50 results about "Geothermal heating" patented technology

A system includes a power unit, and a coiled tubing (CT) reel for spooling a CT string. The system includes a CT injector for injecting the CT string from a surface into a subsurface to construct a geothermal borehole. The CT injector includes a gooseneck for guiding the CT string into a body of the CT injector. The system includes a first arm for coupling the CT reel and the power unit. The system includes a second arm for coupling the CT injector and the power unit. The system is configured to modify the distance between the CT reel and the gooseneck by adjusting at least one of (i) the length of the first arm or (ii) the length of the second arm.

A system for geothermal heating comprising: a forced geothermal circuit in communication with a well bore; a well bore heat exchanger; a multilateral channel; a channel casing design; and a pump. A method for geothermal heating comprising: passing a fluid into a thermal circulation system; passing the fluid into a well bore heat exchanger; heating the fluid; passing the heated fluid through a multilateral channel comprising a multilateral channel design casing; and passing a reservoir fluid and the fluid into a heat exchanger. A method for a loop recovery process comprising: passing a circulation fluid into a system for geothermal heating; passing the circulation fluid into a well bore heat exchanger; heating the circulation fluid; passing the heated circulation fluid out of the system for geothermal heating; passing the heated circulation fluid through a heat exchanger of an organic Rankine cycle; and cooling the circulation fluid.

Systems and methods for generating hydrogen through serpentinization of iron-bearing rock, including mafic rock, ultramafic rock and banded iron formations is presented herein. The systems and methods use geothermally-heated and / or surface-heated fluid circulating through one or more fluidically-communicative wellbores to accelerate the production of hydrogen. A geothermal-injector wellbore is formed in a geothermal rock layer, and is communicative with a separate geothermal-collection wellbore, also formed in the geothermal layer. Fluid is pumped through the geothermal-injector wellbore, geothermally heated, collected by the geothermal-collection wellbore, and injected into a targeted rock layer that includes iron-bearing rock. The heated fluid increases the rate of hydrogen production though serpentinization of the rock, which is then collected through a separate producer wellbore. In some cases, a serpentinization-injector wellbore is used to circulate surface-heated and / or chemically-treated fluid to the targeted rock layer to accelerate hydrogen production.

The utility model relates to the technical field of geothermal heating, disclose a kind of geothermal heating heat pump unit, including heat pump unit main body, heat pump unit main body is fixedly connected with connecting pipe, connecting pipe is fixedly connected with box body, and the side of box body is fixedly connected with water outlet pipe;Water suction pipe, water suction pipe is arranged at the bottom end of heat pump unit main body, and water suction pipe is fixedly connected with heat pump unit main body cleaning assembly, and cleaning assembly is arranged in water suction pipe, and cleaning assembly is used to clean the speed of groundwater, and cleaning assembly includes filter plate, turbine blade and movable block, turbine blade rotation is arranged in water suction pipe, filter plate is arranged in water suction pipe, and filter plate is elastically connected with the inner wall of water suction pipe, movable block array is arranged between filter plate and turbine blade, movable block is transmission connection with turbine blade, heat pump unit main body is pumped up by water suction pipe to water, after water passes through water suction pipe, internal parts of cleaning assembly cooperate, and the impurities on filter plate are fully removed.

The invention relates to the field of geothermal heating temperature control, and provides a geothermal heating temperature control method and system based on environmental perception, and the method comprises the steps: obtaining indoor and outdoor environmental perception data through indoor perception equipment and outdoor monitoring channels of each heating room; preprocessing the indoor and outdoor environment sensing data; according to the preprocessed indoor and outdoor environment sensing data, the indoor temperature change trend of each heating room is predicted, and a temperature prediction change curve is obtained; when the fluctuation quantity of the temperature prediction change curve reaches the adjustment requirement, optimizing control parameters of a geothermal heating system adopted by each heating room according to the temperature prediction change curve by taking the preset comfortable room temperature and the minimum geothermal heating energy consumption as targets to obtain optimal geothermal control parameters; and dynamically adjusting the control parameters of the geothermal heating system according to the optimal geothermal control parameters. By means of the method, the comfortable room temperature can be preset, geothermal heating energy consumption can be minimized, the indoor comfort degree is improved, and meanwhile heating energy consumption is reduced.

