Nuclear Fusion Idea - Unlock the Future!

In summary: I'm asking experts. Thanks.In summary, the conversation discusses an idea for a device for nuclear fusion using carbon nano-tubes and a cyclic accelerator. The idea involves using Deutirium or Tritium ions with KeV level energies to fuse inside the nano-tubes, while the accelerator maintains the beam's energy. However, there
  • #1
Aero Stud
66
0
Hey people,

Had an idea about a device for nuclear fusion. Now I figure its too much mess and too many people will have to be envolved anyway to get a patent or something, even if it was a realistic idea - as remote as that chance may be, so if it works remember I thought about it so I could at least be famous if not rich. :wink:

Anyway, jokes aside. First we use a standard configuration - take some Deutirium or Tritium, strip the electrons and put'em in a cyclic acceleretor, the form doesn't matter much, just that they cycle around inside with their KeV level energies that're anough for fusion, small voltages required to keep them at the same energy due to sychrotron radiation and powerful magnets focusing them. Now the novell part, we take carbon nano-tubes with each carbon having another connection with a Deutirium or Tritium atom (according to what we have cycling in the accelerator) on the inside of the tube. Now we let the ion beam go inside the tube and some of the atoms hit their counterparts and fuse. That's the idea basicly.

Many things unknown here, to me at least. First of course, can such a carbon nano-tube be created, is it chemicaly feasible ? Second, how efficient can such a device be ? Normally the ion beam is directed at a target with one chance to fues and here we can keep it cycling. Now the energy of the beam is about 3-4 orders lower than the fusion energy, which we can extract with partial efficiency, and to keep it cycling requires like a percent per cycle so can the fusion reaction rate in theory exceed the required energy for long anough sections of the accelerator containing the carbon-hydrogen isotope nano-tubes. (Several tens of angstroms tube diameter, several tens of fusable atoms per layer and a huge amount of layers - just one tube is normally a few milimeters, but only about a 10^-5 ansgstrom distance required for fusion to occur.) And, if it could be energy effective then how much damage could the fusion reactions inflict upon the nano-tubes during reasonable operation time periods.

Well that's about it, thank you for your time - remember you're doing it for all of humanity's future. :wink: :smile:
 
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  • #2
Oy vey! Not again!

Zz.
 
  • #3
Not again.. meaning ? Which part doesn't work, the nano-tube chemistry ? The ability to focus or direct the ion beam ?
 
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  • #4
Aero Stud said:
Hey people,

Had an idea about a device for nuclear fusion. Now I figure its too much mess and too many people will have to be envolved anyway to get a patent or something, even if it was a realistic idea - as remote as that chance may be, so if it works remember I thought about it so I could at least be famous if not rich. :wink:

Anyway, jokes aside. First we use a standard configuration - take some Deutirium or Tritium, strip the electrons and put'em in a cyclic acceleretor, the form doesn't matter much, just that they cycle around inside with their KeV level energies that're anough for fusion, small voltages required to keep them at the same energy due to sychrotron radiation and powerful magnets focusing them. Now the novell part, we take carbon nano-tubes with each carbon having another connection with a Deutirium or Tritium atom (according to what we have cycling in the accelerator) on the inside of the tube. Now we let the ion beam go inside the tube and some of the atoms hit their counterparts and fuse. That's the idea basicly.

Many things unknown here, to me at least. First of course, can such a carbon nano-tube be created, is it chemicaly feasible ? Second, how efficient can such a device be ? Normally the ion beam is directed at a target with one chance to fues and here we can keep it cycling. Now the energy of the beam is about 3-4 orders lower than the fusion energy, which we can extract with partial efficiency, and to keep it cycling requires like a percent per cycle so can the fusion reaction rate in theory exceed the required energy for long anough sections of the accelerator containing the carbon-hydrogen isotope nano-tubes. (Several tens of angstroms tube diameter, several tens of fusable atoms per layer and a huge amount of layers - just one tube is normally a few milimeters, but only about a 10^-5 ansgstrom distance required for fusion to occur.) And, if it could be energy effective then how much damage could the fusion reactions inflict upon the nano-tubes during reasonable operation time periods.

Well that's about it, thank you for your time - remember you're doing it for all of humanity's future. :wink: :smile:
Aero Stud,

Won't work. If you can't get the Deuterium and Tritium ions up to energies great enough
so that they will fuse - then fancy carbon nanotubes and a cyclic device won't help.
 
