University of Arizona

What you'll study

The programme builds a strong foundation in core biotechnology disciplines before moving into subjects specifically relevant to human reproduction. Early years focus on general biology, general and organic chemistry, calculus, physics and introductory laboratory skills. Upper-division coursework typically includes:

• Molecular and Cellular Biology – gene expression, signal transduction, cell culture and techniques in molecular analysis.
• Reproductive Physiology and Endocrinology – male and female reproductive systems, hormonal regulation and reproductive cycles.
• Developmental Biology and Embryology – gametogenesis, fertilisation, early embryonic development and implantation biology.
• Assisted Reproductive Technologies (ART) – principles and laboratory methods used in IVF, gamete handling, embryo culture and cryopreservation (theory and supervised lab practice where available).
• Genetics and Genomics – human genetics, prenatal screening concepts, sequencing technologies and interpretation of genomic data.
• Laboratory Techniques and Quality Systems – sterile technique, microscopy, molecular assays (PCR, electrophoresis), laboratory documentation, quality control and regulatory considerations.
• Bioethics and Legal Issues – ethical frameworks, consent, privacy, and regulatory aspects relevant to reproductive medicine and clinical testing.
• Data Analysis and Biostatistics – experimental design, statistical analysis for biological data and basic bioinformatics.
• Capstone / Research Project or Internship – an independent research project or a placement in a research or clinical laboratory to develop practical skills and professional experience.

Structure

The degree is typically delivered over four years with general education and lower-division science requirements in the first two years, followed by upper-division biotechnology and reproductive-focused electives. Laboratory components and a final-year capstone or internship provide hands-on training and industry exposure.

Entry requirements

Typical admission expects a completed secondary education with strong performance in science and mathematics. Successful applicants usually present:

• High-school coursework including biology and chemistry; mathematics through algebra and preferably precalculus or calculus.
• Solid grades in STEM subjects and a competitive overall academic record.
• Evidence of laboratory experience or interest can strengthen an application (school labs, summer programmes, volunteering).
• Standardised test scores may be considered where required by the university; check the university's admissions guidance for current testing policies.
• International applicants must meet English language proficiency requirements.

Applicants interested in the human reproduction emphasis should be prepared to meet any programme-specific prerequisites and to seek advising early to plan specialised electives and laboratory placements.

Career prospects

Graduates are prepared for a range of roles in clinical, research and industry settings. Common career paths include:

• Laboratory technician or research assistant in reproductive biology, embryology or molecular diagnostics laboratories.
• Clinical embryologist roles in fertility clinics (many positions require additional certification or postgraduate training).
• Positions in biotech and pharmaceutical companies working on reproductive health products, contraceptives, or diagnostics.
• Quality assurance, regulatory affairs and laboratory management in clinical and commercial laboratories.
• Further professional training for careers as genetic counsellors, physicians (obstetrics, gynaecology or reproductive endocrinology) or academic researchers (via graduate programmes such as MSc/PhD).

Hands-on laboratory training, internship placements and an undergraduate research project help graduates demonstrate practical competence to employers and postgraduate programmes.

Why study at University of Arizona

The University of Arizona provides access to interdisciplinary biomedical research strengths and core laboratory infrastructure that support reproductive and developmental biology studies. Students benefit from:

• Collaborative research environments that bring together life-science departments and biomedical institutes, offering opportunities for undergraduate research alongside active investigators.
• Well-equipped teaching and research laboratories where students develop practical skills in cell culture, microscopy and molecular methods.
• Opportunities for clinical exposure and internships in local healthcare and fertility clinics to learn applied aspects of assisted reproductive technologies.
• Faculty with research expertise across reproductive physiology, developmental biology and translational biotechnology who supervise capstone projects and independent research.
• A curriculum designed to prepare students both for immediate entry-level laboratory positions and for continued study in graduate, medical or professional programmes.