It is a haven, too,
for uranium atoms.
Not exact matches
The nuclear power plants in use around the world today use fission, or the splitting of heavy
atoms such as
uranium, to release energy
for electricity.
there's really no room
for the concept of an independent entity possessed of «will» in a worldview shaped by cause and effect; the only place
for «will» to retreat to is the zone of true randomness, of complete uncertainty, which means that truly free will as such must be completely inscrutible [sic]... Statistical laws govern the decay of a block of
uranium, but whether or not this
atom of
uranium chooses to fission in this instant is a completely unpredictable event — fundamentally unpredictable, something which simply can not be known — which is equally good evidence
for the proposition that it's God's (or the
atom's) will whether it splits or remains whole, as
for the proposition that it's random chance.
Many members of the team had previously reported
uranium nitride and oxo complexes where the molecules are essentially the same except
for swapping a single nitrogen
atom for an oxygen.
Hunting
for the universe's heaviest
atoms just got a little easier, thanks to a new technique that directly measures the mass of elements heavier than
uranium.
While visiting the production site
for highly - enriched
uranium in Oak Ridge, Tenn., during the 1940's,
for example, Feynman was surprised to see stocks of that fissionable material deliberately stored in separate rooms, but on an adjoining wall that posed no barrier to collisions involving
atoms of
uranium and escaping neutrons on both sides.
Note well that solving
for the exact, fully correlated nonlinear many electron wavefunction of the humble carbon
atom — or the far more complex
Uranium atom — is trivially simple (in computational terms) compared to the climate problem.