Cleaning detection system for cold plate pipeline

Abstract

The invention relates to the technical field of servers, and discloses a cleaning detection system for a cold plate pipeline, which comprises a detection system, a liquid supply system and a control system, the detection system comprises a cleaning pipeline and a cleanliness detection structure, the cleaning pipeline comprises a first cleaning branch and a second cleaning branch, the first cleaning branch is communicated with the liquid inlet end of the cold plate pipeline, the second cleaning branch is suitable for being communicated with the liquid outlet end of the cold plate pipeline, and the cleanliness detection structure is arranged on the second cleaning branch; the liquid supply system communicates with the first cleaning branch and is suitable for continuously conveying liquid into the cold plate pipeline and cleaning the cold plate pipeline; and the control system is connected with the cleanliness detection structure and the liquid supply system, receives cleanliness data transmitted by the cleanliness detection structure and controls start and stop of the liquid supply system according to the cleanliness data. And the conditions of cooling liquid pollution and pipeline damage caused when the cold plate pipeline is connected into the data center liquid cooling circulation system are avoided.

Description

Technical Field

[0001] The invention relates to the technical field of servers, and in particular to a cleaning detection system for cold plate pipelines. Background Art

[0002] In the current cold plate liquid cooling server manufacturing process, trace pollutants and microorganisms will inevitably be introduced, causing contamination risks inside the cold plate pipeline. Once the server is integrated into the data center's efficient liquid cooling circulation system; the pollutants and microorganisms in the cold plate pipeline will continue to flow with the circulating coolant and spread throughout the entire liquid cooling circulation system, causing contamination and damage to the liquid cooling circulation system, ultimately leading to a decline in system performance and even failures, seriously interfering with the stable operation and efficient management of the data center. Summary of the invention

[0003] In view of this, the present invention provides a cleaning detection system for cold plate pipelines to solve the problem that pollutants and microorganisms in the cold plate pipelines will be spread into the entire liquid cooling circulation system along with the continuous flow of circulating coolant, causing contamination and damage to the liquid cooling circulation system, ultimately leading to a decline in system performance and even causing failures, seriously interfering with the stable operation and efficient management of the data center.

[0004] The present invention provides a cleaning detection system for a cold plate pipeline, comprising a detection system, a liquid supply system and a control system; the detection system comprises a cleaning pipeline and a cleanliness detection structure, the cleaning pipeline comprises a first cleaning branch and a second cleaning branch, the first cleaning branch is connected to the liquid inlet end of the cold plate pipeline, the second cleaning branch is suitable for being connected to the liquid outlet end of the cold plate pipeline, and the cleanliness detection structure is arranged on the second cleaning branch; the liquid supply system is connected to the first cleaning branch, and is suitable for continuously conveying liquid into the cold plate pipeline to clean the cold plate pipeline; the control system is connected to both the cleanliness detection structure and the liquid supply system, receives cleanliness data transmitted by the cleanliness detection structure, and controls the start and stop of the liquid supply system according to the cleanliness data.

[0005] Beneficial effect: by setting the cold plate pipeline between the first cleaning branch and the second cleaning branch, the liquid supply system continuously transports liquid into the cold plate pipeline through the first cleaning branch to flush the cold plate pipeline, thereby achieving flushing and cleaning of the cold plate pipeline; because the liquid after cleaning needs to flow through the second cleaning branch, the cleanliness detection structure is set on the second cleaning branch, thereby achieving the detection of the cleanliness of the liquid flowing through the cold plate pipeline, and through the mutual cooperation of the detection system, the liquid supply system and the control system, the effective detection and quantitative output of the cleanliness of the cold plate pipeline are achieved, and at the same time, the cleaning operation of the cold plate pipeline is achieved, avoiding the contamination of the cold plate pipeline by various impurities such as metal powder and welding slag. Contaminants enter the liquid cooling circulation system of the data center, preventing various impurities and pollutants from causing coolant contamination or component blockage in the liquid cooling circulation system of the data center, thereby avoiding pipeline damage caused by coolant contamination; and realizing the active flushing and removal function of microorganisms attached to the cold plate pipeline, avoiding the problem of excessive coolant microorganisms when the cold plate pipeline is connected to the liquid cooling circulation pipeline of the data center, avoiding a large amount of coolant discharge waste caused by the overall replacement of the coolant, and the environmental pollution caused by the discharge of the coolant; reducing the waste of manpower and material resources required for replacing the coolant and pipeline components; effectively improving the use safety, stability and operation efficiency of the liquid cooling circulation system of the data center.

[0006] In an optional embodiment, it also includes a liquid storage system, which includes a high-temperature water storage device and a pure water storage device; the high-temperature water storage device includes a first water outlet pipeline, and the first water outlet pipeline is provided with a first on-off component; the pure water storage device includes a second water outlet pipeline, and the second water outlet pipeline is provided with a second on-off component; the liquid supply system includes a liquid supply pipeline, and the first water outlet pipeline and the second water outlet pipeline are both connected to the liquid inlet end of the liquid supply pipeline; the control system is connected to the first on-off component and the second on-off component, and controls the on-off of the first water outlet pipeline by controlling the first on-off component, or controls the on-off of the second water outlet pipeline by controlling the second on-off component.

[0007] Beneficial effect: Through the mutual cooperation of the control system and the first on-off component and the second on-off component, the switching process between high-temperature water and pure water is realized, which is convenient for switching the liquid supply source according to the needs of equipment use; when cleaning the cold plate pipeline, the control system first controls the first on-off component to connect the first water outlet pipeline, and controls the second on-off component to disconnect the second water outlet pipeline, and then the high-temperature water infusion device supplies high-temperature water to the liquid supply system to flush and clean the cold plate pipeline. When the high-temperature water circulation is completed, the control system controls the first on-off component to disconnect the first water outlet pipeline, and controls the second on-off component to connect the second water outlet pipeline, and then the pure water storage device supplies pure water to the liquid supply system to deeply clean the cold plate pipeline; first flush and clean with high-temperature water, use the thermal energy of high-temperature water to enhance the cleaning power, deeply disintegrate and peel off impurities and microorganisms, and then use pure water to flush and clean, completely remove residual impurities and microorganisms, and improve the cleaning quality and efficiency of the cold plate pipeline.

[0008] In an optional embodiment, the first on-off component includes a first liquid supply proportional valve, a first flow sensor and a first one-way valve; the first liquid supply proportional valve is connected to a control system, and the control system is suitable for controlling and adjusting the valve opening of the first liquid supply proportional valve; the first flow sensor is arranged on a side of the first liquid supply proportional valve close to the liquid supply pipeline, and is connected to the control system to transmit liquid flow data in the first water outlet pipeline to the control system; the first one-way valve is arranged on a side of the first flow sensor close to the liquid supply pipeline.

[0009] Beneficial effects: By adjusting the opening of the first liquid supply proportional valve through the control system, the on-off control of the first pipeline is realized; the setting of the first flow sensor facilitates real-time monitoring of the liquid flow in the first liquid outlet pipeline; the setting of the first check valve can ensure the unidirectional flow of the liquid in the first water outlet pipeline, and prevent the contamination of the liquid in the high-temperature water storage device caused by liquid return.

[0010] In an optional embodiment, the second on-off component includes a second liquid supply proportional valve, a second flow sensor and a second one-way valve; the second liquid supply proportional valve is connected to the control system, and the control system is suitable for controlling and adjusting the valve opening of the second liquid supply proportional valve; the second flow sensor is arranged on the side of the second liquid supply proportional valve close to the liquid supply pipeline, and is connected to the control system to transmit the liquid flow data in the second water outlet pipeline to the control system; the second one-way valve is arranged on the side of the second flow sensor close to the liquid supply pipeline.

[0011] Beneficial effects: By adjusting the opening of the second liquid supply proportional valve through the control system, the on-off control of the second pipeline is realized; the setting of the second flow sensor facilitates real-time monitoring of the liquid flow in the second liquid outlet pipeline; the setting of the second check valve can ensure the unidirectional flow of the liquid in the second water outlet pipeline, and prevent the contamination of the liquid in the high-temperature water storage device caused by liquid return.

[0012] In an optional embodiment, the liquid supply system further includes a liquid supply cleaning device, which includes a liquid supply sterilization structure and a liquid supply filtering structure, and the liquid supply sterilization structure and the liquid supply filtering structure are sequentially arranged on the liquid supply pipeline.

[0013] Beneficial effects: By arranging a liquid supply cleaning device on the liquid supply pipeline, the liquid inside the liquid supply pipeline can be cleaned; by arranging a liquid supply sterilization structure, the microorganisms and bacteria in the liquid entering the liquid supply pipeline can be actively disinfected, thereby preventing the occurrence of problems such as cold plate pipeline contamination and corrosion damage caused by excessive microorganisms and bacteria in the liquid inside the liquid supply pipeline; by arranging a liquid supply filtering structure, the liquid entering the liquid supply pipeline can be filtered, which can effectively remove impurities such as suspended particles in the liquid inside the liquid supply pipeline, thereby preventing impurities such as suspended particles in the liquid inside the liquid supply pipeline from causing blockage of the cold plate pipeline.

[0014] In an optional embodiment, the liquid supply filtration structure includes a liquid supply filtration state detection unit and a liquid supply filtration pipeline; the liquid supply filtration state detection unit includes a liquid supply inlet pressure sensor and a liquid supply outlet pressure sensor, and the liquid supply inlet pressure sensor and the liquid supply outlet pressure sensor are arranged in sequence on the liquid supply pipeline; the liquid supply filtration pipeline is located between the liquid supply inlet pressure sensor and the liquid supply outlet pressure sensor, and is connected to the liquid supply pipeline; and a liquid supply filter is provided on the liquid supply filtration pipeline; the liquid supply inlet pressure sensor and the liquid supply outlet pressure sensor are both connected to the control system, and transmit the inlet pressure and the outlet pressure to the control system, and the control system determines the filter element state of the liquid supply filter by the difference between the inlet pressure and the outlet pressure.

[0015] Beneficial effects: By setting a liquid supply filter on the liquid supply filtration pipeline, the removal of impurities such as suspended particles in the liquid supply is achieved to ensure that the water quality of the liquid supply meets the requirements of the cold plate pipeline cleanliness detection; the state of the liquid supply filter is determined by the difference between the inlet pressure and the outlet pressure. When the pressure difference between the two is greater than the set value, the control system automatically reminds the relevant maintenance personnel to clean and replace the filter element of the liquid supply filter.

