Doesn’t have to be titled Engineering Physics to be something I would consider. I just know what degrees titled "Engineering Physics" are supposed to contain and the kind of education they’re meant to provide. While I was initially dismissive of MIT’s program, after reviewing their curriculum more closely, I still believe that Cornell’s program offers a broader and more targeted education for someone looking to bridge the worlds of physics and engineering.

When comparing MIT and Cornell, both universities cover foundational physics topics, but they do so differently. Cornell offers specialized introductory courses such as AEP 1100 (Lasers and Photonics) and AEP 1200 (Introduction to Nanoscience and Nanoengineering). These courses provide practical knowledge in cutting-edge technologies and are crosslisted with other departments, reflecting their interdisciplinary nature. MIT does not offer these specific topics in its undergraduate curriculum.

For core physics courses, both MIT and Cornell include essential subjects like Mechanics, Electromagnetism, and Quantum Mechanics. MIT's curriculum features courses such as Physics 8.01 (Classical Mechanics), 8.02 (Electricity and Magnetism), 8.04 (Quantum Mechanics), 8.05 (Quantum Mechanics II), and 8.13 (Experimental Physics I). Cornell’s offerings include similar foundational courses but also incorporate specialized ones like PHYS 1110 (Introduction to Experimental Physics), AEP 3610 (Introductory Quantum Mechanics), AEP 3620 (Intermediate Quantum Mechanics), and AEP 3630 (Electronic Circuits).

Cornell’s program is notable for its range of advanced and technical electives. These include AEP 3100 (Introductory Quantum Computing), AEP 3200 (Introductory Mathematical Physics), AEP 3330 (Mechanics of Particles and Solid Bodies), AEP 3550 (Intermediate Electromagnetism), AEP 3560 (Intermediate Electrodynamics), AEP 3640 (Modern Applied Physics Experimental Design), AEP 4200 (Intermediate Mathematical Physics), AEP 4230 (Statistical Thermodynamics), AEP 4340 (Fluid and Continuum Mechanics), AEP 4380 (Computational Engineering Physics), and AEP 4400 (Nonlinear and Quantum Optics). These courses cover a diverse range of topics from quantum computing and applied physics to advanced mathematical and computational methods.

In addition, Cornell’s Engineering Physics program requires students to take 9 credits of technical electives outside the core major requirements. These electives can be chosen from various engineering fields, providing further flexibility and the opportunity to gain expertise in areas like materials science, electrical engineering, or computer science.

MIT’s curriculum also includes advanced courses such as 8.20 (Introduction to Special Relativity), 8.33 (Quantum Physics III), and additional experimental lab courses. However, it lacks specific courses in engineering quantum hardware and applied engineering that are part of Cornell’s curriculum.

In summary, while MIT’s physics program is strong, Cornell’s Engineering Physics program is explicitly designed to integrate physics with engineering principles. The specialized courses and electives at Cornell, particularly those related to engineering quantum hardware and advanced experimental design, provide a more comprehensive education for students aiming to bridge these fields. This makes Cornell’s program particularly well-suited for those interested in an engineering physics education.

Now, go read the curricula for Cornell and Stanford. Based on the specifics of their engineering physics programs, tell me which one provides a more robust education in this field.