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Microbiology

B.S. Microbiology

» Department of Biological Sciences   » College of Science


  • INTRODUCTION
  • WHAT IT TAKES
  • WHAT PEOPLE DO
  • GET INVOLVED
  • FACULTY
AG student in a lab

A Bachelor of Science in Microbiology from the University of Idaho will provide you with the skills you need to conduct research that leads to cures for diseases in plants, animals, and humans and to new solutions for the treatment of toxic waste. You'll learn about the microbial world, including subcellular organization and function, life cycles, and cell division.

According to some estimates, less than 1 percent of all microbe species on Earth have been studied—leaving so much more to explore.


Learn fundamental laboratory skills like breaking apart a microbe, identifying microbes from a disease culture and manipulating microbial growth. Observe and collect information about microbes as they change and interact with each other and the environment.

Senior year, you will draw on everything you’ve learned when you design and carry out your own research project. You will receive guidance from a professor and present your findings at a poster competition.


We encourage our students to complete an internship the summer between their junior and senior years. They work for food manufacturers, pharmaceutical companies and research laboratories.


Prepare for Success

This major is a good fit if you can see yourself:

  • Exploring a world too small for your eyes to see.
  • Studying math and science.
  • Experimenting with microbes in state-of-the-art laboratories.

To prepare for the program, you may want to:
  • Take as many science and math courses as possible.
  • Explore the world through a microscope.
  • Pay attention to current news involving disease and medicine.


Student and professor measuring with dropper

Your First Year

Your first year, you will hone your communication skills with course work in writing. You will also take chemistry, calculus and introductory courses to microbiology.

More advanced major courses include organic chemistry, physics, genetics, and advanced microbiology.


What You Can Do

With this degree, you may become one of the following:

  • Medical researcher: Study the role of microbes in human illness. Design and synthesize new drugs and delivery systems. Study how drugs affect their microbial targets.
  • Virologist: Shed light on biological viruses and virus-like agents, including their structure, their classification and evolution, the diseases they cause, the techniques to isolate and culture them, and their potential uses in research and therapy.
  • Industrial microbiologist: Contribute to industrial processes—such as food processing and waste handling—by monitoring microbes in activities such as fermentation and wastewater treatment.
  • Environmental microbiologist: Contribute to the understanding of the function and diversity of microbes in the natural environment. Work on bioremediation projects in soil, groundwater and open oceans.


microbiolotic organism

Opportunities

Demand for our graduates is high. Work for biotechnology or pharmaceutical companies or for the food and agricultural industry. Conduct research in university, industry, or government laboratories. Salaries start as high as $50,000.

You may also choose to continue your education. Many of our graduates go on to medical, nursing, dental, pharmacy or veterinary schools or earn advanced degrees in medical technology or microbiology.


Current Research

Do research. Conduct lab procedures and collect findings for pay or credit in an on-campus laboratory. You might help identify cattle management practices that keep E. coli 0157:H7 out of food, develop reactors for microbial degradation of TNT, or study how the composition of microbes in the human intestine influences a person’s susceptibility to disease.


microorganisms

Activities

Life Sciences Club: Teach lab techniques to school children, learn about internships and meet experts in the field. Take trips to biotech companies, laboratories, breweries, wineries, research centers and hot springs.
Pre-vet Club: Meet other students planning for vet school and volunteer at a horse sanctuary 
University of Idaho Environmental Club: See what you and others can do to live more sustainably.


Hands-On Experience

Intern. Get practical work experiences in environments such as these:

  • Dairy: Learn how packaging prevents microbial growth.
  • Pharmaceutical company: Analyze how a vaccine affects microbial pathogens.
  • Environmental Protection Agency: Study the effects of fungi on plant health.


Study abroad
. Deepen your understanding of your major —and the world—in countries like these:

  • Spain: Take science classes in Spanish.
  • Switzerland: Observe a different health care system.
  • Mexico: Study how disease is managed in rural villages.