  • #5
Perhaps you misunderstood something, the ion beam has several KeV level energy - that is the energy level required for fusion during "impact" (or very close path) of the various hydrogen isotopes near each other, so that they fuse when nuclear forces take over. It has been done for years, however currently the ion beam is accelerated and then directed at a titanium matrix rich with more high density hydrogen isotopes. Some hit their counterparts and the majority are scattered and the beam is lost. In the configuration I suggest the beam is not lost but maintained by means of a small addition of energy per cycle, because the nano-tubes' function is to pack a huge amount of hydrogen isotopes in the path of the ion beam, without the beam getting scattered - as long as it is contained inside the tube but can reach the walls - this edge resolution of about an angstrom wide for hydrogen is probably a problem, but that's exactly part of why I'm asking experts. Thanks.
 
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  • #6
Aero Stud said:
Perhaps you misunderstood something, the ion beam has several KeV level energy - that is the energy level required for fusion during "impact" (or very close path) of the various hydrogen isotopes near each other, so that they fuse when nuclear forces take over. It has been done for years,
Aero Stud,

It hasn't been done for years the way you are proposing.

Why the carbon nano-tubes? Just because you think it sounds "high-tech"?

Why would you want to introduce a higher Z material into your plasma or beam?

That's the LAST thing you would want to do - it just causes Brehmstahlung radiation
loss of your energy.

Give it up - this idea belongs in the trash can.

Dr. Gregory Greenman
Physicist
 
  • #7
Morbius said:
It hasn't been done for years the way you are proposing.
The part with the ion beam has been done precisely like I said, with stationary targets with more hydrogen isotopes in them.
Morbius said:
Why the carbon nano-tubes? Just because you think it sounds "high-tech"?
Carbon nano-tubes are among the largest densly packed and highly ordered on the single atom level stable material structures. Carbon binds with hydrogen in many well known molecules. If it can be done then you get dense and well ordered hydrogen isotopes inside a non-conductiong tube, so the magnetic fields of the accelerator will not be a problem. I didn't do a search on whether it could be chemicly done for a nano-tube, I'm asking like I said.
Morbius said:
Why would you want to introduce a higher Z material into your plasma or beam?
WHERE did I say anything like that ?
Morbius said:
That's the LAST thing you would want to do - it just causes Brehmstahlung radiation
loss of your energy.
The idea is to contain and run the beam inside the tube with interference only from the hydrogen atoms on the inner side. Yeah you're right, more energy will be needed to keep
the movement inside the tube, could it be reasonably stable then in your opinion ? The dimensions are small, or as large as the tube can get, but it doesn't matter that much even if the ion current is very small too - if it works in principal with a net gain in energy.
Morbius said:
Give it up - this idea belongs in the trash can.

Dr. Gregory Greenman
Physicist
Frankly, I'm sceptical too on occasion but without any connection to this being my topic, I think I didn't earn the superfecial unconnected responses or insulting tone, that's just bad attitude.
 
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  • #8
Carbon nano-tubes are among the largest densly packed and highly ordered on the single atom level stable material structures. Carbon binds with hydrogen in many well known molecules.
But what happens to the carbon nano-tubes if hydrogen starts binding with the carbon?

Aero Stud said:
Morbius said:
Why would you want to introduce a higher Z material into your plasma or beam?
WHERE did I say anything like that?
When you introduce carbon (Z=6) nanotubes in the beam of deuterons (d) and tritons (t).

Now one has an ion beam of d's or t's which is impinging upon a structure of C. What about scattering of d's and t's? One certainly cannot line up mirco or nano beams just right. Collisions of d's and t's and subsequent scattering of d's, t's and C's are inherent.

Now what happens when fusion occurs - D+T -> alpha (3.5 Mev) + n (14.1 MeV). What will a 3.5 MeV alpha flux do to a carbon nano tube?

If some answers seem flip or insulting, it is because many of us have had a long experience of people claiming a revolutionary idea that is full of ideas constructed on a poor understanding of the physics of the fusion process and plasma systems. To make it worse, some people claim they have overcome real physical constraints and in some cases, the claimants ignore or disregard actual physics. Please bear with us.
 
  • #9
Astronuc said:
But what happens to the carbon nano-tubes if hydrogen starts binding with the carbon?
Don't know. Just seems to make sense chemicly that carbon could connect to 3 others carbons and one hydrogen.
Astronuc said:
When you introduce carbon (Z=6) nanotubes in the beam of deuterons (d) and tritons (t).
Well they are supposed to be stationary and the beam only on the inside.
Astronuc said:
Now one has an ion beam of d's or t's which is impinging upon a structure of C. What about scattering of d's and t's? One certainly cannot line up mirco or nano beams just right. Collisions of d's and t's and subsequent scattering of d's, t's and C's are inherent.
I see. Though I thought it's a matter of low enough beam current and powerful anough magnetic focusing cavities. If the distances required here are still too small anyway, then yeah it abviously won't work.
Astronuc said:
Now what happens when fusion occurs - D+T -> alpha (3.5 Mev) + n (14.1 MeV). What will a 3.5 MeV alpha flux do to a carbon nano tube?
That's right, that's what I asked too. Damage is still a relative thing after all.
Astronuc said:
If some answers seem flip or insulting, it is because many of us have had a long experience of people claiming a revolutionary idea that is full of ideas constructed on a poor understanding of the physics of the fusion process and plasma systems. To make it worse, some people claim they have overcome real physical constraints and in some cases, the claimants ignore or disregard actual physics. Please bear with us.
Absolutely. I don't want to waste my time for no reason either or argue with an expert about real and relevant facts, when they're pointed out to me. Thanks.

