

The Bachelor of Science in Applied Physics provides a rigorous scientific framework for understanding how physical principles can be used to solve complex technological and engineering challenges. Students explore mechanics, electromagnetism, optics, thermodynamics, and quantum phenomena while learning how these concepts translate into practical applications across modern industries. Through laboratory work, mathematical modeling, and computational analysis, learners develop strong analytical tools that support the investigation of real-world physical systems. This comprehensive foundation strengthens quantitative reasoning, experimental precision, theoretical understanding, and analytical depth, preparing students to approach scientific problems with clarity and confidence.
Over the four-year curriculum, students engage with advanced topics such as materials science, semiconductor physics, instrumentation, nanotechnology, and applied electromagnetics. The program emphasizes the connection between fundamental theory and technological innovation, allowing learners to explore how physical laws guide the design of devices, sensors, renewable energy systems, and emerging technologies. Through research projects, laboratory-intensive courses, and interdisciplinary collaboration, students refine their ability to analyze data, evaluate scientific models, and develop practical solutions. This sustained academic engagement fosters methodological rigor, computational competence, scientific insight, and research capability, equipping graduates to contribute to both academic research and industry-driven applications.
Year 1 – Foundations of Physics and Applied Science
· Calculus I and II
· Introductory Physics (Mechanics, Waves, Thermodynamics)
· Laboratory Techniques in Applied Science
· Scientific Computing Fundamentals
Year 2 – Core Physics and Analytical Methods
· Electromagnetism I
· Modern Physics
· Differential Equations and Linear Algebra
· Experimental Methods in Physics
Year 3 – Advanced Applied Physics
· Quantum Mechanics or Solid-State Physics
· Optics and Photonics
· Materials Science and Engineering Applications
· Independent Study / Applied Research Project
Year 4 – Thesis & Professional Preparation
· Senior Thesis / Applied Physics Research
· Advanced Seminar in Applied Physical Science
· Computational Modeling or Advanced Instrumentation
· Academic Portfolio & Professional Presentation Skills
Graduates of this program are prepared for a wide spectrum of careers where analytical accuracy, scientific reasoning, and technical problem-solving are essential. Many take on roles in research laboratories, engineering firms, technology companies, and energy or materials science industries, contributing to device development, experimental testing, system optimization, and scientific modeling. Additional opportunities arise in aerospace, medical technology, defense, renewable energy, and data-driven analytics, where applied physics supports innovation and system improvement. With training in computational methods, experimental design, and advanced physical theory, graduates are equipped to collaborate with interdisciplinary teams, evaluate scientific evidence, and apply physics-based solutions to real-world technological needs. Their ability to combine theoretical insight with practical engineering thinking positions them for impactful roles across scientific and industrial environments.
This program is ideal for students seeking a curriculum rooted in comprehensive applied physical science, offering a structured progression from foundational physics to advanced technological applications. Over four years, learners develop strong mathematical fluency, laboratory expertise, and computational skills through research projects, seminars, and hands-on experimentation. The program supports industry-relevant expertise that prepares students for careers in high-technology sectors, engineering fields, or graduate study in applied physics and related disciplines. With its emphasis on scientific precision, interdisciplinary exploration, and problem-solving rigor, the curriculum cultivates strong scientific judgment, enabling graduates to innovate, analyze, and contribute meaningfully to the evolving landscape of physics-based technology.
For further information, please contact the admissions office at:
Phone: +1 203 432 2300
Email: admissions@yale.edu
Address: University of Yale, New Haven, CT 06520, United States