[0016] In an optional embodiment, at least two liquid supply filter pipelines are provided, and the at least two liquid supply filter pipelines are arranged in parallel; the liquid supply filter pipeline is also provided with a liquid supply inlet valve and a liquid supply outlet valve, the liquid supply inlet valve is arranged on the side where the inlet of the liquid supply filter is located, and the liquid supply outlet valve is arranged on the side where the outlet of the liquid supply filter is located.

[0017] Beneficial effect: The liquid supply inlet valve and the liquid supply outlet valve cooperate to realize the on-off of the liquid supply filter pipeline. By setting up at least two liquid supply filter pipelines, a dual liquid supply filter pipeline design of one for use and one for backup is realized, and the filter element can be cleaned and replaced and the pipeline can be maintained without stopping the system.

[0018] In an optional embodiment, a liquid supply sampling valve is also provided on the liquid supply filter pipeline, and the liquid supply sampling valve is arranged at one end where the outlet of the liquid supply filter is located.

[0019] Beneficial effect: By setting the liquid supply sampling valve, the discharge operation of the liquid in the liquid supply filter pipeline can be realized, and the convenient sampling operation of the liquid supply can be completed, thereby realizing the sampling and inspection of the liquid supply without stopping the machine.

[0020] In an optional embodiment, the liquid supply system further includes a power structure, the power structure includes a power pipeline, and the power pipeline is connected to the liquid supply pipeline.

[0021] Beneficial effect: By setting a power structure in the liquid supply system, power is provided for the liquid in the liquid supply pipeline, ensuring that the liquid in the liquid supply pipeline can flow smoothly to the cold plate pipeline.

[0022] In an optional embodiment, a driving pump, an inlet shock absorber pipe and an outlet shock absorber pipe are provided on the power pipeline. The inlet shock absorber pipe is arranged on the side where the inlet of the driving pump is located; the outlet shock absorber pipe is arranged on the side where the outlet of the driving pump is located.

[0023] Beneficial effect: The arrangement of the inlet shock-absorbing pipe and the outlet shock-absorbing pipe eliminates the installation error of the driving pump and the power pipeline when the driving pump is installed on the power pipeline, and reduces the vibration impact when the driving pump is running.

[0024] In an optional embodiment, the power pipeline is provided with at least two groups, and the at least two groups of power pipelines are arranged in parallel; the power pipeline is also provided with a power inlet valve and a power outlet valve, the power inlet valve is arranged at the end where the inlet of the power pipeline is located, and the power outlet valve is arranged at the end where the outlet of the power pipeline is located.

[0025] Beneficial effects: The power inlet valve and the power outlet valve cooperate to realize the on-and-off of the power pipeline. By setting up at least two groups of power pipelines, one power pipeline is used and one is reserved. When one of the power pipelines has a problem and needs to be shut down for maintenance, the other power pipeline can still operate normally, thereby ensuring the normal operation of the system. In addition, during the operation of the system, the control system can also control at least two groups of power pipelines to be used alternately, thereby avoiding the occurrence of problems such as overheating of the drive pump motor, thermal attenuation, efficiency reduction and shortened service life due to long-term operation of a single power pipeline, thereby effectively improving the service life and work efficiency of the drive pump.

[0026] In an optional embodiment, a third one-way valve is further provided on the power pipeline, and the third one-way valve is arranged at the end where the outlet of the outlet shock absorber pipe is located.

[0027] Beneficial effect: By setting the third one-way valve, the backflow of liquid output by the driving pump is prevented, thereby avoiding the problem of reduced driving force of the driving pump caused by the backflow of liquid.

[0028] In an optional embodiment, the liquid supply system further includes a safety valve, which is located at one end where the outlet of the power pipeline is located and is arranged on the liquid supply pipeline.

[0029] Beneficial effect: By setting the safety valve, when the system encounters sensor failure or abnormal valve closure, it can avoid the continuous operation of the drive pump, resulting in overpressure in the power pipeline, and then causing pipeline rupture, water drive pump and other situations.

[0030] In an optional embodiment, the liquid supply system also includes a liquid supply detection structure, which is located at one end where the outlet of the power pipeline is located, is arranged on the liquid supply pipeline, and is connected to the control system; the liquid supply detection structure is used to detect and feedback the liquid state output by the power pipeline to the control system.

[0031] Beneficial effect: By setting up the liquid supply detection structure to detect and feed back the liquid state of the power pipeline output to the control system, it is convenient for the control system to make corresponding control adjustments to other structures of the cleaning detection system for the cold plate pipeline to ensure the normal operation of the system.

[0032] In an optional embodiment, the liquid supply system also includes a liquid supply flow regulating branch, which is located at one end of the power pipeline where the outlet is located and is connected to the liquid supply pipeline; and an electric control valve is provided on the liquid supply flow regulating branch, and the electric control valve is connected to the control system. The control system controls the valve opening of the electric control valve according to the liquid flow and pressure required by the cold plate pipeline.

[0033] Beneficial effect: Through the setting of the liquid supply flow regulating branch, when the required flow and pressure of the cold plate pipeline to be tested are lower than the minimum output flow of the driving pump, the short-circuit bypass operation is achieved by adjusting the opening of the electronically controlled proportional valve; and at the same time, the liquid supply flow regulating branch can also cooperate with the cleaning pipeline where the cold plate pipeline is located to perform intelligent adjustment of the specified flow and pressure of the cleaning pipeline.

[0034] In an optional embodiment, the detection system also includes a pressure state detection unit, which includes a front pressure sensor and a rear pressure sensor, the front pressure sensor is arranged on the first cleaning branch, and the rear pressure sensor is arranged on the second cleaning branch; the front pressure sensor and the rear pressure sensor are both connected to the control system and transmit the front pressure and the rear pressure to the control system, and the control system determines the state of the cold plate pipeline by the difference between the front pressure and the rear pressure.

[0035] Beneficial effect: Through the setting of the front pressure sensor and the rear pressure sensor, the reading of the inlet and outlet pressure values ​​of the cold plate pipeline can be completed. By comparing the difference between the inlet pressure and the outlet pressure of the cold plate pipeline, the pressure drop and flow resistance of the cold plate pipeline can be determined and monitored and output, and the operation is fed back to the equipment control system. The control system adjusts the required pressure drop of the cold plate pipeline by adjusting the flow and pressure of the cleaning pipeline according to the specific needs of the cold plate pipeline. At the same time, the control system can determine the blockage state of the cold plate pipeline according to the pressure drop and flow resistance values ​​of the cold plate pipeline, thereby avoiding the liquid-cooled server with blocked cold plate pipeline from being powered on and connected to the system, causing burn-in damage to the liquid-cooled server.

[0036] In an optional embodiment, at least two groups of cleaning pipelines are provided, the at least two groups of cleaning pipelines are arranged in parallel, and an on-off valve is provided on the cleaning pipeline, and the on-off valve is arranged at one end close to the opening of the cleaning pipeline.

[0037] Beneficial effect: By setting up at least two groups of cleaning pipelines, the cleanliness detection and improvement operation of multiple cold plate pipelines is realized; the setting of the on-off valve realizes the overall on-off of the corresponding cleaning pipeline to achieve the normal operation of the cleaning pipeline, and at the same time, the liquid supply can be shut down when the relevant parts on the cleaning pipeline are maintained.

[0038] In an optional implementation, a third flow sensor is further provided on the cleaning pipeline, and the third flow sensor is connected to the control system to transmit liquid flow data in the cleaning pipeline to the control system.

[0039] Beneficial effect: Through the setting of the third flow sensor, the detection of liquid flow in the clean pipeline is realized, and the relevant flow data information can be uploaded to the control system in real time, which is convenient for the operator to monitor in real time whether the liquid flow flowing through the cold plate pipeline meets the specific usage requirements, and complete the adjustment of the required flow according to the specific needs of the cold plate pipeline.

[0040] In an optional embodiment, a constant pressure regulating valve is further provided on the cleaning pipeline, and the constant pressure regulating valve is connected to a control system, and the control system controls the valve opening of the constant pressure regulating valve according to the liquid flow and pressure required by the cold plate pipeline.

[0041] Beneficial effect: By setting a constant pressure regulating valve, the pressure and flow of the cleaning pipeline can be adjusted intelligently. The control system controls the valve opening of the constant pressure regulating valve according to the liquid flow and pressure required by the cold plate pipeline, so that the corresponding cleaning pipeline can meet the use requirements of the cold plate pipeline.

[0042] In an optional implementation, a buffer box is further provided on the cleaning pipeline, and the cleanliness detection structure is arranged on the buffer box.

[0043] Beneficial effect: By setting up the buffer box, the flow rate of the liquid flowing through can be slowed down, so as to improve the detection accuracy of the cleanliness detection structure.

[0044] In an optional embodiment, the detection system further includes a first liquid discharge structure, which is connected to the cleaning pipeline and is used for draining the cleaning pipeline and clearing the cleanliness detection structure.

[0045] Beneficial effect: By setting the first drainage structure, when the cold plate pipeline is cleaned, the drainage function of the cleaning pipeline is realized, thereby preventing the occurrence of pipeline corrosion caused by the growth of microorganisms in the coolant inside the cold plate pipeline for a long time. At the same time, the cleanliness detection structure can be reset, which is convenient for the recycling of the cleaning detection system for the cold plate pipeline, and avoids the cold plate pipeline cleanliness detection result being affected by the previous detection result.

[0046] In an optional embodiment, a liquid return system is further included, and the liquid return system includes a liquid return pipeline, one end of the liquid return pipeline is connected to the cleaning pipeline, and the other end is connected to the high-temperature water storage device.

[0047] Beneficial effect: By setting up a liquid return system, the high-temperature water and pure water flowing through the liquid cooling pipeline can be stored in the high-temperature water storage device, so that the high-temperature water and pure water can be recycled for secondary use.

[0048] In an optional embodiment, the liquid return system includes a gas content detection structure, which is arranged on the liquid return pipeline and is suitable for detecting the gas content of the liquid in the liquid return pipeline.

[0049] Beneficial effect: By setting up the gas content detection structure, the gas content of the return liquid after flowing through the detection system is realized online, and it can be determined whether the cold plate pipeline has completed the exhaust operation based on the gas content of the return liquid.

