Heat source power adjusting system for debugging liquid cooling equipment

Abstract

The utility model relates to the technical field of liquid cooling equipment debugging, in particular to a heat source power adjusting system for liquid cooling equipment debugging. The system comprises a heating module used for heating a cooling liquid in the liquid cooling equipment; the power adjusting module is used for adjusting the heating power of the heating module; the acquisition module is used for acquiring cooling liquid flow and temperature information at the heat source power adjusting system; the flow adjusting module is used for adjusting the flow of the cooling liquid at the heat source power adjusting system; and the control module is used for receiving the temperature and flow information of the cooling liquid acquired by the acquisition module, processing the information and then sending instructions to the power regulation module and the flow regulation module, and the liquid cooling equipment debugging system can realize regulation of the heating power of the cooling liquid, thereby realizing simulation of heating of load equipment to debug the liquid cooling equipment.

Description

Technical Field

[0001] The utility model relates to the technical field of liquid cooling equipment debugging, in particular to a heat source power regulating system used for liquid cooling equipment debugging. Background Art

[0002] The liquid cooling device can cool the coolant in the coolant circulation pipeline, thereby reducing the temperature of the coolant circulating in the load device, thereby reducing the temperature of the load device and preventing the load device from overheating and causing performance degradation or damage.

[0003] Since the performance parameters of liquid cooling equipment are difficult to predict during research and development or use, it is necessary to provide a simulated load device (i.e., a heat source) that can adjust the heat output to simulate the heat transfer to the coolant during equipment operation, thereby testing the liquid cooling equipment. The prior art lacks such a heat output regulating device that can be used to test liquid cooling equipment. Utility Model Content

[0004] The utility model provides a heat source power regulating system for debugging liquid cooling equipment, which can overcome certain defects of the prior art.

[0005] According to the heat source power regulation system of the utility model, it comprises: a heating module for heating the coolant in the liquid cooling device;

[0006] A power regulating module, used for regulating the heating power of the heating module;

[0007] A collection module, used to collect coolant flow and temperature information at a heat source power regulation system;

[0008] A flow regulating module, used for regulating the flow of coolant at the heat source power regulating system;

[0009] The control module is used to receive the coolant temperature and flow information collected by the collection module, and send instructions to the power regulation module and the flow regulation module after processing the information; the instructions include a first instruction sent to the power regulation module and a second instruction sent to the flow regulation module.

[0010] In the utility model, the heat source power regulation system can realize controllable power heating of the coolant circulating in the liquid cooling device, so it can better simulate the operating state of load devices with different heating powers, thereby better realizing the testing of the liquid cooling device.

[0011] Preferably, the heating module comprises a plurality of heating components, which are connected in parallel or in series.

[0012] Preferably, the power regulating component includes a control valve and a power regulator, the control valve is used to control the number of heating components through which the coolant flows, and the power regulator is used to adjust the heating power of a single heating component.

[0013] Preferably, the power regulator is electrically connected to the heating component.

[0014] Preferably, the acquisition module includes a turbine flowmeter and a temperature sensor. The turbine flowmeter is used to obtain the coolant flow in the heat source power regulation system. There are two temperature sensors, which are used to obtain the coolant temperature flowing into the heat source power regulation system and the coolant temperature flowing out of the heat source power regulation system, respectively.

[0015] Preferably, the flow regulating module comprises a flow regulating valve, and the flow regulating valve is used to regulate the flow of the coolant at the heat source power regulation system.

[0016] Preferably, the control module includes a programmable logic controller, which is used to process coolant temperature and flow information.

[0017] Preferably, information of the programmable logic controller is displayed and data exchanged through a display module.

[0018] Preferably, the heating module, the power regulating module, the collection module and the flow regulating module are powered by a power supply module. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a structural block diagram of a heat source power regulation system in at least one embodiment of the utility model;

[0020] Figure 2 It is an axonometric diagram of a heat source power regulating device in at least one embodiment of the utility model;

[0021] Figure 3 This is a schematic diagram of the internal structure of a heat source power adjustment device in at least one embodiment of the utility model;

[0022] Figure 4 It is a schematic diagram of a heat source adjustment system from a first perspective in at least one embodiment of the utility model;

[0023] Figure 5 A schematic diagram of a heat source adjustment system from a second viewing angle in at least one embodiment of the present utility model;

