Electrochemical reactor for producing oxyhydrogen gas

An electrochemical reactor to produce oxyhydrogen gas from water based on water electrolysis, comprising a watertight reactor formed by a cubic containment cabinet flooded with electrolyte, fitted with a series of conductive plates arranged in parallel form and separated among themselves, wherein said containment cabinet is defined by four perimeter walls and the upper part open where a volume of electrolyte solution comprising water and a catalyzer is stored;

• at least two opposing perimeter walls and the back wall include, in their internal wall, a plurality of equidistant stretch marks to be able to slide in a range of electrochemical plates, mainly rectangular, distributed in parallel form and equidistant from each, and that include a central rabbet in “V” form on the upper on the upper edge, optionally a rabbet enabling the effect of communicating vessels for overflows right in the rounded vertex of the “V” in the absence of the upper cover so that the electrochemical solution can be transferred into different cells defined between plate and plate;
• alternating electrochemical plates being adapted on both ends of the upper edge to fasten a pair of copper electric connection rods with connectors that protrude from the cabinet and fed from an electric power source, these electrochemical plates being fed from each other;
• an upper cover is fixed with fixing systems in the upper part of the cabinet, covering it, which includes, in its lower face, a triangular projection that defines a “V” form, which is available in the area defined by the central rabbets in “V” form on the upper side of such electrochemical plates, serving as an internal isolation element so that the cells are isolated;
• mounted fixing systems in the upper part of such opposing perimeter walls adapted to firmly fix the upper cover lid;
• in the outer part of the group of electrochemical plates, two connectors protrude from the lid as part of the oxyhydrogen gas release outlet;
• level sensor elements, temperature sensors, and pressure sensors that connect in the cabinet to monitor operating conditions;
• a connection for a primary gas outlet duct is implemented in one of the cabinet walls, such output duct being connected along with the two auxiliary ducts when the maximum gas flow is required, for primary anti-explosion safety and electrolyte solution catalyzer vapor/fume elements;
• an air particle filter system to filter any particle above 5 microns diameter and of course the condensation contained in the gas, where such sensors are positioned strategically and are monitored and controlled by an electronic system which is also used to program the operational settings and to store the data collected.