The invention discloses a geothermal heat supply system integrating electricity price response and a heat storage scheduling strategy, belongs to the technical field of geothermal heat supply, and can solve the problems that an existing single geothermal heat supply system is low in efficiency and poor in stability. The system comprises a deep geothermal well; a photo-thermal module; the temperature commutator comprises an inlet end and a plurality of outlet ends; the deep geothermal well and the photo-thermal module are both communicated with the inlet end; the temperature reverser is used for detecting the temperature of the heat exchange fluid at the inlet end and controlling the outflow direction of the heat exchange fluid according to the temperature; the heat storage module comprises a heat storage heating unit and a heat storage water supply unit which are connected to different outlet ends of the temperature reverser, and the heat storage temperature of the heat storage heating unit is higher than that of the heat storage water supply unit; and the control module is used for controlling the deep geothermal well and the photo-thermal module to store heat to the heat storage module in the valley electricity period of the heat consumption valley period and controlling the heat storage module to release heat to the user side in the peak electricity period of the heat consumption peak period. The device is used for geothermal heat supply.

The invention provides a geothermal water pressurizing, cooling and scale preventing system and method. The system comprises a water turbine, a heat exchanger, a production well and a recharge well. The water turbine is provided with an inlet end and an outlet end, and the outlet end of the water turbine is communicated with the recharge well; the water turbine is connected with the direct-current generator and the centrifugal pump through the coupler; the heat exchanger is provided with an inlet end and an outlet end; the outlet end of the heat exchanger is communicated with the inlet end of the water turbine through a pipeline; the inlet end of the heat exchanger is communicated with the production well through a pipeline; the centrifugal pump is provided with an inlet end and an outlet end, and the inlet end of the centrifugal pump is communicated with the outlet end of the heat exchanger through a pipeline; and the outlet end of the centrifugal pump is communicated with the inlet end of the heat exchanger through a pipeline. According to the geothermal anti-scaling process system, the generation amount of calcium carbonate scales of geothermal water side heat exchanger equipment and pipelines is reduced, generation of harmful factors such as blockage is reduced, the overhaul and maintenance cost is reduced, and the operation stability of a geothermal heat supply system is enhanced.

The invention discloses a geothermal-driven fuel cell and transcritical carbon dioxide cycle combined heat and power generation system. The system comprises a geothermal heating cycle subsystem, a high-temperature proton exchange membrane fuel cell subsystem and a transcritical carbon dioxide cycle subsystem which are connected with one another, the geothermal heating circulation subsystem preheats a reaction working medium of the high-temperature proton exchange membrane fuel cell subsystem and serves as a heat source of the building heating system, and waste heat discharged by the high-temperature proton exchange membrane fuel cell subsystem serves as a heat source of the transcritical carbon dioxide circulation subsystem. The transcritical carbon dioxide circulation subsystem forms a self-condensation circulation mechanism through an ejector, a gas-liquid separator and a first booster pump. Efficient gradient utilization of medium and low temperature geothermal energy is achieved, cooperative output of electric energy and heat energy is achieved, the Carnot cycle limitation of a traditional heat engine can be broken through, and the comprehensive energy efficiency of the system is effectively improved; self-condensation of transcritical carbon dioxide circulation can be achieved, and the problem that carbon dioxide is limited under the conventional condensation condition is solved.

Systems and methods for generating hydrogen through serpentinization of iron-bearing rock, including mafic rock, ultramafic rock and banded iron formations is presented herein. The systems and methods use geothermally-heated and / or surface-heated fluid circulating through one or more fluidically-communicative wellbores to accelerate the production of hydrogen. A geothermal -injector wellbore is formed in a geothermal rock layer, and is communicative with a separate geothermal-collection wellbore, also formed in the geothermal layer. Fluid is pumped through the geothermal -injector wellbore, geothermally heated, collected by the geothermal-collection wellbore, and injected into a targeted rock layer that includes iron-bearing rock. The heated fluid increases the rate of hydrogen production though serpentinization of the rock, which is then collected through a separate producer wellbore. In some cases, a serpentinization-injector wellbore is used to circulate surface-heated and / or chemically-treated fluid to the targeted rock layer to accelerate hydrogen production.