[0024] Figure 6 This is an axonometric diagram of a heating assembly in at least one embodiment of the present utility model;

[0025] Figure 7 This is a schematic diagram of the explosion of a heating component in at least one embodiment of the utility model;

[0026] Figure 8 for Figure 7 A partial enlarged schematic diagram in the middle;

[0027] Fig. 9 for Figure 7 A partial enlarged schematic diagram of point B in the middle;

[0028] Fig.10 for Figure 7 A partial enlarged schematic diagram of point C in the middle;

[0029] Fig.11 for Figure 7 The partial enlarged schematic diagram of point D in the middle;

[0030] Fig.12 It is a connection diagram of a heat source regulating system in at least one embodiment of the present utility model. DETAILED DESCRIPTION

[0031] In order to further understand the content of the utility model, the utility model is described in detail in conjunction with the embodiments. It should be understood that the embodiments are only used to explain the utility model but not to limit it.

[0032] Example 1

[0033] See Figure 1 This embodiment provides a heat source power regulation system for liquid cooling equipment debugging, which includes:

[0034] A heating module, used for heating the coolant in the liquid cooling device;

[0035] A power regulating module, used for regulating the heating power of the heating module;

[0036] A collection module, used to collect coolant flow and temperature information at a heat source power regulation system;

[0037] A flow regulating module, used for regulating the flow of coolant at the heat source power regulating system;

[0038] The control module is used to receive the coolant temperature and flow information collected by the collection module, and send instructions to the power regulation module and the flow regulation module after processing the information; the instructions include a first instruction sent to the power regulation module and a second instruction sent to the flow regulation module.

[0039] Through the heat source power regulation system provided in this embodiment, the coolant circulating in the liquid cooling device can be heated with controllable power, so that the operating state of load devices with different heating powers can be better simulated, thereby better realizing the testing of the liquid cooling equipment.

[0040] Specifically, the heating module can heat the coolant to simulate the heating of the load device, the power regulation module can control the heating power of the heating module, so as to better realize the accurate simulation of the heating of the load device, the acquisition module can collect the coolant flow and temperature information, so as to facilitate the user to obtain the working status of the equipment and evaluate the refrigeration efficiency of the refrigeration equipment, the flow regulation module can adjust the coolant flow in the refrigeration equipment, so as to better realize the refrigeration of the cooling equipment under different flow rates, and the control module can process the coolant temperature and flow information, and send instructions to the power regulation module and the flow regulation module according to the heating characteristics of the load equipment and the coolant flow characteristics to be simulated.

[0041] Specifically, the first instruction is a power adjustment instruction, and the first instruction is used to adjust the heating power of the heating module; the second instruction is a flow adjustment instruction, and the flow adjustment instruction is used to adjust the coolant flow in the refrigeration equipment.

[0042] Wherein, the heating module comprises a plurality of heating components, and the plurality of heating components are connected in parallel or in series.

[0043] Specifically, connecting a plurality of heating components in series or in parallel enables different numbers of heating components to be connected to the coolant circulation, thereby enabling rapid and rough adjustment of the heating power.

[0044] Among them, the power adjustment component includes a control valve and a power regulator. The control valve is used to control the number of heating components through which the coolant flows, and the power regulator is used to adjust the heating power of a single heating component.

[0045] Specifically, there are multiple control valves and they are arranged at the heating module. By controlling the opening and closing of the multiple control valves, it is possible to control the number of cooling liquids flowing through the heating components, thereby better and faster coarse adjustment of the heating power of the heating components. The power regulator can control the heating power of a single heating component, thereby achieving fine adjustment of the overall heating power.

[0046] It is understandable that when the heating power needs to be quickly adjusted, if there is no control valve to adjust the number of coolant flowing through the heating components, the power of the heating components will be directly cut off, and the residual heat at the heating components will still transfer heat to the coolant, causing the heating power to deviate greatly from the ideal value of the simulation. The control valve can change the flow path of the coolant, thereby greatly reducing the conduction of residual heat into the coolant.

[0047] The power regulator is electrically connected to the heating component.

[0048] Among them, the acquisition module includes a turbine flowmeter and a temperature sensor. The turbine flowmeter is used to obtain the coolant flow in the heat source power regulation system. There are two temperature sensors, and the two temperature sensors are used to obtain the coolant temperature flowing into the heat source power regulation system and the coolant temperature flowing out of the heat source power regulation system, respectively.

