Chemistry

From cocaine, marijuana, and meth to aspirin, caffeine, and alcohol, drugs (both legal and illegal) permeate today's society. In this course, intended for non-science majors, students will learn about what drugs are, where they come from and how they are made through an integrated lecture and lab. In addition, students will learn about drug testing and what happens to a drug in the human body.

Curriculum: NS,SP

This integrated lecture and lab course intended for non-science majors introduces the chemical composition of food. Topics include the chemical structure of nutrients (proteins, carbohydrates, fat), chemical properties and reactions of various foods, food preparation techniques, sensory perception, and food additives. Laboratory exercises will be a combination of traditional laboratory exercises and edible experiments.

Curriculum: SP,NS

In this course, the student will acquire an understanding of the methods and techniques used in crime detection. Topics as diverse as microscopy, toxicology, serology, finger-printing, document and voice examination, as well as arson and explosives investigation, will be examined. Extensive use of case studies will be made emphasizing the role that the forensic scientist played in the detection and solution of the crime. Three hours of lecture and one three-hour laboratory session per week.

Curriculum: NS,SP

This course will provide students with an interdisciplinary understanding of the chemical processes that govern environmental phenomena including climate change, stratospheric ozone depletion, and air and water pollution. Students will also investigate public policy surrounding these issues. The course is intended for non-science majors. Three hours of lecture and one three-hour laboratory session per week.

Curriculum: NS,SP

This course is an introduction to college-level chemistry intended for science majors. Topics will include a review of the mathematics of chemistry, the history of chemistry, an introduction to nuclear chemistry, the periodic table and the properties of elements, gas laws, manipulation of chemical equations, stoichiometric calculations, acid/base chemistry, and other topics. In the lab, students will be introduced to basic safety procedures in the chemistry laboratory and master the laboratory skills needed for more advanced chemistry courses. Three hours of lecture and one three-hour laboratory session per week. A special fee ($50) is charged for this course.

Curriculum: NS,SP

Principles of Chemistry is for students who plan to take additional courses in chemistry. The course is an introduction to the chemist's description of specific topics including the interaction of light and matter (spectroscopy), the structure of the atom and the atomic structure of matter, chemical bonds and intermolecular forces, chemical descriptions of color and solubility, solution phenomena, thermodynamics, chemical equilibria, and kinetics. Three hours of lecture and one three-hour laboratory session per week. A special fee ($50) is charged for this course.

Curriculum: NS,SP

This course presents the topics of nuclear chemistry, atomic structure, multi-electron atoms and bonding, periodicity, the chemistry of ionic compounds, generalized acid-base theories, kinetics, thermodynamics, and transition metal chemistry. All of these topics are presented in the context of both historical and contemporary applications. The laboratory includes experiments used in inorganic synthesis directly related to topics covered in lectures, including an introduction to molecular modeling, spectroscopic methods of characterization, and classical methods of analysis. Three hours of lecture and one three-hour laboratory session per week. A special fee ($50) is charged for this course.

Curriculum: NS,SP

This course presents the theory and techniques necessary for quantitative analysis of chemical systems at equilibrium. Topics covered will include volumetric and gravimetric analysis, acid-base chemistry, and electrochemistry. Laboratory investigations will involve wet chemical methods and introductory instrumental techniques to analyze quantitatively the components of complex mixtures. Statistical methods will be used to interpret the analytical results. Three hours of lecture and one three-hour laboratory session per week. A special fee ($70) is charged for this course.

Curriculum: NS,SP

These courses are designed for students wishing to work on a research project. Interested students may select a project in consultation with a faculty member and work under his/her supervision. Permission of a chemistry faculty member is required. The student is required to spend at least three hours per week in the laboratory.

Curriculum: EL

These courses are designed for students wishing to work on a research project. Interested students may select a project in consultation with a faculty member and work under his/her supervision. Permission of a chemistry faculty member is required. The student is required to spend at least three hours per week in the laboratory.