[0050] In an optional embodiment, the liquid return system includes an exhaust and flow stabilization structure, which is arranged on the liquid return pipeline and is suitable for performing an exhaust and flow stabilization operation on the liquid in the liquid return pipeline.

[0051] Beneficial effect: By setting up the exhaust flow stabilization structure, the residual gas in the liquid in the return liquid pipeline is discharged, thereby avoiding the occurrence of problems such as excessive noise and vibration, pipeline damage caused by the gas in the pipeline, and ensuring the stability of the liquid flow during the exhaust process.

[0052] In an optional embodiment, the liquid return system includes a liquid return monitoring structure, which is disposed on the liquid return pipeline and is suitable for monitoring the state of the liquid in the liquid return pipeline.

[0053] Beneficial effect: By setting up the liquid return monitoring structure, the state of the liquid flowing inside the liquid return pipeline is monitored.

[0054] In an optional embodiment, the liquid return system includes a liquid return cleaning device, which is disposed on the liquid return pipeline and is suitable for cleaning the liquid in the liquid return pipeline.

[0055] Beneficial effect: By arranging a liquid return cleaning device on the liquid return pipeline, the liquid inside the liquid return pipeline can be cleaned.

[0056] In an optional embodiment, the high-temperature water storage device includes a high-temperature water storage tank and a high-temperature water level detection structure; the high-temperature water storage tank is connected to the first water outlet pipeline; and the return liquid pipeline is connected to the high-temperature water storage tank; the high-temperature water level detection structure is arranged on the high-temperature water storage tank and is connected to the control system, for transmitting the liquid level data in the high-temperature water storage tank to the control system.

[0057] Beneficial effects: by setting up a high-temperature water storage tank, the storage of high-temperature water is realized, and the collection of liquid flowing through the return liquid pipeline is realized; the setting of the high-temperature water level detection structure realizes real-time liquid level detection of the liquid in the high-temperature water storage tank.

[0058] In an optional embodiment, the high-temperature water storage device further includes a high-temperature water exhaust valve, which is disposed on the high-temperature water storage tank and is suitable for exhausting the high-temperature water storage tank.

[0059] Beneficial effect: By setting a high-temperature water exhaust valve, the gas mixed in the liquid in the high-temperature water storage tank can be discharged, preventing the occurrence of cavitation damage to the drive pump and pipeline, water pollution, etc. caused by high-temperature water mixing with gas.

[0060] In an optional embodiment, the high-temperature water storage device also includes a high-temperature water quality detection structure, which is disposed on the high-temperature water storage tank and connected to the control system, and is suitable for transmitting the liquid quality conditions in the high-temperature water storage tank to the control system.

[0061] Beneficial effect: Through the setting of the high-temperature water quality detection structure, real-time monitoring of the liquid water quality in the high-temperature water storage tank is achieved.

[0062] In an optional embodiment, the high-temperature water storage device also includes a high-temperature water temperature sensor and a heating structure; the high-temperature water temperature sensor is arranged on the high-temperature water storage tank and connected to the control system to transmit the temperature data of the liquid in the high-temperature water storage tank to the control system; the heating structure is arranged in the high-temperature water storage tank and connected to the control system, and the control system controls the start and stop of the heating structure according to the temperature data of the liquid in the high-temperature water storage tank.

[0063] Beneficial effects: By setting up a high-temperature water sensor, real-time detection of the liquid temperature in the high-temperature water storage tank is achieved; by setting up a heating structure, the liquid in the high-temperature water storage tank is heated so that a higher temperature liquid can be used for cleaning the cold plate pipeline; the high-temperature water temperature sensor monitors and feedbacks the liquid temperature in the high-temperature water storage device so that the equipment control system can control the start and stop of the heating structure.

[0064] In an optional embodiment, the pure water storage device includes a pure water storage tank, a liquid replenishment structure and a pure water liquid level detection structure; the outlet of the pure water storage tank is connected to the second water outlet pipeline; the liquid replenishment structure is connected to the inlet of the pure water storage tank; the pure water liquid level detection structure is arranged on the pure water storage tank and connected to the control system, and is used to transmit the liquid level data in the pure water storage tank to the control system.

[0065] Beneficial effects: by setting up a pure water storage tank, the storage of pure water is realized, and the collection of liquid flowing through the return liquid pipeline is realized; the setting of the pure water level detection structure realizes the real-time level detection of the liquid in the pure water storage tank.

[0066] In an optional embodiment, the pure water storage device further includes a pure water exhaust valve, which is disposed on the pure water storage tank and is suitable for exhausting the pure water storage tank.

[0067] Beneficial effect: By setting a pure water exhaust valve, the gas mixed in the liquid in the pure water storage tank can be discharged, preventing the occurrence of driving pump, pipeline cavitation damage, water pollution, etc. caused by pure water mixing with gas.

[0068] In an optional embodiment, the pure water storage device also includes a pure water quality detection structure, which is arranged on the pure water storage tank and connected to the control system, and is suitable for transmitting the liquid water quality in the pure water storage tank to the control system.

[0069] Beneficial effect: Through the setting of the pure water quality detection structure, real-time monitoring of the liquid water quality in the pure water storage tank is achieved.

[0070] In an optional embodiment, the liquid storage system also includes a second liquid discharge structure, which includes a first overflow component, a second overflow component and a liquid discharge component; the liquid inlet end of the first overflow component is connected to the top of the high-temperature water storage tank; the liquid inlet end of the second overflow component is connected to the top of the pure water storage tank; the liquid discharge component is connected to the liquid outlet end of the first overflow component, the liquid outlet end of the second overflow component, the bottom of the high-temperature water storage tank and the bottom of the pure water storage tank, and is suitable for connecting to external pipelines.

[0071] Beneficial effects: The first overflow component is mainly used for the safe overflow of the high-temperature water storage tank. When the liquid in the high-temperature water storage tank reaches the maximum allowable capacity of the high-temperature water storage tank, the first overflow component automatically discharges excess high-temperature water to the outside, thereby avoiding system failures caused by excessive water. The second overflow component is mainly used for the safe overflow of the pure water storage tank. When the liquid in the pure water storage tank reaches the maximum allowable capacity of the pure water storage tank, the second overflow component automatically discharges excess pure water to the outside, thereby avoiding system failures caused by excessive water. By setting up the drainage component, the discharge of the liquid discharged by the first overflow component and the second overflow component is realized, and since the drainage component is connected to the bottom of the high-temperature water storage tank and the bottom of the pure water storage tank, the active discharge of the liquid in the high-temperature water storage tank and the pure water storage tank is realized. BRIEF DESCRIPTION OF THE DRAWINGS

[0072] In order to more clearly illustrate the specific embodiments of the present invention or the technical solutions in the related technologies, the drawings required for use in the specific embodiments or the related technical descriptions will be briefly introduced below. Obviously, the drawings described below are some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0073] Figure 1 Schematic diagram of a cleaning detection system for cold plate pipelines according to an embodiment of the present invention; Figure 2 is a schematic diagram of a liquid supply system according to an embodiment of the present invention; Figure 3 A schematic diagram of a first on / off component and a second on / off component according to an embodiment of the present invention; Figure 4 A schematic diagram of a liquid supply and filtering structure according to an embodiment of the present invention; Figure 5 is a schematic diagram of a power structure of an embodiment of the present invention; Figure 6 is a schematic diagram of a detection system according to an embodiment of the present invention; Figure 7 A schematic diagram of a liquid return system according to an embodiment of the present invention; Figure 8 A schematic diagram of an exhaust flow stabilization structure according to an embodiment of the present invention; Fig. 9 A schematic diagram of a liquid return filtration structure according to an embodiment of the present invention; Fig.10 is a schematic diagram of a liquid storage system according to an embodiment of the present invention; Fig.11 A schematic diagram of a high-temperature water storage device according to an embodiment of the present invention; Fig.12 Schematic diagram of a pure water storage device according to an embodiment of the present invention.

[0074] Description of reference numerals: 1. Detection system; 11. Clean pipeline; 111. First clean branch; 112. Second clean branch; 12. Cleanliness detection structure; 121. First conductivity sensor; 122. First turbidity sensor; 123. First pH meter; 13. Pressure state detection unit; 131. Front pressure sensor; 132. Rear pressure sensor; 14. On-off valve; 15. Third flow sensor; 16. Constant pressure regulating valve; 17. Buffer tank; 181, air inlet switch valve; 182, air inlet check valve; 183, air outlet switch valve; 184, exhaust check valve; 185, waste liquid collection box assembly; 2, cold plate pipeline; 3, liquid supply system; 31, liquid supply sterilization structure; 32, liquid supply filter structure; 321, liquid supply filter state detection unit; 3211, liquid supply inlet pressure sensor; 3212, liquid supply outlet pressure sensor; 322, liquid supply filter pipeline; 323, liquid supply filter; 324, liquid supply inlet 325, liquid supply outlet valve; 326, liquid supply sampling valve; 33, power structure; 331, power pipeline; 332, drive pump; 333, inlet shock absorber pipe; 334, outlet shock absorber pipe; 335, power inlet valve; 336, power outlet valve; 337, third one-way valve; 34, safety valve; 35, liquid supply detection structure; 351, liquid supply flow meter; 352, liquid supply temperature sensor; 353, liquid supply pressure sensor; 36, liquid supply flow adjustment support 361, electric control valve; 4, liquid storage system; 41, high temperature water storage device; 411, first water outlet pipeline; 412, first on-off assembly; 4121, first liquid supply proportional valve; 4122, first flow sensor; 4123, first one-way valve; 413, high temperature water storage tank; 414, high temperature water level detection structure; 4141, first low level sensor; 4142, first high level sensor; 4143, first ultra-high level sensor; 415, High-temperature water exhaust valve; 416, high-temperature water quality detection structure; 4161, second pH meter; 4162, second turbidity sensor; 4163, second conductivity sensor; 417, high-temperature water temperature sensor; 418, heating structure; 42, pure water storage device; 421, second water outlet pipeline; 422, second on-off assembly; 4221, second liquid supply proportional valve; 4222, second flow sensor; 4223, second one-way valve; 423, pure water storage tank; 42411, liquid replenishment pump; 42412, manual liquid replenishment filter device; 42413, manual liquid replenishment switch valve; 42421, automatic liquid replenishment switch valve; 425, pure water level detection structure; 4251, second low liquid level sensor; 4252, second high liquid level sensor; 4253, second ultra-high liquid level sensor; 426, pure water exhaust valve; 427, pure water quality detection structure; 4271, pure water temperature sensor; 4272, third pH meter; 4273, third turbidity sensor; 4274, third conductivity sensor; 4311, first overflow pipeline; 4312, first overflow switch valve;4313, first overflow check valve; 4321, second overflow pipeline; 4322, second overflow switch valve; 4323, second overflow check valve; 4331, drainage pipeline; 4332, drainage automatic switching valve; 4333, drainage water pump; 4334, drainage switch valve; 5, liquid return system; 51, liquid return pipeline; 52, gas content detection structure; 53, exhaust flow stabilization structure; 531, flow stabilization tank; 532, exhaust pressure sensor; 533, automatic exhaust valve; 54, liquid return monitoring structure; 55, liquid return cleaning device; 551, liquid return sterilization structure; 552, liquid return filtering structure; 5521, liquid return inlet pressure sensor; 5522, liquid return inlet valve; 5523, liquid return filter; 5524, liquid return sampling valve; 5525, liquid return outlet valve; 5526, liquid return outlet pressure sensor. ; DETAILED DESCRIPTION

[0075] In order to make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the technical solution in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative work are within the scope of protection of the present invention.