[0049] Specifically, the two temperature sensors can respectively obtain the coolant temperature T1 flowing into the heat source adjustment system and the coolant temperature T2 flowing out of the heat source adjustment system, thereby obtaining the cooling efficiency η of the cooling equipment. The calculation formula is as follows:

[0050]

[0051] The flow regulating module includes a flow regulating valve, which is used to regulate the flow of coolant at the heat source power regulating system.

[0052] Specifically, the flow regulating valve can regulate the coolant flow at the heat source power regulating system, thereby better realizing the test of refrigeration efficiency under different flow rates.

[0053] The control module includes a programmable logic controller, which is used to process coolant temperature and flow information.

[0054] Specifically, a programmable logic controller

[0055] Wherein, information of the programmable logic controller is displayed and data exchanged through a display module.

[0056] Specifically, the display module can display temperature, flow rate and heating power information, and can also realize the function of setting heating power, so that the user can observe the temperature and flow rate information at the heat source regulation system, and

[0057] Among them, the heating module, the power regulation module, the collection module and the flow regulation module are powered by a power supply module.

[0058] Specifically, the power supply module can convert the external 220V or 380V power supply into the rated voltage of each module in the heat source power regulation system, thereby achieving normal operation of each module.

[0059] Example 2

[0060] See Figure 2-12 , this embodiment provides a multifunctional heat source power regulation device, which includes the heat source power regulation system in Example 1.

[0061] The heat source power regulation device in this embodiment includes a device body 100, an installation cavity 205 is formed in the device body 100, a heat source regulation system 110 is arranged in the installation cavity 205, and the heat source regulation system 110 is used to heat the coolant circulating in the liquid cooling device; a control component 230 is arranged on the top of the device body 100, and the control component 230 is used to adjust the heating power of the heat source regulation system 110, and a plurality of casters 101 are arranged on the bottom of the device body 100.

[0062] According to the solution provided in this embodiment, the heat source regulation system 110 in the installation cavity 205 can heat the coolant circulating in the liquid cooling device, that is, simulate the heating phenomenon of the load device in actual use. Therefore, the refrigeration test of the liquid cooling device can be carried out without connecting the real load device, thereby better performing the performance test of the liquid cooling device.

[0063] Specifically, in actual research and development or use, liquid cooling equipment is often connected to a coolant circulation system to cool the coolant in the circulation system. The load equipment that requires liquid cooling is generally a precision manufacturing or high-load power operation system with a large heat generation, and its equipment cost is relatively high. If the real load equipment is used directly to test the liquid cooling equipment, the cost will be high. Therefore, the above solution can better save the cost of testing during the research and development or use of liquid cooling equipment.

[0064] Among them, the control component 230 can adjust the heating power, so the device can simulate load devices of different heating types. By setting the heating power, the cooling liquid in the circulation system can be heated, so that the liquid cooling equipment can be universally tested, and the staff's understanding of the performance and operating characteristics of the liquid cooling equipment can be improved, so that it is convenient for R&D personnel to formulate improvement plans for the liquid cooling equipment during the R&D process, thereby shortening the R&D cycle; or users can formulate operating plans for the liquid cooling equipment according to the operating characteristics of the liquid cooling equipment, so as to maximize the performance of the liquid cooling equipment.

[0065] Furthermore, providing casters 101 at the bottom of the device can facilitate the movement of the device. Since liquid cooling equipment is generally large in size and heavy in mass, providing casters 101 can facilitate the movement of the device to the liquid cooling device for use, thereby greatly improving the maneuverability of the device.

[0066] That is, when using this device, the heat source regulation system 110 is connected to the coolant circulation system of the liquid cooling device. Therefore, when the coolant flows through this device, this device can heat the coolant through the heating power parameters set by the control component 230, thereby better simulating the heat transfer from the load device to the coolant.

