Careers in NAMs
Explore growing career opportunities in human-relevant research—from organ-on-chip engineering to computational toxicology and regulatory science
Career Paths in NAMs
Growing opportunities across the field
Organ-on-Chip Engineer
Design and develop microfluidic devices that mimic human organ function. Combines engineering, biology, and materials science.
- ✓ Microfluidics design
- ✓ Cell culture expertise
- ✓ CAD and fabrication
iPSC/Stem Cell Scientist
Develop and differentiate induced pluripotent stem cells into various cell types for drug testing and disease modeling.
- ✓ Stem cell culture
- ✓ Differentiation protocols
- ✓ Quality control
Computational Toxicologist
Use AI, machine learning, and QSAR models to predict drug safety and toxicity from molecular structures.
- ✓ Python/R programming
- ✓ Machine learning
- ✓ Toxicology knowledge
3D Bioprinting Specialist
Operate bioprinters and develop bioinks to create complex tissue structures for research and testing.
- ✓ Bioprinter operation
- ✓ Biomaterials knowledge
- ✓ Tissue engineering
NAMs Regulatory Scientist
Navigate regulatory pathways for NAMs acceptance. Help companies gain approval for alternative methods.
- ✓ FDA/EMA regulations
- ✓ Validation methods
- ✓ Scientific communication
Organoid Researcher
Culture and study organoids—miniature organ structures grown from stem cells for disease research and drug testing.
- ✓ 3D culture techniques
- ✓ Imaging and analysis
- ✓ Disease modeling
Pharmaceutical Companies
Drug discovery and safety testing using in-house NAMs platforms
Biotech Startups
Developing new NAMs technologies and commercial platforms
Contract Research Orgs
Providing NAMs testing services to pharma clients
Academic Research
Universities developing next-generation methods
Regulatory Agencies
FDA, EMA reviewing and validating new methods
Cosmetics Industry
Animal-free safety testing (EU ban compliance)
Getting Started
Pathways into NAMs careers
Undergraduate Foundation
Biomedical engineering, biology, chemistry, or computer science provide strong foundations. Look for programs with tissue engineering or computational biology tracks.
Graduate Specialization
MS or PhD programs in tissue engineering, computational toxicology, stem cell biology, or bioengineering offer specialized training in NAMs technologies.
Industry Training
Many companies offer training on their specific platforms. Certifications in GLP, regulatory affairs, and specific technologies add value.
Continuing Education
Professional organizations offer workshops on emerging methods. Stay current as the field evolves rapidly with new technologies.
Gain wet lab experience — Cell culture, organoid culture, and microfluidics skills are in high demand
Learn computational tools — Python, R, and data analysis skills complement bench work
Understand regulations — Knowledge of FDA, EMA, and OECD guidelines is valuable
Network at conferences — SOT, ISSCR, and MPS World Summit connect you with the field
Consider startups — Many innovative NAMs companies are early-stage with growth opportunities
Stay interdisciplinary — The best NAMs scientists bridge biology, engineering, and computation