[0076] A large number of microorganisms carried in the cold plate pipeline 2 enter the liquid cooling circulation system of the data center, causing a sharp increase in the number of microorganisms. The acidic substances and microbial mud produced by them will cause coolant pollution and blockage and damage to the circulation pipeline. In order to avoid system damage caused by coolant pollution, the normal operation of the system can only be ensured by thoroughly cleaning the cooling pipeline and replacing all the coolants, resulting in a large amount of manpower and material resources. Waste; Since the internal cleanliness of the cold plate pipeline 2 cannot be effectively detected and quantified, in most cases, the cleanliness of the cold plate pipeline 2 is detected by naked eye observation, which makes the operation difficult and intensive for operators; and due to the lack of judgment on whether the cold plate pipeline 2 is blocked, operators are prone to mistakenly connect the blocked cold plate pipeline 2 directly to the liquid cooling circulation system of the data center, thereby causing damage to the pipeline.

[0077] Combine the following Figures 1 to 12 , describing an embodiment of the present invention.

[0078] According to an embodiment of the present invention, a cleaning detection system 1 for a cold plate pipeline 2 is provided, comprising a detection system 1, a liquid supply system 3 and a control system; the detection system 1 comprises a cleaning pipeline 11 and a cleanliness detection structure 12, the cleaning pipeline 11 comprises a first cleaning branch 111 and a second cleaning branch 112, the first cleaning branch 111 is connected to the liquid inlet end of the cold plate pipeline 2, the second cleaning branch 112 is suitable for being connected to the liquid outlet end of the cold plate pipeline 2, and the cleanliness detection structure 12 is arranged on the second cleaning branch 112; the liquid supply system 3 is connected to the first cleaning branch 111, and is suitable for continuously conveying liquid into the cold plate pipeline 2 to clean the cold plate pipeline 2; the control system is connected to both the cleanliness detection structure 12 and the liquid supply system 3, receives the cleanliness data transmitted by the cleanliness detection structure 12, and controls the start and stop of the liquid supply system 3 according to the cleanliness data.

[0079] By arranging the cold plate pipeline 2 between the first cleaning branch 111 and the second cleaning branch 112, the liquid supply system 3 continuously transports liquid into the cold plate pipeline 2 through the first cleaning branch 111 to flush the cold plate pipeline 2, thereby achieving flushing, cleaning and cleaning of the cold plate pipeline 2; since the cleaned liquid needs to flow through the second cleaning branch 112, the cleanliness detection structure 12 is arranged on the second cleaning branch 112, thereby achieving the detection of the cleanliness of the liquid flowing through the cold plate pipeline 2. Through the mutual cooperation of the detection system 1, the liquid supply system 3 and the control system, the effective detection and quantitative output of the cleanliness of the cold plate pipeline 2 are achieved, and at the same time, the cleaning operation of the cold plate pipeline 2 is achieved, thereby avoiding the metal powder carried by the cold plate pipeline 2. Various impurities and pollutants such as chips and welding slag enter the liquid cooling circulation system of the data center, preventing various impurities and pollutants from causing problems such as coolant contamination or component blockage in the liquid cooling circulation system of the data center, thereby avoiding the problem of pipeline damage caused by coolant contamination; and realizing the active flushing and removal function of microorganisms attached to the cold plate pipeline 2, avoiding the problem of excessive coolant microorganisms when the cold plate pipeline 2 is connected to the liquid cooling circulation pipeline of the data center, avoiding a large amount of coolant discharge waste caused by the overall replacement of the coolant, and the environmental pollution caused by the coolant discharge; reducing the waste of manpower and material resources required for replacing the coolant and pipeline components; effectively improving the use safety, stability and operation efficiency of the liquid cooling circulation system of the data center.

[0080] In a specific embodiment, when the cleanliness detection structure 12 detects that the cleanliness of the liquid in the second clean branch 112 meets the requirements, it means that the cleanliness inside the cold plate pipeline 2 meets the requirements. At this time, the control system can control the liquid supply system 3 to shut down and stop continuing to transport liquid to the cold plate pipeline 2; when it is detected that the cleanliness of the liquid in the second clean branch 112 does not meet the requirements, it means that the cleanliness inside the cold plate pipeline 2 still does not meet the requirements. At this time, the control system can control the liquid supply system 3 to continue to transport liquid to the cold plate pipeline 2, and continue to flush and clean the cold plate pipeline 2 until it is detected that the cleanliness inside the cold pipe pipeline meets the requirements.

[0081] In a specific embodiment, the cleanliness detection structure 12 includes a first conductivity sensor 121, a first turbidity sensor 122 and a first pH meter 123. The first conductivity sensor 121, the first turbidity sensor 122 and the first pH meter 123 can respectively detect the water quality of the liquid in the second clean branch 112, thereby completing the cleanliness detection of the cold plate pipeline 2.

[0082] In one embodiment, it also includes a liquid storage system 4, which includes a high-temperature water liquid storage device 41 and a pure water liquid storage device 42; the high-temperature water liquid storage device 41 includes a first water outlet pipeline 411, and a first on-off component 412 is provided on the first water outlet pipeline 411; the pure water liquid storage device 42 includes a second water outlet pipeline 421, and a second on-off component 422 is provided on the second water outlet pipeline 421; the liquid supply system 3 includes a liquid supply pipeline, and the first water outlet pipeline 411 and the second water outlet pipeline 421 are both connected to the liquid inlet end of the liquid supply pipeline; the control system is connected to the first on-off component 412 and the second on-off component 422, and controls the on-off of the first water outlet pipeline 411 by controlling the first on-off component 412, or controls the on-off of the second water outlet pipeline 421 by controlling the second on-off component 422.

[0083] By cooperating with the control system and the first on-off component 412 and the second on-off component 422, the switching process between high-temperature water and pure water is realized, which is convenient for switching the liquid supply source according to the use needs of the equipment; when cleaning the cold plate pipeline 2, the control system first controls the first on-off component 412 to connect the first water outlet pipeline 411, and controls the second on-off component 422 to disconnect the second water outlet pipeline 421, and then the high-temperature water infusion device supplies high-temperature water to the liquid supply system 3 to flush and clean the cold plate pipeline 2. After the warm water circulation is completed, the control system controls the first on-off component 412 to disconnect the first water outlet pipe 411, and controls the second on-off component 422 to connect the second water outlet pipe 421, and then the pure water storage device 42 supplies pure water to the liquid supply system 3 to deeply clean the cold plate pipe 2; first, high-temperature water is used for flushing and cleaning, and the thermal energy of high-temperature water is used to enhance the cleaning power, deeply disintegrate and peel off impurities and microorganisms, and then pure water is used for flushing and cleaning to completely remove residual impurities and microorganisms, thereby improving the cleaning quality and efficiency of the cold plate pipe 2.

[0084] Preferably, a filter is provided at the inlet end of the first water outlet pipe 411 and the second water outlet pipe 421 to filter solid impurities that may be contained in the liquid entering the first water outlet pipe 411 and the second water outlet pipe 421, thereby avoiding blockage of the first water outlet pipe 411 and the second water outlet pipe 421 during use and ensuring the normal operation of the system.

[0085] In a specific implementation, the cleanliness detection structure 12 detects the water quality changes of the disposable pure water flowing through the cold plate pipeline 2 to complete the cleanliness detection of the cold plate pipeline 2, which can truly simulate the impact of the cold plate pipeline 2 on water quality under actual working conditions.

[0086] In one embodiment, the first on-off component 412 includes a first liquid supply proportional valve 4121, a first flow sensor 4122 and a first one-way valve 4123; the first liquid supply proportional valve 4121 is connected to the control system, and the control system is suitable for controlling and adjusting the valve opening of the first liquid supply proportional valve 4121; the first flow sensor 4122 is arranged on the side of the first liquid supply proportional valve 4121 close to the liquid supply pipeline, and is connected to the control system to transmit the liquid flow data in the first water outlet pipeline 411 to the control system; the first one-way valve 4123 is arranged on the side of the first flow sensor 4122 close to the liquid supply pipeline.

[0087] By adjusting the opening of the first liquid supply proportional valve 4121 through the control system, the on-off control of the first pipeline is realized; the setting of the first flow sensor 4122 facilitates real-time monitoring of the liquid flow in the first liquid outlet pipeline; the setting of the first check valve 4123 can ensure the unidirectional flow of the liquid in the first water outlet pipeline 411, and prevent the contamination of the liquid in the high-temperature water storage device 41 caused by liquid return.

[0088] In one embodiment, the second on-off component 422 includes a second liquid supply proportional valve 4221, a second flow sensor 4222 and a second one-way valve 4223; the second liquid supply proportional valve 4221 is connected to the control system, and the control system is suitable for controlling and adjusting the valve opening of the second liquid supply proportional valve 4221; the second flow sensor 4222 is arranged on the side of the second liquid supply proportional valve 4221 close to the liquid supply pipeline, and is connected to the control system to transmit the liquid flow data in the second water outlet pipeline 421 to the control system; the second one-way valve 4223 is arranged on the side of the second flow sensor 4222 close to the liquid supply pipeline.