[0067] In this embodiment, the heat source regulation system 110 includes a return pipe 311 and a supply pipe 312. The return pipe 311 is used to connect the coolant flowing out of the liquid cooling device, and the supply pipe 312 is used to transport the coolant to the liquid cooling device; the return pipe 311 is provided with a power regulation mechanism and a flow regulation mechanism in sequence, the flow regulation mechanism is connected to the supply pipe 312, the power regulation mechanism includes a first regulation component and a second regulation component connected in sequence through pipelines; the first regulation component includes a first control valve 3131 and a heating component 3132 arranged in sequence along the liquid flow direction, and the second regulation component includes a second control valve 3133 and at least one heating component 3132 arranged in sequence along the liquid flow direction; a quick exhaust pipeline 314 connected to the flow regulation component is provided at the liquid outlet end of the heating component 3132, and a third control valve 3141 is provided at the quick exhaust pipeline 314.

[0068] There are two power adjustment mechanisms, which are respectively located above and below the liquid return pipe 311 .

[0069] Specifically, the coolant in the refrigeration equipment enters the heat source regulation system 110 from the return pipe 311 and leaves the heat source regulation system 110 from the second pipe 10441. The power regulation mechanism can adjust the heating power, and the flow regulation system can adjust the coolant flow in the coolant regulation system, thereby better simulating the liquid flow in different load devices.

[0070] It can be understood that the heating power of the first regulating component and the second regulating component can be accumulated, so as to better facilitate the adjustment of the heating power. The second control valve can realize the on-off control between the first regulating component and the second regulating component. The third control valve 3141 can realize the on-off control between the first regulating component and the flow regulating component. In actual use, the on-off states of the second control valve and the third control valve 3141 are different.

[0071] Among them, the flow regulating mechanism includes a first regulating pipe 4151 and a second regulating pipe 4152. The first regulating pipe 4151 is provided with a fourth control valve 4153 and a first turbine flowmeter 4154 in sequence along the liquid flow direction. The second regulating pipe 4152 is provided with a fifth control valve 4155 and a second turbine flowmeter 4156 in sequence along the liquid flow direction. The measuring range of the first turbine flowmeter 4154 is greater than the measuring range of the second turbine flowmeter 4156, and the diameter of the first regulating pipe 4151 is greater than that of the second regulating pipe 4152.

[0072] Specifically, the coolant flows from the power regulating mechanism to the flow regulating component, so the coolant can be selected to pass through the first regulating tube 4151 or the second regulating tube 4152. The first regulating tube 4151 and the second regulating tube 4152 correspond to different flow ranges, and the flow can be adjusted by adjusting the fourth control valve 4153 or the fifth control valve 4155.

[0073] It is understandable that, during operation, only one of the fourth control valve 4153 and the fifth control valve 4155 can pass the coolant, that is, one must remain in a closed state, so that precise regulation of the flow rate can be achieved.

[0074] Among them, the control component 230 includes a power adapter, a controller and two power regulators which are electrically connected in sequence, the controller is electrically connected to the heater 546, and the two power regulators are electrically connected to the heater 546 at the first adjustment component.

[0075] A control cabinet 102 is disposed on the top of the device body 100 . A first cabinet door 1021 is hingedly connected to the upper end of the control cabinet 102 . A touch panel 131 is disposed on the upper end of the first cabinet door 1021 . The touch panel 131 is electrically connected to the controller.

[0076] It can be understood that the two power regulators can respectively control the power of the heater 546 at the first adjustment component, so the heater 546 at the first adjustment component can be adjusted arbitrarily, and the heater 546 at the second component can achieve fine power adjustment within a certain range without adjustment.

[0077] Furthermore, the touch panel 131 can facilitate the user to adjust the heating power of the power adjustment mechanism.

[0078] Specifically, the power adjustment range of the heater 546 at the first adjustment component after connecting the power regulator is 0-5kw, and the power of the heater 546 at the second adjustment component is constant at 5kw; therefore,

[0079] When a heating power of 0-5 kW is required, a heater 546 at any first regulating assembly may be selected;

[0080] When a heating power of 5-10 kW is required, a heater 546 at any first regulating assembly and a heater 546 at any second regulating assembly can be selected;

[0081] When a heating power of 10-15 kW is required, the heater 546 at any first regulating assembly and the heater 546 at any two second regulating assemblies can be selected;

[0082] When a heating power of 15-20 kW is required, the heaters 546 at the two first adjustment components and the heaters 546 at any two second adjustment components can be selected;

[0083] When a heating power of 20-25 kW is required, the heaters 546 at two first adjustment components and the heaters 546 at any three second adjustment components may be selected;

[0084] When a heating power of 25-30 kW is required, the heaters 546 of all the first regulating components and the second regulating components are selected.

