B.S. in Physics with research in astrophysics

4 Years On Campus Bachelors Program

University at Buffalo SUNY

Program Overview

The B.S. in Physics at the University at Buffalo (SUNY) is a rigorous, on-campus program that provides a strong foundation in physics, mathematics, and technical skills. The curriculum is designed for students interested in professional physics careers or graduate study, with the flexibility to focus on research and electives in astrophysics. Students gain hands-on research experience, culminating in a senior thesis under faculty supervision.

Curriculum Structure:

  • Year 1: Begin with foundational courses such as PHY 107 General Physics I, PHY 108 General Physics II, MTH 141 College Calculus I, and MTH 142 College Calculus II.

  • Year 2: Advance to PHY 207 General Physics III, PHY 208 General Physics IV, MTH 241 College Calculus III, MTH 306 Introduction to Differential Equations, and introductory laboratory or computational courses.

  • Year 3: Deepen your understanding with upper-level courses such as PHY 301 Intermediate Mechanics, PHY 309 Intermediate Laboratory, PHY 405 Electromagnetic Theory I, PHY 401 Quantum Mechanics I, PHY 411 Thermal Physics, and PHY 410 Advanced Laboratory. Select electives in physics, mathematics, or engineering (300-level or above).

  • Year 4: Complete advanced modules including PHY 402 Quantum Mechanics II, PHY 406 Electromagnetic Theory II, and PHY 497 Senior Thesis (research project under faculty supervision, with the option to focus on astrophysics). Choose two additional PHY electives (6 credits) and one technical elective (3 credits) in physics, another science, engineering, or mathematics (300-level or above). Advanced electives in astrophysics or related fields are available as approved.

Focus areas: The program covers classical and modern physics, advanced mathematics, computational methods, and experimental techniques. Students interested in astrophysics can pursue relevant electives and conduct research in this area for their senior thesis.

Learning outcomes: Graduates will be able to apply fundamental and advanced physics concepts to solve complex problems, design and conduct experiments, analyse scientific data, and communicate research findings effectively. The program prepares students for graduate study or technical roles in research, education, industry, and astrophysics.

Professional alignment (accreditation): The curriculum is structured to prepare students for graduate programs (MS/PhD) in physics or related fields, aligning with professional and research standards in the discipline.

Reputation: The University at Buffalo’s physics program is recognised for strong student preparation for graduate study and scientific careers. Graduates often continue to top graduate programs or secure positions in research, education, and industry.

Experiential Learning (Research, Projects, Internships etc.)

You’ll be immersed in a vibrant research environment with direct access to advanced facilities and expert faculty in cosmology, high-energy physics, and astrophysics. You’ll have the opportunity to join active research groups, utilise high-performance computational resources, and contribute to national and international scientific projects from your undergraduate years.

Here’s what you can expect in terms of specific facilities and experiential learning:

  • Centre for Computational Research (CCR): Access one of the most powerful academic supercomputing centres in the U.S. for astrophysics simulations, big data analysis, and scientific programming, supporting projects in cosmology and high-energy physics.

  • HEPCAT Research Group: Join the High-Energy Physics, Cosmology, and Astrophysics Theory (HEPCAT) group, which typically involves 5–10 undergraduates per semester in research on fundamental forces, cosmological models, and the structure of the universe.

  • Physics Research Laboratories: Participate in interdisciplinary research in cosmology, high-energy physics, and complex systems within state-of-the-art departmental labs, working on both experimental and theoretical astrophysics projects.

  • Faculty-Led National Collaborations: Contribute to large-scale experiments such as the D0 experiment at Fermilab and CMS at CERN, including work on detector hardware, software development (e.g., jet reconstruction), and physics analysis related to Higgs boson searches and particle interactions.

  • Small Class Sizes and Mentorship: Benefit from small upper-level classes and close faculty mentorship, allowing for personalised research guidance and direct involvement in ongoing projects.

  • Undergraduate Research Opportunities: Get involved in research as early as your undergraduate years, often leading to presentations, publications, or competitive fellowships.

Progression & Future Opportunities

Graduates of the University at Buffalo (SUNY)’s B.S. in Physics with research in astrophysics are prepared for professional careers in physics, astronomy, and related scientific and technical fields. Alumni move into research, education, industry, and graduate programs at top universities. Here’s how UB supports your career progression and opportunities:

  • Personalised Academic and Research Support: Students receive mentoring from faculty engaged in cutting-edge research in cosmology, high-energy physics, and astrophysics, with opportunities to participate in interdisciplinary research projects. The department encourages undergraduate study, including hands-on work in labs and with computational methods relevant to astrophysics and cosmology. UB’s Physics Club and departmental events foster networking, career development, and exposure to current research.

  • Strong Employment and Graduate Outcomes: About 75% of UB physics undergraduates go on to graduate school, with many accepted to top programs at institutions like Princeton, Cornell, MIT, and the University of Chicago. Graduates are prepared for careers in research at universities or national labs (such as Brookhaven or Argonne), teaching at the secondary or college level, and technical roles in industries like computing, aerospace, and electronics. The program’s rigorous curriculum develops critical understanding of fundamental physics, advanced mathematical skills, and experience with contemporary research questions.

  • Industry & Research Partnerships: Students have access to research opportunities with national laboratories and can participate in collaborative projects in high-energy physics, cosmology, and astrophysics. The department maintains strong ties with the broader scientific community, supporting internships and summer research placements.

  • Accreditation & Lasting Value: The University at Buffalo is regionally accredited and recognised as the largest and most comprehensive research university in the SUNY system. The Department of Physics is nationally respected for its research output and educational quality.

  • Graduate Outcomes: UB graduates develop expertise in physics, astrophysics, data analysis, and scientific communication, preparing them for both immediate employment and further academic pursuits.

Further Academic Progression: After earning your B.S. in Physics with research in astrophysics at UB, you’ll be ready to pursue a master’s in physics, astronomy, astrophysics, or related fields—leading to advanced research, university teaching, or technical leadership roles at observatories, research institutions, and space agencies.

Program Key Stats

$27,670
$ 50
Aug Intake : RD 1st Feb EA/ED 1st Nov


59 %
No
Yes

Eligibility Criteria

AAB - ABB
3.5 - 4.0
32 - 36
80 - 90

1210 - 1380
27 - 32
6.0
70

Additional Information & Requirements

Career Options

  • Physicist
  • Astronomer
  • Research Scientist
  • Data Analyst
  • Observatory Technician
  • Science Communicator
  • Physics Teacher
  • Scientific Writer
  • Aerospace Industry Specialist
  • Technical Analyst

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