Curriculum: EL

Fundamental facts, theories and nomenclature of organic compounds, and their reactions are discussed. Students study such topics as structural theory, stereochemistry, and reaction mechanisms, as applied to basic physical, chemical and spectroscopic properties of aliphatic, alicyclic and aromatic hydrocarbons, mono-, di-, and polyfunctional compounds, including some natural products and biomolecules. Students will use molecular modeling software to gain a better understanding of the intricacies of molecular structures and reactivity. The information covered in this course is a prerequisite to biochemistry, medicinal chemistry, other advanced chemistry courses. CHEM 261 is a prerequisite for CHEM 262. Three hours of lecture and one three-hour laboratory session per week. A special fee ($70) is charged for this course.

Fundamental facts, theories and nomenclature of organic compounds, and their reactions are discussed. Students study such topics as structural theory, stereochemistry, and reaction mechanisms, as applied to basic physical, chemical and spectroscopic properties of aliphatic, alicyclic and aromatic hydrocarbons, mono-, di-, and polyfunctional compounds, including some natural products and biomolecules. Students will use molecular modeling software to gain a better understanding of the intricacies of molecular structures and reactivity. Most of the information covered in this course is prerequisite to biochemistry, medicinal chemistry, and other advanced chemistry courses. Three hours of lecture and one three-hour laboratory session per week. A special fee ($70) is charged for this course.

This course investigates environmental chemistry topics from an Earth systems science perspective, with an emphasis on the atmosphere and the hydrosphere. The first half of the course focuses on Earth system science: introducing box modeling, reservoirs, and element cycling (C, N, and S in particular). The second half of the course will survey topics that build on the first half, such as climate change, stratospheric ozone depletion, and types of pollution. While there is no laboratory component, the course will be activity-based, including environmental data analysis and modeling.

Application of the laws of physics to chemical phenomena will be examined. An attempt is made to provide a theoretical foundation for the study of the other disciplines of chemistry. Topics considered include chemical thermodynamics, including its application to thermochemistry, phase equilibria, and colligative properties; the kinetic theory of gases; chemical kinetics, including the treatment of rate data and the theory of rate processes; and an introduction to spectroscopy. Three hours of lecture and one three-hour laboratory session per week.

Application of the laws of physics to chemical phenomena will be examined. An attempt is made to provide a theoretical foundation for the study of the other disciplines of chemistry. Topics covered include statistical thermodynamics as applied to chemical systems; molecular symmetry and quantum theory as applied to the spectroscopy and structure of atoms and molecules; and advanced topics of interest.

In this course the student will acquire an understanding of the fundamental principles upon which modern measuring devices are based and the type of information an instrument can contribute to a chemical analysis. Among the methods studied will be UV/VIS, fluorescence, IR, NMR, AA, chromatography, and mass spectrometry. Three hours of lecture and one three-hour laboratory session per week.

This course consists of an overview of forensic chemistry and its application to criminal and civil cases. Topics covered will include the history of forensic science, data sampling and analysis, instrumentation, drugs and toxicology, chemical analysis of physical evidence, and forensic DNA analysis.

This course will present chemistry and the work of chemists in a variety of ways. Students will learn about original research by reading the scientific literature and by attending presentations by seminar speakers. The course will focus on experimental design and analysis of results, both published and unpublished. Students are required to synthesize knowledge from the different areas of chemistry. Students will be evaluated based on written assignments and class discussion. Active participation and asking of questions at the seminar are integral to the course.

This course provides an overview of the field of biocatalysis, with an emphasis on the application of enzymes towards the synthesis of chemical products. Reaction mechanisms for common enzyme classes used in industry will be analyzed to develop a mechanistic understanding of how enzymes achieve rate enhancement and selectivity. The course will also highlight computational tools for enzyme discovery and the role of protein engineering and directed evolution in tailoring biocatalysts for specific transformations. Through critical evaluation of contemporary literature and case studies of industrially relevant processes, students will gain insight into the practical implementation of enzymatic reactions in pharmaceuticals, fine chemicals, and sustainable manufacturing.

These courses focus on areas of chemistry not specifically covered in the general curriculum and are designed to meet the needs of advanced students. Prerequisites vary according to offering.

These courses focus on areas of chemistry not specifically covered in the general curriculum and are designed to meet the needs of advanced students. Prerequisites vary according to offering.