The utility model relates to the technical field of geothermal heating, in particular to a real-time monitoring device for geothermal heating, which comprises a monitor, the monitor is connected with an antenna through a connecting line, the monitor is arranged in a monitoring barrel, the top of the monitoring barrel is provided with an adjusting mechanism, the top of the adjusting mechanism is connected with a protective box, and the protective box is connected with the monitoring barrel. The antenna is located in the protection box, the monitoring barrel comprises a barrel body, a fixing column and monitoring holes, the fixing column is fixedly installed at the top in the barrel body, the monitor is fixedly installed at the bottom of the fixing column, and a plurality of monitoring holes are formed in the side face of the lower end of the barrel body and located in the outer side of the monitor; and the adjusting mechanism comprises a telescopic cylinder, a lead screw, a wire cylinder and a fixed cylinder, the wire cylinder is fixedly installed at the top of the barrel body, the real-time monitoring device is used for local heat supply, the situation that the monitor is extruded by soil blocks, stone blocks and the like in the burying process to be damaged is prevented, and stable operation of the monitor is guaranteed.

The utility model discloses a geothermal heating system for a greenhouse, which comprises a solar thermal collector vertically arranged on a back wall of the greenhouse; the water storage tank is arranged outside the greenhouse; the geothermal coil pipe is arranged below the ground of the greenhouse; a water supply pipe connected with one end of the geothermal coil pipe is arranged at the lower end of the water storage tank, and a water return pipe connected with the other end of the geothermal coil pipe is arranged at the upper end of the water storage tank; a water inlet pipe connected with the lower end of the solar heat collector is arranged at the lower end of the water storage tank, and a water outlet pipe connected with the upper end of the solar heat collector is arranged at the upper end of the water storage tank. The utility model has the following advantages and effects: through the arrangement of the solar heat collector, solar energy is utilized to heat a water source, the water source is stored in the water storage tank, hot water can be conveyed into the geothermal coil pipe, the heating of the ground is realized, the heating mode is energy-saving and environment-friendly, and the waste of resources can be reduced.

The invention relates to the technical field of overwintering storage of peony seeds in alpine regions, and discloses an overwintering storage method and storage device for peony seeds in alpine regions, the storage device comprises a passive heating mechanism, and the passive heating mechanism is fixedly mounted in a supporting cylinder. The overwintering storage method for the peony seeds in the alpine region comprises the steps that firstly, sand is stirred, a sand layer is laid, and the peony seeds are placed; secondly, the storage barrels and the storage plates are placed in a combined mode; thirdly, passive geothermal heating is conducted on the heat preservation barrel; 4, oxygen is introduced into the heat preservation cylinder at regular time, humidity is automatically controlled, and temperature is monitored in real time; and step 5, determining the low-temperature sand storage time of the peony seeds. The method has the beneficial effects that a temperature guarantee is provided for low-temperature sand storage stratification treatment in the alpine regions of the peony seeds, and through automatic control over ventilation, oxygen supply and humidity of the storage device, the appropriate humidity of the sand layer is kept, and the problem that the peony seeds are mildewed due to oxygen deficit in the overwintering storage process is solved.

The present invention discloses a geothermal-based collaborative multi-energy intelligent heating system, including a geothermal heating end, which is used to use geothermal energy as the main line of the heating system for heating and obtain a steady-state range of the geothermal heating capacity; a balancing controller, which is arranged at the geothermal heating end, and is used to control the heating support of the geothermal heating end and the heating elasticity regulation range when using geothermal energy as the main line of the heating system for heating; at least one auxiliary heating end, which is connected to the heating system as auxiliary heating; a heating steady-state model, which connects the geothermal heating end, the auxiliary heating end and the user end, obtains a compensation amount that meets the needs of the user end, and controls the auxiliary heating end by the compensation controller to achieve the heating balance of the heating system with the compensation amount; a control module, which is used to control the balancing controller to be in a restricted controlled state when the heating system enters the heating balance, and to control the connection and exit of the auxiliary heating end by the compensation amount.

