Hyperluminal Radio Communication
William S. Stoertz
August 17, 1996

Abstract:

     A pair of devices can be designed to communicate 
exclusively with one another across an indefinitely large 
distance and through any intervening obstacle at an 
instantaneous speed by using particle-antiparticle pairs, stored 
in a magnetic or chemical matrix, and accessed by magnetic 
fields or radio waves. 

Description:

     One consequence of the observed instantaneous quantum 
wave collapse is that a pair of particles created together in a 
particle fission event are instantaneously connected beyond any 
physical interaction. This phenomenon can be used to create a 
device that simulates hyperluminal, or faster-than-light, radio 
communication. 
     By colliding high-speed protons and antiprotons, a shower 
of smaller particles is produced, among them pairs of electrons 
and positrons. It has been observed that, when one particle of 
such a pair experiences a change of state (spin, velocity, color, 
etc.), the other partner also undergoes a complementary change 
at the same moment, observed from a common point of 
observation. 
     Such particles could both be captured in a magnetic bottle or 
in a semiconductor or other chemical matrix, and preserved, to 
be utilized for hyperluminal "radio" communication. 
     In order to do so, a magnetic field may be applied to one 
partner of the pair, in order to reverse its spin orientation or 
other characteristic, and the other one will simultaneously 
undergo a corresponding change of state. 
     The change in state of the complementary particle of the pair 
may then be "read" by such means as nuclear magnetic 
resonance spectroscopy, or simply by a hard-disk reader, in 
case of a fixed ferrous ion. 
     By modulating the input to the "transmitter" particle, a signal 
can be sent, which can be picked up by the "receiver" particle. 
     Words, voice, television pictures, and other contents could 
be transmitted instantaneously by this method. 

Discussion:

     The limitations are: difficulties in producing, capturing, and 
preserving fundamental particles; difficulties in manipulating or 
reading out single-particle events; the spin-reversal time 
corresponding to a given particle species. 
     Another question arises with reference to the concept of 
"simultaneity" of events, especially if they are separated by 
large interstellar distances. Hypothetically, "simultaneity" 
would refer to the progression of time relative to the origin of 
the particle pair, or to an intermediate position between the two. 
     This method may potentially solve the problem of time delay 
in communication over vast distances as space probes embark 
on increasingly long voyages.