SkillClash
Banned
any physics heads here, on why these two, pretty much the main 2 cornerstone, of modern physics cant get along
damm yall stupid as fukk
OBSERVING THINGS THAT ARE SMALLER THAN THE WAVELENGTH OF VISIBLE LIGHT NECESSITATES ALTERING THEIR TRAJECTORIES, BROTHER!Quantum mechanics postulates that things happen when you're actually observing them, otherwise, different things happen.
Hollywood Hogan said:OBSERVING THINGS THAT ARE SMALLER THAN THE WAVELENGTH OF VISIBLE LIGHT NECESSITATES ALTERING THEIR TRAJECTORIES, BROTHER!
inndaskKy said:Off topic but does anyone happen to have a link to The Feynman Lectures on Physics: The Complete Audio Collection that consists of about 111 lectures? It's floating out there but I can't find a working link at the moment. I have the books and audio of a compilation of the best parts from the audio but I'd really like to have the whole thing on mp3. It's a huge file I know but I really need that shyt in my life asap.
You use torrents?
thanks manGeneral relativity deals mostly with gravity and is very accurate when it comes to explaining how things work on a large scale, where large masses/volumes/amounts of matter are concerned (planet sizes and up). It's very accurate when it comes to describing how gravity works on a large scale, since the other basic forces usually cancel each other out on a large scale.
Quantum mechanics is very accurate when it comes to explaining things on an extremely small scale (atoms and smaller). It's very accurate when it comes to determining how the other three basic forces (electromagnetism, strong nuclear force, and weak nuclear force) work on small scale, and gravity can be ignored since the effects of gravity aren't significant when you're studying atoms.
Most of the time it's fine to pick one theory and work with it depending on what you're studying, there are situations where both would be relevant, for example when you have an extremely large amount of mass compressed into an extremely small amount of space (ie. a black hole). What happens is that, when you try to use general relativity to describe something like a black hole, the math ends up giving you values that are infinite. For example a black hole is said to have infinite density, which is usually taken as a sign that the theory has broken down. Likewise, if you try to use quantum theory to describe gravity (for example, if electromagnetism is mediated by electrons, then gravity should be mediated by gravitons) you again end up getting infinite values. That's basically a sign that the theory is incomplete.
You shouldn't really have two different sets of rules to describe the universe just based on how big the thing you're studying is right? That's why they're looking for a theory that can describe things on both scales. If somebody ever finds that (and figures out how gravity works on quantum level) then science might have more to say about what happens in a black hole or what conditions were like at the big bang. That's my understanding of it.
inndaskKy said:Yeah, but I only found one and it´s not working.
Edit: allegedly