Oxyhydrogen Gas Generating System

Abstract

A system for generating ortho-Oxyhydrogen uses a number of electrolytic cells to convert water into gas via electrolysis, with the resulting oxygen and hydrogen gas mixture being input into a combustion engine through the air intake duct. The system results in increased engine efficiency. The electrolytic cells are split into a two by three grid, with two rows of anodes and two rows of cathodes. A primary anode and a primary cathode serve to split current from a power source in order to ensure current is evenly split between the rows. Water for the electrolysis is supplied from a fluid storage tank, from which it passes through a fluid leveling tank into the electrolytic cells via a fluid pan. The system is operated by a control module which manages several aspects such as temperature, system shutdown, and circuit protection.

What is claimed is: 
     
         1 . An oxyhydrogen gas generating system comprises:
 a power source;   a control module;   a fluid pan;   a fluid storage tank;   a filtration tank;   a plurality of primary electrolytic cells;   a plurality of secondary electrolytic cells;   each of the plurality of primary electrolytic cells and each of the plurality of secondary electrolytic cells comprises a cylinder block, a cylinder head, an intake port, an exhaust port, and a plurality of hydrolysis plates;   the plurality of primary electrolytic cells and the plurality of secondary electrolytic cells being mounted atop the water pan;   the power source being electrically connected to the plurality of primary electrolytic cells;   the plurality of secondary electrolytic cells being electrically connected to the plurality of primary electrolytic cells;   the anode terminal and the cathode terminal being electrically connected to the plurality of hydrolysis plates;   the power source being electrically connected to the control module;   the water reservoir being in fluid communication with the water pan; and   the plurality of primary electrolytic cells and the plurality of secondary electrolytic cells being in fluid communication with an air intake duct of a combustion engine through the filtration tank, wherein generated ortho-Oxyhydrogen improves efficiency of the combustion engine.   
     
     
         2 . The oxyhydrogen gas generating system as claimed in  claim 1  comprises:
 the plurality of primary electrolytic cells further comprises a primary anode generator and a primary cathode generator; 
 the plurality of secondary electrolytic cells further comprises a first subsidiary anode generator, a second subsidiary anode generator, a first subsidiary cathode generator, and a second subsidiary cathode generator; 
 the power source comprises a positive terminal and a negative terminal; 
 the positive terminal being electrically connected to an anode terminal of the primary anode generator; 
 the negative terminal being electrically connected to a cathode terminal of the primary cathode generator; 
 the cathode terminal of the primary anode generator being electrically connected to the anode terminal of the primary cathode generator; 
 the anode terminal of the primary anode generator being electrically connected to an anode terminal of the first subsidiary anode generator and the second subsidiary anode generator; 
 the cathode terminal of the primary cathode generator being electrically connected to a cathode terminal of the first subsidiary cathode generator and the second subsidiary cathode generator; 
 the cathode terminal of the first subsidiary anode generator being electrically connected to the anode terminal of the first subsidiary cathode generator; and 
 the cathode terminal of the second subsidiary anode generator being electrically connected to the anode terminal of the second subsidiary cathode generator. 
 
     
     
         3 . The oxyhydrogen gas generating system as claimed in  claim 1  comprises:
 the cylinder block comprises a fluid reservoir; 
 the cylinder head being connected atop the cylinder block; 
 the cylinder head being hermetically sealed with the cylinder block; 
 the cylinder block and the plurality of hydrolysis plates being mounted to the water pan; 
 the fluid reservoir being housed within the cylinder block; 
 the plurality of hydrolysis plates being positioned within the fluid reservoir; 
 the intake port traversing into the cylinder head; 
 the exhaust port traversing out of the cylinder head; 
 the exhaust port of a first subsidiary anode generator being in fluid communication with the intake port of a primary anode generator; 
 the exhaust port of the primary anode generator being in fluid communication with the intake port of a second subsidiary anode generator; 
 the exhaust port of a second subsidiary anode generator being in fluid communication with the filtration tank; 
 the exhaust port of a first subsidiary cathode generator being in fluid communication with the intake port of a primary cathode generator; 
 the exhaust port of the primary cathode generator being in fluid communication with the intake port of a second subsidiary cathode generator; and 
 the exhaust port of a second subsidiary cathode generator being in fluid communication with the filtration tank. 
 
