BS in Genomics and Molecular Genetics

4 Years On Campus Bachelors Program

Michigan State University

Program Overview

The BS in Genomics and Molecular Genetics at Michigan State University provides a broad scientific foundation with a focused emphasis on genomics, molecular genetics, cell biology, biochemistry, and related biological sciences. It suits students interested in understanding how genes function and interact, with opportunities to tailor advanced study and gain practical research experience through mentored independent research.

Curriculum Structure

Year 1: Students establish the scientific foundation needed for genetics and genomics through Cell and Molecular Biology, Organismal and Population Biology, chemistry, mathematics, and physics. Laboratory-based study such as Cell and Molecular Biology Laboratory develops early practical skills alongside the core biological sciences.

Year 2: Students move further into molecular and biochemical concepts through courses such as Comprehensive Biochemistry or Advanced Biochemistry I and II, while continuing foundational science requirements. The curriculum also introduces Introductory Microbiology and its laboratory component, strengthening students’ understanding of microorganisms and experimental biology.

Year 3: The program becomes more specialized with Eukaryotic Cell Biology, Microbial Genetics, and Genomics, allowing students to examine genetic information, cellular processes, and genome-level biology in greater depth. Students can also select advanced laboratory study through Advanced Microbiology Laboratory or Laboratory in Genetics and Genomics.

Year 4: Students apply their knowledge through advanced electives and a capstone experience, with options including Medical Microbiology, Virology, Immunology, Molecular Pathogenesis, and Bioinformatics and Computational Biology. The program encourages students to complete at least two, ideally three or more, semesters of mentored independent research, which can culminate in a formal research presentation and satisfy the department's capstone requirement.

Focus areas: Genomics, molecular genetics, microbial genetics, eukaryotic cell biology, biochemistry, microbiology, bioinformatics, molecular pathogenesis, immunology, virology, plant-microbe interactions, and biomedical sciences.

Learning outcomes: Scientific foundation in chemistry, mathematics, physics, and biology; understanding of genetics and genomics; laboratory and research experience; ability to apply genetic and molecular concepts; and practical experience through independent research and formal scientific presentation.

Professional alignment (accreditation): Michigan State University is institutionally accredited by the Higher Learning Commission (HLC), with its most recent reaffirmation in 2024–25 and the next reaffirmation scheduled for 2034–35. MSU's official list of specialized program accreditations does not list Genomics and Molecular Genetics among programs with separate professional accreditation, so no program-specific accreditation is stated.

Reputation (employability rankings): MSU reports a No. 35 global and No. 6 U.S. position in the 2026 QS World University Rankings: Sustainability, placing the university within the top 2% of participating institutions globally; this is a university-level sustainability ranking rather than a program-specific employability ranking.

Experiential Learning (Research, Projects, Internships etc.)

Students in the BS in Genomics and Molecular Genetics gain practical experience through an ongoing research project that can contribute directly to their graduation requirements, alongside coursework in genetics, genomics, biology, chemistry, physics, and mathematics. MSU also gives students access to advanced research infrastructure through the Research Technology Support Facility (RTSF), including genomics, bioinformatics, proteomics, flow cytometry, microscopy, and genome-editing resources, allowing students to engage with technologies used in modern molecular biology research.

The program’s hands-on opportunities and research environment include:

