15results about "Solar heat systems" patented technology

A method of storing thermal energy includes providing a thermal storage material (TSM) comprising magnesium; delivering thermal energy into the TSM; and subsequently removing the thermal energy from the TSM for a practical purpose. The thermal energy may be delivered into the TSM at a first location and the thermal energy may be removed from the TSM at a second location that is different than the first location.

To solve problems with a conventional circulation type solar heat power generation device that since a rotary pipe and an electric generator for generating power generation energy are installed in the upper part of a chimney installed in a device box, the gravity center of the device box becomes high and the device becomes unstable by the pressure of strong wind and the quake of an earthquake, and that since a support frame for the rotary pipe and the electric generator needs to be sturdy for supporting the weight of the rotary pipe and the electric generator, manufacturing costs increase.SOLUTION: In order to lower the gravity center of a device box and reduce manufacturing costs, a shielding plate is provided for shielding the outside of a chimney and the inside of the chimney, a ventilation hole is provided in the shielding plate, and an electric generator and an Ikemi style turbine are provided at the bottom of the device box.SELECTED DRAWING: Figure 1

A solar turbine system that utilizes solar radiation energy to generate electricity. The system comprises an energy collecting module, high-pressure cylinder, an asymmetric bi-conical expansion chamber, a vector cancelling condenser, a condensation chamber. The energy collecting module consists of a transparent outer body, a transparent inner body separated by a vacuum, and a 3-dimensional metallic grid. The vector cancelling condenser includes gas outlets facing each other to cancel gas velocity and form saturated vapor, which condenses to fluid.

A carbon dioxide recovery system according to the present disclosure comprises: an adsorption unit that recovers carbon dioxide in air using an adsorbent; a transport unit that transports air in an indoor space to the adsorption unit; a heat recovery unit that recovers heat from the air; a separation unit that separates the carbon dioxide from the adsorbent; a first path that extends from the indoor space to the adsorption unit via the heat recovery unit; a second path that extends from the indoor space to the adsorption unit without passing through the heat recovery unit; a switching valve that switches the transport path of the air between the first path and the second path; and a control unit that controls the switching valve.

An energy supply system (20) for coupling to an island-operated wind turbine (30) is described, wherein the wind turbine (30) is configured to operate an electrolysis plant (11) for the production of green hydrogen using wind energy, and wherein the energy supply system (20) includes a solar energy source (21), comprising a photovoltaic module (22) and / or a solar thermal collector (23), which is configured to supply the electrolysis plant (21), in particular an enclosure (12) and water-carrying lines of the electrolysis units of the electrolysis plant (11), with thermal energy in the event of a lack of wind energy. Furthermore, a corresponding method for supplying an island-operated wind turbine (30) with solar energy is presented.

A solar turbine system that utilizes solar radiation energy to generate electricity. The system comprises an energy collecting module, high-pressure cylinder, an asymmetric bi-conical expansion chamber, a vector cancelling condenser, a condensation chamber. The energy collecting module consists of a transparent outer body, a transparent inner body separated by a vacuum, and a 3-dimensional metallic grid. The vector cancelling condenser includes gas outlets facing each other to cancel gas velocity and form saturated vapor, which condenses to fluid.

The utility model relates to the technical field of solar direct heating systems, and discloses an air type solar direct heating system which comprises an air type solar heat collector and an air return pipe, the outer side of the air type solar heat collector is connected with a circulating fan, and the outer side of the circulating fan is connected with a photovoltaic panel through a line in a matched mode. When the sun shines on the heat collector and the photovoltaic panel, the air type solar heat collector emits heat, the photovoltaic panel emits current, the current emitted by the photovoltaic panel drives the fan to extract low-temperature air from the return air inlet of a room, and finally the low-temperature air is sent back to the room from the adjustable air inlet, and when the sunlight intensity changes, the heat generation amount of the heat collector and the power generation amount of the photovoltaic panel can change synchronously. Therefore, the rotating speed of the circulating fan automatically changes along with the heat production amount of the heat collector, when hot air enters a room from the air inlet, the direction of airflow blowing into the room can be freely adjusted by adjusting the air inlet direction adjusting ball head of the air inlet, and therefore the heating comfort degree is guaranteed.

