Coherent emission of spontaneous asynchronous radiation

• US 20070029952A1
• Filed: 08/04/2005
• Published: 02/08/2007
• Est. Priority Date: 08/04/2005
• Status: Abandoned Application

• Current Assignee: Forced Physics LLC
• Original Assignee: Forced Physics LLC
• Inventors: Davis, Scott
• Application Number:
  US11/198,917
• Publication Number:
  US 20070029952A1
• Time in Patent Office: Days
• US Class Current: 315/500
• CPC Class Codes: H01S 4/00 Devices using stimulated emission of electromagnetic radiation in wave ranges other than those covered by groups H01S1/00, H01S3/00 or H01S5/00, e.g. phonon masers, X-ray lasers or gamma-ray lasers

Abstract

Particles are sorted for emitting coherent radiation, specifically high-energy particles capable of coherent emission. Particles move toward a coherent emission chamber using molecular flow, so coherently emitting particles are collimated and minimize their distribution of output frequencies. Particles exit a coherent emission chamber in molecular flow, so coherent emission emits large amounts of energy per photon. Particles for coherent emission are energized in one or more energy modes: rotational, translational, or vibrational. Particles add translational energy using an accelerator. Energized particles reach tri-energy equilibrium after a relatively small number of collisions. Energized equilibrated particles are selected responsive to those modes, providing particles with substantially known energy distribution in each mode. Sorting particles by velocity restricts selected particles to those also having high rotational and vibrational energies. Selected particles spontaneously coherently emit radiation, so they release energy from one of the energy modes, not necessarily the energy mode for selection.

Claims

1. A composition of matter, including a plurality of particles in tri-energy equilibrium;

and

meeting a known translational selection requirement.

2. A method, including steps of

inducing translational energy to a plurality of particles;

allowing those particles to reach tri-energy equilibrium; and

selecting from that plurality only those particles meeting a known translational requirement.

3. Apparatus including

a thermal energizer;

an equilibrium region coupled to the thermal energizer;

a heteroscopic turbine coupled to the equilibrium region; and

a lasing region coupled to an output of the heteroscopic turbine.