Energy interaction device applied to energy storage modules, facility agriculture modules, and computing power modules

Abstract

This invention provides an energy interaction device applicable to energy storage modules, facility agriculture modules, and computing power modules, belonging to the field of waste heat recovery technology. It solves the problem of poor stability in existing technologies. This energy interaction device for energy storage modules, facility agriculture modules, and computing power modules includes a hollow volume body, an inlet pipe, an outlet pipe, a drainage pipe assembly, and an auxiliary heating mechanism. The volume body is elongated and horizontally arranged. Several inlet pipes are evenly distributed along the length of the volume body, and each inlet pipe has a one-way valve at its outer end that allows only the heating fluid medium to enter. This energy interaction device for energy storage modules, facility agriculture modules, and computing power modules exhibits high stability.

Description

Technical Field

[0001] This invention belongs to the field of energy recovery and utilization technology, and relates to an energy interaction device applied to energy storage, facility agriculture and computing modules. Background Technology

[0002] Waste heat recovery refers to the technology of recovering energy from waste heat generated during industrial production and energy storage module operation, and then reusing it.

[0003] Waste heat recovery can not only improve energy efficiency and reduce energy waste, but also reduce environmental pollution and greenhouse gas emissions.

[0004] However, existing waste heat recovery methods typically involve simply transferring the heat generated at the operating module directly to the heating demand module. Since the heat generated at the operating module is not constant, the heating demand module cannot obtain a stable supply of waste heat energy, resulting in poor stability.

[0005] At the same time, since there are multiple operating modules, each of which is connected to the heating demand module through a corresponding connecting pipe, the entire system structure is messy and not compact. Summary of the Invention

[0006] The purpose of this invention is to address the aforementioned problems in the existing technology by providing an energy interaction device with high utilization and compact structure that can be applied to energy storage, facility agriculture, and computing modules.

[0007] The objective of this invention can be achieved through the following technical solutions:

[0008] An energy interaction device for energy storage, facility agriculture, and computing modules is disclosed. The energy storage module and computing module each have a heating end that generates heat during operation, and the facility agriculture module has a heating end that heats it. The device comprises a hollow volume, an inlet pipe, an outlet pipe, a drainage pipe assembly, and an auxiliary heating mechanism. The volume is cylindrical and horizontally arranged. Several inlet pipes are evenly distributed along the length of the volume. Each inlet pipe has a one-way valve at its outer end that allows only the heating fluid medium to enter. The inner end of the inlet pipe communicates with the inner cavity of the volume. The inner end of the outlet pipe is fixed to the volume, and its outer end has a one-way valve that allows only the heating fluid medium to exit from the outer end. The drainage pipe assembly connects the inner cavity of the volume to the outlet pipe. The auxiliary heating mechanism is located in the middle of the drainage pipe assembly and actively raises the heating fluid medium within the drainage pipe assembly to a set temperature.

[0009] In the aforementioned energy interaction device applied to energy storage, facility agriculture, and computing modules, several inlet pipes located on one side of the volume form an inlet unit, and the inlet unit and outlet pipes are symmetrically arranged on both sides of the volume.

[0010] In the aforementioned energy interaction device applied to energy storage, facility agriculture, and computing modules, the outlet pipe includes pipe segment one, pipe segment two, and pipe segment three. Pipe segment one and pipe segment three are both arranged horizontally. The inner end of pipe segment one is fixed to the outside of the volume body, and pipe segment three is located parallel to the upper part of pipe segment one. The two ends of pipe segment two are respectively connected to pipe segment one and pipe segment three, and pipe segment two conducts through pipe segment one and pipe segment three. The outer end of pipe segment three is arranged adjacent to the outer ends of several inlet pipes.

