You are still mainly describing fundamental physics and cosmology, with superconducting tacked on.
But there's been tons of advances in experimental physics, biophysics, quantum sensing, condensed matter, topological materials, computational methods especially tensor networks like DMRG, quantum information, astrophysics, and probably many more I'm forgetting.
There's really not that much need for a sea change except for the areas you mention that get a lot of attention.
I know a lot of current physics are being built on QM, because it is a solid foundation with tons to explore. Just because interpretations of QM is hard to probe doesn't mean there's not a ridiculous amount of applications to progress through.
Comments
You are still mainly describing fundamental physics and cosmology, with superconducting tacked on.
But there's been tons of advances in experimental physics, biophysics, quantum sensing, condensed matter, topological materials, computational methods especially tensor networks like DMRG, quantum information, astrophysics, and probably many more I'm forgetting.
There's really not that much need for a sea change except for the areas you mention that get a lot of attention.
I know a lot of current physics are being built on QM, because it is a solid foundation with tons to explore. Just because interpretations of QM is hard to probe doesn't mean there's not a ridiculous amount of applications to progress through.