The goal of the course is to develop an understanding of the fundamental principles of genetics at the molecular, cellular, organismal, and population levels. The course establishes a link between the generation of genetic variants through mutation and recombination, their patterns of inheritance, interactions between genes to produce complex phenotypes, and the maintenance of such genetic variation in natural populations. The course also explores principles of genome organization and the mechanisms that regulate gene expression. Other topics include: DNA sequencing and the use of genomic data to address questions in genetics, comparing and contrasting genetic regulation strategies across the three domains of life, and exploring experimental approaches for addressing genetic questions. Laboratory investigation will expose students to the fundamentals of genetics including transmission, molecular, and computational techniques for genetic analysis. Students must attend lab during the first week in order to continue in the course. During certain weeks, students are required to come in outside of scheduled lab time for approximately one hour 3-4 days after the scheduled lab. Please plan your schedule accordingly.

The course has a waitlist which will operate on a first-come, first-served basis. If offered a seat, you will receive an offer for the lecture and will be able to accept a seat in the course only if a laboratory which has an available seat can also fit into your schedule. Flexibility for lab times increases your ability to accept an offer.

This is a required co-requisite laboratory for BIOC 219/BISC 219.

The grading option chosen for the lecture section (BIOC 219/BISC 219) - either Letter Grade or Credit/Non Credit - will apply to the lab as well; the final grade is a single unified grade for both lecture and lab and is based on the grading option you choose for the lecture section.

This is a required co-requisite laboratory for BIOC 219/BISC 219.

The grading option chosen for the lecture section (BIOC 219/BISC 219) - either Letter Grade or Credit/Non Credit - will apply to the lab as well; the final grade is a single unified grade for both lecture and lab and is based on the grading option you choose for the lecture section.

This course brings together the fundamental multidisciplinary concepts governing life at the molecular level and opens a gateway to advanced biochemistry offerings. Grounded in an understanding of aqueous equilibria, thermodynamic, kinetic, and spectroscopic principles, the course will emphasize the structure and function of proteins, nucleic acids, carbohydrates, and lipids. The laboratory introduces modern laboratory techniques for the study of biomolecules and develops experimental design and critical data analysis skills. The laboratory component can be of particular value to students planning or engaged in independent research and those considering graduate level work related to biochemistry. This course counts toward Chemistry or Biochemistry major requirements.

This course brings together the fundamental multidisciplinary concepts governing life at the molecular level and opens a gateway to advanced biochemistry offerings. Grounded in an understanding of aqueous equilibria, thermodynamic, kinetic, and spectroscopic principles, the course will emphasize the structure and function of proteins, nucleic acids, carbohydrates, and lipids. The laboratory introduces modern laboratory techniques for the study of biomolecules and develops experimental design and critical data analysis skills. The laboratory component can be of particular value to students planning or engaged in independent research and those considering graduate level work related to biochemistry. This course counts toward Chemistry or Biochemistry major requirements.

A survey of the chemical foundations of life processes, with focus on theory and applications relevant to medicine. Topics include bioenergetics, metabolism, and macromolecular structure. Essential skills such as data analysis and understanding of the primary literature will be approached through in-class discussions and application to current biomedical problems. This course is suitable for students wanting an overview of biochemistry, but it will not contain the experimental introduction to biochemical methods and laboratory instrumentation required for the Chemistry and Biochemistry majors.

The goal of the course is to develop an understanding of the fundamental principles of genetics at the molecular, cellular, organismal, and population levels. The course establishes a link between the generation of genetic variants through mutation and recombination, their patterns of inheritance, interactions between genes to produce complex phenotypes, and the maintenance of such genetic variation in natural populations. The course also explores principles of genome organization and the mechanisms that regulate gene expression. Other topics include: DNA sequencing and the use of genomic data to address questions in genetics, comparing and contrasting genetic regulation strategies across the three domains of life, and exploring experimental approaches for addressing genetic questions. Laboratory investigation will expose students to the fundamentals of genetics including transmission, molecular, and computational techniques for genetic analysis. Students must attend lab during the first week in order to continue in the course. During certain weeks, students are required to come in outside of scheduled lab time for approximately one hour 3-4 days after the scheduled lab. Please plan your schedule accordingly.