[0011] In the aforementioned energy interaction device applied to energy storage, facility agriculture, and computing modules, the auxiliary heating mechanism includes a frame, a heating box, and a heat collection mechanism. The lower end of the frame is fixedly connected to the upper part of the volume body. The interior of the heating box is a cavity. The drainage pipe assembly includes a pipe body one and a pipe body two. The two ends of the pipe body one are respectively fixedly connected to the heating box and the volume body, and the pipe body one conducts through the heating box and the volume body. The two ends of the pipe body two are respectively fixedly connected to the heating box and the outlet pipe, and the pipe body two conducts through the heating box and the pipe body two. The heat collection mechanism is fixedly connected to the heating box and can increase the temperature of the heating fluid medium inside the heating box.

[0012] In the aforementioned energy interaction devices applied to energy storage, facility agriculture, and computing modules, the heat collection mechanism is a motor heater, a solar collector, or a biothermal device.

[0013] In the aforementioned energy interaction device applied to energy storage, facility agriculture, and computing modules, there are two tubes. One end of each tube is connected to both ends of the volume body and is conductive. The other end of each tube is connected to the heating box and is conductive.

[0014] In the aforementioned energy interaction device applied to energy storage, facility agriculture, and computing modules, the heating box includes a heat insulation block and a heating column. The heating column has a confluence channel inside, one end of which has an inlet corresponding to a pipe body, and the other end of which has an outlet corresponding to a pipe body. The first pipe body is connected to the corresponding inlet, and the second pipe body is connected to the corresponding outlet. The heat insulation block has a connection hole that matches the heating column, and the heating column is embedded in the connection hole.

[0015] In the aforementioned energy interaction device applied to energy storage, facility agriculture, and computing modules, several electric heating elements are fixedly connected to the inner wall of the connection hole of the heat insulation block.

[0016] In the aforementioned energy interaction device applied to energy storage, facility agriculture, and computing modules, the volume body has a temperature sensor one that can detect its internal temperature, and the outer end of the outlet pipe has a temperature sensor two that can detect its internal temperature. It also includes a processing module that can control the output temperature of the electric heater. After the real-time temperatures of the temperature sensor one and temperature sensor two are sent to the processing module, the processing module can change the heating power signal corresponding to the electric heater after calculation and comparison.

[0017] Compared with existing technologies, this energy interaction device, applied to energy storage, facility agriculture, and computing modules, uses waste heat from the energy storage module and computing module to enter the auxiliary heating mechanism. The auxiliary heating mechanism actively increases the temperature of the heating fluid medium entering it, ultimately ensuring that the device outputs the heating fluid medium at the set temperature, ensuring that the facility agriculture module can obtain the set temperature, and ensuring that the crops in the facility agriculture module are in an environment suitable for their growth.

[0018] It can be seen that the output temperature of this device is constant, and its stability is relatively high.

[0019] At the same time, the design of the volume body avoids messy connecting pipes, improves the overall structural compactness of the device, and has high practical value.

[0020] Furthermore, since the connecting pipes at the energy storage module and computing module have relatively large diameters, and the inlet pipe matches these connecting pipes, this allows the device to connect stably to the corresponding connecting pipes. The ends of the inlet pipe and the outlet pipe are positioned adjacent to each other, facilitating device connection and resulting in a relatively compact structure. Attached Figure Description

[0021] Figure 1 is a three-dimensional structural diagram of the energy interaction device applied to energy storage, facility agriculture and computing modules.

[0022] Figure 2 is a cross-sectional view of the heating box in this energy interaction device applied to energy storage, facility agriculture, and computing modules.

[0023] In the diagram: 1. Volumetric body; 2. Inlet pipe; 3. Outlet pipe; 3a. Pipe section one; 3b. Pipe section two; 3c. Pipe section three; 4. Guide valve one; 5. Check valve two; 6. Frame; 8. Pipe body one; 9. Pipe body two; 10. Thermal insulation block; 10a. Connection hole; 11. Heating column; 11a. Inlet; 11b. Outlet; 11c. Combination channel; 12. Electric heating element; 13. Heat collection mechanism. Detailed Implementation

[0024] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0025] It should be noted that when a component is said to be "mounted on" another component, it can be directly mounted on the other component or may be interspersed with a component. When a component is said to be "set on" another component, it can be directly set on the other component or may be interspersed with a component. When a component is said to be "fixed to" another component, it can be directly fixed to the other component or may be interspersed with a component.

