A hydrogen production system according to an embodiment includes an evaporator that evaporates seawater to generate water vapor, an electrolytic device that electrolyzes the water vapor supplied from the evaporator to produce hydrogen, and a removal mechanism that is provided between the evaporator and the electrolytic device and removes a seawater component from the water vapor.

Topic: The purpose is to provide an oxygen and hydrogen mixed gas generator and a method for producing oxygen and hydrogen mixed gas stably by electrolyzing, and the resulting oxygen and hydrogen mixed gas thereto. Solution: an oxygen hydrogen mixed gas generator (1) is provided with an electrolyze device (10), wherein a first electrode (11) and a second electrode (12) are immersed in water for electrolyzing; and a power supply device (50), supplies the specified current to the first electrode (11) and the second electrode (12), the oxygen hydrogen mixed gas generator (1) mixes the oxygen and hydrogen generated from the electrodes to produce the oxygen hydrogen mixed gas, which is characterized in that the power supply device (50) reverses the polarity of the first electrode (11) and the second electrode (12) alternately.

The invention is transforming water molecules into gas flames; the new invention is an electrical machine system that produce from water which consist hydrogen and oxygen gases the modulates the gas and air mixture as per required burning rate with high efficiency that can be utilized such as in heating, cutting materials, welding formation, burner, powering motors, assisting power plant, cooking, etc. where its clean energy and safe to environment, economical and user friendly.

This Desalination Distillation Commercial Power Generation invention is powered by Hydrogen and Oxygen produced thru electrolysis. Present art desalination plants either use desalination distillation Or Reverse Osmosis. Both methods require large amounts of electrical power. This invention uses desalination distillation. In this method, oceanwater is boiled and steamed then cooled down back to clean water while in the process producing electricity.

Electrolysis is the process of breaking water (H2O) to its molecular atoms of Hydrogen gas and Oxygen gas. Using Clean Purified water (which is similar to Distilled Water) is the most efficient way to produce hydrogen. This invention will produce Clean Water and generate commercial electricity.

A mixed gas generating system with oxygen generator or breathing tube includes a hydrogen generator and an oxygen generator or a breathing tube. The hydrogen generator is configured to generate a hydrogen gas by electrolyzing water. The oxygen generator is configured to generate a first oxygen gas. The breathing tube is configured to receive a first oxygen gas from an oxygen supplying device. The hydrogen gas generated by the hydrogen generator is mixed with the first oxygen gas generated by the oxygen generator or provided by the breathing tube through a gas mixing tube or outputting the first oxygen gas to the hydrogen generator, so as to form a mixing gas for the user to inhale.

A mixed gas generating system with oxygen generator or breathing tube includes a hydrogen generator and an oxygen generator or a breathing tube. The hydrogen generator is configured to generate a hydrogen gas by electrolyzing water. The oxygen generator is configured to generate a first oxygen gas. The breathing tube is configured to receive a first oxygen gas from an oxygen supplying device. The hydrogen gas generated by the hydrogen generator is mixed with the first oxygen gas generated by the oxygen generator or provided by the breathing tube through a gas mixing tube or outputting the first oxygen gas to the hydrogen generator, so as to form a mixing gas for the user to inhale.

Safety of vehicles employing an electrolysis generator is improved by a rollover abatement system.

Safety of vehicles employing an electrolysis generator is improved by a rollover abatement system.

The present invention discloses a compact vehicle-mounted hydrogen-oxygen generator. In the fluid path, the water circulation outlet of the water tank is in communication via one of the two one-way throttle valves with the water pump, which is in communication with the electrolytic tank of the hydrogen-oxygen generator, which is in communication with the water circulation inlet of the water tank through the other one-way throttle valve, and the gas outlet of the water tank is in communication with an engine air-inlet via the steam-water separator and the dry flame arrester in turn. In the circuit, the water pump and the electrolytic tank of the hydrogen-oxygen generator are connected in parallel to the ends of the positive and negative electrodes of the vehicle power supply, respectively; the switch, the fuse and the electrolytic tank of the hydrogen-oxygen generator are connected in series to the vehicle power supply. The present invention realizes high-efficiency electrolysis through a porous electrode rod with high specific surface area, high catalytic activity, high electrical conductivity and high surface energy (being hydrophilic and air-repellent), as well as the compact design of tightly nested stainless steel sleeves; on the premise of meeting the gas production requirements, the present invention reduces the volume and weight of the electrolytic tank; the present invention realizes the single electrolytic chamber assembly of the vehicle-mounted hydrogen-oxygen generator, and allows direct connection to a single sealed electrolytic chamber in the circuit and the fluid path, effectively avoiding the problem with the serial connection of multiple electrolytic chambers.

A water reservoir and electrolysis cell combination that has a flow connection between a lower fluid port of the water reservoir and an upper fluid port of the electrolysis cell. The flow connection includes a first conduit with an inner bore which serves as a first flow path for the flow of water by force of gravity from the water reservoir to an outlet for the first conduit positioned within the electrolysis cell. The second conduit is concentric to the first conduit and defines an annular space between the outer surface of the first conduit and the inner surface of the second conduit which serves as a second flow path for an upward flow of gas from the electrolysis cell to the water reservoir.