[0085] Through the above arrangement, it is possible to achieve stepless power regulation between 0-30kw through only two power regulators, which greatly saves costs.

[0086] A plurality of air holes 1022 are formed at intervals at the front end of the control cabinet 102 , and a plurality of cooling fans 2023 are correspondingly arranged at the rear end. The cooling fans 2023 are used to output the air in the control cabinet 102 .

[0087] Specifically, since the control cabinet 102 contains electronic components such as a controller and a power regulator, the hot air in the control cabinet 102 can be discharged from the control cabinet 102 through the cooling fan 2023 and the air vents 1022, thereby reducing the temperature in the control cabinet 102 and increasing the service life of the electronic components in the control cabinet 102.

[0088] A fixed mounting plate 103 and three hinged second cabinet doors 104 are respectively provided on the four side walls of the equipment body 100 , and the liquid supply pipe 312 and the liquid return pipe 311 are fixedly arranged on the mounting plate 103 .

[0089] Specifically, the mounting plate 103 can realize the installation of the liquid supply pipe 312 and the liquid return pipe 311, and the three second cabinet doors 104 preferably facilitate the user to operate the control valve or inspect the equipment.

[0090] A power regulation method of a multifunctional heat source power regulation device in this embodiment includes the following steps:

[0091] Step S1: connecting the liquid supply pipe 312 and the liquid return pipe 311 to the liquid cooling device;

[0092] Step S2: Determine the heating component 3132 to be used, and connect the heating component 3132 to be used to the liquid flow channel by operating the first control valve 3131, the second control valve and the third control valve 3141 to open and close;

[0093] Step S3: Select the turbine flowmeter to be used, and connect the turbine flowmeter to be used to the coolant circulation pipeline by operating the fourth control valve 4153 and the fifth control valve 4155 to open and close;

[0094] Step S4 : setting the heating power of each required heating element 3132 on the touch panel 131 .

[0095] Through the above method, the heating power of the device to the coolant and the flow rate of the coolant can be adjusted, thereby better simulating load devices with different heating powers and flows, and facilitating the testing of liquid cooling equipment.

[0096] Example 3

[0097] See Figure 2-5 and 12. This embodiment provides a heat source regulating system 110 applicable to embodiment 2, which can heat the coolant in the liquid cooling device with different powers, thereby simulating the heating condition of the load device.

[0098] According to the heat source regulation system 110 of this embodiment, it includes a return pipe 311 and a supply pipe 312. The return pipe 311 is used to connect the coolant flowing out of the liquid cooling device, and the supply pipe 312 is used to transport the coolant to the liquid cooling device; the return pipe 311 is provided with a power regulation mechanism and a flow regulation mechanism in sequence, the flow regulation mechanism is connected to the supply pipe 312, the power regulation mechanism includes a first regulation component and a second regulation component connected in sequence through pipelines; the first regulation component includes a first control valve 3131 and a heating component 3132 arranged in sequence along the liquid flow direction, and the second regulation component includes a second control valve and at least one heating component 3132 arranged in sequence along the liquid flow direction; a quick exhaust pipeline 314 connected to the flow regulation component is provided at the liquid outlet end of the heating component 3132, and a third control valve 3141 is provided at the quick exhaust pipeline 314.

[0099] There are two power regulating mechanisms, which are respectively located above and below the liquid return pipe 311 . A first three-way pipe 3101 is provided at the liquid return pipe 311 , and the remaining interfaces of the first three-way pipe 3101 are respectively connected to the two first control valves 3131 through pipelines.

[0100] Through the above, it is possible to select a single power regulating mechanism or two power regulating mechanisms to work according to the required heating power, which preferably increases the heating power adjustment range.

[0101] The liquid outlet of the first regulating component is provided with a second three-way pipe 4102 , and the remaining interfaces of the second three-way pipe 4102 are respectively connected to the second control valve and the quick exhaust pipeline 314 .

[0102] Specifically, the second three-way pipe 4102 can enable the liquid of the first regulating component to directly communicate with the flow regulating component through the quick exhaust line 314 across the second regulating component.

[0103] The second adjustment component includes two heating components 3132 . A pipe clamp is provided between the two adjacent heating components 3132 . The pipe clamp is used to maintain a fixed state between the two adjacent heating components 3132 .