[0026] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains. The terminology used herein in the description of the invention is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention. The term "or / and" as used herein includes any and all combinations of one or more of the associated listed items.

[0027] As shown in Figures 1 and 2, both the energy storage module and the computing module have a heating end that can generate heat during operation, and the facility agriculture module has a heat-using end that can heat it.

[0028] This energy interaction device, applied to energy storage, facility agriculture, and computing modules, includes a hollow volume body 1, an inlet pipe 2, an outlet pipe 3, a drainage pipe assembly, and an auxiliary heating mechanism. The volume body 1 is elongated and horizontally arranged. Several inlet pipes 2 are evenly distributed along the length of the volume body 1. Each inlet pipe 2 has a one-way valve 4 at its outer end, allowing only the heating fluid medium to enter. The inner end of each inlet pipe 2 communicates with the inner cavity of the volume body 1. The inner end of each outlet pipe 3 is fixed to the volume body 1, and its outer end has a one-way valve 5, allowing only the heating fluid medium to exit from the outer end. The drainage pipe assembly connects the inner cavity of the volume body 1 to the outlet pipe 3. The auxiliary heating mechanism is located in the middle of the drainage pipe assembly and actively raises the heating fluid medium within the drainage pipe assembly to a set temperature.

[0029] This device innovatively introduces the heating fluid medium into the auxiliary heating mechanism via the inlet pipe 2, and then sends the heated heating fluid medium to the outlet pipe 3, finally outputting the heating fluid medium at the set temperature.

[0030] Since this device is used in an energy storage system, the connecting pipes in the energy storage system have a relatively large diameter, typically 60-80 cm.

[0031] The diameters of the inlet pipe 2 and outlet pipe 3 in this device are matched with the connecting pipes, so this device can be easily connected to an energy storage system.

[0032] During operation, the energy storage module and computing module generate heat. This waste heat is channeled into this device via the connecting pipes, and ultimately, the device outputs a heating fluid medium at a temperature higher than the set point. Introducing this heating fluid medium into the facility agriculture module effectively increases the ambient temperature, ensuring stable crop growth.

[0033] A plurality of inlet tubes 2 located on one side of the volume body 1 form an inlet unit, and the inlet unit and the outlet tube 3 are symmetrically arranged on both sides of the volume body 1.

[0034] This structure can effectively improve the overall structural compactness of the device.

[0035] The outlet pipe includes pipe segment 3a, pipe segment 3b, and pipe segment 3c. Pipe segment 3a and pipe segment 3c are both horizontally arranged. The inner end of pipe segment 3a is fixed to the outside of the volume body 1. Pipe segment 3c is located parallel to the upper part of pipe segment 3a. The two ends of pipe segment 3b are respectively connected to pipe segment 3a and pipe segment 3c, and pipe segment 3b conducts between pipe segment 3a and pipe segment 3c. The outer end of pipe segment 3c is arranged adjacent to the outer ends of several inlet pipes 2.

[0036] The entire outlet tube 3 has a U-shaped structure and its bends are right angles. Therefore, the outer ends of the inlet tube 2 and the inlet tube 2 can be arranged adjacent to each other, which facilitates the connection of the connecting tube to the entire device.

[0037] The auxiliary heating mechanism includes a frame 6, a heating box, and a heat collection mechanism 13. The lower end of the frame 6 is fixed to the upper part of the volume body 1. The interior of the heating box is a cavity. The drainage pipe assembly includes a first pipe body 8 and a second pipe body 9. The two ends of the first pipe body 8 are fixed to the heating box and the volume body 1 respectively, and the first pipe body 8 conducts through the heating box and the volume body 1. The two ends of the second pipe body 9 are fixed to the heating box and the outlet pipe 3 respectively, and the second pipe body 9 conducts through the heating box and the second pipe body 9. The heat collection mechanism 13 is fixed to the heating box and can increase the temperature of the heating fluid medium inside the heating box.