     
     
         4 . The oxyhydrogen gas generating system as claimed in  claim 1  comprises:
 a fluid leveling tank; 
 the fluid leveling tank comprises a first plurality of fluid-level sensors, an overflow sensor, and an overflow valve; 
 the fluid storage tank comprises a second plurality of fluid-level sensors and a pump; 
 the fluid pan comprises a fill port and a drain port; 
 the fluid storage tank being in fluid communication with the fluid leveling tank through the pump; 
 the fill port being in fluid communication with the fluid leveling tank; 
 the drain port being in fluid communication with the fluid leveling tank; 
 the first plurality of fluid-level sensors being mounted within the fluid leveling tank; 
 the power source being electrically connected to the first plurality of fluid-level sensors and the second plurality of fluid-level sensors; 
 the control module being electronically connected to the first plurality of fluid-level sensors and the second plurality of fluid-level sensors; 
 the overflow sensor being mounted within the fluid leveling tank; 
 the overflow valve being electronically connected to the overflow sensor through the control module; 
 the pump being electronically connected to the first plurality of fluid-level sensors through the control module; and 
 the second plurality of fluid-level sensors being mounted within the fluid storage tank. 
 
     
     
         5 . The oxyhydrogen gas generating system as claimed in  claim 1  comprises:
 a dehumidifying mechanism being operatively integrated with the filtration tank, wherein the dehumidifying mechanism removes condensed moisture from the filtration tank. 
 
     
     
         6 . The oxyhydrogen gas generating system as claimed in  claim 1  comprises:
 a temperature sensor; 
 a voltage sensor; 
 a shutdown sensor; 
 the power source being electrically connected to the temperature sensor, the voltage sensor, and the shutdown sensor; 
 the control module being electronically connected to the temperature sensor, the voltage sensor, and the shutdown sensor; and 
 a manual shutdown switch being electrically connected between the power source, the plurality of primary electrolytic cells, and the plurality of secondary electrolytic cells. 
 
     
     
         7 . The oxyhydrogen gas generating system as claimed in  claim 1  comprises:
 the power source being an alternator. 
 
     
     
         8 . An oxyhydrogen gas generating system comprises:
 a power source;   a control module;   a fluid pan;   a fluid storage tank;   a fluid leveling tank;   a filtration tank;   a plurality of primary electrolytic cells;   a plurality of secondary electrolytic cells;   the fluid leveling tank comprises a first plurality of fluid-level sensors, an overflow sensor, and an overflow valve;   the fluid storage tank comprises a second plurality of fluid-level sensors and a pump;   the fluid pan comprises a fill port and a drain port;   each of the plurality of primary electrolytic cells and each of the plurality of secondary electrolytic cells comprises a cylinder block, a cylinder head, an intake port, an exhaust port, and a plurality of hydrolysis plates;   the plurality of primary electrolytic cells and the plurality of secondary electrolytic cells being mounted atop the water pan;   the power source being electrically connected to the plurality of primary electrolytic cells;   the plurality of secondary electrolytic cells being electrically connected to the plurality of primary electrolytic cells;   the anode terminal and the cathode terminal being electrically connected to the plurality of hydrolysis plates;   the power source being electrically connected to the control module;   the water reservoir being in fluid communication with the water pan;   the plurality of primary electrolytic cells and the plurality of secondary electrolytic cells being in fluid communication with an air intake duct of a combustion engine through the filtration tank, wherein generated ortho-Oxyhydrogen improves efficiency of the combustion engine;   the fluid storage tank being in fluid communication with the fluid leveling tank through the pump;   the fill port being in fluid communication with the fluid leveling tank; and   the drain port being in fluid communication with the fluid leveling tank.   
     
     
         9 . The oxyhydrogen gas generating system as claimed in  claim 8  comprises:
 the plurality of primary electrolytic cells further comprises a primary anode generator and a primary cathode generator; 
 the plurality of secondary electrolytic cells further comprises a first subsidiary anode generator, a second subsidiary anode generator, a first subsidiary cathode generator, and a second subsidiary cathode generator; 
 the power source comprises a positive terminal and a negative terminal; 
 the positive terminal being electrically connected to an anode terminal of the primary anode generator; 
 the negative terminal being electrically connected to a cathode terminal of the primary cathode generator; 
 the cathode terminal of the primary anode generator being electrically connected to the anode terminal of the primary cathode generator; 
 the anode terminal of the primary anode generator being electrically connected to an anode terminal of the first subsidiary anode generator and the second subsidiary anode generator; 
 the cathode terminal of the primary cathode generator being electrically connected to a cathode terminal of the first subsidiary cathode generator and the second subsidiary cathode generator; 
 the cathode terminal of the first subsidiary anode generator being electrically connected to the anode terminal of the first subsidiary cathode generator; and 
 the cathode terminal of the second subsidiary anode generator being electrically connected to the anode terminal of the second subsidiary cathode generator. 
 