[0089] By adjusting the opening of the second liquid supply proportional valve 4221 through the control system, the on-off control of the second pipeline is realized; the setting of the second flow sensor 4222 facilitates real-time monitoring of the liquid flow in the second liquid outlet pipeline; the setting of the second check valve 4223 can ensure the unidirectional flow of the liquid in the second water outlet pipeline 421, and prevent the contamination of the liquid in the high-temperature water storage device 41 caused by liquid return.

[0090] In one embodiment, the liquid supply system 3 further includes a liquid supply cleaning device, which includes a liquid supply sterilization structure 31 and a liquid supply filtering structure 32. The liquid supply sterilization structure 31 and the liquid supply filtering structure 32 are sequentially arranged on the liquid supply pipeline.

[0091] By arranging a liquid supply cleaning device on the liquid supply pipeline, the liquid inside the liquid supply pipeline can be cleaned; by arranging a liquid supply sterilization structure 31, the microorganisms and bacteria in the liquid entering the liquid supply pipeline can be actively disinfected, thereby preventing the occurrence of problems such as contamination and corrosion damage of the cold plate pipeline 2 caused by excessive microorganisms and bacteria in the liquid inside the liquid supply pipeline; by arranging a liquid supply filtering structure 32, the liquid entering the liquid supply pipeline can be filtered, and impurities such as suspended particles in the liquid inside the liquid supply pipeline can be effectively removed, thereby preventing impurities such as suspended particles in the liquid inside the liquid supply pipeline from causing blockage of the cold plate pipeline 2.

[0092] Specifically, the liquid supply sterilization structure 31 adopts ultraviolet sterilization technology.

[0093] In one embodiment, the liquid supply filter structure 32 includes a liquid supply filter state detection unit 321 and a liquid supply filter pipeline 322; the liquid supply filter state detection unit 321 includes a liquid supply inlet pressure sensor 3211 and a liquid supply outlet pressure sensor 3212, and the liquid supply inlet pressure sensor 3211 and the liquid supply outlet pressure sensor 3212 are arranged on the liquid supply pipeline in sequence; the liquid supply filter pipeline 322 is located between the liquid supply inlet pressure sensor 3211 and the liquid supply outlet pressure sensor 3212, and is connected to the liquid supply pipeline; and a liquid supply filter 323 is provided on the liquid supply filter pipeline 322; the liquid supply inlet pressure sensor 3211 and the liquid supply outlet pressure sensor 3212 are both connected to the control system, and transmit the inlet pressure and the outlet pressure to the control system, and the control system determines the filter element state of the liquid supply filter 323 by the difference between the inlet pressure and the outlet pressure.

[0094] By setting up a liquid supply filter 323 on the liquid supply filter pipeline 322, the removal of impurities such as suspended particles in the liquid supply liquid is achieved to ensure that the water quality of the liquid supply liquid meets the use requirements of the cleanliness detection of the cold plate pipeline 2; the state of the liquid supply filter 323 is determined by the difference between the inlet pressure and the outlet pressure. When the pressure difference between the two is greater than the set value, the control system automatically reminds the relevant maintenance personnel to clean and replace the filter element of the liquid supply filter 323.

[0095] Specifically, the effective removal rate of suspended particles of the liquid supply filter structure 32 is as high as 99%.

[0096] Specifically, the liquid supply filter 323 is designed with a stainless steel flushable filter element.

[0097] In one embodiment, at least two liquid supply filter pipelines 322 are provided, and at least two liquid supply filter pipelines 322 are arranged in parallel; the liquid supply filter pipeline 322 is also provided with a liquid supply inlet valve 324 and a liquid supply outlet valve 325, the liquid supply inlet valve 324 is arranged on the side where the inlet of the liquid supply filter 323 is located, and the liquid supply outlet valve 325 is arranged on the side where the outlet of the liquid supply filter 323 is located.

[0098] The liquid supply inlet valve 324 and the liquid supply outlet valve 325 cooperate to realize the on-off of the liquid supply filter pipeline 322. By setting up at least two liquid supply filter pipelines 322, a dual liquid supply filter pipeline 322 design of one for use and one for backup is realized, and the filter element can be cleaned and replaced and the pipeline can be maintained without shutting down the system.

[0099] In one embodiment, a liquid supply sampling valve 326 is further provided on the liquid supply filtering pipeline 322 , and the liquid supply sampling valve 326 is arranged at one end where the outlet of the liquid supply filter 323 is located.

[0100] The liquid supply sampling valve 326 is provided to discharge the liquid in the liquid supply filter pipeline 322, and to complete a convenient sampling operation of the liquid supply, thereby realizing the sampling and inspection of the liquid supply without stopping the machine.

[0101] In one embodiment, the liquid supply system 3 further includes a power structure 33 , and the power structure 33 includes a power pipeline 331 , and the power pipeline 331 is connected to the liquid supply pipeline.

[0102] By arranging the power structure 33 in the liquid supply system 3 , power is provided for the liquid in the liquid supply pipeline, thereby ensuring that the liquid in the liquid supply pipeline can flow smoothly to the cold plate pipeline 2 .

[0103] In one embodiment, a driving pump 332, an inlet shock absorber pipe 333 and an outlet shock absorber pipe 334 are provided on the power pipeline 331. The inlet shock absorber pipe 333 is arranged on the side where the inlet of the driving pump 332 is located; the outlet shock absorber pipe 334 is arranged on the side where the outlet of the driving pump 332 is located.

[0104] The provision of the inlet shock-absorbing pipe 333 and the outlet shock-absorbing pipe 334 eliminates the installation error of the driving pump 332 and the power pipeline 331 when the driving pump 332 is installed on the power pipeline 331, and reduces the vibration impact when the driving pump 332 is running.

[0105] In a specific implementation, the driving pump 332 adopts a variable frequency motor drive design, which can automatically adjust the motor speed according to the liquid flow and pressure required by the cold plate pipeline 2 to achieve on-demand operation, thereby achieving energy-saving operation of the system.

[0106] In one embodiment, at least two groups of power pipelines 331 are provided, and at least two groups of power pipelines 331 are arranged in parallel; a power inlet valve 335 and a power outlet valve 336 are also provided on the power pipeline 331, and the power inlet valve 335 is arranged at the end where the inlet of the power pipeline 331 is located, and the power outlet valve 336 is arranged at the end where the outlet of the power pipeline 331 is located.

[0107] The power inlet valve 335 and the power outlet valve 336 cooperate to realize the on-off of the power pipeline 331. By setting up at least two groups of power pipelines 331, one power pipeline 331 is used and the other is reserved. When one of the power pipelines 331 has a problem and needs to be shut down for maintenance, the other power pipeline 331 can still operate normally, thereby ensuring the normal operation of the system. In addition, during the operation of the system, the control system can also control at least two groups of power pipelines 331 to be used alternately, thereby avoiding the occurrence of problems such as overheating, thermal attenuation, efficiency reduction and service life reduction of the drive pump 332 motor due to long-term operation of a single power pipeline 331, thereby effectively improving the service life and work efficiency of the drive pump 332.

[0108] In one embodiment, a third one-way valve 337 is further provided on the power pipeline 331 , and the third one-way valve 337 is arranged at one end where the outlet of the outlet shock absorber pipe 334 is located.

[0109] The third one-way valve 337 is provided to prevent the liquid outputted by the driving pump 332 from flowing back, thereby avoiding the problem of a decrease in the driving force of the driving pump 332 caused by the liquid flowing back.

[0110] In one embodiment, the liquid supply system 3 further includes a safety valve 34 , which is located at one end of the outlet of the power pipeline 331 and is arranged on the liquid supply pipeline.

[0111] By setting the safety valve 34, when the system encounters sensor failure or abnormal valve closure, it can avoid the drive pump 332 from continuously running, causing overpressure in the power pipeline 331 and then causing pipeline rupture, water drive pump 332 and other situations.

[0112] Specifically, the safety valve 34 can set a suitable safety relief pressure according to the system operation conditions. When the pressure of the power line 331 exceeds the set safety relief pressure, the safety valve 34 can use a dedicated line to discharge and relieve pressure, thereby ensuring the safe operation of the system.

[0113] In one embodiment, the liquid supply system 3 also includes a liquid supply detection structure 35, which is located at one end where the outlet of the power pipeline 331 is located, is arranged on the liquid supply pipeline, and is connected to the control system; the liquid supply detection structure 35 is used to detect and feedback the liquid state output by the power pipeline 331 to the control system.

[0114] By setting up the liquid supply detection structure 35 to detect and feed back the liquid state output by the power pipeline 331 to the control system, it is convenient for the control system to make corresponding control adjustments to other structures of the cleaning detection system 1 for the cold plate pipeline 2 to ensure the normal operation of the system.

[0115] Specifically, the liquid supply detection structure 35 includes a liquid supply flow meter 351, a liquid supply temperature sensor 352, and a liquid supply pressure sensor 353. The liquid supply flow meter 351, the liquid supply temperature sensor 352, and the liquid supply pressure sensor 353 can be used to detect equipment operation-related parameters such as liquid flow, temperature, and pressure output by the power pipeline 331, respectively.

[0116] Specifically, the liquid supply pressure sensor 353 adopts a one-in-use and one-in-standby design.

[0117] In one embodiment, the liquid supply system 3 also includes a liquid supply flow regulating branch 36, which is located at one end of the outlet of the power pipeline 331 and is connected to the liquid supply pipeline; and an electric control valve 361 is provided on the liquid supply flow regulating branch 36, and the electric control valve 361 is connected to the control system. The control system controls the valve opening of the electric control valve 361 according to the liquid flow and pressure required by the cold plate pipeline 2.

[0118] Through the setting of the liquid supply flow regulating branch 36, when the required flow and pressure of the cold plate pipeline 2 to be tested are lower than the minimum output flow of the driving pump 332, the short-circuit bypass operation is achieved by adjusting the opening of the electronically controlled proportional valve; and at the same time, the liquid supply flow regulating branch 36 can also cooperate with the cleaning pipeline 11 where the cold plate pipeline 2 is located to perform intelligent adjustment of the specified flow and pressure of the cleaning pipeline 11.

[0119] In one embodiment, the detection system 1 also includes a pressure state detection unit 13, which includes a front pressure sensor 131 and a rear pressure sensor 132. The front pressure sensor 131 is arranged on the first cleaning branch 111, and the rear pressure sensor 132 is arranged on the second cleaning branch 112; the front pressure sensor 131 and the rear pressure sensor 132 are both connected to the control system and transmit the front pressure and the rear pressure to the control system. The control system determines the state of the cold plate pipeline 2 by the difference between the front pressure and the rear pressure.

