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it would require kernel developers to be savvy in both C and Rust
From my experience knowing how both C and rust works makes you a better developer in both languages.
it would require kernel developers to be savvy in both C and Rust
From my experience knowing how both C and rust works makes you a better developer in both languages.
Did somebody say “provably correct”?
Haskell has entered the chat
None! My comment may be misunderstood.
If you’re of my generation you kind of grew up being told fusion energy was the holy grail of energy production as it’s clean and doesn’t produce a bunch of radioactive byproduct. (Stuff like SimCity etc. made fusion reactors seem like a miracle technology)
In reality fusion also produces a massive amount of radiation and radiative byproducts, so it’s not the holy grail of energy that I think most people might assume it is.
Fusion and Fission are two sides of the same coin, so fusion experiments are important because they aid in making fission reactors safe as well!
I’m especially looking forward to seeing how material scientists attempt to solve the massive fast neutron radiation that fusion reactors produce, as Thorium reactors have the same issue.
The primary issue is that deuterium-deuterium reactions (the only practical fusion process that seems to work is deuterium-tritium and deuterium-helium, as you need insane temperatures for proton-boron, so in any realistic reactor deuterium will end up reacting with itself) produce 3 times the radiation of equivalent power output from fission reactions, so you need MASSIVE amounts of shielding for a reactor to run for an extended period of time.
This also highly irradiates the materials inside the reactors themselves, to a degree that maintenance requires built-in robots because the inside of the reactor is too radioactive for humans (this also eventually destroys the robots). The most optimistic estimates for how long a reactor could possibly last is 100 years. At that point the entire reactor would need to be torn down and buried because most of the components would be too radioactive to use anymore. At which point you have the exact same issue as radioactive waste storage, but no recycling process for something crazy like a radioactive isotope of silicon.
However! That’s why these experiments are important! As every advancement they make towards making fusion safe, also makes fission safer, as they’re two sides of the same coin.
And America is taking everyone with them.
Yea one of the most interesting applications of fusion reactor research is the requirements in advancements for material science also benefits fission and even solar power generation, so the research bears fruit well and above the stated goals.
This is cool but also remember the practicalities of Fusion make it not much better than nuclear:
There’s lots of developers contributing to the wifi drivers, there’s just no “lead maintainer” now
and I see it when I’m forced to write fucking YAML for fucking Ansible. I let the GPTs do that for me, without worrying that I won’t learn to code YAML for Ansible. Coding YAML for Ansible is NEVER going to be on my list of things I want to remember.
Feels like this is the attitude towards programming in general nowadays.
The OSI’s definition actually tackles this pretty well:
Sufficient information as to the source of the data so that one could potentially go out and to retrieve it, and recreate the model, is sufficient to fall within the OSAI definition.
To note is that this definition was discussed for awhile with many engineers in the AI field, including from Meta.
There is no such thing as a lifetime license.
Any license only lasts as long as the person doesn’t want to alter the deal.
(Speaking as a sublime text user who got shafted and switched to emacs)
To the contrary:
https://lemmy.ml/post/26272942