23 results about "Thermosiphon" patented technology

A thermosiphon is provided for a computing system. The thermosiphon includes an evaporating portion and a pool portion. The evaporating portion is operable to be in thermal communication with a computing component of the computing system. The evaporating portion is operable to retain an evaporating volume of fluid to lower a temperature of the computing component. The pool portion is in fluid communication with the evaporating portion. The pool portion is operable to receive excess fluid of the fluid from the evaporating portion when a volume of the fluid in the evaporating portion is greater than the evaporating volume.

This invention discloses a heat dissipation fin, a thermosiphon radiator, and a multi-dimensional heat dissipation device, relating to the field of electronic heat dissipation technology. The heat dissipation fin includes: a shell, an air inlet and a liquid outlet disposed on the shell, and a gas-liquid cavity disposed within the shell; wherein: the air inlet connects the gas-liquid cavity to a receiving cavity within the heat dissipation substrate of the thermosiphon radiator; the liquid outlet connects the gas-liquid cavity and the receiving cavity; the height of the air inlet in the vertical direction is higher than the height of the liquid outlet; the gas-liquid cavity includes: a first guide portion for guiding gas flow and communicating with the air inlet; a second guide portion for guiding liquid flow and communicating with the liquid outlet; and a connecting portion communicating with both the first and second guide portions; the angles between the first guide portion and the connecting portion, and between the connecting portion and the second guide portion, are both obtuse angles. This invention can improve the problem of poor working fluid flow in the prior art and can improve the heat dissipation performance of the radiator.

This invention discloses a distributed photovoltaic energy meter box, comprising a main body with a hinged door and evenly spaced support pillars at its bottom. The main body includes an inner box and an outer box, with heat sinks evenly distributed on the outer box and sealed and fixedly fitted onto the outside of the inner box. A thermosiphon interlayer air duct mechanism is provided on the main body, comprising a vertically connected cavity interlayer formed by the inner and outer boxes, an inlet pipe, and an outlet pipe. The cavity interlayer can be specifically divided into a left interlayer, a right interlayer, and a rear wall interlayer according to its position. The inlet pipe communicates with the bottom of the left interlayer, and the outlet pipe communicates with the top of the left interlayer. An active pressurization mechanism is connected to the inlet pipe. This invention belongs to the field of power equipment technology, specifically referring to a distributed photovoltaic energy meter box.

This invention provides a system for online treatment of siphon failure in the reboiler pipeline of a distillation column, relating to the technical field of thermosiphon in distillation systems. The system includes a liquid phase pipeline in the reboiler, on which a drain valve is installed, and a nitrogen pipeline is connected to the drain valve. By installing a drain valve on the liquid phase pipeline of the reboiler and connecting it to a nitrogen pipeline, the system uses nitrogen to briefly purge the liquid phase pipeline, blowing away metal powder and silicate impurities that clog the reboiler's liquid phase pipeline into the reboiler pump's liquid phase pipeline. These impurities are then filtered and carried away by the reboiler pump's inlet filter, preventing pipeline blockage, improving the reboiler's heat exchange efficiency, and thus improving the problems of reboiler siphon failure and methanol waste. This invention can treat the siphon failure problem of the methanol recovery column's reboiler pipeline online without shutting down the system, avoiding the cost losses caused by shutdown.

This invention belongs to the field of geotechnical slope engineering technology, and provides a prefabricated slope soil nailing pipe based on self-circulating heat exchange technology and its construction method. The pipe includes a soil nail shell; a heat exchange assembly, which is disposed inside the soil nail shell and includes a thermosiphon rod and a heat exchange mechanism. The thermosiphon rod is located at the bottom of the soil nail shell, and the heat exchange mechanism is connected to the thermosiphon rod. The heat exchange mechanism absorbs and releases the heat transferred by the thermosiphon rod outward through the soil nail shell. A gravity-promoting drive component is installed inside the heat exchange mechanism to accelerate the flow of the heat exchange medium within the mechanism, ensuring heat exchange between the soil nail shell and the heat exchange mechanism even when the shell is not vertical; and a heat dissipation assembly, which is disposed inside the soil nail shell and connected to the heat exchange mechanism. The heat dissipation assembly releases the heat dissipated by the heat exchange mechanism into the air. This invention can provide stable support for slopes in cold regions and frozen soil beneath the slope.