[0120] By setting the front pressure sensor 131 and the rear pressure sensor 132, the reading of the inlet and outlet pressure values ​​of the cold plate pipeline 2 can be completed, and the pressure drop and flow resistance determination monitoring output operation of the cold plate pipeline 2 can be completed by comparing the difference between the inlet pressure and the outlet pressure of the cold plate pipeline 2, and the feedback is given to the equipment control system. The control system adjusts the required pressure drop of the cold plate pipeline 2 by adjusting the flow and pressure of the cleaning pipeline 11 according to the specific needs of the cold plate pipeline 2. At the same time, the control system can determine the blockage state of the cold plate pipeline 2 according to the pressure drop and flow resistance values ​​of the cold plate pipeline 2, thereby avoiding the liquid-cooled server equipped with a blocked cold plate pipeline 2 from being powered on and connected to the system, causing burn-in damage to the liquid-cooled server.

[0121] In one embodiment, at least two groups of cleaning pipelines 11 are provided, and the at least two groups of cleaning pipelines 11 are arranged in parallel. The cleaning pipelines 11 are provided with on-off valves 14 , and the on-off valves 14 are arranged at one end close to the opening of the cleaning pipeline 11 .

[0122] By setting up at least two groups of cleaning pipelines 11, the cleanliness detection and improvement operation of multiple cold plate pipelines 2 is realized; the setting of the on-off valve 14 realizes the overall on-off of the corresponding cleaning pipeline 11 to achieve the normal operation of the cleaning pipeline 11, and at the same time, the liquid supply can be shut off when the relevant parts on the cleaning pipeline 11 are maintained.

[0123] Specifically, the on-off valve 14 is an electric switch valve.

[0124] In one embodiment, a third flow sensor 15 is further provided on the cleaning pipeline 11 . The third flow sensor 15 is connected to the control system to transmit liquid flow data in the cleaning pipeline 11 to the control system.

[0125] By setting up the third flow sensor 15, the detection of the liquid flow in the cleaning pipeline 11 is realized, and the relevant flow data information can be uploaded to the control system in real time, so that the operator can monitor in real time whether the liquid flow flowing through the cold plate pipeline 2 meets the specific usage requirements, and complete the adjustment of the required flow according to the specific needs of the cold plate pipeline 2.

[0126] In one embodiment, a constant pressure regulating valve 16 is further provided on the cleaning pipeline 11 , and the constant pressure regulating valve 16 is connected to a control system, and the control system controls the valve opening of the constant pressure regulating valve 16 according to the liquid flow and pressure required by the cold plate pipeline 2 .

[0127] By setting a constant pressure regulating valve 16, intelligent adjustment of the pressure and flow of the cleaning pipeline 11 can be achieved. The control system controls the valve opening of the constant pressure regulating valve 16 according to the liquid flow and pressure required by the cold plate pipeline 2, so that the corresponding cleaning pipeline 11 meets the use requirements of the cold plate pipeline 2.

[0128] Specifically, the constant pressure regulating valve 16 adopts an electric proportional regulation design, and can intelligently adjust its opening parameters according to the flow rate and pressure required by the cold plate pipeline 2.

[0129] In one embodiment, a buffer box 17 is further provided on the cleaning pipeline 11 , and the cleanliness detection structure 12 is disposed on the buffer box 17 .

[0130] By providing the buffer box 17 , the flow rate of the liquid passing through can be reduced, so as to improve the detection accuracy of the cleanliness detection structure 12 .

[0131] In one embodiment, the detection system 1 further includes a first liquid discharge structure, which is connected to the cleaning pipeline 11 and is used for draining the cleaning pipeline 11 and clearing the cleanliness detection structure 12 .

[0132] By setting the first drainage structure, when the cold plate pipeline 2 is cleaned, the drainage function of the cleaning pipeline 11 is realized to prevent the pipeline corrosion caused by the growth of microorganisms in the coolant in the cold plate pipeline 2 for a long time. At the same time, the cleanliness detection structure 12 can be reset to facilitate the recycling of the cleaning detection system 1 for the cold plate pipeline 2, thereby avoiding the cleanliness detection result of the cold plate pipeline 2 being affected by the previous detection result.

[0133] Specifically, the first liquid discharge structure includes a first liquid discharge branch and a second liquid discharge branch. The inlet of the first liquid discharge branch is connected to the outside compressed air, and the outlet is arranged at the outlet side of the on-off valve 14 and is connected to the first cleaning branch 111. The air inlet switch valve 181 and the air inlet check valve 182 are arranged on the first liquid discharge branch. The inlet of the second liquid discharge branch is arranged on the inlet side of the constant pressure regulating valve 16 and is connected to the second cleaning branch 112. The outlet is connected to the waste liquid collection box assembly 185, and the air outlet switch valve 183 and the exhaust check valve 184 are arranged on the second liquid discharge branch. When a group of cold plate pipelines 2 completes the cleanliness detection and lifting operation, first adjust the on-off valve 14 and the constant pressure regulating valve 16 to the closed state, and then open the air inlet switch valve 181 and the air outlet switch valve 183 so that the clean compressed air can flow through the cleaning pipeline 11 with the cold plate pipeline 2 to complete the liquid discharge operation of the cold plate pipeline 2 and the cleaning pipeline 11. When the liquid in the cleanliness detection buffer tank 17 is drained, the first conductivity sensor 121, the first turbidity sensor 122 and the first pH meter 123 enter the zeroing and calibration work; the waste liquid collection box assembly 185 is mainly used to complete the collection of waste liquid discharged from the cleaning pipeline 11 and the cold plate pipeline 2; it is equipped with automatic exhaust, water tank liquid level sensing, drainage water pump 4333 and high liquid level automatic overflow functions, and can automatically complete the drainage operation according to the liquid content inside the water tank.

[0134] In one embodiment, a liquid return system 5 is further included. The liquid return system 5 includes a liquid return pipeline 51 . One end of the liquid return pipeline 51 is connected to the cleaning pipeline 11 , and the other end is connected to the high-temperature water storage device 41 .

[0135] By setting up the liquid return system 5, the high-temperature water and pure water flowing through the liquid cooling pipeline can be put into the high-temperature water storage device 41, so that the high-temperature water and pure water can be recycled for secondary use.

[0136] In one embodiment, the liquid return system 5 includes a gas content detection structure 52 . The gas content detection structure 52 is disposed on the liquid return pipeline 51 and is suitable for detecting the gas content of the liquid in the liquid return pipeline 51 .

[0137] By providing the gas content detection structure 52, online detection of the gas content of the return liquid after passing through the detection system 1 is achieved, and it can be determined whether the cold plate pipeline 2 has completed the exhaust operation based on the gas content of the return liquid.

[0138] Specifically, the gas content detection structure 52 is a gas content detector.

[0139] In one embodiment, the liquid return system 5 includes an exhaust and flow stabilizing structure 53 , which is disposed on the liquid return pipeline 51 and is suitable for performing an exhaust and flow stabilizing operation on the liquid in the liquid return pipeline 51 .

[0140] By providing the exhaust flow stabilizing structure 53, the residual gas in the liquid in the return liquid pipeline 51 is discharged, thereby avoiding the occurrence of problems such as excessive noise and vibration and pipeline damage caused by the gas in the pipeline, and ensuring the stability of the liquid flow during the exhaust process.

[0141] In a specific embodiment, the return liquid pipeline 51 includes a first return liquid branch and a second return liquid branch, and the exhaust stabilizing flow component includes a stabilizing pot 531, an exhaust pressure sensor 532 and an automatic exhaust valve 533. The liquid inlet end of the first return liquid branch is connected to the liquid outlet end of the cleaning pipeline 11, and the liquid outlet end of the first return liquid branch is connected to the top of the stabilizing pot 531; the exhaust pressure sensor 532 and the automatic exhaust valve 533 are both arranged above the stabilizing pot 531, and the liquid inlet end of the second return liquid branch is connected to the bottom of the stabilizing pot 531; the return liquid flowing through the cold plate pipeline 2 enters the interior of the stabilizing pot 531 from the upper end of the stabilizing pot 531 through the first return liquid branch. After the return liquid enters the stabilizing pot 531 with a larger pipe diameter, its flow rate will drop to a specified value, so that the gas mixed in the return liquid will be released into the outside atmosphere through the stabilizing flow automatic exhaust valve 533 installed on the top of the stabilizing pot 531. The steady-flow automatic exhaust valve 533 can automatically adjust the valve body opening according to the gas content of the return liquid detected by the gas content detection structure 52 so as to automatically adjust the exhaust rate. The return liquid that has completed the exhaust operation in the simmer tank 531 will enter the second return liquid branch connected to the bottom of the simmer tank 531 under the drive of the power structure 33; at the same time, the pressure measured by the exhaust pressure sensor 532 and the pressure measured by the liquid supply pressure sensor 353 are compared and analyzed, and the speed of the driving pump 332 and the opening of the electric control valve 361 on the liquid supply flow regulating branch 36 are automatically adjusted according to the analysis results to meet the needs of the system heavy liquid in actual use.

[0142] In one embodiment, the liquid return system 5 includes a liquid return monitoring structure 54 . The liquid return monitoring structure 54 is disposed on the liquid return pipeline 51 and is suitable for monitoring the state of the liquid in the liquid return pipeline 51 .

[0143] By providing the liquid return monitoring structure 54 , the state of the liquid flowing inside the liquid return pipeline 51 is monitored.

[0144] Specifically, the liquid return monitoring structure 54 is designed with transparent tempered glass, which is convenient for the operator to intuitively and clearly view the status of the liquid return, and can directly observe the turbidity of the water, impurities and bubbles in the water and other related conditions.

[0145] In one embodiment, the liquid return system 5 includes a liquid return cleaning device 55 . The liquid return cleaning device 55 is disposed on the liquid return pipeline 51 and is suitable for cleaning the liquid in the liquid return pipeline 51 .

[0146] By providing a liquid return cleaning device 55 on the liquid return pipeline 51 , the liquid inside the liquid return pipeline 51 can be cleaned.

