lab B Th 1:30 pm - 5:30 pm ROSE 205


Structure and reactions of specific types of organic compounds will be studied, and interrelationships will be developed, to provide an integrated understanding of organic chemistry. General principles and reaction mechanisms will be emphasized, but the accumulation and utilization of factual material will also be expected. The laboratory will be coordinated with classroom topics and should provide direct experience with many reactions and concepts. The lab is also intended to develop familiarity with experimental design, techniques, and instrumental methods such as chromatography and spectroscopy. Prerequisite: Chemistry 101­102.

CHEM 301 Principles of Chemical Analysis


Professor: D. Freedman

CRN: 91721 Distribution: n/a

Time:M W F 1:20 pm ­ 3:20 pm HEG 201

(Lab) W 3:30 pm - 5:00 pm HEG 204


This course surveys the field of analytical chemistry with emphasis on the basic principle of solution equilibria. Quantitative treatment of solubility, acidity, and oxidation potential provide the background for the understanding of gravimetric and volumetric techniques. Modern methods of instrumental analysis are studied and integrated into the laboratory work. Prerequisite: Chemistry 101­102.

CHEM 411 Physical Chemistry I


Professor: S. Sattar

CRN: 91722 Distribution: E/G/Q

Time: Tu 10:30 am ­ 12:30 pm HEG B10

Th 1:00 pm - 3:00 pm OLIN 303

(Lab) F 2:30 pm ­ 5:30 pm HEG 206


An understanding of thermodynamic laws and properties such as internal energy, entropy, and free energy will be developed. Equilibrium between phases in one and two component systems and in reacting systems will also be studied. Some laboratory experiments are included. Topics covered in the second semester are quantum theory, atomic and molecular structure and spectroscopy, kinetic­molecular theory, reaction rates, and molecular reaction dynamics. Each semester also includes some laboratory experiments illustrating physical principles. Because the subject is developed mathematically, Mathematics 111­112 and Physics 101­102 are prerequisites. Chemistry 102 or its equivalent is also required.

CHEM 413 Statistical Thermodynamics


Professor: S. Sattar

CRN: 91723 Distribution: n/a

Time:M W 10:30 am ­ 12:30 pm HEG B10


Quantum mechanics is concerned with the energies of individual molecules, while thermodynamics is concerned with the average behavior of bulk matter. Statistical mechanics provides the link between the microscopic and macroscopic viewpoints. Our aim is to calculate the thermodynamic properties of matter (e. g. internal energy, heat capacity, entropy, free energy) from knowledge of atomic and molecular wave functions, energy levels, and spectra. Applications to equilibrium in reacting systems, crystalline solids, and liquids are considered as well. Prerequisite: Chemistry 412 or Physics 321

CHEM 441 Spectroscopic Techniques


Professor: D. Freedman/M. Deady

CRN: 91724 Distribution: n/a

Time: F 10:30 am - 12:30 pm HEG B10


(Two credits) This course will examine various types of spectroscopy, starting with the physical basis of the techniques and working up to qualitative and quantitative applications to various chemical problems. Significant emphasis will be placed on NMR spectroscopy including multinuclear NMR, two-dimensional techniques, and variable temperature experiments. Other topics will include IR and ESR spectroscopy, and mass spectroscopy. Grades will be based on problem sets and a significant amount of laboratory work. Prerequisites: Chemistry 201-202, Physics 101-102.