Massachusetts Institute of Technology

What you'll study

The programme blends core foundation modules with specialist electives and a substantial research project or thesis. Core topics typically include mineralogy and petrology, structural geology and tectonics, sedimentology and stratigraphy, geochemistry, and geophysics. Students also take quantitative courses in applied mathematics, numerical modelling and statistics to support data-driven investigation.

• Laboratory and analytical methods: microscopy, geochemical analyses (e.g. mass spectrometry), isotope systems, and sample preparation techniques.
• Computational and field skills: numerical modelling of geodynamic and surface processes, GIS and remote sensing, field mapping and stratigraphic logging.
• Specialist electives: climate science and paleoclimatology, planetary geology, hydrogeology, environmental geochemistry, seismology and rock mechanics.
• Research thesis: independent, faculty-supervised research project culminating in a written thesis and oral presentation; projects span laboratory, computational, observational and field-based studies.

Students often tailor study plans to reflect interests in areas such as crustal dynamics, surface processes, climate–earth interactions, resource geology, and planetary materials. Interdisciplinary options are available through collaborations with departments and centres across MIT.

Entry requirements

Applicants are expected to hold a good undergraduate degree in geology, earth sciences, physics, chemistry, engineering, or a closely related quantitative discipline. Strong preparation in calculus, differential equations, linear algebra, and basic programming is highly desirable.

• Academic transcripts demonstrating relevant coursework and performance.
• A personal statement describing research interests, relevant experience (including field or lab work) and career goals.
• Letters of recommendation from academic or professional referees who can speak to research potential and quantitative skills.
• A curriculum vitae highlighting research, fieldwork, technical skills and publications or presentations where applicable.

Standardised test requirements and other administrative details vary; applicants should consult the department admissions pages for current guidance. Research experience and a clear fit with potential faculty advisers strengthen applications.

Career prospects

Graduates pursue a range of pathways. Many continue to doctoral programmes and academic research, while others move directly into technical roles in industry, government and the non-profit sector.

• Academia and research institutions: PhD study, postdoctoral research, and university research positions.
• Energy, mining and natural resources: exploration geology, reservoir characterisation, geomechanics and resource evaluation.
• Environmental and engineering consulting: site characterisation, remediation, hydrogeology and geotechnical services.
• Government and civil agencies: geological surveys, hazard assessment, climate and environmental monitoring.
• Planetary and space science: instrument development, mission science, and analysis of extraterrestrial materials.
• Data science and technology: quantitative geoscience, remote sensing, and modelling roles that leverage programming and machine-learning skills.

Why study at Massachusetts Institute of Technology

MIT’s Department of Earth, Atmospheric and Planetary Sciences is distinguished by its interdisciplinary approach, combining field geology, laboratory analysis and state-of-the-art computational methods. Students benefit from mentorship by internationally recognised faculty, access to advanced instrumentation and computational resources, and strong ties to research centres and collaborators across campus and beyond.

Opportunities for cross-department collaboration allow students to integrate insights from climate science, materials science, planetary science and engineering. Field programmes, lab-based projects and partnerships with external institutions provide real-world research contexts and enhance employability in both academic and applied careers.