[0147] In a specific embodiment, the liquid return cleaning device 55 includes a liquid return sterilization structure 551 and a liquid return filtering structure 552, and the liquid return sterilization structure 551 and the liquid return filtering structure 552 are sequentially arranged on the liquid return pipeline 51; by arranging the liquid return cleaning device 55 on the liquid return pipeline 51, the liquid inside the liquid return pipeline 51 can be cleaned; by arranging the liquid return sterilization structure 551, the microorganisms and bacteria in the liquid entering the liquid return pipeline 51 can be actively disinfected, thereby preventing the occurrence of problems such as contamination and corrosion damage of the cold plate pipeline 2 caused by excessive microorganisms and bacteria in the liquid inside the liquid return pipeline 51; by arranging the liquid return filtering structure 552, the liquid entering the liquid return pipeline 51 can be filtered, and impurities such as suspended particles in the liquid inside the liquid return pipeline 51 can be effectively removed, thereby preventing the cold plate pipeline 2 from being blocked by impurities such as suspended particles in the liquid inside the liquid return pipeline 51.

[0148] Specifically, the liquid return sterilization structure 551 adopts ultraviolet sterilization technology.

[0149] In a specific embodiment, the liquid return filter structure 552 includes a liquid return filter state detection unit and a liquid return filter pipeline; the liquid return filter state detection unit includes a liquid return inlet pressure sensor 5521 and a liquid return outlet pressure sensor 5526, and the liquid return inlet pressure sensor 5521 and the liquid return outlet pressure sensor 5526 are sequentially arranged on the liquid return pipeline 51; the liquid return filter pipeline is located between the liquid return inlet pressure sensor 5521 and the liquid return outlet pressure sensor 5526, and is connected to the liquid return pipeline 51; and a liquid return filter 5523 is provided on the liquid return filter pipeline; the liquid return inlet pressure sensor 5521 and the liquid return outlet pressure sensor 5526 are both It is connected to the control system and transmits the inlet pressure and outlet pressure to the control system. The control system determines the filter element status of the return liquid filter 5523 by the difference between the inlet pressure and the outlet pressure. By arranging the return liquid filter 5523 on the return liquid filter pipeline, the removal operation of impurities such as suspended particles in the return liquid is realized to ensure that the water quality of the return liquid meets the use requirements of the cleanliness detection of the cold plate pipeline 2. The status of the return liquid filter 5523 is determined by the difference between the inlet pressure and the outlet pressure. When the pressure difference between the two is greater than the set value, the control system automatically reminds the relevant maintenance personnel to clean and replace the filter element of the return liquid filter 5523.

[0150] Specifically, the effective removal rate of suspended particles of the liquid return filter structure 552 is as high as 99%.

[0151] Specifically, the liquid return filter 5523 adopts a stainless steel flushable filter element design.

[0152] In a specific embodiment, at least two liquid return filter pipelines are provided, and at least two liquid return filter pipelines are arranged in parallel; a liquid return inlet valve 5522 and a liquid return outlet valve 5525 are also provided on the liquid return filter pipeline, the liquid return inlet valve 5522 is arranged on the side where the inlet of the liquid return filter 5523 is located, and the liquid return outlet valve 5525 is arranged on the side where the outlet of the liquid return filter 5523 is located; the liquid return inlet valve 5522 and the liquid return outlet valve 5525 cooperate to realize the on-off of the liquid return filter pipeline, and by setting at least two A return liquid filter pipeline is realized, realizing a dual return liquid filter pipeline design of one in use and one in reserve, so that the filter element can be cleaned and replaced and the pipeline can be maintained without stopping the system; a return liquid filter pipeline is also provided with a return liquid sampling valve 5524, and the return liquid sampling valve 5524 is arranged at the end where the outlet of the return liquid filter 5523 is located; by setting the return liquid sampling valve 5524, the discharge operation of the liquid in the return liquid filter pipeline can be realized, and the convenient sampling operation of the return liquid can be completed, thereby realizing the sampling and inspection of the return liquid without stopping the system.

[0153] In one embodiment, the high-temperature water storage device 41 includes a high-temperature water storage tank 413 and a high-temperature water liquid level detection structure 414; the high-temperature water storage tank 413 is connected to the first water outlet pipe 411; and the return liquid pipe 51 is connected to the high-temperature water storage tank 413; the high-temperature water liquid level detection structure 414 is arranged on the high-temperature water storage tank 413 and is connected to the control system, and is used to transmit the liquid level data in the high-temperature water storage tank 413 to the control system.

[0154] By setting up the high-temperature water storage tank 413, the storage of high-temperature water is realized, and the collection of liquid flowing through the return liquid pipeline 51 is realized; the setting of the high-temperature water level detection structure 414 realizes real-time liquid level detection of the liquid in the high-temperature water storage tank 413.

[0155] In a specific embodiment, the high-temperature water level detection structure 414 includes a first low liquid level sensor 4141, a first high liquid level sensor 4142 and a first ultra-high liquid level sensor 4143. The first low liquid level sensor 4141 is arranged at the bottom of the high-temperature water storage tank 413, and is mainly used for sensing and outputting the liquid shortage signal of the high-temperature water storage tank 413. When it detects that the water volume inside the high-temperature water storage tank 413 is insufficient, it triggers the need for liquid shortage and replenishment to the control system; the first high liquid level sensor 4142 is arranged at a designated position on the upper part of the high-temperature water storage tank 413, and is mainly used for sensing and outputting the liquid replenishment signal of the high-temperature water storage tank 413. When the water volume reaches the position of the first high liquid level sensor 4142 during the replenishment process, it The control system is triggered to stop the need to replenish fluid, thereby preventing liquid leakage caused by excessive replenishment; the first ultra-high liquid level sensor 4143 is arranged above the first high liquid level sensor 4142, and it mainly plays the role of double safety backup. When the first high liquid level sensor 4142 fails, when the liquid level in the high-temperature water storage tank 413 reaches the position of the first high liquid level sensor 4142, the first high liquid level sensor 4142 triggers the control system to stop the need to replenish fluid, thereby preventing liquid leakage caused by excessive replenishment.

[0156] In one embodiment, the high temperature water storage device 41 further includes a high temperature water exhaust valve 415 , which is disposed on the high temperature water storage tank 413 and is suitable for exhausting the high temperature water storage tank 413 .

[0157] By setting a high-temperature water exhaust valve 415, the gas mixed in the liquid in the high-temperature water storage tank 413 can be discharged, preventing the occurrence of cavitation damage to the drive pump 332 and pipelines, water pollution, etc. caused by high-temperature water mixing with gas.

[0158] In one embodiment, the high-temperature water storage device 41 also includes a high-temperature water quality detection structure 416, which is disposed on the high-temperature water storage tank 413 and connected to the control system, and is suitable for transmitting the liquid quality conditions in the high-temperature water storage tank 413 to the control system.

[0159] By setting up the high-temperature water quality detection structure 416, real-time monitoring of the liquid quality in the high-temperature water storage tank 413 is achieved.

[0160] In a specific embodiment, the high-temperature water quality detection structure 416 includes a second pH meter 4161, a second turbidity sensor 4162, and a second conductivity sensor 4163. The second pH meter 4161 is used to detect and output the pH value of the high-temperature water, the second turbidity sensor 4162 is used to detect and output the turbidity of the high-temperature water, and the second conductivity sensor is used to detect and output the conductivity of the high-temperature water; the high-temperature water quality detection structure 416 transmits the high-temperature water quality status data to the control system, and when the control system detects that the high-temperature water quality exceeds the standard, it will issue an alarm, so that the operator can clean the liquid in the high-temperature water storage tank 413 in time.

[0161] In one embodiment, the high-temperature water storage device 41 also includes a high-temperature water temperature sensor 417 and a heating structure 418; the high-temperature water temperature sensor 417 is arranged on the high-temperature water storage tank 413 and is connected to the control system to transmit the temperature data of the liquid in the high-temperature water storage tank 413 to the control system; the heating structure 418 is arranged in the high-temperature water storage tank 413 and is connected to the control system, and the control system controls the start and stop of the heating structure 418 according to the temperature data of the liquid in the high-temperature water storage tank 413.

[0162] By setting up a high-temperature water sensor, real-time detection of the liquid temperature in the high-temperature water storage tank 413 is achieved; by setting up a heating structure 418, heating of the liquid in the high-temperature water storage tank 413 is achieved so that a higher temperature liquid can be used for cleaning the cold plate pipeline 2; the high-temperature water temperature sensor 417 monitors and feeds back the liquid temperature in the high-temperature water storage device 41 so that the equipment control system can control the start and stop of the heating structure 418.

[0163] Specifically, the heating structure 418 heats the liquid in the high-temperature water storage tank 413 by electric heating.

[0164] In one embodiment, the pure water storage device 42 includes a pure water storage tank 423, a liquid replenishment structure and a pure water liquid level detection structure 425; the outlet of the pure water storage tank 423 is connected to the second water outlet pipeline 421; the liquid replenishment structure is connected to the inlet of the pure water storage tank 423; the pure water liquid level detection structure 425 is arranged on the pure water storage tank 423 and is connected to the control system, and is used to transmit the liquid level data in the pure water storage tank 423 to the control system.

[0165] The pure water storage tank 423 is provided to realize the storage of pure water and the collection of liquid flowing through the return liquid pipeline 51; the provision of the pure water level detection structure 425 realizes the real-time level detection of the liquid in the pure water storage tank 423.

[0166] In a specific embodiment, the pure water level detection structure 425 includes a second low liquid level sensor 4251, a second high liquid level sensor 4252 and a second ultra-high liquid level sensor 4253. The second low liquid level sensor 4251 is arranged at the bottom of the pure water storage tank 423, and is mainly used for sensing and outputting the signal of lack of liquid in the pure water storage tank 423. When it detects that the amount of water in the pure water storage tank 423 is insufficient, it triggers the demand of lack of liquid and need for liquid replenishment to the control system; the second high liquid level sensor 4252 is arranged at a designated position on the upper part of the pure water storage tank 423, and is mainly used for sensing and outputting the signal of the replenishment of the pure water storage tank 423. When the amount of water reaches the position of the second high liquid level sensor 4252 during the replenishment process, it triggers the signal of lack of liquid and need for liquid replenishment to the control system; The control system triggers the need to stop fluid replenishment, thereby preventing liquid leakage caused by excessive fluid replenishment; the second ultra-high liquid level sensor 4253 is arranged above the second high liquid level sensor 4252, and it mainly plays the role of double safety backup. When the second high liquid level sensor 4252 fails, when the liquid level in the pure water storage tank 423 reaches the position of the second high liquid level sensor 4252, the second high liquid level sensor 4252 triggers the need to stop fluid replenishment to the control system, thereby preventing liquid leakage caused by excessive fluid replenishment.

