Molecules to Medicine is a 9 week course in the Fall semester that covers an integrated approach to cell biology, biochemistry, molecular biology and human genetics presented in a context that emphasizes clinical issues.
Robert Low, MD, PhD
Matthew Taylor, MD, PhD
Carolina Jensen (303-724-2070)
- Explain how the normal human cell is constructed and how it functions.
- Describe RNA structure, major types of RNA and their function, synthesis of mRNA, and mechanisms of gene regulation.
- Discuss amino acids, protein primary, secondary, tertiary, and quaternary structure, and principles of translation and translational control, and basic principles of enzyme function and kinetics, and mechanisms of protein degradation.
- Comprehend the basic principles of human inheritance, the molecular basis of inherited disease, and methods to search for human disease genes.
- Comprehend the basic principles of imprinting, cytogenetics, preparing and interpreting a pedigree, genetic regulation of sex determination, and describe the major forms of inherited disease encountered clinically.
- Describe and discuss the major structural compartments, organelles, and cytoskeletal components in the cell and their function.
- Explain the basic principles of intracellular trafficking, and intracellular signaling.
- Provide a basic understanding of membrane structure and function, and basic principles of cell physiology, including cell composition and volume regulation, membrane potential, gated channels, and action potentials.
- Describe how the cells in the body form major types of functional tissue, including epithelium, connective tissue, and muscle, and describe normal histology of human tissues.
- Describe the underlying molecular and cellular perturbations of certain human diseases and how these human diseases present clinically.
- Understand the basic principles of bioenergetics that govern catabolic and metabolic reactions that occur within cells.
- Understand basic techniques in molecular biology: PCR, restriction enzyme digestion of DNA, gel electrophoreisis on nucleic acids and protein and their application for Southern & Northern blotting, Sanger, and NexGen genomic sequencing for the diagnosis of human disease.
- Understand how the cell cycle is orchestrated and regulated through actions of specific cyclins, cyclin-dependent kinases, inhibitors of kinases, checkpoints, and how acquired or inherited alterations of cell cycle regulation lead to cancer.
- Understand basic mechanism of programmed cell death, including apoptosis and autophagy.
- Explain how human genetic variation relates to measured phenotypic variation in health, disease, and differential response to medications.
- Understand and apply genetic counseling and related ethical practices in clinical genetic situations.