Volunteer
. Give back and gain new experiences. Assist hospital medical staff as they care for patients. Treat sick pets at a veterinary clinic. Work at a clinic in a developing country.



Doug Cole
Douglas G. Cole, Ph.D.
Department Associate Chair and Professor
Research interests: Intraflagellar Transport, IFT may transport axonemal precursors, IFT polypeptides, IFT raft architecture, Kinesin-II, the anterograde IFT motor
» View Doug Cole's profile
Larry Forney
Larry J. Forney, Ph.D.
Distinguished Professor
Director of IBEST
The research done in Dr. Larry Forney’s laboratory centers on the diversity and distribution of prokaryotes. Both field and laboratory studies are done to explore the temporal and spatial patterns of community diversity, as well as factors that influence the dynamics of inter- and intra-species competition. In addition research is done to understand how spatial structure and the resulting environmental gradients influence the tempo and trajectory of adaptive radiations in bacterial species and the maintenance of diversity. Most of these studies are highly interdisciplinary in nature, and done in collaboration with mathematicians, statisticians, computer scientists, geologists, environmental engineers, physicians, and clinical scientists.
» View Larry Forney's profile
Dr. Lee Fortunato
Elizabeth (Lee) Ann Fortunato, Ph.D.
Professor
Research interests: Understanding the mechanism behind the development of morbidity and mortality in infants congenitally infected with human cytomegalovirus (HCMV)
» View Lee Fortunato's Profile
Dr. James Foster
James A. Foster, Ph.D.
Professor
Dr. Foster’s current research is focused on characterizing evolutionarily permissible ecological structures in microbial ecosystems and on developing bioinformatics for very large sequence datasets. He continues to examine simulations of evolutionary processes to design complex artifacts and optimize functions. He works in close collaboration with biologists, statisticians, mathematicians, and computer scientists.
» View James Foster's profile
Peter G. Fuerst
Peter G. Fuerst, Ph.D.
Assistant Professor
My lab is attempting to identify and understand the molecular cues that promote development of the nervous system by studying mice that have mutations in recognition factors and that express fluorescent markers that label specific neural cell types.
» View Peter Fuerst's Profile
Dr. Patricia Hartzell
Patricia L. Hartzell, Ph.D.
Professor
Research interests: The mechanisms by which the complex prokaryote, Myxococcus xanthus, coordinates two independent motility systems during growth and development.
» View Patricia Hartzell's Profile
Dr. Tanya Miura
Tanya Miura, Ph.D.
Assistant Professor
Research interests: Regulation of the Immune Response to Coronavirus Infection in the Lung.
» View Tanya Miura's profile
Eva Top
Eva Top, Ph.D.
Professor
Director of BCB
My research is currently focused on the evolution and ecology of plasmids that transfer to and replicate in a broad range of bacteria. Plasmids are mobile genetic elements found in most bacteria. Because they readily transfer between different types of bacteria under natural conditions, they play an important role in rapid bacterial adaptation to changing environments. A good example is the current epidemic of multiple antibiotic resistance in human pathogens, which is largely due to the spread of multi-drug resistance plasmids. Although plasmid-mediated gene transfer is now recognized as a key mechanism in the alarming rise of antibiotic resistance, little is known about their host range, their ability to invade bacterial populations in the absence of selection, and their genetic diversity. We are addressing these questions using various Proteobacteria and plasmids as model systems.
» View Eva Top's Profile
Holly Whichman
Holly A. Wichman, Ph.D.
University Distinguished Professor
The Wichman Lab studies viruses and their subcellular relatives, transposable elements. These two lines of research are united by a molecular approach and a strong evolutionary context. L1 elements have been active in mammals for over 150 million years and make up about 20% of the genome. Most of the copies in the genome are ancient molecular fossils, so it is a challenge to sift through all of the old copies to find those that have been recently active.
View Holly's profile
» hwichman@uidaho.edu