So uh, things are not looking so good for actual physics these days, I gather?
With astrophysics, we're probably going to need the more sensitive gravitational wave detectors that are in development to become operational for new big breakthroughs. With high energy physics, many particle colliders and synchrotron light sources seem to be undergoing major upgrades these days. While particle colliders tend to get the spotlight in the public eye and are in a weird spot regarding the expected research outcomes, light sources are still doing pretty well afaik.
This Nobel I think is mainly because AI has overwhelmingly dominated the public's perception of scientific/technological progress this year.
AFAIK synchrotron light sources are tools for materials science and other applied fields, not high energy physics. Did I miss something?
I am also puzzled by the "many particle colliders". There is currently only one capable of operating at the high energy frontier. It's getting a luminosity upgrade [1] which will increase the number of events, but those will still be the 14 TeV proton-proton collisions it's been producing for years. There is some hope that collecting more statistics will reveal something currently hidden in the background noise, but I wouldn't bet on it.
[1] https://home.cern/science/accelerators/high-luminosity-lhc
When you put it like that, yeah, I was kinda being stupid. During my stint doing research at a synchrotron light source I was constantly told to focus on thinking like a physicist (rather than as a computer engineer) and most of the work of everyone who wasn't a beamline scientist was primarily physics focused, which is what led me to think that way. But you're right in that it might not make much sense for me to say that makes them high energy physics research tools first.
>I am also puzzled by the "many particle colliders". There is currently only one capable of operating at the high energy frontier. It's getting a luminosity upgrade [1] which will increase the number of events, but those will still be the 14 TeV proton-proton collisions it's been producing for years. There is some hope that collecting more statistics will reveal something currently hidden in the background noise, but I wouldn't bet on it.
The RHIC is also in the process of being upgraded to the EIC. But overall, yes, that's why I said they were in a 'weird' spot. I too am not convinced that the upgrades will offer Nobel-tier breakthroughs.
Oh and the death of string theory!
Edit: Expanded a few times.
"theoretical physics" is such a big and ambiguous concept that physicists tend not to use the word in discussions. Thereotical work often involves a lot of numerical simulation on super computers these days which are kind of their own "experiments". And it is usually more productive to just mention the specific field, e.g. astronomy, condensed matter, AMO etc, and you can be sure there is always a lot of discoveries in each area.