This course will introduce students to the rapidly growing research area of nanomaterials and their connections to chemistry. Students will study nanoscience from a largely synthetic viewpoint delving into content involving materials synthesis, crystal structures, and characterization of nanomaterials. Their knowledge base will then be expanded to contemporary research by reviewing the literature along with presenting and discussing scientific ideas. Contemporary topics of study can include, but are not limited to inorganic nanoparticles, organic-inorganic nanocomposites, carbon nanotubes, graphene, and quantum dots. The goal of this course is to familiarize students with nanomaterials, to further develop their skills of critical reading and thinking, and to encourage creative ideas that fuel innovative research.

Curriculum: OC

This course is designed to introduce chemistry majors who express an interest in pursuing a career in chemistry to industrial and institutional research and development. Each student will spend 130 hours in an industrial or institutional scientific laboratory. Actual work performed will be determined by on-site supervisors. A special fee ($200) is charged for this course. Offered as needed. Enrollment is limited. Application required; see Internship Program.

Curriculum: EL

A student who wishes to work on a research project for eight hours per day, five days per week, for four weeks during the January term will have the opportunity to do so in this course. Daily logs, weekly reports, and a final report must be written to the satisfaction of a faculty supervisor. Offered as needed.

Curriculum: EL

This course is offered for those students who want to pursue a career in some area of the health-related sciences. It should be of interest to both chemistry and biology majors. Studies are made of the chemical structures of drugs and their direct influence on pharmacological activity. Many classifications of drugs are covered, and emphasis is placed on structures, mechanisms of action, and structure-activity relationships. Students are expected to obtain an understanding of the structural features of drugs which cause them to produce various types of biological responses. This basic understanding will support further studies in such fields as medicine, dentistry, biochemistry, or pharmaceutical chemistry. Introductory biology is helpful, but not required.

This course is intended to give students of chemistry, biochemistry, and biology a broader foundation in organic chemistry. It will cover a variety of topics not covered in the traditional one-year Organic Chemistry course. For students pursuing an advanced degree in Chemistry, this course can serve as a bridge between the work you have done in Organic Chemistry I / II and graduate level course work. Topics will include: Chemistry of Alkynes, Organic Molecular Orbital Theory, Chemistry of Dienes, Chemistry of Amines, Transition Metal Catalysis of Organic Reactions Carbohydrate Chemistry, Chemistry of Aromatic Heterocycles, and Pericyclic Reactions.

This course offers chemistry majors an in-depth study of the fundamental principles of inorganic chemistry. Topics such as bonding, molecular geometry, and the chemical reactions of ionic, covalent, and metallic substances will be discussed. Concepts of acid-base chemistry (Bronsted-Lowry, Lewis, Drago, and Lux-Flood systems) will be examined. The student will study the synthesis, structure, properties, and periodic trends of the main-group elements as well as the coordination chemistry and descriptive chemistry, bonding, spectroscopy, thermodynamics, kinetics, and structure of the compounds of the transition elements. Applications to organometallic chemistry and bioinorganic chemistry will be introduced.

A study of the basic principles of the organometallic chemistry of d-block elements. Topics include a survey of the properties and reactions of organometallic complexes and applications of organotransition metal compounds in catalysis, organic synthesis, bioinorganic chemistry, and medicinal chemistry. Lectures will be supplemented by discussions of current literature in the field.

Curriculum: OC

An in-depth study of the chemistry of living systems. A major theme of the course will be the relationship between molecular structure, function, and regulation. Topics to be covered will include: structures of amino acids, proteins, lipids, carbohydrates, and nucleic acids; protein folding; enzymes, enzyme kinetics, and regulation; protein-ligand interactions. The laboratory portion of the course will focus on techniques in protein chemistry such as expression, purification, identification, manipulation, and enzyme kinetics. Three hours of lecture and one three-hour laboratory session per week. Introductory biology is recommended, but not required.

Curriculum: CC

A continuation of the in-depth study of the chemistry of living systems. A major theme of the course will be the relationship between molecular structure, function, and regulation. Topics to be covered will include: degradative and synthetic metabolic pathways of various classes of molecules; synthesis of nucleic acids and proteins; expression of genetic information.