The utility model discloses a green electricity geothermal heating system for a northwest hypersalinity region, which comprises a middle-deep layer coaxial heat exchange well, a water using position, a water storage tank and a photovoltaic photo-thermal heat pump, the middle-deep layer coaxial heat exchange well is communicated with the water storage tank through a heat compensation cold water pipe and a heat compensation hot water pipe, and a water pump I is mounted between the middle-deep layer coaxial heat exchange well and the water storage tank; a photovoltaic inverter is installed at the circuit output end of the photovoltaic photo-thermal heat pump, the photovoltaic photo-thermal heat pump communicates with the water storage tank through a cold water pipe and a hot water pipe, a fourth water pump is installed between the photovoltaic photo-thermal heat pump and the water storage tank, and the middle-deep layer coaxial heat exchange well communicates with the water using position through the cold water pipe and the hot water pipe. The geothermal energy is used for heating users through a direct supply or heat pump system in a grading and staged manner at different temperature levels, and insufficient parts can be supplemented by a photovoltaic photo-thermal heat pump and the like, so that continuous and stable heat supply to the user side is realized; the photovoltaic photo-thermal heat pump is used for supplying power to all components in the heat supply system, so that the heat supply system has a pure green function, and redundant electric quantity can be output to a power grid.

The utility model discloses a medium-deep layer geothermal heat exchange system, belongs to the technical field of geothermal heat supply, and solves the problem that an underground heat reservoir is excessively exploited due to an existing heat collection mode. The input end of the first conveying structure communicates with the output end of the connecting structure, and the output end communicates with the geothermal water supply pipeline. The input end of the second conveying structure communicates with the geothermal water return pipeline, and the output end communicates with the first input end of the connecting structure. The heat exchange mechanism is buried under the earth surface and comprises an inner pipe, a heat pipe and a sleeve. The heat pipe is sleeved on the inner pipe, and the sleeve is sleeved on the heat pipe. The input end of the heat pipe communicates with the output end of the connecting structure, the output end of the heat pipe communicates with the input end of the inner pipe, and the output end of the inner pipe communicates with the second input end of the connecting structure. The heat collection efficiency is high, loss of heat in the underground transmission process can be reduced, energy consumption is reduced, and excessive exploitation of an underground heat reservoir is avoided.

During meeting for planning operations for scale removal and scale inhibitor squeeze treatment in wells, the possibility of the manifold being partially incrusted with scale raised considering the more critical mixture of water produced. The proposed solution is a method of treatment for removing scale from a manifold. Said method uses the geothermal heating of the exploration reservoir to heat a chemical removal solution (50). Heating is required to ensure the temperature is in a range that is also suitable for conducting the removal reaction, since the distance that the solution travels to the manifold (20) e the low temperature of the underwater environment make the reaction occur inefficiently, as in the case of pre-salt.

This application discloses a method, apparatus, electronic device, and medium for calculating the heating capacity of geothermal fields based on pressure field factors. The method may include: determining the expression of a well function based on a single-well extraction model; calculating the well-to-well spacing in the well-to-well model, which includes pumping wells and reinjection wells, based on the expression of the well function; calculating the heat extraction capacity of a single well; calculating the number of pumping wells based on the well-to-well spacing; and calculating the heating capacity based on the heat extraction capacity of a single well and the number of pumping wells. This invention starts from the changes in the pressure field of a geothermal field to determine a reasonable spacing between extraction and reinjection wells to ensure the relative stability of the pressure field and avoid a significant drop in the liquid level of pumping wells. Based on the well spacing, a geothermal field development well network is deployed, and the scale of geothermal field development and utilization and the geothermal heating capacity can be further calculated, providing a scientific basis for the sustainable development and utilization of geothermal fields and the preparation of feasibility studies for geothermal heating projects.

