Over the last decade our understanding of genomes and gene function has grown dramatically. Research has moved from studying single genes to analyzing entire genomes, and the sequencing of complex eukaryotic genomes now makes it possible to investigate how genes interact across the whole organism. These advances in genomics are directly reshaping agricultural science by offering new ways to understand and improve crops and livestock.
New methods such as genome resequencing provide detailed views of evolutionary history and help explain how modern breeds and crop varieties developed from their wild ancestors. At the same time, whole-genome data and high-density chip arrays allow breeders and researchers to select animals and plants based on their complete genetic makeup rather than on a few traits. This creates powerful opportunities to accelerate breeding, increase resilience and productivity, and target traits more precisely.
There is growing demand for professionals who can combine solid knowledge of agricultural production with practical and theoretical expertise in genomics. Graduates who understand both farming systems and genomic technologies are increasingly needed across research, breeding, biotechnology and related advisory roles, where they can translate genomic data into improved breeding and cultivation strategies.
Program structure and curriculum This full-time Master's runs over four semesters and culminates in a research-based Master's thesis. Course achievements are recorded using the European Credit Transfer System (ECTS), making your credits transferable to other universities across Europe. Teaching is delivered on campus in Kiel and combines classroom-based learning with hands-on formats: lectures, seminars, practical laboratory or field courses, and excursions.
Practical experience and career relevance The curriculum is built from ten mandatory modules and six electives, allowing you to develop a strong core foundation while tailoring parts of the programme to your interests. There is also the option to include off-campus internships at partner research institutes or with German life science and breeding companies, strengthening industry contacts and applied skills. Graduates will be prepared to conduct independent research, contribute to applied breeding and life-science projects, and work with genomic data and lab/field methods in academic or commercial settings.
Key modules and learning outcomes
Program requirements (concise)
Applicants should hold an undergraduate degree in a related life-science discipline, with demonstrable coursework or specialization in genetics, zoology, or botany. Academic performance must meet the programme’s quantitative standard as measured by the ECTS grading system (minimum of B-). This requirement ensures you have the foundational knowledge needed for advanced study in agri-genomics.
If you are applying from a country where a Master’s is a postgraduate qualification, an appropriate Bachelor’s degree is normally required—this includes an "honours" Bachelor’s in the UK, Canada, and much of the Commonwealth. Candidates who lack the exact degree background but have substantive, relevant professional experience may also be considered for admission. Note that completing a Master’s is commonly a prerequisite for later admission to doctoral (PhD) programmes.
Winter Semester (International)
15 April 2026
Winter Semester (EU/EEA)
15 April 2026
Graduates are prepared for roles in research institutes, agricultural biotechnology and breeding companies where genomic tools are used to improve crops and livestock. Typical positions include genomic data analyst, breeding program specialist, R&D scientist in agri- or biotech firms, and roles in agricultural consulting and policy that require genomic literacy.
The programme also provides a solid foundation for doctoral studies for those pursuing an academic career. The combination of practical laboratory experience, applied breeding knowledge and transferable ECTS credits supports mobility within European research and industry networks.