     
     
         10 . The oxyhydrogen gas generating system as claimed in  claim 8  comprises:
 the cylinder block comprises a fluid reservoir; 
 the cylinder head being connected atop the cylinder block; 
 the cylinder head being hermetically sealed with the cylinder block; 
 the cylinder block and the plurality of hydrolysis plates being mounted to the water pan; 
 the fluid reservoir being housed within the cylinder block; 
 the plurality of hydrolysis plates being positioned within the fluid reservoir; 
 the intake port traversing into the cylinder head; 
 the exhaust port traversing out of the cylinder head; 
 the exhaust port of a first subsidiary anode generator being in fluid communication with the intake port of a primary anode generator; 
 the exhaust port of the primary anode generator being in fluid communication with the intake port of a second subsidiary anode generator; 
 the exhaust port of a second subsidiary anode generator being in fluid communication with the filtration tank; 
 the exhaust port of a first subsidiary cathode generator being in fluid communication with the intake port of a primary cathode generator; 
 the exhaust port of the primary cathode generator being in fluid communication with the intake port of a second subsidiary cathode generator; and 
 the exhaust port of a second subsidiary cathode generator being in fluid communication with the filtration tank. 
 
     
     
         11 . The oxyhydrogen gas generating system as claimed in  claim 8  comprises:
 the first plurality of fluid-level sensors being mounted within the fluid leveling tank; 
 the power source being electrically connected to the first plurality of fluid-level sensors and the second plurality of fluid-level sensors; 
 the control module being electronically connected to the first plurality of fluid-level sensors and the second plurality of fluid-level sensors; 
 the overflow sensor being mounted within the fluid leveling tank; 
 the overflow valve being electronically connected to the overflow sensor through the control module; 
 the pump being electronically connected to the first plurality of fluid-level sensors through the control module; and 
 the second plurality of fluid-level sensors being mounted within the fluid storage tank. 
 
     
     
         12 . The oxyhydrogen gas generating system as claimed in  claim 8  comprises:
 a dehumidifying mechanism being operatively integrated with the filtration tank, wherein the dehumidifying mechanism removes condensed moisture from the filtration tank. 
 
     
     
         13 . The oxyhydrogen gas generating system as claimed in  claim 8  comprises:
 a temperature sensor; 
 a voltage sensor; 
 a shutdown sensor; 
 the power source being electrically connected to the temperature sensor, the voltage sensor, and the shutdown sensor; 
 the control module being electronically connected to the temperature sensor, the voltage sensor, and the shutdown sensor; and 
 a manual shutdown switch being electrically connected between the power source, the plurality of primary electrolytic cells, and the plurality of secondary electrolytic cells. 
 
     
     
         14 . The oxyhydrogen gas generating system as claimed in  claim 8  comprises:
 the power source being an alternator. 
 
     
     