Examines structure-function relationships in eukaryotic cells. We will explore the operation and regulation of molecular mechanisms that carry out processes central to life. Considerable emphasis is placed on experimental approaches for investigating the following topics: protein structure and function, biological membranes and transport, cytoskeletal assembly and function, protein biogenesis and trafficking, cell communication and signaling, the cell cycle, and intercellular interactions. Laboratory investigations will provide students with experience in classical and modern approaches to examine and quantify cellular processes. Students must attend lab during the first week in order to continue in the course.

Examines structure-function relationships in eukaryotic cells. We will explore the operation and regulation of molecular mechanisms that carry out processes central to life. Considerable emphasis is placed on experimental approaches for investigating the following topics: protein structure and function, biological membranes and transport, cytoskeletal assembly and function, protein biogenesis and trafficking, cell communication and signaling, the cell cycle, and intercellular interactions. Laboratory investigations will provide students with experience in classical and modern approaches to examine and quantify cellular processes. Students must attend lab during the first week in order to continue in the course.

Examines structure-function relationships in eukaryotic cells. We will explore the operation and regulation of molecular mechanisms that carry out processes central to life. Considerable emphasis is placed on experimental approaches for investigating the following topics: protein structure and function, biological membranes and transport, cytoskeletal assembly and function, protein biogenesis and trafficking, cell communication and signaling, the cell cycle, and intercellular interactions. Laboratory investigations will provide students with experience in classical and modern approaches to examine and quantify cellular processes. Students must attend lab during the first week in order to continue in the course.

This course brings together the fundamental multidisciplinary concepts governing life at the molecular level and opens a gateway to advanced biochemistry offerings. Grounded in an understanding of aqueous equilibria, thermodynamic, kinetic, and spectroscopic principles, the course will emphasize the structure and function of proteins, nucleic acids, carbohydrates, and lipids. The laboratory introduces modern laboratory techniques for the study of biomolecules and develops experimental design and critical data analysis skills. The laboratory component can be of particular value to students planning or engaged in independent research and those considering graduate level work related to biochemistry. This course counts toward Chemistry or Biochemistry major requirements.

Enrollment in this course is by Permission of the Instructor only. Interested students should fill out this Google Form to request registration for both lecture and lab.

This course brings together the fundamental multidisciplinary concepts governing life at the molecular level and opens a gateway to advanced biochemistry offerings. Grounded in an understanding of aqueous equilibria, thermodynamic, kinetic, and spectroscopic principles, the course will emphasize the structure and function of proteins, nucleic acids, carbohydrates, and lipids. The laboratory introduces modern laboratory techniques for the study of biomolecules and develops experimental design and critical data analysis skills. The laboratory component can be of particular value to students planning or engaged in independent research and those considering graduate level work related to biochemistry. This course counts toward Chemistry or Biochemistry major requirements.

Enrollment in this course is by Permission of the Instructor only. Interested students should fill out this Google Form to request registration for both lecture and lab.

An intensive laboratory course offering a multiweek independent team research project and training in experimental applications of physical chemistry and biochemistry. Topics will include spectroscopy and chemical thermodynamics of biomolecules. This course will emphasize independent hypothesis development and experimental design skills as well as public presentation of results. Students will read primary literature, construct a research proposal, develop their own laboratory protocols manual, conduct experiments using a variety of instrumentation, and present their research. One class period per week plus one lab and mandatory weekly meetings with instructor.

Provides a survey of fundamental principles in physical chemistry and how they relate specifically to the study of biological molecules and processes. Emphasis is placed on empowering students to understand, evaluate, and use models as approximations for the biomolecular world. Models are mathematically represented and provide both qualitative and quantitative insight into biologically relevant systems. Commonly used experimental techniques such as spectroscopy and calorimetry are explained from first principles with quantum mechanical and statistical mechanical models, and computational applications such as protein structure prediction and molecular design are explained through physical models such as molecular mechanics and dynamics.