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SCO first announced that they were looking for “information on innovative technologies and approaches” relating to a possible future “small mobile nuclear reactor prototype design” on FedBizOpps, the U.S. government’s main contracting website, on Jan. 18, 2019. The organization posted an amended version of the notice, which outlines a “multi-phase prototype project” as part of what it is calling Project Dithulium, four days later.
The Army is certainly watching the SCO’s Project Dithulium, if it isn’t involved in it directly. In October 2018, the service put out its own report on the potential uses of nuclear power on the battlefield.
originally posted by: Zaphod58
Read the RFI carefully. The fuel is a very interesting clue. This isn't just spending money to spend money. There's a very good reason for this, and it will prove very useful long term.
originally posted by: yuppa
originally posted by: Zaphod58
Read the RFI carefully. The fuel is a very interesting clue. This isn't just spending money to spend money. There's a very good reason for this, and it will prove very useful long term.
Isnt this just that boeing/lockheed fusion reactor going white world?
originally posted by: BASSPLYR
I think people would find this thread a lot more stimulating if they had caught onto what the rectors for. Ah well the clues were left. Up to them to figure it out. Most astounding thing is that this reactor and whatever project its for is most likely well underway. Which makes things even more exciting.
Like you said interesting times we live in.
For the first time, these parameters satisfied the conditions that theorists predict should allow nuclear fusion within a Z-pinch. FuZE was able to sustain a stable plasma for 16 µs, some 5000 times longer than the times achieved in static plasmas outside of a Z-pinch. To confirm that fusion had been achieved, Zhang and colleagues measured their plasma’s neutron yield using a plastic scintillator, which converts incident neutrons into photons, coupled to a photomultiplier. The setup revealed that a period of quasi-steady-state neutron production endured for around 5 µs during the time that a stable plasma was maintained.