[0038] The rack 6 provides sufficient space for the heating box and the heat collection mechanism 13.

[0039] Meanwhile, since there are several inlet tubes 2, the cylindrical and horizontally arranged volume body 1 can stably connect several inlet tubes 2 to it, and such a structure will not cause the volume body 1 to be too large.

[0040] The heat collection mechanism 13 is an electric motor heater. Depending on the actual situation, the heat collection mechanism 13 can also be a solar collector or a biothermal device.

[0041] The number of tubes 8 is two. One end of each tube 8 is connected to both ends of the volume body 1 and is conductive. The other end of each tube 8 is connected to the heating box and is conductive.

[0042] Since several inlet pipes 2 are connected to the middle of the volume body 1, and two tubes 8 are connected to both ends of the volume body 1, the heating fluid medium entering the volume body 1 can smoothly enter the auxiliary heating mechanism through the tubes 8.

[0043] The heating box includes a heat insulation block 10 and a heating column 11. The heating column 11 has a confluence channel 11c inside. One end of the confluence channel 11c has an inlet 11a corresponding to the tube 8, and the other end of the confluence channel 11c has an outlet 11b corresponding to the tube 9. The tube 8 is connected to the corresponding inlet 11a, and the tube 9 is connected to the corresponding outlet 11b. The heat insulation block 10 has a connection hole 10a that matches the heating column 11, and the heating column 11 is embedded in the connection hole 10a.

[0044] The manifold 11c is bent inside the heating column 11, which improves heating efficiency and ensures that the heating fluid medium output from the manifold 11c can be quickly raised to a relatively high temperature.

[0045] Several electric heating elements 12 are fixedly connected to the inner wall of the connection hole 10a of the heat insulation block 10.

[0046] The heating element 12 can stably increase the temperature of the heating column 11.

[0047] The volume 1 has a temperature sensor 1 that can detect its internal temperature, and the outlet pipe has a temperature sensor 2 that can detect its internal temperature. It also includes a processing module that can control the output temperature of the electric heater. After the real-time temperatures of the temperature sensor 1 and the temperature sensor 2 are sent to the processing module, the processing module can change the heating power signal corresponding to the electric heater after calculation and comparison.

[0048] After receiving the temperature data detected by temperature sensor 1 and temperature sensor 2, the processing module can determine the difference required to reach the set output temperature. By increasing the power of the electric heating element, the processing module can compensate for the temperature difference and ultimately output a heating fluid medium with a constant temperature.

[0049] This energy interaction device, applied to energy storage, facility agriculture, and computing modules, uses waste heat from the energy storage and computing modules to enter the auxiliary heating mechanism. The auxiliary heating mechanism actively increases the temperature of the heating fluid medium entering it, ultimately ensuring that the device outputs the heating fluid medium at the set temperature. This ensures that the facility agriculture module can reach the set temperature and that the crops in the facility agriculture module are in an environment suitable for their growth.

[0050] It can be seen that the output temperature of this device is constant, and its stability is relatively high.

[0051] At the same time, the design of the volume body avoids messy connecting pipes, improves the overall structural compactness of the device, and has high practical value.

[0052] In addition, since the diameter of the connecting pipes at the energy storage module and the computing module is relatively large, and the inlet pipe is matched with the above-mentioned connecting pipes, this allows the device to be stably connected to the corresponding connecting pipes.

[0053] The ends of the inlet tube and outlet tube are positioned adjacent to each other, which facilitates device connection and makes the structure relatively compact.

[0054] The technical features of the above-described embodiments can be combined arbitrarily. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as the combination of these technical features does not contradict each other, it should be considered within the scope of this specification. Those skilled in the art should recognize that the above embodiments are only used to illustrate the present invention and are not intended to limit the present invention. Any appropriate changes and variations made to the above embodiments within the essential spirit of the present invention fall within the scope of protection claimed by the present invention.

