Massachusetts Institute of Technology

What you'll study

The STS curriculum integrates humanities and social-scientific approaches with an attention to technical practice. Core topics include the history and philosophy of science and technology, technology and public policy, ethics of emerging technologies, and social-science methods for studying socio-technical systems. Students typically take classes in areas such as:

• History of Science and Technology — how technologies and scientific institutions have developed over time and shaped societies.
• Technology and Public Policy — policy analysis, regulation, and governance of technologies such as energy systems, biomedical technologies, and digital platforms.
• Ethics and Philosophy of Technology — normative questions about risk, responsibility, equity and human flourishing in technological contexts.
• Social-Scientific Methods — qualitative and quantitative research methods, including ethnography, interviews, archival research and data analysis.
• Economics and Innovation — the economics of innovation, industrial organisation, and the role of firms and markets in technological change.
• Design, Engineering and Practice — cross-disciplinary courses that connect STS perspectives with engineering design, human–computer interaction and lab practice.

The programme emphasises hands-on learning: students can engage in independent research projects, honours theses or a practicum, and frequently participate in MIT-wide opportunities such as the Undergraduate Research Opportunities Program (UROP), collaborative lab work and cross-disciplinary seminars with units like the Media Lab and the School of Engineering.

Entry requirements

Admission to MIT is highly competitive. Successful applicants for the STS major typically show a strong academic record across a broad high-school curriculum, including preparation in mathematics and the sciences complemented by humanities and social-science coursework. Evidence of analytical writing ability and critical thinking is important.

• Academic preparation: advanced coursework where available (for example calculus, physics, chemistry, and courses in humanities/social sciences).
• Work samples and essays: personal essays and academic writing that demonstrate interest in interdisciplinary study and the societal dimensions of technology.
• Recommendations: teacher or mentor references that speak to intellectual curiosity, research potential and collaboration skills.
• Supplementary experiences: internships, research projects, community or extracurricular activities related to technology, policy, ethics or history strengthen an application.

Applicants should consult MIT Admissions for up-to-date guidance on application components and any test-reporting policies.

Career prospects

Graduates with an STS degree move into a wide range of careers that bridge technical, policy and social domains. Common paths include:

• Public policy and government — roles in technology policy, regulatory agencies, and science advisory positions.
• Industry and product strategy — product management, ethics and policy teams at technology companies, strategy and innovation roles.
• Consulting and research — strategy consulting, think tanks, research institutes and non-profit organisations focused on technology governance.
• Design and human-centred technology — user experience, human–computer interaction, and responsible design teams that integrate social insights into engineering.
• Law, advocacy and ethics — further study or careers in technology law, privacy, intellectual property, and public-interest advocacy.
• Academia and further study — many graduates pursue master's or doctoral study in STS, public policy, law, or related fields.

The programme’s interdisciplinary training, research experience and connections across MIT’s labs and centres equip graduates to address complex socio-technical challenges in multiple sectors.

Why study at Massachusetts Institute of Technology

MIT provides a distinctive environment for STS studies because of its proximity to leading engineering, science and design laboratories, and its long-standing faculty expertise in the history, philosophy and social study of science and technology. Students benefit from cross-school collaboration, access to faculty active in technology policy and ethics, and plentiful hands-on research opportunities such as UROP placements.

The Institute’s culture of collaboration across disciplines makes it especially well suited to students who want to combine rigorous technical literacy with critical analysis of social, historical and policy dimensions of technology. STS majors can readily take elective courses in engineering, computer science, economics and management, and engage with centres and labs that tackle real-world technological challenges.