IP Library Granted Patent US 9,611,826
Granted Patent B2
US 9,611,826 · App. 15/236,674 · Granted Apr 4, 2017

Plasma header gasket and system

Inventor: Serge V. Monros (Costa Mesa, CA)
Assignee: SVMTech, LLC
F02P13/00F02F11/002F02P7/03F02P9/007F02P23/04H01T13/28H01T13/50H01T15/00H05H1/52F02P3/01
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Quick Facts
Patent No.
US 9,611,826
App. No.
15/236,674
Granted
Apr 4, 2017
Kind
B2
Abstract

A plasma header gasket for use with an internal combustion engine includes plasma-igniters disposed around the perimeter of apertures in the gasket corresponding to piston cylinders in the engine. The plasma-igniters produce a plasma ionization field in time with the engine to increase the efficiency of combustion.

Claims (29)

1. A plasma header gasket, comprising:

a substrate having an aperture, wherein the aperture corresponds to a piston cylinder in an engine block;

a plurality of Thorium-alloy conductors associated with the substrate; and

a switched plasma-igniter electrically connected to the Thorium-alloy conductors, the switched plasma-igniter having a plasma-amplifier electrode disposed in the aperture, the plasma-amplifier electrode comprising a half-sphere conductor surrounded by and electrically isolated from a toroidal plasma emitter ring defining a plasma gap therebetween.

2. The plasma header gasket of claim 1 , wherein the substrate comprises dielectric layers, and wherein the Thorium-alloy conductors comprise electrically conductive Thorium-alloy circuit traces disposed between the dielectric layers.

3. The plasma header gasket of claim 1 , further comprising a switching block electrically connected to the Thorium-alloy conductors.

4. The plasma header gasket of claim 3 , wherein the Thorium-alloy circuit traces electrically connect the switched plasma-igniter to the switching block.

5. The plasma header gasket of claim 3 , further comprising a plasma field sensor associated with the aperture and electrically connected to the switching block by a secondary conductor associated with the substrate.

6. The plasma header gasket of claim 3 , comprising a plurality of pairs of Thorium-alloy conductors associated with the substrate and electrically connected to the switching block.

7. The plasma header gasket of claim 6 , comprising a plurality of switched plasma-igniters each electrically connected to a respective one of the plurality of pairs of Thorium-alloy conductors, each of the plurality of switched plasma-igniters having a plasma-amplifier electrode disposed within or adjacent to the aperture, each plasma-amplifier electrode comprising a half-sphere conductor surrounded by and electrically isolated from a toroidal plasma emitter ring defining a plasma gap therebetween.

8. The plasma header gasket of claim 6 , wherein the substrate has a plurality of apertures corresponding to a plurality of piston cylinders in the engine block.

9. The plasma header gasket of claim 8 , comprising a plurality of switched plasma-igniters each electrically connected to a respective one of the plurality of pairs of Thorium-alloy conductors, each of the plurality of switched plasma-igniters having a plasma-amplifier electrode disposed in the aperture, each plasma-amplifier electrode comprising a half-sphere conductor surrounded by and electrically isolated from a toroidal plasma emitter ring defining a plasma gap therebetween.

10. The plasma header gasket of claim 9 , wherein each of the plurality of switched plasma-igniters are conjointly electrically connected to a respective one of the plurality of pairs of Thorium-alloy conductors.

11. A plasma header gasket system, comprising: a substrate having an aperture corresponding to a piston cylinder in an engine block;

Thorium-alloy conductors associated with the substrate;

a switched plasma-igniter electrically connected to the Thorium-alloy conductors, the switched plasma-igniter having a plasma-amplifier electrode disposed in the aperture, the plasma-amplifier electrode comprising a half-sphere conductor surrounded by and electrically isolated from a toroidal plasma emitter ring defining a plasma gap therebetween;

a switching block disposed on the substrate and electrically connected to the Thorium-alloy conductors;

a microprocessor control unit electrically connected to the switching block, wherein the microprocessor control unit is programmed to ignite the switched plasma-igniter in time with a piston in the piston cylinder; and

a plasma amplifier electrically connected to the switched plasma-igniter and controllable by the microprocessor control unit, wherein the plasma amplifier produces a plasma ionization field through the switched plasma-igniter when the microprocessor control unit sparks the switched plasma-igniter.

12. The plasma header gasket system of claim 11 , wherein the substrate comprises dielectric layers, and wherein the pair of Thorium-alloy conductors comprises electrically conductive Thorium-alloy circuit traces laminated between the dielectric layers.

13. The plasma header gasket system of claim 12 , wherein the Thorium-alloy circuit traces electrically connect the switched plasma-igniter to the switching block.

14. The plasma header gasket system of claim 11 , further comprising

a plasma field sensor associated with the aperture and electrically connected to the switching block.

15. The plasma header gasket system of claim 11 , comprising a plurality of pairs of Thorium-alloy conductors associated with the substrate and electrically connected to the switching block.

16. The plasma header gasket system of claim 15 , comprising a plurality of switched plasma-igniters each electrically connected to a respective one of the plurality of pairs of Thorium-alloy conductors, each of the plurality of switched plasma-igniters having a plasma-amplifier electrode disposed in a respective one of the apertures, each plasma-amplifier electrode comprising a half-sphere conductor surrounded by and electrically isolated from a toroidal plasma emitter ring defining a plasma gap therebetween.

17. The plasma header gasket system of claim 15 , wherein the substrate has a plurality of apertures, each aperture corresponding to one of a plurality of piston cylinders in the engine block.

18. The plasma header gasket system of claim 17 , comprising a plurality of switched plasma-igniters each electrically connected to one of the plurality of pairs of Thorium-alloy conductors, each of the plurality of switched plasma-igniters having a plasma-amplifier electrode disposed in one of the plurality of apertures, each plasma-amplifier electrode comprising a half-sphere conductor surrounded by and electrically isolated from a toroidal plasma emitter ring defining a plasma gap therebetween.

19. The plasma header gasket system of claim 18 , wherein each of the plurality of switched plasma-igniters are conjointly electrically connected to a respective one of the plurality of pairs of Thorium-alloy conductors.

20. The plasma header gasket system of claim 19 , wherein the microprocessor control unit is programmed to ignite the plurality of switched plasma-igniters sequentially around a particular aperture so as to create a plasma vortex in the corresponding piston cylinder.

Assignments (2)
LIEN Recorded May 4, 2022
From: MONROS, SERGE V.
To: ARNOLD WEESE & DAVID MOSS C/O THE EVANNS LAW FIRM
Reel/Frame 059851/0151 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Aug 15, 2016
From: MONROS, SERGE V.
To: SVMTECH, LLC
Reel/Frame 039434/0735 →
Continuity (6)
Continuation In Part 14876618 · Oct 6, 2015
Continuation In Part 14515332 · Oct 15, 2014
Continuation In Part 15236674
Continuation In Part 13858733 · Apr 8, 2013
Provisional Application 61891551 · Oct 16, 2013
Related Publication 20160348635A1 · Dec 1, 2016