National Taiwan University

What you'll study

This master’s programme balances compulsory core modules, elective specialist topics and an independent research thesis. Teaching covers the molecular and quantitative foundations of modern breeding together with practical breeding practice and computational analysis.

• Core topics: molecular genetics of crops, quantitative genetics, population genetics for breeders, plant breeding principles, experimental design and biostatistics.
• Genomics and bioinformatics: genome sequencing and assembly concepts, genome-wide association studies (GWAS), genomic selection and prediction, marker‑assisted selection, transcriptomics and functional genomics.
• Applied breeding and physiology: field breeding methods, phenotyping and high‑throughput phenomics, crop physiology and stress biology, seed technology and cultivar evaluation.
• Practical training: laboratory rotations or practicum in molecular labs, supervised work at NTU experimental farms and use of phenotyping platforms and long‑term field trials.
• Research and communication: journal clubs and seminar series, research methodology, scientific writing and a substantial thesis project supervised by faculty in the College of Bioresources and Agriculture or affiliated institutes.

Students typically combine taught coursework and research, gaining experience in experimental design, data analysis pipelines, field trial management and the development of breeding strategies informed by genomic data.

Entry requirements

Applicants are expected to hold a bachelor’s degree in plant science, agronomy, genetics, biology, biotechnology, bioinformatics or a closely related discipline. Admissions typically consider the following:

• Academic transcripts demonstrating strong performance in relevant subjects (genetics, molecular biology, statistics or crop science).
• A curriculum vitae highlighting laboratory or field experience and any research projects.
• A brief research statement or study plan outlining proposed areas of interest and potential supervisors.
• Two academic or professional references commenting on the applicant’s suitability for research training.
• Proof of language proficiency where required; programmes may accept international English tests or equivalent evidence of English ability, and some applicants may also provide Chinese language ability depending on the supervisor and course language.
• Shortlisted applicants may be invited to an interview or online discussion with potential supervisors.

Specific course prerequisites and documentation requirements should be confirmed with NTU’s admissions office and the relevant department or graduate institute.

Career prospects

Graduates of this programme are prepared for a range of roles across industry, government and academia where crop genetics and breeding expertise is required. Typical career paths include:

• Plant breeder or variety development scientist in seed companies and agricultural firms.
• Genomics data analyst, bioinformatician or quantitative geneticist supporting breeding programmes.
• Research scientist in public research institutes, extension services or national agricultural agencies.
• Product development roles in agri‑biotech and agri‑tech startups focusing on molecular breeding, precision agriculture or phenotyping technologies.
• Further academic study at the doctoral level leading to research and teaching careers in universities and research institutes.

Practical experience with field trials, genomic tools and statistical analysis provided by the programme enhances employability in both regional and international agricultural contexts.

Why study at National Taiwan University

National Taiwan University offers strong research capacity in crop science, plant genetics and biotechnology within its College of Bioresources and Agriculture. Students benefit from access to experimental farms, germplasm collections and modern molecular and phenotyping facilities, as well as opportunities to work on subtropical crop systems that are relevant to regional food security and global adaptation to climate variability.

The university maintains collaborations with national research institutes, industry partners and international groups, providing placement and joint‑research opportunities. Supervision from faculty with expertise across molecular genetics, quantitative breeding and applied agronomy ensures an integrated training environment for students aiming to develop the next generation of improved crop varieties and breeding technologies.