[0104] Specifically, the tube clamp can preferably realize a detachable connection between two adjacent heating components 3132 .

[0105] The flow regulating mechanism includes a first regulating pipe 4151 and a second regulating pipe 4152. A fourth control valve 4153 and a first turbine flowmeter 4154 are sequentially provided at the first regulating pipe 4151 along the liquid flow direction. A fifth control valve 4155 and a second turbine flowmeter 4156 are sequentially provided at the second regulating pipe 4152 along the liquid flow direction. The measuring range of the first turbine flowmeter 4154 is greater than the measuring range of the second turbine flowmeter 4156. The diameter of the first regulating pipe 4151 is greater than that of the second regulating pipe 4152.

[0106] That is, when in use, different regulating tubes are selected according to the flow rate required to be simulated, and the flow rate is adjusted to the flow rate value required to be simulated by operating the control valve corresponding to the regulating tube.

[0107] The above structure can conveniently adjust the cooling liquid circulation flow rate.

[0108] The flow regulating mechanism includes a third three-way pipe 3103, a four-way pipe 4106 and a fourth three-way pipe 4104 which are connected in sequence; the third three-way pipe 3103 is respectively connected to two quick exhaust pipes 314 and the four-way pipe 4106; the four-way pipe 4106 is respectively connected to two second regulating components, the third three-way pipe 3103 and the fourth three-way pipe 4104; the fourth three-way pipe 4104 is respectively connected to the four-way pipe 4106, the first regulating pipe 4151 and the second regulating pipe 4152.

[0109] The above structure can realize the communication between the power regulating mechanism and the flow regulating mechanism.

[0110] A fifth three-way pipe 3105 is provided at the liquid supply pipe 312 , and the fourth three-way pipe 4104 is respectively connected with the first regulating pipe 4151 , the second regulating pipe 4152 and the liquid supply pipe 312 .

[0111] The above structure enables the liquid supply pipe 312 to be connected to the flow regulator, so that the coolant can flow from the liquid supply pipe 312 to the liquid cooling device.

[0112] Example 4

[0113] See Figure 6-11 This embodiment provides a heating component 3132 applicable to embodiment 1, which is capable of heating the flowing coolant.

[0114] According to the heating assembly 3132 of this embodiment, it includes a long strip-shaped heating tube 541, which forms a heating flow channel along the axial direction. A conversion joint 542 is provided at one end of the heating tube 541, and a connecting piece 543 is provided at the other end. A second port 544 is formed at the conversion joint 542, and a first port 545 is formed at the side wall of the heating tube 541 near one end of the connecting piece 543. A heater 546 is fixedly provided at the connecting piece 543, and the heater 546 includes a heating rod 6461 extending along the length direction of the heating flow channel.

[0115] Specifically, the coolant can flow from the first port 545 to the second port 544, or from the second port 544 to the first port 545. The heating rod 6461 correspondingly extends from the first port 545 to the second port 544, so that the coolant in the heating channel can be continuously heated to ensure that the coolant fully absorbs the heat energy of the heating rod 6461.

[0116] It is understandable that the maximum heating power of heater 546 is 5kw.

[0117] Among them, the connecting piece 543 includes an axial head 7431 and an axial shoulder 7432 which are formed in sequence, the axial head 7431 is used to cooperate with the inner wall thread of the heating tube 541, and the axial shoulder 7432 is used to abut against the end of the heating tube 541; the connecting piece 543 penetrates axially to form a matching hole 7433, and a matching platform 8462 is formed correspondingly at the heater 546, and the matching platform 8462 is used to cooperate with the matching hole 7433 threadedly.

[0118] Through the above structure, a detachable connection between the heater 546 and the heating tube 541 is preferably achieved, which makes it convenient for users to repair and replace the heating tube 541 and the heater 546.

[0119] The heating rod 6461 is U-shaped, extends horizontally, and an open end of the heating rod 6461 is connected to the matching platform 8462 , and a closed end extends toward the second port 544 to a position close to the adapter 542 .

[0120] Specifically, the heating rod 6461 can continuously generate heat according to the set power, thereby transferring heat to the coolant in the heating channel.

[0121] There are multiple heating rods 6461 and they are evenly arranged at multiple angles.

