Natural Science Forum / Physics / Particle Physics / January 2006

Well then the following is probably not what you are looking for.

Number 754 #1, November 16, 2005 by Phil Schewe and Ben Stein

Hyper-Entangled Photon Pairs
  http://www.aip.org/pnu/2005/split/754-1.html

    Physicists at the University of Illinois at Urbana-Champaign have
    demonstrated for the first time the entanglement of two objects not
    merely in one aspect of their quantum natures, such as spin, but in
    a multitude of ways.

    Entanglement is the quantum affinity between or among particles
    (such as atoms or photons) in which the measurement of some
    property for one particle automatically and instantaneously
    determines the corresponding property of the other particle.

    Take the case of two photons entangled with respect to
    polarization, the orientation of the electric field associated with
    the photon. The photons, until detected, have no spin orientation;
    this is the principle of quantum indeterminacy. Indeed, both
    photons are said to be in a superposition of arbitrary -- but
    parallel -- polarization states. Consequently, each photon has a 50
    percent likelihood of being measured to have any polarization state
    -- e.g., +45 or -45 degrees. If now one photon's polarization is
    measured to be +45, then its entangled twin will surely also be
    polarized along +45, owing to the way the photons are made in this
    setup.

    One of the chief hopes of entanglement research is to exploit the
    superposition idea and the entanglement idea for performing
    unusually fast quantum computation. In the Illinois experiment, two
    photons, produced in a "down-conversion" process whereby one photon
    enters an optical crystal and sunders into two lesser-energy
    correlated daughter photons, are entangled not just in terms of
    polarization, but also in a number of other ways: energy, momentum,
    and orbital angular momentum (see PNU 721).

    Actually, the photon pair can be produced in either of two
    crystals, and the uncertainty in the production details of the
    individual photons is what provides the ability to attain
    entanglement in all degrees of freedom.

    Is it better to entangle two particles in ten ways or ten particles
    in two ways? They're probably equivalent, says Paul Kwiat, leader
    of the Illinois group, but for the purpose of quantum computing or
    communication it might be of some advantage if multiple quantum
    bits (or qubits) of information can be encoded in a single pair of
    entangled particles. Kwiat (217-333-9116, kwiat@uiuc.edu) says that
    his lab detects a record two million entangled photon pairs per
    second with ample determination of numerous properties, allowing a
    complete characterization of the entanglement produced.

You must be talking about Afshar's experiment.

Wormhead is a cut & paster fulltime. He doesn't even read the posts, he
just pastes his crap which he doesn't understand by the way because he
never studied physics.

You will find a lot of information here:

http://www.wordiq.com/definition/Afshar_experiment

Which you will fail to understand as well.

Mike