Programs Where did all the “fundamentals-deepening” master’s programs go?

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European theoretical and mathematical physics MSc programs are increasingly focused on research-oriented topics rather than deepening fundamental knowledge. Advanced fundamental courses like Electrodynamics II and Classical Mechanics II are often absent, as curricula prioritize cutting-edge subjects for dissertations. This shift has pushed foundational topics into upper-level undergraduate courses, leaving little room for in-depth exploration at the master's level. Some students suggest independent studies with professors as a way to cover these gaps. Overall, the structure of current programs emphasizes preparation for research rather than a comprehensive understanding of fundamental principles.
ScipioAustrianus
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I’ve been looking through the curricula of several European theoretical/mathematical physics MSc programs (ETH, Oxford, Cambridge, LMU, ENS Paris, etc), and I’m struck by how little emphasis they place on advanced fundamental courses.


Nearly everything seems to be research-adjacent: string theory, quantum field theory, quantum optics, cosmology, soft matter physics, black hole radiation, etc. What I don’t see are the kinds of “second-pass fundamentals” I was hoping for, things like:


  • Electrodynamics II
  • Classical Mechanics II (Hamiltonian/Lagrangian, rigid body theory)
  • Analytical Mechanics
  • Continuum/Fluid Mechanics
  • Advanced Statistical Mechanics

When my father studied engineering, it was normal during the master’s-equivalent stage to revisit these subjects in depth. Today, though, physics MSc curricula seem designed almost entirely as research pipelines rather than as a deepening of fundamentals.


So my question is: are there still master’s programs in physics (or closely related fields) that function as a “bachelor’s deepening"?
 
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Yes this true. The fundamentals have been pushed into upper level undergrad to make space for cutting topics needed for dissertations.

If you needed it you could do an independent study one on one with a prof.
 
As @jedishrfu mentioned, those courses are often offered at the undergraduate level as part of bachelor's degrees.
 
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jedishrfu said:
Yes this true. The fundamentals have been pushed into upper level undergrad to make space for cutting topics needed for dissertations.

If you needed it you could do an independent study one on one with a prof.
My Bachelor program works in the following way:
A subject like electrodynamics will first be treated in an "experimental" course, and then a "theoretical" course. The first spin with the subject will have some math and a couple of derivations, but the focus will be on handwaving and cramming experimental facts. The second theoretical spin will focus entirely on the mathematics and the theoretical part. The thing is, this theoretical course is in no way a complete treatment of the subject at hand. I for example know how to compute some simple Lagrangians and Hamiltonians, but I have no real idea what they mean, I've never seen a theoretical treatment of a disippative Hamiltonian or even a velocity dependent force, I can't tell you what a Legendre transform really is, etc. I would not describe these as personal failures, this is part of the structure of the theoretical course, which is why would imagine that there has to be some second theoretical course.

I do not know if this is a thing specific to my university though.
 
In every subject, at every level, the curriculum is designed to cover what is needed to succeed at the next level.
 
ScipioAustrianus said:
I’ve been looking through the curricula of several European theoretical/mathematical physics MSc programs (ETH, Oxford, Cambridge, LMU, ENS Paris, etc), and I’m struck by how little emphasis they place on advanced fundamental courses.


Nearly everything seems to be research-adjacent: string theory, quantum field theory, quantum optics, cosmology, soft matter physics, black hole radiation, etc. What I don’t see are the kinds of “second-pass fundamentals” I was hoping for, things like:


  • Electrodynamics II
  • Classical Mechanics II (Hamiltonian/Lagrangian, rigid body theory)
  • Analytical Mechanics
  • Continuum/Fluid Mechanics
  • Advanced Statistical Mechanics

When my father studied engineering, it was normal during the master’s-equivalent stage to revisit these subjects in depth. Today, though, physics MSc curricula seem designed almost entirely as research pipelines rather than as a deepening of fundamentals.


So my question is: are there still master’s programs in physics (or closely related fields) that function as a “bachelor’s deepening"?
If graduate-level courses for the fundamentals are a high priority for you, you might want to consider a PhD program in the US. Here we typically have a 4-yr bachelor's in which we make at least one round of fundamentals; and often a second round; also specialized electives. We typically do not get a separate master's prior to entering a PhD program. We apply directly for a PhD program. The first two years we take fundamentals at the graduate level; also specialized electives. Required fundamentals vary by school, but typically include classical mechanics, E&M, quantum mechanics, thermo & stat mech, mathematical methods, and special relativity. I'm not sure what you mean by analytical mechanics, and fluid mechanics is often a specialized elective, rather than a fundamental (again, varies with school). Here we often have to pass a qualifying exam covering fundamentals (at some schools, this is on the advanced undergrad level; at other schools, this is on the grad level) before we are allowed to proceed to a research thesis.
 
I graduated with a BSc in Physics in 2020. Since there were limited opportunities in my country (mostly teaching), I decided to improve my programming skills and began working in IT, first as a software engineer and later as a quality assurance engineer, where I’ve now spent about 3 years. While this career path has provided financial stability, I’ve realized that my excitement and passion aren’t really there, unlike what I felt when studying or doing research in physics. Working in IT...
I have a specialization in condensed matter physics and materials physics, and off-late, I have been seeing a lot of research directions moving towards quantum computing (AMO and non-linear optics) and the huge chunk of quantum materials research (and funding) is dedicated towards QIS and QC research. I am wondering (sort of in a dilemma), if I should consider switching my field? I am currently at the stage of a postdoc.
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