Rochester Institute of Technology

What you'll study

This interdisciplinary bachelor's blends traditional medical illustration techniques with informatics, data visualisation and interactive media. The curriculum typically begins with foundation courses in drawing, colour, visual design and digital imaging, alongside core life‑science subjects such as human anatomy, physiology and microbiology. As you progress, coursework shifts to specialised medical illustration topics and applied informatics:

• Observational drawing, figure and anatomical illustration
• Digital imaging, vector and raster graphics, and 3D modelling for medical visuals
• Medical and biological sciences: gross anatomy, histology, physiology and pathology
• Health informatics fundamentals: medical terminology, electronic health records concepts and standards
• Data visualisation and information design for healthcare audiences
• Animation and interactive media for patient education, surgical planning and e‑learning
• 3D printing, rapid prototyping and virtual/augmented reality applications in medicine
• Professional practice: ethics in biomedical illustration, legal considerations, and communication with clinical teams
• Capstone project or practicum that integrates illustration and informatics, often produced for a clinical partner or research group

Studio work, laboratory sessions and project‑based learning form the core of the programme, with an emphasis on building a professional portfolio and practical experience with industry standard software and fabrication tools.

Entry requirements

Applicants are expected to demonstrate both artistic aptitude and readiness for rigorous science coursework. Typical application elements include:

• A recognised secondary school qualification or equivalent; specific curricular prerequisites commonly include biology and mathematics.
• A portfolio of drawing and design work showing observational drawing, figure studies and digital work where available; schools typically assess quality and range rather than quantity.
• Evidence of academic preparation in science; some students may be asked to take foundational science modules if their background is limited.
• English language proficiency for non‑native speakers, demonstrated by an accepted test or other institutional evidence.
• Optional or required interview or review by faculty to discuss portfolio and career goals; transfer applicants may need to submit college transcripts and work samples.

RIT also values demonstrated interest in healthcare, research or technology and applicants from varied educational backgrounds who can combine artistic skill with scientific curiosity are encouraged to apply.

Career prospects

Graduates are prepared for a range of careers at the intersection of art, science and technology. Common pathways include:

• Medical illustrator or biomedical artist producing illustrations, animations and models for textbooks, journals, medical device manufacturers and patient education materials
• Medical visualisation specialist creating 3D models, surgical guides and visual planning tools for clinical teams and hospitals
• Health informatics and UX roles focused on designing user interfaces, dashboards and data visualisations for electronic health records, telemedicine and clinical decision support
• Roles in medical education and e‑learning, developing interactive modules, simulation content and assessment materials
• Positions in biomedical publishing, pharmaceutical communications, medical device companies and research institutions
• Further study options include master's degrees in medical illustration, biomedical visualization, health informatics or related clinical and research disciplines

Students who complete practicum and co‑op placements often move directly into industry or clinical settings, and a strong portfolio typically drives hiring in this field.

Why study at Rochester Institute of Technology

RIT is well suited to this interdisciplinary programme because of its strong emphasis on applied learning, and its established strengths in art, design, science and technology. Students benefit from hands‑on studio instruction, dedicated imaging and prototyping facilities including 3D printing and digital fabrication labs, and access to advanced visualisation software.

The institution's cooperative education programme and industry connections provide opportunities for paid work placements and projects with clinical partners, medical publishers and technology firms. Collaborative ties across colleges—art and design, science, computing and engineering—allow students to combine creative practice with rigorous scientific training and informatics skills. Faculty practice in biomedical visualisation and partnerships with healthcare organisations help ensure student projects address real clinical needs and employers' expectations.

Overall, the programme is designed to produce practitioners who are both artistically accomplished and fluent in the technical and clinical aspects of modern medical communication and informatics.