This carbon dioxide recovery system comprises: a separation unit that separates carbon dioxide from an adsorbent having a function of adsorbing carbon dioxide and regenerates the adsorbent; a heat supply unit that is provided with heat sources including a first heat source, which is a heat source derived from renewable energy, and that supplies heat necessary for regenerating the adsorbent to the separation unit; and a switching control unit that switches the heat sources for supplying the heat to the separation unit. The switching control unit switches the heat sources for supplying the heat to the separation unit on the basis of a priority defining the order in which the heat sources are to be used and a control criterion for determining the availability of the heat sources.

An apparatus includes a boiler configured to receive water, sodium hydroxide, and aluminum; a generator adjacent to the boiler and configured to generate electricity based on heat received from the boiler; a transformer electrically coupled with the generator; a hydrogen capture system coupled with the boiler and configured to capture hydrogen from the boiler; a carbon capture system coupled with the hydrogen capture system to produce hydrocarbons on-site; a nitrogen capture system coupled with the hydrogen capture system to produce ammonia on-site; and a boron 11 containment system coupled with the hydrogen capture system to produce hydrogen boron on-site.

A solar turbine system and method of operation are disclosed. The solar turbine system comprises an energy collecting module 110, a high-pressure cylinder 120, an asymmetric bi-conical expansion chamb

To provide a power supply station and the like capable of feeding power from external equipment.SOLUTION: A power / hydrogen supply station comprises: an input terminal part; an output terminal part; a first power generation device that generates power on the basis of natural energy; a first power storage part; a conversion part that includes at least one of a DC / DC converter and an AC / DC converter; a second power storage part that stores power supplied via the input terminal part; a first load; a second load; and a first switching part provided between the first power generation device and the first power storage part. The first power storage part stores the power obtained by the first power generation device via the conversion part and the first switching part. The first power storage part supplies power to the first and second loads. The second power storage part supplies power via the output terminal part. When a charging rate of the first power storage part is equal to or more than a full-charge threshold, and the power supplied from the first power generation device is equal to or more than a power threshold, the power from the first power generation device is supplied to the second power storage part via the conversion part and the first switching part.SELECTED DRAWING: Figure 16

A solar turbine system that utilizes solar radiation energy to generate electricity. The system comprises an energy collecting module, high-pressure cylinder, an asymmetric bi-conical expansion chamber, a vector cancelling condenser, a condensation chamber. The energy collecting module consists of a transparent outer body, a transparent inner body separated by a vacuum, and a 3-dimensional metallic grid. The vector cancelling condenser includes gas outlets facing each other to cancel gas velocity and form saturated vapor, which condenses to fluid.

A heating / cooling system comprises an air source heat pump 29 combined with a solar panel 12. A heat exchanger attached to the solar panel 12 contains glycol liquid. This is coiled with the heat excha

We provide computer cooling devices and other equipment that can cool computers even without power supply from the commercial power grid. [Solution] The cooling device comprises an output terminal section, a power generation device, a computer, a liquid tank, a heat exchange section, a liquid supply section, a first energy storage section, a second energy storage section, a hydrogen generator, a hydrogen storage section, and a switching device. The power stored in the second energy storage section is supplied to the first energy storage section. The power obtained by the power generation device is supplied to the heat exchange section and the liquid supply section via the first energy storage section and the output terminal section. When the power supply from the commercial power source to the computer via the switching device is interrupted, the power obtained by the power generation device is supplied to the computer via the first energy storage section, the output terminal section, and the switching device.

To provide an energy conversion device capable of converting primary energy into secondary energy.SOLUTION: An energy conversion device 1 comprises: a liquid tank 11 in which liquid 10 is stored; a plurality of gas receiving parts 12 provided in the liquid tank 11 in a vertical direction, and capable of rotating or moving up and down; a nozzle 13 that ejects compressed gas from below the gas receiving part 12 located at the lower part in the liquid tank 11; a gas cylinder 14 that stores compressed gas as a primary energy source and sends the compressed gas to the nozzle 13; output means 3 that outputs the kinetic energy of rotation or upward movement generated in the gas receiving part 12 by buoyancy generated by the gas receiving part 12 receiving the compressed gas ejected from the nozzle 13, to the outside of the liquid tank 11 as secondary energy; and a recovery device 4 that returns gas from the liquid tank 11 to the gas cylinder 14.SELECTED DRAWING: Figure 1