Not exact matches
One of these is the uncertainty principle, which states that in the quantum world it is impossible to
simultaneously know two quantities, such as a
particle's location and its momentum, with complete accuracy.
First, they suggest that the two properties of a single object that can not be
known simultaneously can be thought of as two streams of information encoded in the same
particle.
But thanks to an eerie quantum effect
known as superposition — which allows an atom, electron or other
particle to exist in two or more states, such as «spinning» in opposite directions at once — a single qubit made of a
particle in superposition can
simultaneously encompass both digits.
The famous uncertainty principle — which states that you can't
simultaneously know the momentum and position of a
particle — comes down to information.
In this phenomenon, two quantum
particles (in this case,
particles of light
known as photons) are so intimately connected that changing the quantum state of one
particle simultaneously alters the state of the other
particle, even when the two
particles are separated in space.
Researchers who make and study plasmonic
particles generally want to
know and control their reactivity, so it is crucial to be able to study many individual
particles simultaneously with the best resolution of time, space and energy possible.
Which sounds doable, at least in theory... but as Heisenberg observed,
simultaneously knowing both the location and velocity of even a single
particle is not possible, even in theory.