         15 . An oxyhydrogen gas generating system comprises:
 a power source;   a control module;   a fluid pan;   a fluid storage tank;   a fluid leveling tank;   a filtration tank;   a plurality of primary electrolytic cells;   a plurality of secondary electrolytic cells;   a dehumidifying mechanism being operatively integrated with the filtration tank, wherein the dehumidifying mechanism removes condensed moisture from the filtration tank;   a temperature sensor;   a voltage sensor;   a shutdown sensor;   the fluid leveling tank comprises a first plurality of fluid-level sensors, an overflow sensor, and an overflow valve;   the fluid storage tank comprises a second plurality of fluid-level sensors and a pump;   the fluid pan comprises a fill port and a drain port;   each of the plurality of primary electrolytic cells and each of the plurality of secondary electrolytic cells comprises a cylinder block, a cylinder head, an intake port, an exhaust port, and a plurality of hydrolysis plates;   the plurality of primary electrolytic cells and the plurality of secondary electrolytic cells being mounted atop the water pan;   the power source being electrically connected to the plurality of primary electrolytic cells;   the plurality of secondary electrolytic cells being electrically connected to the plurality of primary electrolytic cells;   the anode terminal and the cathode terminal being electrically connected to the plurality of hydrolysis plates;   the power source being electrically connected to the control module;   the water reservoir being in fluid communication with the water pan;   the plurality of primary electrolytic cells and the plurality of secondary electrolytic cells being in fluid communication with an air intake duct of a combustion engine through the filtration tank, wherein generated ortho-Oxyhydrogen improves efficiency of the combustion engine;   the fluid storage tank being in fluid communication with the fluid leveling tank through the pump;   the fill port being in fluid communication with the fluid leveling tank;   the drain port being in fluid communication with the fluid leveling tank;   the power source being electrically connected to the temperature sensor, the voltage sensor, and the shutdown sensor;   the control module being electronically connected to the temperature sensor, the voltage sensor, and the shutdown sensor; and   a manual shutdown switch being electrically connected between the power source, the plurality of primary electrolytic cells, and the plurality of secondary electrolytic cells.   
     
     
         16 . The oxyhydrogen gas generating system as claimed in  claim 15  comprises:
 the plurality of primary electrolytic cells further comprises a primary anode generator and a primary cathode generator; 
 the plurality of secondary electrolytic cells further comprises a first subsidiary anode generator, a second subsidiary anode generator, a first subsidiary cathode generator, and a second subsidiary cathode generator; 
 the power source comprises a positive terminal and a negative terminal; 
 the positive terminal being electrically connected to an anode terminal of the primary anode generator; 
 the negative terminal being electrically connected to a cathode terminal of the primary cathode generator; 
 the cathode terminal of the primary anode generator being electrically connected to the anode terminal of the primary cathode generator; 
 the anode terminal of the primary anode generator being electrically connected to an anode terminal of the first subsidiary anode generator and the second subsidiary anode generator; 
 the cathode terminal of the primary cathode generator being electrically connected to a cathode terminal of the first subsidiary cathode generator and the second subsidiary cathode generator; 
 the cathode terminal of the first subsidiary anode generator being electrically connected to the anode terminal of the first subsidiary cathode generator; and 
 the cathode terminal of the second subsidiary anode generator being electrically connected to the anode terminal of the second subsidiary cathode generator. 
 
     
     
         17 . The oxyhydrogen gas generating system as claimed in  claim 15  comprises:
 the cylinder block comprises a fluid reservoir; 
 the cylinder head being connected atop the cylinder block; 
 the cylinder head being hermetically sealed with the cylinder block; 
 the cylinder block and the plurality of hydrolysis plates being mounted to the water pan; 
 the fluid reservoir being housed within the cylinder block; 
 the plurality of hydrolysis plates being positioned within the fluid reservoir; 
 the intake port traversing into the cylinder head; 
 the exhaust port traversing out of the cylinder head; 
 the exhaust port of a first subsidiary anode generator being in fluid communication with the intake port of a primary anode generator; 
 the exhaust port of the primary anode generator being in fluid communication with the intake port of a second subsidiary anode generator; 
 the exhaust port of a second subsidiary anode generator being in fluid communication with the filtration tank; 
 the exhaust port of a first subsidiary cathode generator being in fluid communication with the intake port of a primary cathode generator; 
 the exhaust port of the primary cathode generator being in fluid communication with the intake port of a second subsidiary cathode generator; and 
 the exhaust port of a second subsidiary cathode generator being in fluid communication with the filtration tank. 
 
     
     
         18 . The oxyhydrogen gas generating system as claimed in  claim 15  comprises:
 the first plurality of fluid-level sensors being mounted within the fluid leveling tank; 
 the power source being electrically connected to the first plurality of fluid-level sensors and the second plurality of fluid-level sensors; 
 the control module being electronically connected to the first plurality of fluid-level sensors and the second plurality of fluid-level sensors; 
 the overflow sensor being mounted within the fluid leveling tank; 
 the overflow valve being electronically connected to the overflow sensor through the control module; 
 the pump being electronically connected to the first plurality of fluid-level sensors through the control module; and 
 the second plurality of fluid-level sensors being mounted within the fluid storage tank. 
 
     
     
         19 . The oxyhydrogen gas generating system as claimed in  claim 15  comprises:
 the power source being an alternator.