Fusion Scientists: Inertial & Magnetic Confinement

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In summary, physicists and engineers who work on fusion reactors are generally well versed in both ICF and MFC, but it would probably require significant effort to jump from research in one to the other.
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dzza
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Quick question. Are physicists and engineers who work on designing fusion reactors generally well versed in both inertial confinement fusion and magnetic confinement fusion, or are they two separate subfields altogether.
 
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There are substantial differences, obviously, between the two fields but physicists in each of them tend to keep up with developments in the other and have at least a rudimentary knowledge of its technical details. Having said that, it would likely require rather significant effort to jump from research in one to the other. A good engineer could make the transition much more easily, IMO.
 
  • #3
dzza said:
Quick question. Are physicists and engineers who work on designing fusion reactors generally well versed in both inertial confinement fusion and magnetic confinement fusion, or are they two separate subfields altogether.
I agree with Tide - a nuclear engineer studying fusion should be versed in both approaches.

Magnetic confinement requires a good deal of plasma physics of low density plasmas. The maximum pressure is constrained by the strongest achievable magnetic field.

Inertial confinement requires knowledge of beam physics, as well as the physics of ablation and compression, which afterall is a special application of thermodynamics/kinematics. The plasma densities are much higher than those achieved in magnetic confinement.

Morbius has posted some good links to LLNL's program on ICF, but here is another tutorial on ICF - http://www.nuc.berkeley.edu/thyd/icf/IFE.html
 
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  • #4
Astronuc said:
Morbius has posted some good links to LLNL's program on ICF, but here is another tutorial on ICF - http://www.nuc.berkeley.edu/thyd/icf/IFE.html
Astronuc,

Here's another good link from the Laboratory for Laser Energetics at the
University of Rochester:

http://www.lle.rochester.edu/

http://fsc.lle.rochester.edu/

As well as some more from LLNL:

http://www.llnl.gov/pao/WYOP/Fusion_Energy.html

http://fusion-energy.llnl.gov/

http://www.llnl.gov/nif/icf/icf.html

http://www.llnl.gov/str/November01/Tabak.html

http://www.llnl.gov/str/JanFeb02/Nevins.html

http://www.llnl.gov/pao/WYOP/Scientists.html

The last link profiles some of the scientists involved. Some may
recognize Tammy Jernigan because she is a NASA astronaut:

http://www.jsc.nasa.gov/Bios/htmlbios/jernigan.html

The "sky's the limit" for a career in science!

Dr. Gregory Greenman
Physicist
 
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  • #5
dzza said:
Quick question. Are physicists and engineers who work on designing fusion reactors generally well versed in both inertial confinement fusion and magnetic confinement fusion, or are they two separate subfields altogether.

IME, not really, but it will depend on the individual. The group I'm working with is currently designing a new tokamak. While the design of this machine is being done almost entirely from within the group, with some outside help from a couple of other groups with tokamaks similar to what we are looking to build, I have no doubt that we would have almost no idea where to start on designing an ICF system, and certainly no expertise. Most of my knowledge about ICF comes from a NOVA poster that we have up on the wall in our conference room.
 
  • #6
During our plasma lecture today, it was commented how there is some level of rivalry between the magnetic and inertial confinement camps. I was also suprised to be informed that the milestones of fusion research are scarcely recognised outside of the fusion community, even within the plasma community...perhaps it was all those promises of fusion power being available by now.
 

FAQ: Fusion Scientists: Inertial & Magnetic Confinement

What is fusion and why is it important?

Fusion is the process of combining two atomic nuclei to form a heavier nucleus, releasing a large amount of energy in the process. It is important because it is the same process that powers the sun and stars, and has the potential to provide a nearly limitless source of clean energy on Earth.

What is the difference between inertial and magnetic confinement fusion?

Inertial confinement fusion involves using powerful lasers or particle beams to compress and heat a small pellet of fuel, causing it to undergo fusion. Magnetic confinement fusion, on the other hand, uses magnetic fields to contain and heat a plasma of fuel, such as in a tokamak or stellarator.

What are the challenges in achieving fusion and how are they being addressed?

One of the main challenges in achieving fusion is creating and sustaining the extreme temperatures and pressures necessary for the fusion reaction to occur. Scientists are working on improving the efficiency and stability of fusion devices, as well as finding ways to control and harness the energy produced.

What are the potential benefits of fusion energy?

Fusion energy has the potential to provide a nearly limitless source of clean energy, with no greenhouse gas emissions or long-term radioactive waste. It could also help reduce our dependence on fossil fuels and contribute to a more sustainable energy future.

When do scientists expect fusion energy to become a reality?

There is no definitive timeline for when fusion energy will become a reality, as there are still many technical and engineering challenges to overcome. However, there are several large-scale international projects currently in progress, such as ITER and the National Ignition Facility, that are making significant progress towards achieving fusion energy.

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