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reply to post by JayDub113
Force = Mass X Acceleration. The acceleration on the astronaut as he goes from his "weightless" orbit into contact with the "wall" is astronomical, and the force exerted likewise. The mass in the equation is his inertial mass, and it is a function of the overall gravitational frame of reference it is calculated in.
Which brings to mind the law that equates mass with energy, E=mc(squared) . Could the squaring of c because the sufficient speed at which we would have to hit the wall IS C? and the "motion" of the "wall" relative to the moving universe would ALSO equal c? c times c. c squared.
Originally posted by JayDub113
reply to post by phroziac
I just made a thought experiment using the current laws of physics, you don't need links for that.
As for the part at the end... That's just me pontificating on the thought experiment, I am open to any and all ideas.
Perhaps the particles do not necessarily exhibit more and more mass at those speeds, it is the COLLISION that makes that potential energy into kinetic energy, thereby giving a result for mass congruent with the equations of relativity.
Originally posted by john_bmth
reply to post by ChaoticOrder
Special Relativity
Originally posted by JayDub113
reply to post by phroziac
I just took it to its farthest extreme. The energy created by such a collision would be extraordinary. And take it further.. Is there a limit to the energy such a collision could produce? Would a certain speed collision result in total transfer of energy in the system?