Particle accelerator for inducing contained particle collisions

• US 6,441,569 B1
• Filed: 12/09/1999
• Issued: 08/27/2002
• Est. Priority Date: 12/09/1998
• Status: Expired due to Fees

• Current Assignee: Edward F. Janzow
• Original Assignee: Edward F. Janzow
• Inventors: Janzow, Edward F.
• Primary Examiner(s): Anderson, Bruce
• Assistant Examiner(s): Wells, Nikita
• Application Number:
  US09/458,474
• Time in Patent Office: 992 Days
• Field of Search: 315/502, 315/111.01, 315/111.61, 313/359.1, 313/362.1, 313/62
• US Class Current: 315/502
• CPC Class Codes: H05H 13/00 Magnetic resonance accelerators; Cyclotrons strophotrons, turbine tubes H01J25/62

Abstract

A particle accelerator for inducing contained particle collisions. The particle accelerator includes two hollow dees of electrically conductive material which are separated and electrically insulated from each other. The dees are located between the poles of a strong magnet which generates a magnetic field through top and bottom sides of the dees. In addition, the dees are connected to an oscillator for providing an alternating voltage between the dees. The dees are located within a chamber containing a gas and/or vapor provided at a measurable pressure. Ions are accelerated in essentially spiral paths within the dees, and follow paths which may be both concentric and non-concentric with the dees whereby collisions are produced between accelerated ions and gas or vapor atoms contained within the chamber, as well as between pairs of accelerated ions following different paths. The particle collisions within the chamber produces neutrons, generates energy, and performs other useful functions associated with the interaction of particles.

Claims

1. A particle accelerator comprising:

a contained chamber area comprising first and second portions;

each of said first and second portions formed of an electrically conductive material and comprising an upper surface and a lower surface, said upper and lower surfaces defining hollow chambers having open sides;

said first and second portions located adjacent to each other with said open sides facing each other and being electrically insulated from each other;

voltage means electrically connected to said first and second portions and providing a pulsed voltage to said first and second portions to provide an electrical field extending in a direction between said first and second portions;

a magnetic field passing generally perpendicular to said direction of said electrical field and passing through said contained chamber area;

an ion source in communication with said contained chamber area for providing ions to said contained area;

a substantial quantity of atoms at a measurable pressure contained within said contained chamber area for interaction with accelerated ions; and

wherein said voltage means applies a voltage to said first and second portions to accelerate ions within said contained chamber area and in a direction generally parallel to said electrical field extending between said first and second portions, and said magnetic field exerts a directional force on ions moving within said contained chamber area to cause said ions to follow generally spiral paths and undergo repeated accelerations as they pass between said first and second portions within said contained chamber area, whereby high energy ions are provided for colliding with said atoms in said contained chamber area to cause nuclear reactions to occur within said contained chamber area between said ions and said atoms.

2. The apparatus of claim 1 wherein said first and second portions comprise hollow dee-shaped portions, each dee having an open side, and said open sides of said first and second portions facing each other to define a generally circular hollow area for containing ions being accelerated.

3. The apparatus of claim 1 wherein said first and second portions comprise opposing dee-shaped portions, each dee-shaped portion comprising a set of two half dees, said half dees of each set being electrically insulated from each other and said voltage means including means for providing a half wave pulsing voltage potential across said half dees of each set.

4. The apparatus of claim 1 including an electrode electrically connected to each of said first and second portions wherein an electrode of said first portion is spaced from an electrode of said second portion, such that an arcing is created between said electrodes when a voltage is applied by said voltage source to said first and second portions.

5. The apparatus of claim 2 wherein each of said dee-shaped portions defines a radius about a center point of each respective dee-shaped portion, said magnetic field comprising plural regions of constant magnetic flux density formed concentrically about each of said center points, each said region having a different constant magnetic flux density than a concentrically adjacent region.

6. The apparatus of claim 1 wherein said atoms comprise neutral atoms provided at a measurable pressure within said contained area.

7. The apparatus of claim 6 wherein said atoms comprise atoms selected from a group consisting of deuterium and tritium atoms.

8. A method of inducing collisions between particles comprising the steps of:

providing a contained area defining a chamber for containing a gas at a measurable pressure;

providing a pulsing voltage potential across at least a portion of said contained area wherein said voltage potential alternately changes at a predetermined frequency;

providing a magnetic field passing through said contained area generally perpendicular to said voltage potential;

providing ions to said contained area;

providing a substantial quantity of atoms at a measurable pressure within said contained area;

accelerating said ions through said voltage potential within said contained area wherein said magnetic field causes said ions to follow a generally spiral path which is generally parallel to a plane defined by said electrical field and perpendicular to said magnetic field, said ions being repeatedly accelerated through said voltage potential as said voltage potential pulses at said predetermined frequency; and

wherein said ions collide with said atoms to cause nuclear reactions between said ions and said atoms within said contained area.

9. The method of claim 8 wherein said collisions of ions with atoms produce neutrons.

10. The method of claim 8 wherein said collisions of ions with atoms comprise collisions of ions with neutral atoms.

11. The method of claim 10 wherein said collisions of ions with neutral atoms produce additional ions within said contained area.

12. The method of claim 11 further including the step of accelerating said additional ions through said voltage potential.

13. The method of claim 8 wherein a plurality of said ions are accelerated through said voltage potential and at least some of said plurality of said ions follow paths which are non-concentric with the paths of others of said ions whereby collisions between accelerated ions are produced to cause nuclear reactions to be produced.

14. The method of claim 8 including the step of extracting energy in the form of heat from said contained area for performing work in another device.

15. The method of claim 8 including opposing, hollow dee-shaped members positioned in facing relationship to each other and applying a pulsing voltage to said dee-shaped members, and wherein ions are accelerated about points within said contained area which are non-concentric with said dee-shaped members.

16. The method of claim 8 including opposing dee-shaped portions, each said dee-shaped portion comprising a set of two half dees electrically separated from each other, and each set of half dees has a half wave pulsing voltage applied to it whereby each dee-shaped portion accelerates ions separately from the other dee-shaped portion between a respective set of half dees.

17. The method of claim 16 wherein said dee-shaped portions are separated by a predetermined distance whereby ions accelerated by the set of half dees forming one dee-shaped portion will collide with ions accelerated by the set of half dees forming the other dee-shaped portion after the ions accelerated by each dee-shaped portion reach a predetermined minimum energy.

18. The method of claim 8 including opposing, hollow dee-shaped members positioned in facing relationship to each other and applying pulsing voltage to said dee-shaped members, and including the step of causing ions accelerated to an outer peripheral wall of the dees to pass to a region radially outside of the dees within the contained area and follow a substantially constant radius path until colliding with an atom.