This course will survey the discipline of molecular genetics. Mendelian and molecular genetics will be discussed as well as the use of genetic analysis to address questions in all areas of biology. The processes of DNA replication, transcription, and translation will be discussed at the molecular level. Other topics include the regulation of gene expression and genomics. This course is open to students in the College of Liberal and Professional Studies only.

This course examines the physiological mechanisms underlying homeostasis in humans. Integration from the cellular to organismal level as well as cooperation of multiple organ systems will be explored. Examples of pathophysiology during disease states will be discussed and highlighted. Although the focus will be on humans, we will study comparative aspects from other vertebrate and non-vertebrate organisms.

This course examines the physiological mechanisms underlying homeostasis in humans. Integration from the cellular to organismal level as well as cooperation of multiple organ systems will be explored. Examples of pathophysiology during disease states will be discussed and highlighted. Although the focus will be on humans, we will study comparative aspects from other vertebrate and non-vertebrate organisms.

This course examines the physiological mechanisms underlying homeostasis in humans. Integration from the cellular to organismal level as well as cooperation of multiple organ systems will be explored. Examples of pathophysiology during disease states will be discussed and highlighted. Although the focus will be on humans, we will study comparative aspects from other vertebrate and non-vertebrate organisms.

This course examines the physiological mechanisms underlying homeostasis in humans. Integration from the cellular to organismal level as well as cooperation of multiple organ systems will be explored. Examples of pathophysiology during disease states will be discussed and highlighted. Although the focus will be on humans, we will study comparative aspects from other vertebrate and non-vertebrate organisms.

This course examines the physiological mechanisms underlying homeostasis in humans. Integration from the cellular to organismal level as well as cooperation of multiple organ systems will be explored. Examples of pathophysiology during disease states will be discussed and highlighted. Although the focus will be on humans, we will study comparative aspects from other vertebrate and non-vertebrate organisms.

BIOL 204 examines the basic principles of protein structure, protein purification and characterization, proteomics, enzyme kinetics and mechanism, membrane structure and function, metabolism, and cellular energy transduction. The primary objective is to provide life scientists with an appreciation of basic principles of modern biochemistry, and of how the current conceptual and technical framework arose. Emphasis is placed on the experimental approaches and reasoning behind the dissection and reconstitution of these processes in a biological and, in some cases, clinical context. Discussions directed at biochemical problem solving, experimental design and the application of quantitative methods are integral to the course. Prerequisite: BIOL 101 and BIOL 102 or BIOL 121 and CHEM 241 the latter of which may be taken concurrently. CHEM 242 is recommended and may also be taken concurrently.

BIOL 204 examines the basic principles of protein structure, protein purification and characterization, proteomics, enzyme kinetics and mechanism, membrane structure and function, metabolism, and cellular energy transduction. The primary objective is to provide life scientists with an appreciation of basic principles of modern biochemistry, and of how the current conceptual and technical framework arose. Emphasis is placed on the experimental approaches and reasoning behind the dissection and reconstitution of these processes in a biological and, in some cases, clinical context. Discussions directed at biochemical problem solving, experimental design and the application of quantitative methods are integral to the course. Prerequisite: BIOL 101 and BIOL 102 or BIOL 121 and CHEM 241 the latter of which may be taken concurrently. CHEM 242 is recommended and may also be taken concurrently.

BIOL 204 examines the basic principles of protein structure, protein purification and characterization, proteomics, enzyme kinetics and mechanism, membrane structure and function, metabolism, and cellular energy transduction. The primary objective is to provide life scientists with an appreciation of basic principles of modern biochemistry, and of how the current conceptual and technical framework arose. Emphasis is placed on the experimental approaches and reasoning behind the dissection and reconstitution of these processes in a biological and, in some cases, clinical context. Discussions directed at biochemical problem solving, experimental design and the application of quantitative methods are integral to the course. Prerequisite: BIOL 101 and BIOL 102 or BIOL 121 and CHEM 241 the latter of which may be taken concurrently. CHEM 242 is recommended and may also be taken concurrently.

Intermediate level course covering principles of modern biochemistry. Topics include protein structure, protein purification and characterization, proteomics, enzyme kinetics and mechanisms, membrane structure and function, metabolism, and cellular energy transduction. Emphasis will be on biochemical problem solving, experimental design, and application of quantitative methods in a biological and clinical context. This course is open to students in the College of Liberal and Professional Studies only. Prerequisite: BIOL 101 and BIOL 102 or BIOL 121 and CHEM 241, the latter of which may be taken concurrently. CHEM 242 is recommended and may also be taken concurrently.