Question

Is there a chance that we may be able to go the speed of light sometime in the future?Einstein said that if something could travel at light speed its mass would duplicate. How could it be?

About to Relativity ..!!

Answer 1

Answer:

Since Special Relativity theory appears correct even under the extreme speed conditions of a particle accelerator, it is unlikely we will ever find a way to travel through space at a speed greater than (or even equal to) the speed of light.

Step-by-step explanation:

pls follow kar do : )

Answer 2

${\pmb{\underline{\sf{ Assumption \ of \ Traveling \ at \ SPEED \ of}}}} \\ {\pmb{\underline{\sf{ Light ...}}}}$

Since Special Relativity theory appears correct even under the extreme speed conditions of a particle accelerator, it is unlikely we will ever find a way to travel through space at a speed greater than (or even equal to) the speed of light.

However, if your goal is to get from one place to another distant place in a time less than it would take to get there by normal space travel (at a speed less than light), there may be some way to get from one place to another without traveling "through the intervening space", by going through some sort of wormhole or other tunnel, but at the moment such ideas are nearly entirely speculative —any progress in such a possiblility (if it's even possible), would have to occur in the future. But people are looking into it.

An interesting reference on that would be Kip Thorne's book "Black Holes and Time Warps" which was published last year (According to me).

$\\ {\pmb{\underline{\sf\red{Mass \ of \ OBJECTS \ duplicate }}}} \\ {\pmb{\underline{\sf\red{Whenever \ It'll \ going \ at \ the \ speed \ of \ the \ Light ...}}}}$

Actually, the way it should be said: energy and mass are related. If you set up a "black box" (box you can't see into) containing some atoms, the total mass of the box and its contents will be equal to the sum of the mass of the box and mass of the individual atoms in the box.

➢ If you heat the box to a high temperature (so the atoms are moving around at high speed in the box, and thus have high energy), then the total mass of the box and its contents will be larger than if the temperature of the box is lower. Why?

➢ Because, the higher energy atoms contribute more mass to the total mass than before the box was heated. So, if you try to push on the box, you will discover that its inertia will be larger (it won't accelerate as quickly).

➢ In a practical setup of this box containing gas, the actual change in inertia of the box (due to heating it) will be small. But, in principle, if the atoms are made to move at speeds nearing the speed of light.

The mass of the box can be made very large — even approaching infinity.