Genetics: Genomics, B.S. - COLSA, UNH

The Genetics:Genomics program (GEN) explores the world of genetics and genomics in plants, animals, and microbes. Genomics is the study of genomes and includes topics like DNA structure and function, high-throughput sequencing, and computational comparison of the genomes of different organisms. The Genetics faculty strongly value hands-on learning and many GEN students conduct undergraduate research under the supervision of our faculty. GEN graduates are prepared for successful careers in biotechnology fields or for entry into a variety of graduate school or health professional programs.

The Genetics program offers course work and laboratories in:

• molecular genetics
• bioinformatics
• human genetics
• comparative genomics
• plant genetics
• microbial genetics
• population and evolutionary genetics

Students in the Genetics program may participate in a variety of experiential learning activities including:

• independent research experiences in laboratories of UNH faculty
• work at the Hubbard Center for Genome Studies or Research Computing Center
• internships at biotechnology companies in the Greater Boston area
• internships with genetics counselors at area medical centers

GEN graduates have been successful in attaining careers as:

• research scientists and laboratory technicians in
  • biotechnology and pharmaceutical companies
  • academic research programs
  • forensics
  • biomedical research centers & medical schools
  • government agencies

• genetic counselors
• educators
• technical support associates

GEN graduates are prepared for further education in:

• professional health programs
  • genetic counseling
  • medical school
  • dental school
  • allied health programs (physician assistant, pharmacist, nursing or pathologist’s assistant)
  • veterinary school
• graduate programs such as
  • Genetics and Genomics
  • Integrative Biology
  • Neurogenomics
  • Molecular Biology
  • Microbiology
  • Environmental Sciences
  • Public Health
  • Computer Science

Sample Degree Plan

This sample degree plan serves as a general guide; students collaborate with their academic advisor to develop a personalized degree plan to meet their academic goals and program requirements.

Degree Requirements

All Major, Option and Elective Requirements as indicated.
*Major GPA requirements as indicated.

Major Requirements

Students majoring in Genetics with the Genomics option take seven Foundation courses, six Bioscience Core courses, four Genetics Core courses and five Major Elective courses. One capstone experience, supervised and approved within the major, is required of all seniors. The capstone explores areas of interest based on the integration of prior learning. In addition, all other University requirements must be completed, including those for the University Discovery Program and the Writing Program.

A minimum grade of C- minus or better is required in statistics and all Bioscience Core, Genetics Core, and Major Elective courses.

Required Courses

¹

Fulfills Physical Science Discovery requirement

²

Students applying to health profession schools need a full year of Organic Chemistry, a full year of introductory Biology, and a full year of English. CHEM 651/CHEM 653 and CHEM 652/CHEM 654 should be taken in place of CHEM 545/CHEM 546; ENGL 502 or ENGL 503 is suggested in addition to ENGL 401. See Pre-Professional Health Program advising.

³

Fulfills Quantitative Reasoning Discovery requirement

⁴

Fulfills Biological Science Discovery requirement, Discovery Inquiry requirement, and Discovery laboratory requirement

Electives

Five (5) unique major electives are required.

⁵

This course can count as both a Bioscience Major Elective AND a Population or Evolutionary Genetics Major Elective IF students take one additional Bioscience Major Elective.

⁶

Must be a research project with a genetics focus

Capstone

The capstone explores areas of interest based on the integration of prior learning. The capstone requirement may be satisfied through a course, created work or product, or some form of experiential learning (e.g., honors thesis, mentored research project, or other special student activity). Students may take more than one capstone course. Capstone completion is never displayed on Degree Works; your advisor will certify capstone completion at the time of graduation. Students must have 90 credits or more when completing their capstone requirement. Contact your advisor for questions about capstones.

⁶

Must be a research project with a genetics focus

Program Learning Outcomes

• Students will be able to describe DNA, its role, structure, how DNA is packaged in the chromosomes in terms of histones, nucleosomes, and chromatin, including its discovery, how has modern genomics influenced, and differences between prokaryotes and eukaryotes.
• Students will be able to describe the central dogma of molecular biology, including specific details related to replication, transcription, and translation.
• Students will be able to define and describe evolution, how drift, gene flow, mutation, natural selection, recombination, within a population genetic framework, may result in evolution.
• Students will be able to describe the differences between mitosis and meiosis and how errors in these processes may effect phenotype, cause disease, etc.
• Students will be able to evaluate how genes and the environment can interact to produce a phenotype, including allelic differences and changes in gene regulation.
• Students will be able to describe the concept of deep time, and how comparing genes and genomes allows us to understand evolution and relatedness between species.
• Students will be able to use pedigrees to determine mode of inheritance of a trait.
• Students will be able to describe ethical issues related to modern genomics and implications for health care and insurance, interpersonal relationships, family planning, etc.
• Students will be able to describe high-throughput sequencing, and how it has changed the practice of modern genetics.

• Students will be able to apply the scientific method to examine experimental evidence and draw informed conclusions.
• Students will be able to use graphs to represent scientific data.
• Students will be able to apply statistical methods to interpret scientific data.

• Students will be able to use data to troubleshoot an unexpected outcome .
• Students will be able to apply core knowledge to critically interpret scientific data.

• Students will demonstrate written skills to communicate scientific knowledge and experimental data.

• Students will be able to demonstrate oral presentation skills to communicate scientific knowledge and experimental data.