The Casimir forces are due to the quantisation of electromagnetic
fluctuations in vacuum, while the weak nuclear interactions are mediated by subatomic scale particles, originally called mesons by Yukawa.
DURING HIS TIME IN GUANGZHOU, Leonhardt planned to work on the theory of Casimir forces, a strange pull or push between two closely spaced objects that arises because of quantum mechanical
fluctuations in the vacuum of empty space.
Not exact matches
In modern Cosmology the leading means to Genesis comes through a
vacuum fluctuation.
This kind of random
fluctuation is thought to have ultimately created our cosmos of stars, planets and existential worriers out of the quantum
vacuum — admittedly abetted by some as - yet - unexplained happenstance, such as a period of faster - than - light inflation
in the early universe, and matter somehow winning out against its evil twin, antimatter.
It arises because of the quantum electromagnetic
fluctuations that occur
in a
vacuum.
The plan calls for using four pairs of «test masses» made of at least three different materials — such as beryllium, niobium and platinum - iridium — which would be kept
in a
vacuum and cooled to just a few kelvins, reducing temperature
fluctuations that can degrade measurement accuracy.
Christian Gabriel's team at the Max Planck Institute for the Science of Light
in Erlangen, Germany, has built a prototype that draws on a
vacuum's random quantum
fluctuations.
One example is known as the Casimir effect, predicted to exist
in 1948 by the late Dutch physicist Hendrik Casimir,
in which quantum
fluctuations create an attractive force between two surfaces
in a
vacuum.
This might have practical implications
in quantum computing, as ours is a world of constant
fluctuation — even a
vacuum is alive with vibrations of energy.
This problem is usually avoided by putting solar scopes
in a
vacuum tube where there's no air for temperature
fluctuations.