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Molecular Biology and Biotechnology

B.S. Molecular Biology and Biotechnology

» Department of Biological Sciences   » College of Science


  • INTRODUCTION
  • WHAT IT TAKES
  • WHAT PEOPLE DO
  • GET INVOLVED
  • FACULTY
AG student removing a sample

A Bachelor of Science in Molecular Biology and Biotechnology from the University of Idaho will provide you with the skills you need to conduct research that contributes to the design of new drugs and the engineering of hardier and more useful plants. 

As you study proteins, carbohydrates, lipids, nucleic acids and other biomolecules, you learn about cellular functions such as DNA regulation and protein secretion.


Learn fundamental laboratory skills like isolating and cloning a gene, separating strands of DNA and fabricating a biological chemical such as insulin. Understand diseases and immune responses at the cellular level. Study how to develop and test a vaccine.

Senior year, you will draw on everything you’ve learned when you design and carry out your own research project. For example, you could experiment with designing plants that have a higher concentration of useful oils or higher resistance to drought. 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 pharmaceutical companies, biotechnology firms and research laboratories.


Prepare for Success

A Bachelor of Science in Molecular Biology and Biotechnology is a good fit if you can see yourself:

  • Exploring how life works at the most basic levels.
  • Studying math and science.
  • Experimenting with cells and molecules in state-of-the-art laboratories.

To prepare, you may want to:
  • Take as many math and biology courses as possible.
  • Conduct your own experiments.
  • Pay attention to current news involving science and medicine.


Your First Year

Your first year, you will hone your communication skills with course work in writing. You will also take chemistry, calculus and cellular biology.

More advanced courses include organic chemistry, genetics, physics and genetic engineering.


What You Can Do

With a degree in molecular biology and biotechnology, you may become one of the following:

  • Pharmaceutical scientist: Develop, test and produce new antibiotics and vaccines. Collect data on patients in clinical trials, monitor their reactions and analyze the results.
  • Medical researcher: Collect and analyze data about the mutations in cells that cause disease. Help understand disease and design treatments.
  • Agricultural biotechnologist: Modify and improve crops such as rice, soybeans, and wheat or develop biopesticides and other agricultural products that will reduce our dependence on conventional pesticides.
  • Forensic scientist: Use DNA fingerprinting and other laboratory skills to inform criminal investigations.


Rendering of a Molecule

Opportunities

Demand for our graduates is high. Work for biotechnology or pharmaceutical companies or the 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, biotechnology or molecular biology.


Current Research

Do research. Conduct lab procedures and collect findings for pay or credit in an on-campus laboratory. Study immune responses in virus-infected cells, manipulate bacteria to produce large quantities of a medicine, or alter the genetic makeup of rice to increase its nutritional value.


Activities

Life Sciences Club: Teach lab techniques to school children, learn more about internships and meet experts in the field. Take trips to biotech companies, breweries, 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 experience with work environments such as:

  • National Institutes of Health: Produce proteins that can be used to treat disease.
  • Pharmaceutical company: Help design a drug that targets a specific enzyme to reduce cholesterol.
  • Biotechnology company: Produce skin and bone tissue through tissue engineering.

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 in a veterinary clinic. Work at a clinic in a developing country.



Doug Cole
Douglas G. Cole, Ph.D.
Professor and Associate Chair
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
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 Elizabeth (Lee) Fortunato'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.
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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. Jill Johnson
Jill L. Johnson, Ph.D.
Associate Professor
Research interests: Role of molecular chaperones in the cell, especially the study of a chaperone called Hsp90 (90 kDa heat shock protein).
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Dr. Tanya Miura
Tanya Miura, Ph.D.
Assistant Professor
Research interests: Regulation of the Immune Response to Coronavirus Infection in the Lung.
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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 Wichman's profile