Hydrogen atom to 90% the speed of light

In summary, when a hydrogen atom is accelerated to 90% the speed of light, its mass is greatly increased. However, this does not affect the forces that hold it together and the atom will not fall apart. The energy released using these forces will also increase. The principle of relativity states that velocity is relative, so the same effects can be achieved by accelerating the observer instead. It is important to keep in mind that velocity is relative and does not cause any physical changes on its own.
  • #1
brad50
7
0
I do not understand if you accelerate a hydrogen atom to 90% the speed of light its mass is greatly increased. Are the forces that hold it together increased? If not how is it different, will it fall apart? If the forces are increased in relationship to the mass of the atom the energy released using those forces should be increased.Could particle accelerator guys see any sign of this.
 
Physics news on Phys.org
  • #2
Remember that velocity is relative. We can also get a relative velocity of 0.9c between the hydrogen atom and you, by accelerating you to 0.9c, and the result must be the same, by the Principle of Relativity.

Under this scenario, the hydrogen atom is simply sitting there, minding its own business. Why should it decide to fall apart, simply because you are zooming past it at 0.9c? :smile:
 
  • #3
Trying to understand in are imaginary spaceship as it accelerates the mass increases because it increases it becomes harder to accelerate but acceleration comes from the mass of the reactance there mass has increased also. So the thrust should not be affected
 
Last edited:
  • #4
These kinds of questions will become clear after learning relativity for yourself. (Hope I don't sound mean, but its true).

brad50 said:
I do not understand if you accelerate a hydrogen atom to 90% the speed of light its mass is greatly increased. Are the forces that hold it together increased? If not how is it different, will it fall apart? If the forces are increased in relationship to the mass of the atom the energy released using those forces should be increased.Could particle accelerator guys see any sign of this.
If we're talking about free particles, then from its reference frame, everything is normal, so it won't fall apart or anything.
And from the perspective of the human in the lab, time dilation and length contraction will affect things like the decay rate of the particle. Also, the energy of the particle will be given by the equation for relativistic energy.

brad50 said:
Trying to understand in are imaginary spaceship as it accelerates the mass increases because it increases it becomes harder to accelerate but acceleration comes from the mass of the reactance there mass has increased also. So the thrust should not be affected
Do you mean 'trying to understand what happens to a hypothetical space ship..."?
As viewed from some other inertial frame, yes the relativistic mass of the propellant will increase as the rocket speeds up, and yes the acceleration per force applied will be less at high speed. But your last sentence is not justified. You would need to analyse the problem using relativity to find out what happens, but it certainly won't be the same as the Newtonian case when its speed approaches c.
 
  • #5
jtbell said:
Remember that velocity is relative. We can also get a relative velocity of 0.9c between the hydrogen atom and you, by accelerating you to 0.9c, and the result must be the same, by the Principle of Relativity.

Under this scenario, the hydrogen atom is simply sitting there, minding its own business. Why should it decide to fall apart, simply because you are zooming past it at 0.9c? :smile:

So atoms do not destabilize as a result of velocity? (i know i may sound stupid, just learning about Relativity and that good stuff)
 
  • #6
No, atoms don't destabilize as a result of velocity. *Nothing* happens as a result of velocity. The reason it's called "Relativity" is that velocity is relative: there is no such thing as your "true" or "absolute" velocity, only the relative velocities between you and other bodies. Meaning that physics is the same, no matter what other observers might measure your velocity to be. If atoms don't destabilize in your lab "at rest," then they won't destabilize in a lab on board a spaceship traveling at nearly c either. No experiment will return a different result on the spaceship.

If an experiment existed whose result changed, depending on merely the velocity of the laboratory, then you could perform that experiment to derive an absolute speed through space, and the point of Relativity is that there is no such thing.
 
  • #7
rationalist76 said:
So atoms do not destabilize as a result of velocity? (i know i may sound stupid, just learning about Relativity and that good stuff)

Just think. According to some alien in another galaxy, you are moving very, very fast. Do you see yourself destabilizing?

Zz.
 
  • #8
ZapperZ said:
Just think. According to some alien in another galaxy, you are moving very, very fast. Do you see yourself destabilizing?

Zz.

No. Yet the alien will perceive it that way, correct?
 
  • #9
rationalist76 said:
No. Yet the alien will perceive it that way, correct?

Perceive what? Certainly he'll see you moving very fast relative to him.

The point here is that his seeing you move very fast doesn't mean you start feeling excessive forces or starting to fall apart.

relativity essentially means you are stationary; it is the rest of the universe that is moving relative to you.
 

Related to Hydrogen atom to 90% the speed of light

1. What is a Hydrogen atom?

A Hydrogen atom is the simplest and most abundant atom in the universe. It is made up of one proton and one electron, with the proton located in the center (nucleus) and the electron orbiting around it.

2. How is the speed of light related to the Hydrogen atom?

The speed of light, denoted by the letter "c", is a fundamental constant in physics and is the maximum speed at which all matter and information in the universe can travel. The speed of light is also used as a unit of measurement for the velocity of particles, such as the Hydrogen atom.

3. What does it mean for a Hydrogen atom to be moving at 90% the speed of light?

When we say a Hydrogen atom is moving at 90% the speed of light, it means that the velocity of the atom is 90% of the speed of light. This can also be expressed as 0.9c, where "c" represents the speed of light. At this velocity, the Hydrogen atom would be moving very fast and would experience time dilation, length contraction, and an increase in mass according to Einstein's theory of relativity.

4. What would happen if a Hydrogen atom reached the speed of light?

According to Einstein's theory of relativity, it is not possible for any particle with mass, including the Hydrogen atom, to reach the speed of light. As an object approaches the speed of light, its mass and energy increase infinitely, making it impossible to reach the speed of light. Additionally, time would stop for the Hydrogen atom at the speed of light.

5. What are the practical applications of accelerating a Hydrogen atom to 90% the speed of light?

Accelerating a Hydrogen atom to such high velocities is essential in particle physics research. It allows scientists to study the behavior and properties of particles at extreme speeds, which can provide valuable insights into the fundamental laws of the universe. Additionally, this research can have practical applications in fields such as energy production and medical imaging.

Similar threads

Replies
2
Views
760
  • Special and General Relativity
Replies
23
Views
1K
Replies
130
Views
8K
  • Special and General Relativity
2
Replies
45
Views
3K
  • Special and General Relativity
Replies
21
Views
494
Replies
64
Views
4K
  • Special and General Relativity
2
Replies
50
Views
5K
  • Special and General Relativity
Replies
11
Views
2K
  • Special and General Relativity
Replies
15
Views
1K
Replies
83
Views
4K
Back
Top