Chemistry

This course introduces students to foundational biology and chemistry concepts with an emphasis on the relationship between the two. In addition, the course will focus on techniques and study strategies which are key to success in the Natural Sciences.

Basic theories of atomic structure, chemical reactions, gas laws, atomic theory, and chemical bonding. Not intended for potential science majors. Three lecture hours and three laboratory hours.

Concepts and theories of atomic structure, chemical bonding, gases, liquids, and solids. Qualitative and quantitative descriptions of chemical reactions. Solution chemistry. 

Lab course covering the concepts and theories of atomic structure, chemical bonding, gases, liquids, and solids. Qualitative and quantitative descriptions of chemical reactions. Solution chemistry. Four laboratory hours. Zero semester hours.

Fundamental laws of kinetics, thermodynamics, electrochemistry, chemical equilibrium, acid base theory, descriptive chemistry of metals and nonmetals, and nuclear chemistry. 

Lab course covering the fundamental laws of kinetics, thermodynamics, electrochemistry, chemical equilibrium, acid base theory, descriptive chemistry of metals and nonmetals, and nuclear chemistry. Four laboratory hours. Zero semester hours.

This course covers the fundamental concepts of chemistry including nomenclature; stoichiometry; atomic and electronic structure; thermochemistry; bonding; periodic correlations; the behavior of solids, liquids and gases; and an introduction to organic functional groups and biomolecules.  Primarily intended for students interested in Nursing.  

Study of organic compounds based on the functional groups approach. Emphasis on physical and chemical properties, applications, reactions, mechanisms, syntheses, nomenclature, stereochemistry, spectroscopy, and molecular modeling. Three lecture hours and four laboratory hours.

Study of organic compounds based on the functional groups approach. Emphasis on physical and chemical properties, applications, reactions, mechanisms, syntheses, nomenclature, stereochemistry, spectroscopy, and molecular modeling. Three lecture hours and four laboratory hours.

Quantitative volumetric and gravimetric analysis, statistical treatment of data, electrochemistry, and introductory instrumental methods of analysis. 

Foundational course in inorganic chemistry. Topics include periodic properties, simple bonding and molecular orbital theory, molecular symmetry and group theory, acidbase and donoracceptor chemistry, and descriptive chemistry of the main group elements. 

An introduction to the molecules and chemical reactions of living systems. Structure and function of important classes of biomolecules are explored and the relationship of structure to function is stressed. Basic metabolic sequences are discussed. 

Hands-on research experience through assistance in faculty research projects.

Hands-on research experience through assistance in faculty research projects.

Hands-on research experience through assistance in faculty research projects.

Hands-on research experience through assistance in faculty research projects.

Study of physical chemical principles related to classical thermodynamics, equilibrium properties of solids and solutions, kinetic theory and reaction kinetics.

Quantum mechanical approach extended to descriptions of chemical bonding and spectroscopy using group theory. Physical methods of studying crystal structure and electromagnetic properties.

Focus on kinetic and thermodynamical processes in solid state structures. Emphasis on structure-property Relationships especially as related to mechanical properties. 

Selected topics in chemistry chosen by the instructor in response to student needs and interests.

Chemistry of the elements emphasizing periodic trends and electronic properties. Current theories of bonding and molecular structure; reactivity and uses of coordination complexes.

Principles of design and operation of modern instrumentation in chemistry. Consideration of methods common in research as well as applied sciences such as environmental monitoring and medicine.

Cell ultrastructure, metabolic pathways, and control mechanisms for cellular processes: respiration, photosynthesis, DNA, replication, protein synthesis, and differentiation.

Organic reactions and mechanisms. Hueckle molecular orbital theory, electrocyclic reactions, molecular photochemistry, nonclassicalcarbonium ions, carbanions, natural products, synthesis of novel and biologically important compounds.

Qualitative and quantitative analysis of organic compounds based on spectrometric and chromatographic methods. Techniques including infrared, nuclear magnetic resonance, mass spectrometry, ultra-violet/visible, gas chromatography, high performance liquid chromatography, and combination techniques such as GC-MS. Emphasis on problem solving with instrumentation.

Experimental or theoretical student research under chemistry faculty supervision.

Work experience related to the student's major, jointly supervised by the department and a professional in the field. Although the usual internship will carry either three or six hours credit, a student may elect to arrange an internship carrying between two and six hours credit with the permission of the department. Each hour of credit will require forty hours at the internship site.

Work experience related to the student's major, jointly supervised by the department and a professional in the field. Although the usual internship will carry either three or six hours credit, a student may elect to arrange an internship carrying between two and six hours credit with the permission of the department. Each hour of credit will require forty hours at the internship site.

Independent research in a special topic for honors.

Independent research in a special topic for honors.