The invention relates to the field of building construction, and discloses a fabricated geothermal heating structure and a construction method thereof.The fabricated geothermal heating structure comprises two concrete slabs, butt joint mechanisms are arranged on the close sides of the two concrete slabs, mounting mechanisms are arranged in the concrete slabs, and damping heat preservation mechanisms are arranged in the concrete slabs; the damping heat preservation mechanism comprises a damping plate, the top end of the damping plate is fixedly connected to the bottom end of the concrete plate, the bottom end of the damping plate is fixedly connected with a balance weight plate, the bottom end of the balance weight plate is fixedly connected with a reflecting film, the bottom end of the reflecting film is fixedly connected with a heat preservation plate, and a fixing assembly is arranged in the concrete plate. The first fixing steel sheet slides into the concrete slab, the threaded rotary column is rotated to drive related parts to rotate, and the sliding block is embedded into the concrete slab to complete splicing; reverse operation can achieve quick disassembly, lossless installation and disassembly are achieved, plates can be reused for multiple times, the construction speed is high, and the construction period is short.

The utility model provides a bridge structure maintenance system based on clean energy, which relates to the field of concrete structure engineering and energy utilization, is used for balancing the temperature difference between the inside and outside and between the sunny side and the sunny side of a bridge structure, and sequentially comprises a pile foundation, a bearing platform, a pier, a box girder and a roadbed from bottom to top, the maintenance system comprises a heat removal mechanism, a heat dissipation mechanism and a loop mechanism in the flowing direction of a circulating medium, the heat removal mechanism heats the circulating medium in a heat exchange pipeline through terrestrial heat in a pile foundation area, and the heated circulating medium is introduced into a heat dissipation pipeline in a roadbed through a water feeding assembly; therefore, geothermal energy is uniformly released to the upper structure of the bridge, the temperature difference between the inside and outside of the bridge structure and the yin-yang surface is balanced, concrete cracking and pavement icing of the bridge structure are effectively prevented, and the use value is high.

A system for geothermal heating comprising: a forced geothermal circuit in communication with a well bore; a well bore heat exchanger; a multilateral channel; a channel casing design; and a pump. A method for geothermal heating comprising: passing a fluid into a thermal circulation system; passing the fluid into a well bore heat exchanger; heating the fluid; passing the heated fluid through a multilateral channel comprising a multilateral channel design casing; and passing a reservoir fluid and the fluid into a heat exchanger. A method for a loop recovery process comprising: passing a circulation fluid into a system for geothermal heating; passing the circulation fluid into a well bore heat exchanger; heating the circulation fluid; passing the heated circulation fluid out of the system for geothermal heating; passing the heated circulation fluid through a heat exchanger of an organic Rankine cycle; and cooling the circulation fluid.

The invention discloses a method and related device for evaluating carbon emission reduction of a medium-deep geothermal heating system, and the method comprises the steps: building a geothermal well source side heating capability model based on the fluid mechanics and engineering thermodynamics theory, and dividing the load side heating demand scale according to the heating load index and the building area; according to the geothermal well source side heating capacity model and the load side heating demand scale, a multi-parameter combination feasible solution is screened, operation energy consumption and carbon emission calculation is carried out, and economical efficiency evaluation and input-output comprehensive evaluation are carried out; and optimizing different system configuration schemes according to economic evaluation and input-output comprehensive evaluation results. According to the method, the geothermal well parameters and the system operation strategy are collaboratively optimized, the principle of'demand setting by supply ', the multi-parameter combination screening mechanism and the comprehensive carbon emission reduction goodness index are organically combined, and collaborative optimization of geothermal well source side parameters and heating system configuration is achieved.

The utility model discloses a buried pipe structure for shallow geothermal heating, which relates to the technical field of heat exchange, and comprises an outer pipe body, an inner pipe body is arranged in the outer pipe body in a penetrating manner, a lower water flow channel is formed between the outer pipe body and the inner pipe body, and the lower water flow channel is communicated with the inner part of the inner pipe body through a liquid guide opening formed in the pipe wall of the inner pipe body; the heat collection anti-impact assembly is arranged on the periphery of the outer pipe body, the heat collection anti-impact assembly comprises a spiral piece, the spiral piece is spirally arranged on the periphery of the outer pipe body, and a spiral pressure-resistant plate is arranged on the periphery of the spiral piece; the structure can be implanted into the shallow layer of the earth surface, the outer pipe body and the shallow layer of the earth surface can be firmly fixed through the heat collection anti-impact assembly, the heat collection anti-impact assembly can further transfer geothermal energy of the shallow layer into the lower water flow channel, and when a heat exchange medium flows in the lower water flow channel, heat can be transferred out from the inner pipe body; therefore, the utilization efficiency and the heat exchange efficiency of terrestrial heat can be improved.

