





Albert Einstein,
Boris Podolsky, and
Nathan Rosen Paradox
EPR Paradox From Wikipedia
EPR Paradox - Psych Central
EPR paradox-Algebra.com
EPR paradox on Answers.com / Wikipedia
Einstein-Podolsky-Rosen Paradox
The Einstein Podolsky Rosen paradox and its solution
The Einstein-Podolsky-Rosen Argument in Quantum Theory (Stanford Encyclopedia of Philosophy)
Photons Uncertainty Removes Einstein-Podolsky-Rosen Paradox
In
quantum mechanics, the EPR paradox is a
thought experiment which demonstrates that the result of a measurement performed on one part of a quantum system can have an instantaneous effect on the result of a measurement performed on another part, regardless of the distance separating the two parts. This runs counter to the intuition of
special relativity, which states that
information cannot be transmitted faster than the
speed of light. "EPR" stands for
Albert Einstein,
Boris Podolsky, and
Nathan Rosen, who introduced the thought experiment in a
1935 paper to argue that quantum mechanics is not a complete physical theory. It is sometimes referred to as the EPRB paradox for
David Bohm, who converted the original thought experiment into something closer to being experimentally testable.
The EPR paradox is a
paradox in the following sense: if one takes quantum mechanics and adds some seemingly reasonable conditions (referred to as "locality", "realism", and "completeness"), then one obtains a
contradiction. However, quantum mechanics by itself does not appear to be internally inconsistent, nor -- as it turns out -- does it contradict relativity. As a result of further theoretical and experimental developments since the original EPR paper, most physicists today regard the EPR paradox as an illustration of how quantum mechanics violates
classical intuitions, and not as an indication that quantum mechanics is fundamentally flawed.

How To Compreensive EPR see:
Exterior algebra,
wedge products,
exterior derivatives,
differential forms,
de Rham and
Alexander-Spanier cohomology,
integration on
manifolds,
Gauge Group and
Gauge Theory,
Bell's Theorem,
Hilbert space,
Pauli matrices,
Lie algebra,
Poincare group,
Gell-Mann matrices,
Lorentz group,
Quantum information
Does Bell's Inequality Principle rule out local theories of quantum mechanics? on
Usenet Physics FAQ



