Microbiology Course Catalog
This course will focus on applied aspects of biochemistry with emphasis on techniques used in protein chemistry and biotechnology. The class will specifically review and discuss experiments and methods used to establish selected biochemical concepts and theories in relation to human health. As a required course for the Masters in Applied Molecular Biotechnology program, this course will expose students to techniques and reagents found in a modern biotech/molecular biology laboratory setting. Emphasis will be placed on the technical details of procedures and experimental design.
This journal club explores recently published primary research articles that investigate molecular genetics. NOTE, this journal club will mostly focus on the focus molecular genetics of parasites, my expertise. However, we can, as a group, choose to explore any exciting new research in the molecular genetics of microbiology. Course content consists of asynchronous reading of primary literature and coming together as a group to discuss synchronously. Each week, a student volunteer will choose an article, introduce the background of the study, and lead discussion.
The main aspects of bacterial growth, including energy metabolism, biosynthesis of macromolecular precursor materials and their assembly into macromolecules, and the integration of these processes by various regulatory mechanisms. Emphasis on the isolation of mutant bacteria blocked in key cellular functions and on global control systems governing the adaptation of bacteria to different environmental conditions. Prerequisite: general background in microbiology and biochemistry.
The Applied Molecular Biotechnology Laboratory (AMBL) is a requisite course for the MS concentration in Applied Molecular Biology. AMBL combines state-of-the-art laboratory training with independent research experience to train students in the latest techniques and concepts of molecular biology and biochemistry. Recombinant DNA technology is the primary focus of the first semester. Topics covered include nucleic acid isolation, genomics, quantitative PCR and RT-PCR, southern and northern blot analysis, and computational biological analyses. Protein expression, purification, and detection are the focus of the second semester. Topics covered include prokaryotic and eukaryotic protein expression systems, column chromatography, proteomics, western blot analysis, enzymatic assay, and microscopic analysis. Throughout the year-long course, students will develop critical thinking skills and gain valuable research experience, all while working on real world problems and preparing for careers in the biotechnology and pharmaceutical industries.
Prerequisites: A bachelor's degree from an accredited four year college or university. Candidates must have demonstrated success in several of the following areas during their undergraduate studies including: genetics, biology, biochemistry, molecular biology, cell biology, calculus, organic chemistry, physics, and statistics.
This is a graduate lecture course designed to provide graduate students with a basic understanding of modern parasitology. Parasites are still an important threat to our global health and economy, and represent an important branch of infectious diseases. It has been stated that there are more kinds of parasites than free-living animals and plants, providing a wealth of biological diversity to study. Once thought of as strange and bizarre, parasites now serve as model organisms in which to study basic biological principles. The course covers a plethora of organisms and a multitude of disciplines. Our discussions will focus primarily on protozoan and metazoan parasites of major medical/veterinary consequence. Topics covered will include basic principles of parasitology, life cycles, host-parasite interactions, epidemiology, and medical treatments. The basic biology, biochemistry and genetics of selected parasites will also be discussed.
Fundamental and advanced topics in the molecular genetics of micro-organisms covered through lecture and discussion of the literature. Topics vary depending on the instructor. Prerequisites: basic coursework in biochemistry and genetics.
Research project under direction of a faculty member. By arrangement. A Microbiology Course Override Form is required for registration in Microbiology 696 - Independent Study.
A 10 week laboratory work participation. It will occur after the second semester of campus classes (summer). Students are required to actively work in a research or a production laboratory to gain hands on work experience. All work should include some responsibility. It is preferred that students work on a research projects. This can be fulfilled by a traditional internship at a company (paid), at an academic institution (unpaid) or by a full time career based job. Acceptable performance is evaluated by the supervising scientist. A final grade will be assigned by the program director.
A Microbiology Course Override Form is required for registration in Microbiology 699 – Master's Thesis.
This journal club explores recently published primary research articles that investigate the molecular mechanisms of microbial pathogenesis. We cover all microbial pathogens including viruses, bacteria, fungi, protozoan parasites, and helminths. We also cover pathogens that infect any hosts, including human, animals, and plants. Course content consists of asynchronous reading of primary literature and coming together as a group to discuss synchronously. Each week, a student volunteer will choose an article, introduce the background of the study, and lead discussion.
Reports and discussion of pertinent literature and research. Required of all microbiology graduate majors each semester in residence. More information.
Research project under direction of a faculty member. By arrangement. A Microbiology Course Override Form is required for registration in Microbiology 796 – Independent Study.
Presentations an discussions of important microbial ecology research papers from the current literature. Fundamental questions in microbial ecology include: what are the drivers of community assembly? How do microbial functions scale? How does mass flow between species, and what factors regulate this? How can we predict or engineer community function? We will discuss microbial communities from a variety of natural and manufactured environments, with emphasis on new strategies to test hypothesis-driven microbial ecology research.