Plasma and light atom collision.

In summary: Colliding light nuclei together does not create energy. It creates heat. This heat is what powers space propulsion.
  • #1
SeanM1990
5
0
What would be the outcome and what speeds would be needed to create a reaction?
 
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  • #2
We're going to need a little more information. What reaction are you trying to achieve? What does the plasma consist of?
 
  • #3
Say it is Hydrogen Plasma could that be collided into other H and He atom to create propulsion?
 
  • #4
Are you talking about nuclear fusion?
 
  • #5
Drakkith said:
Are you talking about nuclear fusion?

Can you answer the question?
 
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  • #6
SeanM1990 said:
Can you answer the question?

Not until I know what you're even asking about.

It appears you are interested in colliding light nuclei together to power space propulsion. The only way I know to achieve that is through nuclear fusion.

Now, do you know anything at all about nuclear fusion? If so, then we have somewhere to start. If not, then I'm going to have to link a few things to explain what it is.
 
  • #7
I don't know much about Fusion.

Refined:
Could H and He be converted into plasma state and collided with other H and He particles within a cubic metre to produce propulsion? What Speeds are needed to create the collision and temperature to create a plasma state.
 
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  • #8
SeanM1990 said:
Question still stands.

Refined:
Could H and He be converted into plasma state and collided with other H and He particles within a cubic metre to produce propulsion? What Speeds are needed to create the collision and temperature to create a plasma state.

Yes. This is called nuclear fusion. Which is what I'm trying to tell you about.
I cannot simply answer your question because you don't appear to know how nuclear fusion is done. Speed is irrelevant. There is a spread of velocities for both ions and electrons in a hot plasma. What we care about is the temperature of the plasma. Also, helium isn't likely to be a fuel source for various reasons.

Currently, the primary fuel consists of tritium and deuterium, both isotopes of hydrogen. These isotopes are used because they are the easiest to fuse together and release a great deal of energy. While the reaction rate reaches its peak at about 800 million k, fusion still occurs at much lower temperatures. Because of quantum tunneling, there is no cutoff temperature where fusion no longer occurs. It's just that at low temperatures the chances of two ions fusing together are astronomically small.

For applications specific to space propulsion, see the following:
http://en.wikipedia.org/wiki/Fusion_rocket

Also see:
http://en.wikipedia.org/wiki/Nuclear_fusion
http://en.wikipedia.org/wiki/Fusion_power
 
  • #9
Would colliding H into each other create energy? If one form was a plasma and the other gaseous.
 

Related to Plasma and light atom collision.

1. What is a plasma and light atom collision?

A plasma and light atom collision is a type of interaction between two particles - a plasma particle and a light atom. A plasma particle is a charged gas particle, while a light atom is a neutral atom. When these two particles collide, energy is exchanged and various physical processes can occur.

2. How do plasma and light atom collisions occur?

Plasma and light atom collisions typically occur in high-temperature environments, such as in stars or in laboratory experiments using high-energy lasers. These collisions can also occur in the Earth's upper atmosphere, where the ionosphere contains both plasma particles and light atoms.

3. What happens during a plasma and light atom collision?

During a plasma and light atom collision, the plasma particle transfers energy to the light atom, causing it to become excited or ionized. This can result in the emission of light or heat, or the creation of new particles. The exact outcome depends on the properties of the particles and the conditions of the collision.

4. What are the applications of plasma and light atom collisions?

Plasma and light atom collisions have many applications in fields such as astrophysics, plasma physics, and materials science. These collisions can also be harnessed for practical uses, such as in plasma-based technologies like plasma TVs, fusion reactors, and plasma etching for microchip production.

5. How are plasma and light atom collisions studied?

Scientists use a variety of experimental and theoretical techniques to study plasma and light atom collisions. These include laser spectroscopy, particle accelerators, and computer simulations. By studying these collisions, scientists can gain a better understanding of the fundamental properties of matter and the behavior of complex systems.

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