[0122] Through the above, uniform heating of the coolant in the heating tube 541 can be achieved better.

[0123] Among them, a wrench portion 8463 is formed on the matching platform 8462 near one end of the heating tube 541.

[0124] Specifically, by providing the wrench portion 8463, the heater 546 can be easily disassembled.

[0125] A first tube 9451 is formed at the first port 545 in a direction away from the heating tube 541 , a first flange 9452 is formed on the outer wall of the end of the first tube 9451 , and a first sealing ring installation groove 9453 is formed at the end surface of the first tube 9451 .

[0126] A second tube 10441 is formed at the second port 544 in a direction away from the heating tube 541 , a second flange 10442 is formed on the outer wall of the end of the second tube 10441 , and a second sealing ring installation groove 10443 is formed on the end surface of the second tube 10441 .

[0127] Specifically, by providing the first flange body 9452 and the second flange body 10442, the installation of the pipe clamp is better facilitated, and by providing the first sealing ring installation groove 9453 and the second sealing ring installation groove 10443, the installation of the sealing ring during connection is better facilitated to achieve sealing during connection.

[0128] Wherein, the outer wall of the heating tube 541 is sheathed with a heat-insulating sheath.

[0129] Specifically, by providing a thermal insulation sleeve, the heat energy loss during the flow of the coolant can be reduced, thereby improving the heating efficiency of the deheating component.

[0130] It is easy to understand that those skilled in the art can combine, split, reorganize, etc. the embodiments of the present application to obtain other embodiments based on one or several embodiments provided in the present application, and these embodiments do not exceed the protection scope of the present application.

[0131] The above is a schematic description of the present invention and its implementation methods, which is not restrictive. The embodiments shown are only part of the implementation methods of the present invention, and the actual structure is not limited thereto. Therefore, if ordinary technicians in this field are inspired by it and design structural methods and embodiments similar to the technical solution without creativity without departing from the purpose of the invention of the present invention, they should all fall within the protection scope of the present invention.

Claims

1. A heat source power regulation system for liquid cooling equipment commissioning, characterized in that: include: A heating module, used for heating the coolant in the liquid cooling device; A power regulating module, used for regulating the heating power of the heating module; A collection module, used to collect coolant flow and temperature information at a heat source power regulation system; A flow regulating module, used for regulating the flow of coolant at the heat source power regulating system; A control module is used to receive the coolant temperature and flow rate information collected by the collection module, and send instructions to the power regulation module and the flow regulation module after processing the information; The instructions include a first instruction sent to the power regulation module and a second instruction sent to the flow regulation module.

2. The heat source power regulation system for liquid cooling equipment commissioning according to claim 1 is characterized in that: The heating module includes a plurality of heating components, which are connected in parallel or in series.

3. The heat source power regulation system for liquid cooling equipment commissioning according to claim 2 is characterized in that: The power regulating component includes a control valve and a power regulator. The control valve is used to control the number of heating components through which the coolant flows, and the power regulator is used to adjust the heating power of a single heating component.

4. The heat source power regulation system for liquid cooling equipment commissioning according to claim 3 is characterized in that: The power regulator is electrically connected to the heating component.

5. The heat source power regulation system for liquid cooling equipment commissioning according to claim 1 is characterized in that: The acquisition module includes a turbine flowmeter and a temperature sensor. The turbine flowmeter is used to obtain the coolant flow in the heat source power regulation system. There are two temperature sensors, which are used to obtain the coolant temperature flowing into the heat source power regulation system and the coolant temperature flowing out of the heat source power regulation system respectively.

6. The heat source power regulation system for liquid cooling equipment commissioning according to claim 1 is characterized in that: The flow regulating module comprises a flow regulating valve, and the flow regulating valve is used to regulate the flow of the coolant at the heat source power regulating system.

7. The heat source power regulation system for liquid cooling equipment commissioning according to claim 1 is characterized in that: The control module includes a programmable logic controller, which is used to process coolant temperature and flow information.

8. The heat source power regulation system for liquid cooling equipment commissioning according to claim 1 is characterized in that: The information of the programmable logic controller is displayed and data is exchanged through a display module.

9. The heat source power regulation system for liquid cooling equipment commissioning according to claim 1, characterized in that: The heating module, the power regulating module, the collection module and the flow regulating module are powered by a power supply module.

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