This application relates to a thermosiphon radiator, which includes a first heat exchange section and a second heat exchange section. The first heat exchange section includes a manifold section and a plurality of heat exchange tubes. The manifold section includes a first manifold with a wall thickness of T. The second heat exchange section includes a first wall, at least a portion of which can contact a heat source. The first and second heat exchange sections are connected. The thermosiphon radiator includes a pressure relief section, which includes a second wall with a thickness of t1, where t1 < T. A first cavity communicates with the interior of either the first or second heat exchange section. By providing a pressure relief section on the thermosiphon radiator, the first cavity circulates with the interior of the first and / or second heat exchange sections, thereby reducing the risk of the thermosiphon radiator bursting, thus improving the safety performance of the thermosiphon radiator while also taking into account its heat exchange performance.

This invention discloses a thermosiphon loop device. The evaporator consists of four parts: a liquid chamber, a vapor chamber, a microgroove structure, and a filter screen. The microgroove structure significantly increases the number of vaporization nuclei, enhancing boiling heat transfer. Above the microgroove structure, a hemispherical filter screen is designed to drastically reduce the amount of liquid carried into the vapor chamber, thereby enhancing gas-liquid separation within the evaporator. This gas-liquid separation allows the working fluid to have a higher dryness near the evaporation section outlet, significantly increasing the density difference and pressure driving force between the vapor and liquid phases inside the thermosiphon loop, and improving the heat transfer limit. Furthermore, a heat insulation device is installed in the condensate return pipe at the bottom of the evaporation section to suppress backflow caused by the growth and expansion of boiling bubbles, effectively reducing heat leakage at the bottom of the evaporation section. This invention achieves gas-liquid separation within the evaporator and reduces heat leakage at the bottom, thereby improving the heat transfer performance of the thermosiphon loop and making it suitable for high-power heat dissipation requirements.

The invention relates to a rotary dynamoelectric machine (1) having a stator (2) and a rotor (5) supported rotatably about an axis (21), the rotor (5) being connected to a hollow shaft (6) thermally conductively and fixedly for conjoint rotation, the hollow shaft (6) forming a closed cavity and being designed as a thermosiphon which axially has at least one evaporator zone (8) and a condenser zone (9), the condenser zone (9) having at least one fan (12) and at least one cooling disc (17) thermally coupled to the hollow shaft (6), the fan (12) and the cooling disc (17) being arranged coaxially with respect to the hollow shaft (6) and being connected to the condenser portion (9) thermally conductively via the wall of the hollow shaft (6).

This invention discloses an air dehumidification and cooling system and method with thermosiphon water recovery, a cooling tower, and a power plant. The system includes a tower body, a dehumidifier, a dehumidifying liquid regenerator, and a waste heat flue gas recovery unit. The dehumidifier pre-treats the high-humidity air entering the tower to enhance its cooling potential. The dry air comes into counter-current contact with circulating water inside the tower to achieve efficient evaporative cooling. When the generated humid and hot air flows through the thermosiphon array, the water vapor in it is condensed and recovered to a water collection tank. The dehumidified dilute dehumidifying liquid is sent to the regenerator, where it is regenerated by heating with waste heat flue gas from the power plant and then recycled. Through the closed-loop collaborative design of "air dehumidification pre-treatment - efficient evaporative cooling of circulating water - condensation and recovery of humid air moisture by thermosiphon - waste heat utilization to regenerate dehumidifying liquid", the system solves the dual problems of low efficiency and high water consumption of cooling towers in humid and hot environments, simultaneously improving cooling efficiency and water resource recovery rate, and achieving synergistic effects of energy saving and water saving.

A cooling system can include a first loop disposed at least partially within a space, such as a data center, a second loop disposed at least partially outside the space, and a heat exchanger for transferring heat from the first loop to the second loop. The first loop can include an evaporator for transferring heat from within the space to a first cooling fluid, and a prime mover for circulating the first cooling fluid within the first loop. The heat exchanger can transfer heat from the first cooling fluid to a second cooling fluid. The second loop can include a condenser for transferring heat from the second cooling fluid to an environment outside the space. The condenser can be disposed at a higher elevation than the heat exchanger and the second loop can operate as a thermosiphon.

A container for transporting a reactor is disclosed. The container includes a loop thermosiphon including a chamber, a heat exchanger fluidically coupled to the chamber, and an actuator including an unactuated state and an actuated state. The actuator is configured to automatically transition to the actuated state. The transition is based on an event occurring within the reactor. A working medium is configured to remove heat from the reactor in the actuated state.

