Massachusetts Institute of Technology

What you'll study

The programme builds a core grounding in mathematics, chemistry, physics and biology before moving into specialised topics that link environmental systems to human health. Typical modules include environmental chemistry, toxicology and exposure science, environmental microbiology, transport and fate of contaminants, air and water quality engineering, epidemiology and quantitative risk assessment. Coursework emphasises quantitative methods — statistics, modelling and instrumentation — and students routinely take laboratory classes and field-based courses to collect and analyse environmental and biological samples.

Instruction is interdisciplinary and may include project-based subjects that draw on civil and environmental engineering, biological sciences, public health and policy. Students often participate in team design experiences, case studies in environmental health policy, and a research project or capstone that applies measurement, modelling or intervention approaches to real-world problems.

Entry requirements

Successful applicants typically demonstrate strong achievement in high-school mathematics (including calculus where available), chemistry and biology, together with solid grounding in physics. Admissions decisions at MIT take a holistic view, so competitive candidates also show evidence of sustained interest in environmental or health topics via laboratory or field experience, science competitions, relevant extracurricular activities or independent research. Strong letters of recommendation and a clear personal statement that explains motivation and fit with the programme are important.

Career prospects

Graduates enter a wide range of roles that bridge environmental systems and public health. Common career paths include environmental and occupational health practitioner roles in public agencies, environmental consulting focused on assessment and remediation, laboratory-based analytical roles, exposure science and risk assessment positions, and roles in industry compliance and sustainability. Many graduates continue to specialised graduate training — for example in public health (MPH), environmental engineering, toxicology or epidemiology — or pursue research careers leading to master's or doctoral degrees.

Why study at Massachusetts Institute of Technology

MIT offers a highly quantitative, engineering-oriented approach to environmental health problems, with access to state-of-the-art laboratories, environmental sensor platforms and computational resources. The Institute’s culture of cross-department collaboration gives students opportunities to work with civil and environmental engineering, biological engineering, chemistry, the School of Architecture and Planning and public health partners. Undergraduate research opportunities and industry partnerships provide practical experience, while project-based learning and entrepreneurial support help translate technical work into policy and technological solutions.