Post by Pincho Paxton on Mar 13, 2014 10:36:11 GMT
Link...
Desktop quantum cloud to hunt elusive space-time waves
Pincho says...
To find two merging black holes you could look for an extreme red shift opposite to the black hole locations. Track the red shift back, and you will find the merging black holes. Between the red shift, and the black holes should be a nebula. The nebula is the space gap left behind when the black holes merged. The nebula is the virtual particle area, would probably look like a crack in space. It is a sort of crack in space, it's a parting of gravity. The crack I think is in the ultra violet range, or X ray range, with the visible nebula inside it.
Actually, looking at images on the internet, the nebula could be around it. I may need to change the way that I us photon clouds. They seem to be linked directly to gravity.
Another edit: Of course gravity has to be able to collide to make photons visible. The crack isn't colliding with anything.
Photon Propagatin through gravity
Desktop quantum cloud to hunt elusive space-time waves
Pincho says...
To find two merging black holes you could look for an extreme red shift opposite to the black hole locations. Track the red shift back, and you will find the merging black holes. Between the red shift, and the black holes should be a nebula. The nebula is the space gap left behind when the black holes merged. The nebula is the virtual particle area, would probably look like a crack in space. It is a sort of crack in space, it's a parting of gravity. The crack I think is in the ultra violet range, or X ray range, with the visible nebula inside it.
Actually, looking at images on the internet, the nebula could be around it. I may need to change the way that I us photon clouds. They seem to be linked directly to gravity.
Another edit: Of course gravity has to be able to collide to make photons visible. The crack isn't colliding with anything.
Photon Propagatin through gravity