High-performance vacuum thermosiphon with phase-bound two-pipe routing for thermal reheating and monovalent energy supply of heat pumps (10) for thermal reheating and energy supply of heat pumps, comprising a closed pipe system with a riser pipe (11) for the vapor phase and a spatially separated return pipe (12) for the liquid phase, which are connected to each other at the lower end via a probe foot (13) and at the upper end via a heat exchanger (15), characterized in that a siphon element (14) is arranged in the return pipe (12) immediately downstream of the heat exchanger (15), which acts as a physical vapor barrier and forces a directed vapor flow exclusively in the riser pipe (11).

The utility model relates to a thermosyphon heat exchanger which comprises a first plate, a plurality of first heat exchangers and at least one second heat exchanger, each first heat exchanger is provided with a heat exchange cavity, and the heat exchange cavities of the first heat exchangers communicate with cavities of the second heat exchangers to form a circulation loop; the first plate is provided with a plurality of mounting cavities, at least part of the mounting cavities are arranged at intervals in the length direction of the first plate, at least part of the first heat exchanger is located in the mounting cavities, and the first heat exchanger is fixedly or detachably connected with the first plate; the thermosyphon heat exchanger has better adaptability.

The apparatus for producing cryogenic fluids includes a series of heat exchangers (5, 6, 7) in heat exchange relationship with a hydrogen circuit (2) for uncooled hydrogen, located in at least one cold box (3, 4), and the apparatus (1) includes a pre-cooling device (8) configured to pre-cool the gas circuit (2) for the gas to be cooled to a first determined temperature, and the device includes two thermosiphons (42, 42A) connected in parallel and located in two different cold boxes (3, 3A).

The application discloses a multi-temperature cooling thermosiphon device based on non-azeotropic mixed working medium, wherein two-phase state non-azeotropic mixed working medium is condensed into two-phase state working medium in a first condenser, and the two-phase state working medium is separated into liquid-phase working medium and gas-phase working medium in a gas separator; the liquid-phase working medium enters a first evaporator through a first outlet to become two-phase state non-azeotropic mixed working medium by heat absorption; the gas-phase working medium enters a second condenser through a second outlet to become saturated liquid-phase working medium by heat release, and the saturated liquid-phase working medium enters a second evaporator to become two-phase state non-azeotropic mixed working medium by heat absorption; and the non-azeotropic mixed working medium in the first evaporator and the second evaporator reenters the first condenser. The application can provide different saturated temperatures to cool servers and has the characteristics of low energy consumption.

This invention relates to a vertically integrated thermosiphon cooling power device for heating elements. Compared with the prior art, this invention integrates heating elements with different heat dissipation requirements onto the same mounting substrate. Multiple independent evaporation chambers are correspondingly arranged within the same mounting substrate. The tops of the steam and liquid flow channels are located above all the evaporation chambers on the mounting substrate. The pipeline portions corresponding to the lower heating elements and interfering with the heating elements with different heat dissipation requirements above are transformed into flow channels within the mounting substrate, achieving overall thinning in the thickness direction. The heating elements with different heat dissipation requirements on the same mounting substrate are vertically and compactly integrated, achieving overall compact integration of the device. Furthermore, the heat dissipation circulation path corresponding to each evaporation chamber is kept away from the heating elements corresponding to other evaporation chambers through the steam and liquid flow channels located inside the mounting substrate, achieving both compact integration of heating elements with different heat dissipation requirements and completely independent heat dissipation.

The application discloses a gravity and micro-nano structure reinforced thermosyphon radiator and a preparation method thereof, and belongs to the field of thermosyphon radiators. The structure comprises a heat absorption end bottom plate, the top end of the heat absorption end bottom plate is provided with a heat dissipation mechanism, the heat dissipation mechanism is provided with a fixing mechanism on both sides and above, the heat absorption end bottom plate is in a box-shaped structure, the heat absorption end bottom plate is provided with positioning bolt holes at four corners, the heat absorption end bottom plate is internally provided with a heat absorption end supporting column and a heat absorption end inner wall surface reinforcing structure, and the box wall on one side of the heat absorption end bottom plate is provided with a suction and injection port. The application adopts the above structure and method, solves the problems that the steam diffusion direction of the current traditional thermosyphon pipe is single, the effective heat dissipation area is limited, the boiling heat transfer process of the smooth surface lacks vaporization cores, the re-wetting capacity is weak, and the heat transfer deterioration is advanced, and the problems that the heat dissipation demand of high heat flow chips cannot be met.

