Results from space show that SPEQS is
making pairs of photons with correlated properties — an indicator of performance.
Not exact matches
To simulate these conditions, researchers use special facilities at the Advanced
Photon Source, where they shine high - powered lasers to heat up the sample inside a pressure cell
made of a
pair of diamonds.
When both members
of the
pair became excited, one
of them would normally fall to the lower rung before being struck by an incoming
photon, producing no
photon along the way and leaving too few excited electrons to
make laser light.
One way it
made itself known at CERN's Large Hadron Collider near Geneva, Switzerland, two years ago was by decaying into
pairs of photons.
In this model, neutrons and protons are
made up
of triplets
of quarks, and the gluons that bind protons and neutrons together (equivalent to
photons in electromagnetic field theory) are
made of pairs of quarks.
One way it
made itself known two years ago at CERN's Large Hadron Collider (LHC) near Geneva, Switzerland, was by decaying into
pairs of photons.
Once created, each entangled
pair of photons is separated by passing a laser beam
made up
of them through a filter
made from a non-linear crystal.
Not only do the experiments prove that the phenomenon
of entanglement is strong enough to persist even in experiments that may one day be carried out on a satellite or an accelerated spacecraft, they also suggests quantum mechanical entanglement
of photon pairs can be tested while the particles undergo relativistic acceleration — conditions under which attempts to unify quantum mechanics and relativity into an overarching «theory
of everything» can be
made.