The Bachelor of Science in Physical Sciences at Rochester Institute of Technology is an interdisciplinary programme that builds strong foundations in physics, chemistry and mathematics while allowing specialisation through elective tracks and laboratory experience. It suits students who want broad scientific training with practical laboratory skills and opportunities to apply science in industry, research or further study.
What you'll study
This flexible bachelor programme provides a rigorous grounding in core physical science disciplines — classical and modern physics, general and analytical chemistry, and calculus-based mathematics — alongside laboratory practice and computational methods. The curriculum typically combines required core courses, laboratory sequences, and a range of electives that let you tailor the degree to particular interests such as materials science, environmental science, geoscience, astro/space science or instrumentation.
- Core topics: mechanics, electromagnetism, thermodynamics, quantum concepts, general and physical chemistry, calculus, linear algebra and differential equations.
- Laboratory and practical skills: multi-semester lab courses, experimental design, measurement and data analysis, instrumentation and safety, and research methods.
- Computational and quantitative methods: scientific programming, numerical modelling, statistics, data analysis and use of software tools common in physical science research.
- Electives and specialisation: materials and solid-state physics, atmospheric and environmental science, geophysics, planetary science, spectroscopy, nanotechnology, and physical chemistry electives.
- Capstone, research and experiential learning: options typically include an independent research project, senior capstone, or participation in RIT’s cooperative education (co-op) programme or internships with industry and research laboratories.
Entry requirements
Admission to the Bachelor of Science in Physical Sciences requires completion of an accredited secondary school qualification or equivalent. Successful applicants normally present a strong background in mathematics and laboratory science. Typical evidence includes:
- High school diploma with successful completion of higher-level mathematics (for example, calculus or precalculus) and one or more laboratory sciences (physics and/or chemistry).
- Competitive academic record (strong grades in STEM subjects); standardised test scores may be considered where submitted but policies vary — check the institution’s admissions guidance.
- International applicants must demonstrate the equivalent secondary qualification and meet English language proficiency requirements through recognised tests or approved exemptions.
- Some applicants strengthen their application with relevant extracurricular experience (science clubs, research projects, internships) or letters of recommendation describing academic potential.
Career prospects
Graduates with a BSc in Physical Sciences are prepared for a wide range of technical and scientific careers or for further study. Common pathways include:
- Research assistant or laboratory technician roles in academic, industrial or government laboratories.
- Positions in materials science, quality control, product development and technical support within manufacturing and engineering firms.
- Environmental monitoring, geoscience technician roles, or work in energy and atmospheric science sectors.
- Data analysis, modelling and technical consulting where quantitative and computational skills are valued.
- Entry to graduate programmes in physics, chemistry, materials science, environmental science, engineering or applied mathematics, and professional careers in education or patent and technical law (usually requiring additional training or certification).
Why study at Rochester Institute of Technology
RIT offers a practical, career-focused environment with strong emphasis on experiential learning. The institute’s cooperative education network and internship partnerships give students extended, paid industry experience that integrates with the academic programme. Facilities include advanced teaching and research laboratories, instrumentation suites and computing resources that support hands-on experimental and computational work.
Students benefit from interdisciplinary collaboration across departments, access to faculty active in research, and support services such as career development and academic advising that help translate classroom learning into career outcomes or preparation for graduate study.
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