The utility model relates to a geothermal heating system based on an absorption type large-temperature-difference heat exchange technology, which comprises a geothermal well, a heating heat user and an absorption type large-temperature-difference heat exchange unit, and the absorption type large-temperature-difference heat exchange unit comprises an absorption type lithium bromide unit and a plate heat exchanger. The absorption type lithium bromide unit comprises a generator, an absorber, a condenser, a first evaporator and a second evaporator, the first evaporator and the second evaporator are independent of each other, and geothermal water pumped out of the geothermal well through the geothermal water circulating pump sequentially enters the generator, the plate heat exchanger and the first evaporator and then is recharged into the geothermal well. Heating heat supply network return water pumped out from a heating heat user through a heat supply network circulating pump is divided into two paths to enter the absorption type large-temperature-difference heat exchange unit, one path sequentially enters the absorber and the condenser, the other path sequentially enters the second evaporator and the plate heat exchanger, and the two paths of heating heat supply network water obtained after temperature rise are converged into the heating heat user. The geothermal water heating system can further reduce the temperature of geothermal water, increase the temperature difference between supply water and return water of the geothermal water and improve the heating efficiency of the geothermal water.

The present application relates to the field of geothermal energy heating technology, and in particular to a pipeline filtering device for geothermal energy heating operation, which includes a filter cartridge, a diverter plate, a rotating mechanism and a sliding mechanism. The filter cartridge is provided with a diverter plate and a plurality of flow holes, and the outer surface is provided with a support rod and a turntable. The turntable is connected to the elastic rod through a guide sleeve, and the elastic rod is provided with a cleaning ring and an auxiliary component. The device drives the turntable to rotate through fluid impact, driving the cleaning ring and cleaning ring 2 to dynamically scrape and clean the flow holes, and at the same time uses fluid pressure to spray and clean the flow holes, thereby reducing impurity blockage and flow rate fluctuations, ensuring that the fluid stably enters the filter cartridge, and improving the signal transmission accuracy and reliability. The present application can effectively solve the blockage problem caused by impurities in the fluid and improve the operating efficiency of the geothermal energy heating system.

The invention provides a geothermal energy comprehensive utilization system and method, and relates to the technical field of geothermal energy utilization. A user heat exchange component; the first heat exchange side of the heat pump unit is connected with the coaxial sleeve geothermal well through a geothermal well water outlet pipeline and a geothermal well water inlet pipeline, and the second heat exchange side of the heat pump unit is connected with the user heat exchange component through a user water supply pipeline and a user water return pipeline; the buried pipe heat exchanger is connected with the geothermal well water inlet pipeline and the geothermal well water outlet pipeline through a buried pipe water inlet pipeline and a buried pipe water outlet pipeline respectively; the problem that in the prior art, in areas with large building density and unbalanced cooling and heating loads, a conventional shallow geothermal resource exploitation mode and a conventional medium-deep geothermal resource exploitation mode are used for geothermal heating and refrigeration, and the long-term efficient and stable operation effect cannot be achieved is solved.

The present application relates to a kind of geothermal heating simulation test platform for a variety of occasions, including geothermal test simulation platform, water storage system and water supply system;Water storage system includes stainless steel water storage iron box, water injection monitoring port, water tank inlet and outlet water flange;Water injection monitoring port is connected with geothermal test simulation platform, and the fluid in geothermal test simulation platform is injected by water injection monitoring port;Water supply system includes water pump fan, water pump high-power motor, water pump inlet and outlet water flange;Geothermal test simulation platform includes import and export pipeline flange, external steel structure box and flange internal baffle piece.The present application is suitable for a variety of occasions geothermal heating simulation test platform.By adjusting the number, size and material of pipeline, the heat transfer of single and multiple geothermal pipes of different depths and different strata is simulated;Through simulation test, the exploitation mode of geothermal energy can be optimized, the design and control strategy of heat pump system can be improved, the heat transfer and transmission efficiency of heating system can be optimized, etc., which helps to improve the performance and economy of geothermal heating.

