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I like the sound of the recyling centre propsed by GE Hitatchi, any word on whether that has been given the nod?
No, but they can be made from plants.
Originally posted by ElectricUniverse
reply to post by marg6043
Can plastics be made from Thorium?
I could keep asking questions, but maybe you see the point.
Originally posted by Peruvianmonk
This would take the risk of nuclear weapons being built out of the equation, as it is nigh on impossible to use Thorium in a weapon because of its high output of Gamma rays.
Any thoughts?
[edit on 31-8-2010 by Peruvianmonk]
Originally posted by Angelic Resurrection
Originally posted by Peruvianmonk
This would take the risk of nuclear weapons being built out of the equation, as it is nigh on impossible to use Thorium in a weapon because of its high output of Gamma rays.
Any thoughts?
[edit on 31-8-2010 by Peruvianmonk]
Gamma rays in itself does not in any way prevent thorium being weaponised. Its being done already big time. Google it
There are a couple of points to make about LFTRs.
First, and importantly, with just modest design effort, terrorists will never successfully steal U-233 from a LFTR and make a bomb, even if the LFTR uses Pa-233 separation and thus makes relatively pure U-233. The primary reason is that the U-233 must be remotely handled for personnel safety reasons, and it is pretty easy to make it very hard for insiders or outsiders to steal stuff from hot cells.
On the proliferation side, U-233 has roughly the same bare-sphere critical mass as plutonium, almost no spontaneous neutron generation, and almost no heat generation. This is excellent from the perspective of weapons use. The primary disincentive for weapons use involves OSHA issues due to personnel radiation exposure from U-232, which can be avoided by choosing weapons grade plutonium or HEU instead of U-232. If one has a dedicated production capability for weapons material, it's quite logical that it would focus on the plutonium or HEU routes, and not thorium. But that does not mean that the potential diversion of U-233 by a state would not be a major concern, when the major barrier to use of U-233 in weapons involves OSHA rules rather than actual physical limits.
Reducing demand for uranium enrichment has clear potential non-proliferation benefits, because uranium enrichment is particularly problematic from the perspective of the development of clandestine production facilities. A fission energy system based on LFTRs will also involve far smaller inventories and flows of plutonium than one based on fast-spectrum IFRs. But LFTRs will still require effective IAEA safeguards to assure that the state cannot divert material without detection, and will have similar non-proliferation issues with other fission reactors (e.g., break-out remains theoretically possible, if likely unattractive, particularly for denatured LFTRs). As is commonly said, no technologies will offer a silver bullet to eliminate proliferation risks, but these risks can certainly be managed and minimized.
www.energyfromthorium.com...
Google Video Link |
The paper-like quality of the battery combined with the structure of the nanotubes embedded within gives them their light weight and low cost, making them attractive for portable electronics, aircraft, automobiles, and toys (such as model aircraft), while their ability to use electrolytes in blood make them potentially useful for medical devices such as pacemakers. The medical uses are particularly attractive because they do not contain any toxic materials and can be biodegradable; a major drawback of chemical cells.[2] However, Professor Sperling cautions that commercial applications may be a long way away, because nanotubes are still relatively expensive to fabricate. Currently they are making devices a few inches in size. In order to be commercially viable, they would like to be able to make them newspaper size; a size which, taken all together, would be powerful enough to power a car.[3]
Originally posted by ionsoul
I worked in a couple of mines that were for uranium. One of them produced Ytrium a rare earth phosphor used in television crt tubes.
The other s were refining Thorium for the medical field.
Apparently there wasn't much use for it so the operations were stopped. Now it is being re-discovered as the savior of mankind.
What a flippin coincidence!
Originally posted by keithallenlaw
If anyone thinks that the future use of Thorium is gong to make energy to your home cheaper,
then your in for a big surprise. This will mean bigger profits for the fat cats while we pay
the same or even possibly more for this new 'greener' technology. Come on...how often
do you see a big company passing along any savings from a 'new found' technology to
it's costumers?