The utility model belongs to the technical field of high-boiling-point substance concentration, and provides a polycrystalline silicon high-boiling-point substance concentration system which comprises a high-boiling-point substance concentration tower, a tower kettle reboiler and a tower kettle buffer tank, the bottom of the high-boiling residue concentration tower is connected with a tower kettle buffer tank through an extraction pipeline; the bottom of the tower kettle reboiler is communicated with an extraction pipeline through a thermosiphon pipeline; and the upper part of the tower kettle reboiler is communicated with the high-boiling residue concentration tower through an upper pipeline. And the top of the tower kettle buffer tank is communicated with the middle part of the high-boiling residue concentration tower through a gas phase balance pipeline. According to the utility model, the thermosiphon pipeline of the tower kettle reboiler is arranged at the upper part of the extraction pipeline at the lowest point of the tower kettle of the high-boiling residue concentration tower, so that the problem that the tower kettle reboiler and the tower kettle pipeline are blocked when the high-boiling tower kettle is concentrated is solved. The concentrated high-boiling-point substances and the like enter a tower kettle buffer tank through an extraction pipeline, one part of the high-boiling-point substances in the tower kettle buffer tank are conveyed to the high-boiling-point cracking reaction kettle through a pump, and the other part of the high-boiling-point substances return to the high-boiling-point substance concentration tower kettle through a pump return pipeline, so that the liquid level of the high-boiling-point substance concentration tower kettle is maintained.

The invention relates to a facility (1) for producing a cryogenic fluid, the facility comprising: - a first cryogenic fluid storage element (10); - a circuit (2) for gas to be cooled; - a set of heat exchangers (5, 6) in heat exchange with the circuit (2); - a pre-cooling device (8) in heat exchange with at least one first portion (5) of the set of heat exchangers (5, 6); - a cryogenic cooling device (9) in heat exchange with at least one second portion (6) of the set of heat exchangers (5, 6); - a cryogenic purification device (3) arranged in the circuit (2); wherein the pre-cooling device (8) comprises a thermosiphon (48) that is fluidically connected to a second pre-cooling fluid storage element (4), and is configured to receive fluid from the second storage element (4) in order to allow a given level of pre-cooling fluid to be maintained in the thermosiphon (48).

The present invention provides a thermosyphon and a bus stop bench having the thermosyphon, the thermosyphon consisting of: an evaporation unit that absorbs external heat to phase-change a fluid accommodated therein from liquid to gas; and a condensation unit that is connected to the upper side of the evaporation unit and dissipates heat to the outside to phase-change the fluid accommodated therein from gas to liquid, wherein the evaporation unit and the condensation unit are formed to have different diameters, thereby increasing heat transfer coefficient and reducing flow resistance compared to existing thermosyphons in which an evaporation unit and a condensation unit are formed to have the same diameter, thus improving performance of the thermosyphon.

The invention relates to a device (1) for producing a cryogenic fluid, comprising:-a first reservoir (10) for a cryogenic fluid; a circuit (2) for the gas to be cooled; -a heat exchanger group (5, 6) that exchanges heat with the circuit (2); a pre-cooling device (8) which exchanges heat with at least a first portion (5) of the exchanger group (5, 6); -a cryogenic cooling device (9) which exchanges heat with at least a second portion (6) of the exchanger group (5, 6); -a cryogenic purification device (3) arranged in the circuit (2); the pre-cooling device (8) comprises a thermosiphon (48) fluidly connected to a second reservoir (4) for pre-cooling fluid and configured to receive fluid from the second reservoir (4) such that a determined pre-cooling fluid level can be maintained in the thermosiphon (48).

A geothermal reactor well system includes a closed loop well coupled to one or more reactant sources. The closed loop well includes a first surface wellbore extending from the surface to a geothermal subterranean region and a second surface wellbore extending from the surface to the region. A plurality of connecting wellbores connect the first surface wellbore to the second surface wellbore. At least a portion of the connection wellbore is sealed to prevent fluid communication with the surrounding geothermal subterranean region. A carrier fluid is disposed within the closed loop well. The closed-loop well is configured such that thermal energy from the geothermal subterranean region and / or thermal energy from the reaction of reactants in the closed-loop well drives fluid in the closed-loop well to circulate through the thermosiphon, carrying the reactants to react through the closed-loop well, and carrying the product of the reaction through the closed-loop well for collection.

1. Name of the product in this design: Thermosiphon Radiator. 2. Purpose of this design: To dissipate heat from electronic components. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D view 1.