This invention relates to a multi-energy complementary heating system based on solar and biomass energy, comprising a photovoltaic substrate and a geothermal heating pipe, and further comprising: a support frame, a circulating heating furnace with a water storage chamber in the middle, the photovoltaic substrate being connected to the circulating heating furnace, the circulating heating furnace using a multi-energy complementary method to heat the inside of the water storage chamber; and a connecting component installed on one side of the circulating heating furnace, which is used to circulate the circulating hot water inside the circulating heating furnace to the inside of the geothermal heating pipe. This application adopts a multi-energy complementary heating design, which allows clean energy sources such as solar and biomass energy to be used in a complementary manner, saving resources and reducing energy consumption. At the same time, the filtration component can accurately filter and clean the circulating water, preventing impurities from accumulating and depositing in the circulating water, which is conducive to the circulating water heating.

The invention discloses a data center full-year waste heat recovery and clean heating device and an operation method thereof.The data center full-year waste heat recovery and clean heating device comprises a waste heat heating module and an underground energy storage module, the waste heat heating module comprises a solar heat collector, a data machine room, a heat pump unit and the like, and the underground energy storage module is composed of a hot well, a cold well, an underground aquifer and the like; coupling linkage between the modules is achieved through pipelines and valves. In the non-heating season, the waste heat of the data machine room is mainly used, solar energy is used for assistance, and the waste heat is stored in an underground aquifer while free cooling is conducted on the machine room; in the heating season, through three modes of waste heat heating, geothermal heating and waste heat-geothermal combined heating, different temperature requirements are met by adapting to the peak regulation function of a heat pump. The problem of seasonal dislocation of waste heat and heat supply requirements of the data center is solved, cross-seasonal efficient utilization of waste heat is achieved, the energy utilization rate is remarkably increased, the operation cost of PUE and a heating system of the data room is reduced, carbon emission is reduced, and the system is suitable for various waste heat sources, stable in operation and wide in adaptability.

The utility model discloses an urban building geothermal heating module in the technical field of urban heating, which comprises a floor heating module, a mounting groove and a floor heating pipeline, the mounting groove is arranged on the floor heating module, the mounting groove is matched with the floor heating pipeline, a positioning groove is arranged in the middle of the mounting groove, a positioning block is arranged on the floor heating pipeline, and the positioning block is matched with the positioning groove. A positioning groove is formed in the top of the positioning block, clamping grooves are formed in the two sides of the positioning groove, a fixing plate is arranged at the top of the positioning block, a bayonet is formed in the fixing plate, arc-shaped grooves are formed in the inner walls of the two sides of the clamping groove, arc-shaped elastic pieces are arranged on the two sides of the fixing plate, the arc-shaped elastic pieces clamp the arc-shaped grooves to fix the fixing plate, and therefore the positioning block is fixed through the fixing plate; and fixing of the floor heating pipeline is completed, and the floor heating pipeline is fixed in the laying process.

The invention belongs to the technical field of medium-deep geothermal heating, and relates to a medium-deep geothermal energy closed type heat taking and using integrated heating system and an operation method thereof. Closed circulation heat extraction of geothermal energy is achieved through the coaxial double-pipe heat exchanger, and a working medium can circularly absorb heat underground through a communicating structure of an outer pipe and an inner pipe of the coaxial double-pipe heat exchanger. The plate heat exchanger directly utilizes a high-temperature working medium to exchange heat and supply heat in the system starting stage, and the response speed is increased; the flash tank performs gas-liquid separation according to the working medium state, a gas-phase working medium enters a subsequent heat pump cycle for temperature rise, and a liquid-phase working medium returns to a geothermal heat removal loop, so that gradient utilization of energy is realized; the heat regenerator preheats a working medium by recovering waste heat and forms efficient heat pump circulation with the compressor, the gas cooler and the expansion valve, and the energy efficiency of the system is remarkably improved. According to the invention, the intermediate heat exchange link is reduced, the operation energy consumption is reduced, and the comprehensive efficiency of geothermal energy utilization is further improved.