Independent research: Students have the opportunity to participate in an ongoing research project, providing direct research experience while satisfying part of the program’s graduation requirements.
Genomics Core: MSU’s Genomics Core provides access to advanced DNA and RNA sequencing capabilities, including Element Biosciences AVITI and AVITI24, 10x Genomics Chromium X, 10x Genomics CytAssist, Oxford Nanopore PromethION, and Sanger sequencing technologies.
Molecular analysis: Students involved in relevant research can work within an environment equipped with Agilent TapeStations, Covaris M220 Sonicator, Sage Science Pippin Prep, Invitrogen Qubit systems, and qPCR instrumentation for nucleic-acid preparation, quality control, and analysis.
Bioinformatics: The MSU Bioinformatics Core supports analysis of complex omics datasets, data integration, and biological interpretation, giving genomics-focused researchers access to computational research support.
Genome editing: The Transgenic & Genome Editing Facility supports modern genetic-engineering research, including CRISPR-Cas genome editing, molecular cloning, construct generation, validation, molecular screening, transfection, electroporation, and microinjection.
Single-cell and spatial genomics: The Genomics Core supports single-cell sequencing library preparation through the 10x Genomics Chromium X and spatial transcriptomics library preparation through the 10x Genomics CytAssist.
Flow cytometry: MSU’s Flow Cytometry Core Facility provides advanced flow-cytometry instrumentation, cell sorting, training, and experimental consultation for biological research.
Research technology network: The Spartan Research Cores provide centralized access to specialized technologies in genomics, proteomics, metabolomics, cryo-electron microscopy, transgenics and genome editing, stem-cell research, and bioinformatics.
Computing and data analysis: MSU’s life-science research infrastructure includes Institute for Cyber-Enabled Research (ICER) and High Performance Computing resources, supporting computational and data-intensive biological research.
Research environment: The Research Technology Support Facility provides technical and analytical support for biomedical, agricultural, and engineering research, creating opportunities to work with technologies directly relevant to genomics and molecular genetics.

Progression & Future Opportunities

The BS in Genomics and Molecular Genetics at Michigan State University gives students a strong foundation in genetics, genomics, molecular biology, research methods, and bioinformatics, preparing them for careers across biotechnology, pharmaceuticals, healthcare, agriculture, research, and government laboratories. Students can build practical experience through laboratory work, faculty-led research, and work-based learning while developing skills in genomic data analysis and molecular genetic research.

Typical job roles: Research Scientist, Bioinformatics Scientist, Genomics Specialist, Biotech Laboratory Technician.

Career and employment opportunities:

Career services: The College of Natural Science's Experiential Learning Office provides Interactive Career Labs, career programming, a Natural Science Career Resource Library, virtual internships, and connections to experiential opportunities. MSU Career Services Network also provides one-on-one advising for resumes, cover letters, job and internship searches, interviews, networking, and graduate-school preparation.
Job and internship access: Handshake gives students access to thousands of internship and job postings, while MSU organizes career fairs, employer events, alumni panels, and workshops that connect students with potential employers.
Research preparation: Students are encouraged to gain experience through faculty-led research projects and work-based learning, and MSU's undergraduate research program includes opportunities to present work in areas such as cell biology, genetics, genomics, computational biology, and molecular genetics.
Employment sectors: MSU identifies biotechnology companies, pharmaceutical companies, research institutions, contract research organizations, health and medical laboratories, and government research agencies as key employer groups for genetics and genomics graduates.
Employment statistics and salary: MSU does not publish a program-specific employment rate or salary figure for the BS in Genomics and Molecular Genetics on its official program career pages, so a specific figure is not stated here.
Industry connections: MSU's genetics and genomics graduate research community includes approximately 100 participating faculty members across 24 departments or affiliated institutions, including the Grand Rapids Research Center and Henry Ford, creating an interdisciplinary environment connecting genetics research with medical and research organizations.
Professional recognition: Students interested in microbiology-related professional credentials can explore certification through the National Registry of Microbiologists of the American Society for Microbiology, which MSU identifies as an option for students in the major.
Long-term accreditation: Michigan State University is accredited by the Higher Learning Commission (HLC), with its most recent reaffirmation completed in 2024–25 and the next reaffirmation scheduled for 2034–35. MSU states that accreditation supports the legitimacy of its degrees and can qualify graduates for contexts requiring an accredited institution.
Graduation outcomes: Graduates can enter biotechnology, pharmaceutical research, forensic science, academic research, medical laboratories, agricultural genetics, and government research, while MSU also notes that the broad biological-science foundation can support applications to professional programs such as human or veterinary medicine.

Further Academic Progression: Graduates can continue into the MS in Genetics and Genome Sciences, which is designed to prepare students for careers in genetics and genomics and requires advanced coursework and thesis-based research. Students interested in advanced research can also pursue the PhD in Genetics and Genome Sciences, an interdisciplinary program drawing on approximately 100 faculty members and research areas including genomics and proteomics, gene expression, cancer genetics, infectious-disease genetics, evolutionary genetics, and molecular biology.