CHEMISTRY / 61 niques; statistical inference, sampling distributions, tests of significance, and experimental design. ECH 6849-Advances in Numerical and Analytical Computa- tion (2) Prereq: ECH 6845, 6846. Numerical and analytical techniques such as iterative matrix methods, hybrid computa'- tion, direct vector methods, functional analysis, and adaptive models. ECH 6905-Individual Work (1-6; max: 12) Individual engineer- ing projects suitable for a nonthesis Master of Engineering degree. ECH 6910-Supervised Research (1-5;. max: 5) S/U. ECH 6926-Graduate Seminar (1; max: 10) ECH 6936-Advanced Seminar in Chemical Engineering (1-2; max: 8) Research and current literature. ECH 6937-Special Topics in Chemical Engineering I (1-4; max: 9) Separations processes, reactor design, applied molecular and kinetic theory, thermodynamics, particulate systems. Properties of chemical substances, transport phenomena, non-Newtonian fluid dynamics, turbulence, applied mathematics, computer science, biochemical and electrochemical engineering. ECH 6939-Special Topics in Chemical Engineering III (1-4; max: 9) ECH 6940-Supervised Teaching (1-5) S/U. ECH 6969-Research Proposal Preparation (1-2; max: 4) H. ECH 6971-Research for Master's Thesis (1-15) S/U. ECH 7938-Advanced Special Chemical Engineering Topics for Doctoral Candidates (1-4; max: 8) ECH 7980-Research for Doctoral Dissertation (1-15) S/U. CHEMISTRY College of Liberal Arts and Sciences GRADUATE FACULTY 1982-83 Chairman: N. Y. Ohrn. Graduate Coordinator: W. S. Brey, Jr. Graduate Research Professors: H. A. Laitinen; P. O. L6wdin; J. D. Winefordner. Distinguished Service Professor: H. H. Sisler. Professors: R. A. Bartlett; M. A. Battiste; T. Bieber;* W. S. Brey, Jr.; H. C. Brown; G. B. Butler; J. A. Deyrup; W. R. Dolbier, Jr.; R. S. Drago; R. D. Dresdner; R. J. Hanrahan; J. F. Helling; T. E. Hogen Esch; W. M. Jones; A. R. Katritzky; D. A. Micha; M. L. Muga; E. E. Muschlitz, Jr.; N. Y. Ohm; G. A. Palenik; W. B. Per- son; .J. R. Perumareddi;* G. E. Ryschkewitsch; F. A. Schultz;* M. T. Vala, Jr.; C. A. VanderWerf; W. Weltner, Jr.; M. C. Zerner; J. A, Zoltewicz. Associate Professors: S. O. Colgate; J. R. Eyler; A. Lombardo;* G. H. Myers; C. E. Reid; G. M. Schmid; P. A. Snyder;* R. C. Stoufer. Assistant Professors: K. A. Dill; J. G. Dorsey; E. V. Dose; C. Kemal; R. A. Yost. *These members of the faculty of Florida Atlantic University are also members of the graduate faculty of the University of Florida and par- ticipate in the doctoral program in the University of Florida Department of Chemistry. The Department of Chemistry offers the Master of Science and Doctor of Philosophy degrees with speciali- zation in analytical, organic, inorganic, or physical chemistry. The nonthesis degree Master of Science in Teaching is also offered with a major in chemistry. New graduate students should have adequate under- graduate training in inorganic, analytical, organic, and physical chemistry. Normally this will include as a minimum a year of general chemistry which may include qualitative analysis, one semester of quantitative analysis, one year of organic chemistry, one year of physical chemistry, and one semester of advanced inorganic chemistry. Additional courses in instrumental analysis, advanced physical and organic chemistry are desirable. Deficiencies in any of these areas may be corrected dur- ing the first year of graduate study. Such deficiencies are determined by a series of placement tests given prior to registration, and the results of these tests are used in planning the student's program. The offerings CHM 5157, 5300, 6470, 6471, 6620, 6710, 6720, 6730, and CHS 5110 constitute a series of core courses designed to provide graduate students with a well-rounded background in the broad area of chem- istry. Doctoral candidates are required to complete CHM 6470 plus three other core courses outside the major area. Additional courses are taken upon recommenda- tion of the student's supervisory committee or major pro- fessor, so that the total number of credits in courses acceptable for graduate credit is at least 28 hours. At least 16 semester hours of these courses must be in 6000 level or higher courses in chemistry. Candidates must serve not less than one year as teach- ing assistants. This requirement will be waived only when, in the opinion of the department, unusual cir- cumstances justify such action. A chemical-physics option is offered for students who will be doing research in areas of physical chemistry which require a strong background in physics. For this option, the requirement in chemistry is CHM 6470, plus two other core courses. In addition, a minimum of 15 credits in 4000 level or higher physics courses or a minimum of eight such credits in physics and eight in 4000 level or higher mathematics courses is required. Candidates for the master's degree are required to complete any two core courses. The Master of Science degree in chemistry requires a thesis. The nonthesis degree Master of Science in Teaching is offered with a major in chemistry and requires a written paper of substantial length (30-50 pages) on an approved topic pertaining to some phase of chemistry, under the course CHM 6905. CHM 5157-Analytical Processes (3) Prereq: CHM 3120C and CHM 4411. Fundamental principles of analytical chemistry, with emphasis on the non-instrumental aspects of the subject: statistics, sampling, standards, equilibrium theory, acids and bases, precipitation, complexation, electroanalysis,. redox phenomena, analytical kinetics, and separation processes. CHM 5224-Basic Principles for Organic Chemistry (3) Prereq: one year of undergraduate organic chemistry. A review of the basic principles and concepts of organic chemistry for those students intending to enroll in the Advanced Organic Sequence CHM 6225, 6226. CHM 5235-Organic Spectroscopy (3) Prereq: CHM 3211. Ad- vanced study of characterization and structure proof of organic compounds by spectral methods, including IR, UV, NMR and mass spectrometry. CHM 5272-The Organic Chemistry of Polymers (3) Prereq: CHM 3210, 3200, or equivalent. Classification of polymeriza- tion types and mechanisms from a mechanistic organic point 'of view. The structure of synthetic and natural polymers and polyelectrolytes. Reaction of polymers. Practical synthetic methods of polymer preparation. CHM 5300-Chemistry of Biological Molecules (3) Prereq: CHM 3211 or 3216 and 4412 or 3401 or consent of instructor. Mechanistic organic biochemistry. Emphasis on model systems, enzyme active sites, and physical and organic chemistry of biomacromolecules. CHM 5413L-Advanced Physical Chemistry Laboratory (2) Prereq: CHM 4412L. Laboratory techniques used in experi- mental research; techniques of design and fabrication of scien- tific apparatus. Advanced experiments involving optical, elec- tronic, and high vacuum equipment. CHM 5511-Physical Chemistry of Polymers (3) Prereq: CHM 4411 or equivalent. Structure, configuration, confirmation, and thermodynamics of polymer solutions, gels, and solids. Thermal, mechanical, optical, and theological properties of plastics and rubbers. CHM 5511L-Polymer Chemistry Laboratory (1) Prereq or coreq: CHM 5511. Laboratory experiments designed to accom- pany CHM 5511. CHM 5514-Chemical Computations (2) Prereq: CHM 4412 and knowledge of FORTRAN programming. Solution of difficult