2 comments
Yes, they really do. Start here and keep reading down the page: https://en.wikipedia.org/wiki/General_relativity#Consequence...
Hmm but with things like gravitational lensing, it happens because space itself is being bent, not the wave, wave is just traveling "straight ahead" and doing it's thing.
If waves obeyed momentum, then a wildly spinning pulsar's gamma waves would not travel just outward but like a curve ball from a baseball pitcher, they'd be long perpendicular distorted waves.
If waves obeyed momentum, then a wildly spinning pulsar's gamma waves would not travel just outward but like a curve ball from a baseball pitcher, they'd be long perpendicular distorted waves.
The wave "free-falls" toward the object with exactly the same acceleration as anything else passing by.
I'm not sure what you meant by the last part. The light beams would form a spiral expanding through space. (Like "zooming in" to the spiral, not turning like a screw.) Each photon moves in a straight line, but since the source of the beam is turning, the beam is a curve though space.
I'm not sure what you meant by the last part. The light beams would form a spiral expanding through space. (Like "zooming in" to the spiral, not turning like a screw.) Each photon moves in a straight line, but since the source of the beam is turning, the beam is a curve though space.
Ah you know what - I really wasn't thinking this out.
If waves didn't obey momentum then light being emitted by the very monitor I am looking at now would probably not make it to my eyes, or at least be shifted, since the planet and galaxy are moving rapidly.
If waves didn't obey momentum then light being emitted by the very monitor I am looking at now would probably not make it to my eyes, or at least be shifted, since the planet and galaxy are moving rapidly.
the speed of light is independent of the angular momentum...
c is still c :)
How is that possible if they move at the speed of light for any observer?