Well now I do see there are real problems here, mostly what I initially suspected, my bad.
 
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  • #10
Aero Stud said:
Don't know. Just seems to make sense chemicly that carbon could connect to 3 others carbons and one hydrogen.
Aero Stud,

Why would you want that to happen in your fusion device?

Well they are supposed to be stationary and the beam only on the inside.
You're going to focus an ion beam inside a carbon nano-tube so that the beam
doesn't impinge on the walls? Good luck with that.

I see. Though I thought it's a matter of low enough beam current and powerful anough magnetic focusing cavities.

If you have low enough beam current - then you're not going to get much in the
way of fusion.

Sure you can get fusion with accelerators - that's the way it was first done.

However, the idea is to get copious amounts of fusion reactions such that the energy
from the fusion is greater than the energy expended setting up the conditions for
fusion. Otherwise, what's the point?

That's what the latest fusion research is trying to do - get more energy out than what
you put in.

Dr. Gregory Greenman
Physicist
 
  • #11
Astronuc said:
If some answers seem flip or insulting, it is because many of us have had a long experience of people claiming a revolutionary idea that is full of ideas constructed on a poor understanding of the physics of the fusion process and plasma systems. To make it worse, some people claim they have overcome real physical constraints and in some cases, the claimants ignore or disregard actual physics. Please bear with us.
Astronuc,

EXACTLY!

I don't know how many times I've seen posts; some here, and in other forums like Usenet
where somebody has a story like:

All the scientists working on fusion are so dumb. I have the answer. All we need to
do is put some palladium in a carbon nano-tube; and wrap it around a dilithium crystal...

I've already designed it; but the Dept. of Energy won't fund it because of all the scientists
that bad mouth my idea; when they are just jealous that they didn't think of it...

I'm the expert; I have a common law doctorate in physics...

In one of these discussion, the fusion "genius" asked me where I got my degree.

I told him that my doctorate is from the Massachusetts Institute of Technology.

His reply was, "Oh, I thought you had a real doctorate from a university.
Degrees from state technical schools are not real doctorates."

Sigh.

Perhaps you know of this guy, I've had a few online run ins with him many
years ago:

http://en.wikipedia.org/wiki/Archimedes_Plutonium

...Others defended him on the grounds that anyone who dubbed himself
"The King of All Science" while talking to Nobel prize winners about pumping
water from the Pacific Ocean to the Moon via a giant hose using osmotic pressure,
more than made up for any perceived lack of academic credentials for the sheer
entertainment that such things gave to the world. Plutonium gained a cult following,
with summaries of his postings occasionally being posted by others for the benefit of
those who had been on vacation and who missed the show.

Dr. Gregory Greenman
Physicist
 
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  • #12
I'm glad I'm not such a guy then.. :wink:
 

What is nuclear fusion?

Nuclear fusion is a process in which two or more atomic nuclei combine to form a heavier nucleus, releasing a large amount of energy in the process. It is the same process that powers the sun and other stars.

How is nuclear fusion different from nuclear fission?

Nuclear fusion and nuclear fission are both processes that involve the release of energy from atoms. However, nuclear fusion involves combining two atomic nuclei to form a larger nucleus, while nuclear fission involves splitting a larger nucleus into smaller ones.

What are the potential benefits of nuclear fusion?

Nuclear fusion has the potential to provide a nearly limitless, clean, and sustainable source of energy. It does not produce greenhouse gases or long-lived radioactive waste like current nuclear energy technologies.

What are the challenges of achieving nuclear fusion?

One of the main challenges of achieving nuclear fusion is the high temperature and pressure required to initiate and sustain the fusion reaction. Scientists are also working on developing materials that can withstand the extreme conditions inside a fusion reactor.

When do scientists predict that nuclear fusion will become a viable energy source?

Scientists are currently working on several fusion projects around the world, with the goal of achieving a sustained and controlled fusion reaction. While there is no definite timeline, some researchers predict that fusion power plants could become a reality within the next few decades.

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