This course is intended as a continuation of CHEM 345 and will present chemistry and the work of chemists in a variety of ways. Students will learn about original research by reading the scientific literature and by attending presentations by seminar speakers. The course will focus on experimental design and analysis of results, both published and unpublished. Students are required to synthesize knowledge from the different areas of chemistry. Students will be evaluated based on written assignments and class discussion. Active participation and asking of questions at the seminar are integral to the course.

A Field Study is an experiential learning course combining elements of workplace experience, observation, and research. Students are expected to work closely with a faculty field study supervisor to develop learning objectives and a plan of study appropriate to the discipline. Assignments may include a reflective journal, activity reports, and one or more directed research papers appropriate to the discipline. Workplace experience requirements should be similar to those of internships. Students should not receive compensation from workplace experience if they are receiving three-hour course credit.

With prior approval, students may earn Experiential Cross Area Requirement (CAR) credit and transcript notation for one credit hour for a paid internship. To qualify for experiential credit a student must have completed 48 semester hours of work prior to the beginning of the internship and be in good academic standing (not on academic probation) at the time of application and at the start of the internship. Registration and application procedures are similar to those for academic internship courses. Satisfactory completion of a paid internship requires a minimum of 130 hours (160 recommended) working at the host site, a reflective daily journal, a final written report, and a satisfactory evaluation from the site supervisor. A special fee ($400) is charged for this course.

Curriculum: EL

Students will draw upon the knowledge and skills acquired in previous courses to examine relevant literature in the five major sub-areas of chemistry by synthesizing chemical principles from these sub-areas.

Curriculum: CS

The purpose of this sequence is to allow qualified students to carry out original experimental work. Considerable self-discipline, diligence, and ingenuity on the part of the student are necessary. Students may spend the entire period working on a research project of their own choice, upon approval and under the guidance of the departmental faculty, or on projects designed by and of interest to individual faculty members. In either case, students may be required to use techniques and apparatus which may not have been available to them in other courses. They will be expected to plan and carry out their work on their own initiative to the satisfaction of the faculty member directly involved and of the department. A written thesis and an oral presentation are required. The equivalent of nine hours of laboratory work per week, in addition to time required for library research and thesis preparation, is expected of each student who enrolls in this sequence. The ultimate goal of this training is to impart to each student self-reliance and confidence concerning laboratory research. All qualified students who intend to pursue graduate work in chemistry are urged to enroll in this sequence. Student earns a total of six hours for the full senior project experience (496, 497, and 498).

Curriculum: CS,EL

The purpose of this sequence is to allow qualified students to carry out original experimental work. Considerable self-discipline, diligence, and ingenuity on the part of the student are necessary. Students may spend the entire period working on a research project of their own choice, upon approval and under the guidance of the departmental faculty, or on projects designed by and of interest to individual faculty members. In either case, students may be required to use techniques and apparatus which may not have been available to them in other courses. They will be expected to plan and carry out their work on their own initiative to the satisfaction of the faculty member directly involved and of the department. A written thesis and an oral presentation are required. The equivalent of nine hours of laboratory work per week, in addition to time required for library research and thesis preparation, is expected of each student who enrolls in this sequence. The ultimate goal of this training is to impart to each student self-reliance and confidence concerning laboratory research. All qualified students who intend to pursue graduate work in chemistry are urged to enroll in this sequence. Student earns a total of six hours for the full senior project experience (496, 497, and 498).

Curriculum: CS,EL

The purpose of this sequence is to allow qualified students to carry out original experimental work. Considerable self-discipline, diligence, and ingenuity on the part of the student are necessary. Students may spend the entire period working on a research project of their own choice, upon approval and under the guidance of the departmental faculty, or on projects designed by and of interest to individual faculty members. In either case, students may be required to use techniques and apparatus which may not have been available to them in other courses. They will be expected to plan and carry out their work on their own initiative to the satisfaction of the faculty member directly involved and of the department. A written thesis and an oral presentation are required. The equivalent of nine hours of laboratory work per week, in addition to time required for library research and thesis preparation, is expected of each student who enrolls in this sequence. The ultimate goal of this training is to impart to each student self-reliance and confidence concerning laboratory research. All qualified students who intend to pursue graduate work in chemistry are urged to enroll in this sequence. Student earns a total of six hours for the full senior project experience (496, 497, and 498).

Curriculum: CS,EL