Claims

1. An energy interaction device applied to an energy storage module, a facility agriculture module and a computing power module, the energy storage module and the computing power module each have a heat generating end that can generate heat during operation, and the facility agriculture module has a heat using end that can heat it, characterized in that, The energy interaction device connects the heat generating end and the heat using end, comprises a volume body with an empty cavity, a lead-in pipe, a lead-out pipe, a drainage pipe assembly and an auxiliary heating mechanism, the volume body is in a long tube shape and is arranged transversely, the number of the lead-in pipes is several, the several lead-in pipes are arranged in a uniform distribution along the length direction of the volume body, the outer end of the lead-in pipe is provided with a one-way valve one which enables the heating fluid medium to only enter the lead-in pipe, the inner end of the lead-in pipe is communicated with the inner cavity of the volume body, the inner end of the lead-out pipe is fixedly connected to the volume body and is provided with a one-way valve two at the outer end of the lead-out pipe which enables the heating fluid medium in the lead-out pipe to be discharged from the outer end, the drainage pipe assembly communicates the inner cavity of the volume body with the lead-out pipe, the auxiliary heating mechanism is located at the middle part of the drainage pipe and can actively lift the heating fluid medium in the drainage pipe to a set temperature. The several lead-in pipes located at one side of the volume body form a lead-in unit, the lead-in unit and the lead-out pipe are symmetrically arranged at both sides of the volume body. The lead-out pipe comprises a pipe section one, a pipe section two and a pipe section three, the pipe section one and the pipe section three are both arranged horizontally, the inner end of the pipe section one is fixedly connected to the outer side of the volume body, the pipe section three is parallel to the upper part of the pipe section one, the pipe section two is connected to the pipe section one and the pipe section three at both ends and conducts the pipe section one and the pipe section three, the outer end of the pipe section three is arranged adjacent to the outer end of the several lead-in pipes. The auxiliary heating mechanism comprises a rack, a heating box and a heat collecting mechanism, the lower end of the rack is fixedly connected to the upper part of the volume body, the inner part of the heating box is an empty cavity, the drainage pipe assembly comprises a pipe body one and a pipe body two, the both ends of the pipe body one are fixedly connected to the heating box and the volume body and the pipe body one conducts the heating box and the volume body, the both ends of the pipe body two are fixedly connected to the heating box and the lead-out pipe and the pipe body two conducts the heating box and the pipe body two, the heat collecting mechanism is fixedly connected to the heating box and can raise the temperature of the heating fluid medium in the heating box. The number of the pipe body one is two, one end of the two pipe body ones is connected to both ends of the volume body and conducts, the other end of the two pipe body ones is connected to the heating box and conducts. The heating box comprises a heat insulation block and a heating column, the inner part of the heating column has a converging channel, one end of the converging channel has an inlet corresponding to the pipe body one, the other end of the converging channel has an outlet corresponding to the pipe body two, the pipe body one is connected to the corresponding inlet, the pipe body two is connected to the corresponding outlet, the heat insulation block has a connecting hole matched with the heating column, the heating column is embedded in the connecting hole. 2.The energy interaction device applied to energy storage modules, facility agriculture modules, and computing power modules of claim 1, wherein, The heat collecting mechanism is an electric heater or a solar heat collector or a biological heat device. 3.The energy interaction device applied to energy storage modules, facility agriculture modules, and computing power modules of claim 2, wherein, A plurality of electric heating sheets are fixedly connected to the inner wall of the connecting hole of the heat insulation block. 4.The energy interaction device applied to energy storage modules, facility agriculture modules, and computing power modules of claim 3, wherein, The volume body has a temperature sensor one capable of detecting the temperature in the volume body, the outer end of the lead-out pipe is provided with a temperature sensor two capable of detecting the temperature in the lead-out pipe, and a processing module capable of controlling the output temperature of the electric heater is further included, the real-time temperatures of the temperature sensor one and the temperature sensor two are sent to the processing module, and the processing module can change the corresponding heating power signal of the electric heater after calculation and comparison.

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