[0167] In a specific implementation, the fluid replenishment structure includes a manual fluid replenishment component and an automatic fluid replenishment component; it can be applicable to various water source environments and effectively improve the practicality of the system.

[0168] Specifically, the manual refill component includes a manual refill pipeline, one end of which is connected to the inlet above the pure water storage tank 423, and the other end is connected to an external pressure-free disposable pure water container. The manual refill pipeline is provided with a refill pump 42411, a manual refill filter device 42412, and a manual refill switch valve 42413. When the disposable pure water tank needs to be manually refilled, the operator manually opens the manual refill switch valve 42413 and starts the refill pump 42411 to perform the refill operation; at the same time, the manual refill filter device 42412 can filter and clean the replenished disposable pure water to prevent impurities in the disposable pure water from entering the equipment circulation pipeline.

[0169] Specifically, the automatic liquid filling component includes an automatic liquid filling pipeline, one end of which is connected to the inlet above the pure water storage tank 423, and the other end is connected to the external pressurized disposable pure water delivery pipeline; the automatic liquid filling pipeline is provided with an automatic liquid filling switch valve 42421, when the pure water storage tank 423 needs to perform automatic liquid filling operation, the control system controls the automatic liquid filling switch valve 42421 to open automatically, and the disposable pure water will be automatically delivered to the inside of the pure water storage tank 423 by using the external pressurized disposable pure water delivery pipeline. When the liquid filling is completed, the automatic liquid filling switch valve 42421 is automatically closed.

[0170] In one embodiment, the pure water storage device 42 further includes a pure water exhaust valve 426 , which is disposed on the pure water storage tank 423 and is suitable for exhausting the pure water storage tank 423 .

[0171] By setting up the pure water exhaust valve 426, the gas mixed in the liquid in the pure water storage tank 423 can be discharged, thereby preventing the occurrence of cavitation damage to the drive pump 332 and pipeline, water pollution, etc. caused by the mixing of pure water with gas.

[0172] In one embodiment, the pure water storage device 42 also includes a pure water quality detection structure 427, which is disposed on the pure water storage tank 423 and connected to the control system, and is suitable for transmitting the liquid quality conditions in the pure water storage tank 423 to the control system.

[0173] By setting up the pure water quality detection structure 427, real-time monitoring of the liquid quality in the pure water storage tank 423 is achieved.

[0174] In a specific embodiment, the pure water quality detection structure 427 includes a pure water temperature sensor 4271, a third pH meter 4272, a third turbidity sensor 4273, and a third conductivity sensor 4274. The pure water temperature sensor 4271 is used to detect and output the pure water temperature, the third pH meter 4272 is used to detect and output the pure water pH value, the third turbidity sensor 4273 is used to detect and output the pure water turbidity, and the third conductivity sensor 4274 is used to detect and output the pure water conductivity; the pure water quality detection structure 427 transmits the pure water quality status data to the control system, and when the control system detects that the pure water quality exceeds the standard, it issues an alarm, so that the operator can clean the liquid in the pure water storage tank 423 in time.

[0175] In one embodiment, the liquid storage system 4 also includes a second liquid discharge structure, which includes a first overflow component, a second overflow component and a liquid discharge component; the liquid inlet end of the first overflow component is connected to the top of the high-temperature water storage tank 413; the liquid inlet end of the second overflow component is connected to the top of the pure water storage tank 423; the liquid discharge component is connected to the liquid outlet end of the first overflow component, the liquid outlet end of the second overflow component, the bottom of the high-temperature water storage tank 413 and the bottom of the pure water storage tank 423, and is suitable for connecting with external pipelines.

[0176] The first overflow component is mainly used for the safe overflow of the high-temperature water storage tank 413. When the liquid in the high-temperature water storage tank 413 reaches the maximum capacity allowed by the high-temperature water storage tank 413, the first overflow component automatically discharges the excess high-temperature water to the outside to avoid system failures caused by excessive water. The second overflow component is mainly used for the safe overflow of the pure water storage tank 423. When the liquid in the pure water storage tank 423 reaches the maximum capacity allowed by the pure water storage tank 423, the second overflow component automatically discharges the excess pure water to the outside to avoid system failures caused by excessive water. By setting up the drainage component, the discharge of the liquid discharged by the first overflow component and the second overflow component is realized, and because the drainage component is connected to the bottom of the high-temperature water storage tank 413 and the bottom of the pure water storage tank 423, the active discharge of the liquid in the high-temperature water storage tank 413 and the pure water storage tank 423 is realized.

[0177] In a specific embodiment, the first overflow assembly includes a first overflow pipeline 4311, on which a first overflow switch valve 4312 and a first overflow check valve 4313 are provided; one end of the first overflow pipeline 4311 is connected to the upper end of the high-temperature water storage tank 413, and the other end is connected to the drainage assembly; the first overflow switch valve 4312 is in a normally open state so that excess high-temperature water can flow out in time. The first overflow check valve 4313 is mainly used to prevent waste liquid from flowing back to the high-temperature water storage tank 413 through the first overflow pipeline 4311 when the drainage assembly performs system drainage, causing high-temperature water pollution.

[0178] In a specific embodiment, the second overflow assembly includes a second overflow pipeline 4321, on which a second overflow switch valve 4322 and a second overflow check valve 4323 are provided; one end of the second overflow pipeline 4321 is connected to the upper end of the high-purity water storage tank 423, and the other end is connected to the drainage assembly; the second overflow switch valve 4322 is in a normally open state so that excess pure water can flow out in time. The second overflow check valve 4323 is mainly used to prevent the waste liquid from flowing back to the pure water storage tank 423 through the second overflow pipeline 4321 when the drainage assembly performs system drainage, causing pure water pollution.

[0179] In a specific embodiment, the drainage component includes a drainage pipeline 4331, on which an automatic drainage switching valve 4332, a drainage water pump 4333, and a drainage switch valve 4334 are provided; wherein the drainage switch valve 4334 is in a normally open state, and can realize the active discharge of the liquid inside the high-temperature water storage tank 413 and the pure water storage tank 423; one end of the drainage pipeline 4331 is connected to the high-temperature water storage tank 413 and the pure water storage tank 423 respectively by the automatic drainage switching valve 4332, and the other end is connected to the external pipeline; when the liquid inside the high-temperature water storage tank 413 and the pure water storage tank 423 needs to be replaced or discharged, the automatic drainage switching valve 4332 can complete the switching of the drainage channel of the high-temperature water storage tank 413 or the pure water storage tank 423 as needed, and at the same time open the drainage water pump 4333 to quickly complete the discharge operation of the coolant inside the water tank.

[0180] Specifically, the cleaning detection system 1 for the cold plate pipeline 2 provided by the present invention has the functions of automatic switching of liquid supply source, real-time monitoring of liquid status, determination of status of cold plate pipeline 2, active disinfection of microorganisms, liquid heating, liquid visualization, online maintenance of filter element, filter element status reminder and intelligent replenishment and drainage, etc., which completely solves the defects of coolant contamination and frequent system replenishment caused by connecting new liquid-cooled servers to the liquid cooling circulation system of the data center, and effectively improves the safety, stability and operation efficiency of the liquid cooling circulation system of the data center.

[0181] Although the embodiments of the present invention have been described in conjunction with the accompanying drawings, those skilled in the art may make various modifications and variations without departing from the spirit and scope of the present invention, and such modifications and variations are all within the scope defined by the appended claims.

Claims

1. A cleaning detection system for cold plate pipes, It is characterized in that include: A detection system (1) comprises a cleaning pipeline (11) and a cleanliness detection structure (12), wherein the cleaning pipeline (11) comprises a first cleaning branch (111) and a second cleaning branch (112), wherein the first cleaning branch (111) is connected to a liquid inlet end of a cold plate pipeline (2), and the second cleaning branch (112) is suitable for being connected to a liquid outlet end of the cold plate pipeline (2), and the cleanliness detection structure (12) is arranged on the second cleaning branch (112); a liquid supply system (3), which is in communication with the first cleaning branch (111) and is suitable for continuously conveying liquid into the cold plate pipeline (2) to clean the cold plate pipeline (2); A control system is connected to both the cleanliness detection structure (12) and the liquid supply system (3), receives cleanliness data transmitted by the cleanliness detection structure (12), and controls the start and stop of the liquid supply system (3) according to the cleanliness data.

2. The cleaning detection system for cold plate pipeline according to claim 1, It is characterized in that The device further comprises a liquid storage system (4), wherein the liquid storage system (4) comprises a high-temperature water liquid storage device (41) and a pure water liquid storage device (42); the high-temperature water liquid storage device (41) comprises a first water outlet pipeline (411), and a first on-off assembly (412) is provided on the first water outlet pipeline (411); the pure water liquid storage device (42) comprises a second water outlet pipeline (421), and a second on-off assembly (422) is provided on the second water outlet pipeline (421); the liquid supply system (3) comprises a liquid supply pipeline, and the first water outlet pipeline (411) and the second water outlet pipeline (421) are both connected to the liquid inlet end of the liquid supply pipeline; The control system is connected to both the first on-off component (412) and the second on-off component (422), and controls the on-off of the first water outlet pipeline (411) by controlling the first on-off component (412), or controls the on-off of the second water outlet pipeline (421) by controlling the second on-off component (422).

3. The cleaning detection system for cold plate pipeline according to claim 2, It is characterized in that The first on-off component (412) comprises: A first liquid supply proportional valve (4121), connected to the control system, wherein the control system is suitable for controlling and adjusting the valve opening of the first liquid supply proportional valve (4121); a first flow sensor (4122), arranged on a side of the first liquid supply proportional valve (4121) close to the liquid supply pipeline, and connected to the control system, for transmitting liquid flow data in the first water outlet pipeline (411) to the control system; A first one-way valve (4123) is arranged on a side of the first flow sensor (4122) close to the liquid supply pipeline; And / or, the second on-off component (422) comprises: A second liquid supply proportional valve (4221), connected to the control system, the control system being adapted to control and adjust the valve opening of the second liquid supply proportional valve (4221); a second flow sensor (4222), arranged on a side of the second liquid supply proportional valve (4221) close to the liquid supply pipeline, and connected to the control system, for transmitting liquid flow data in the second water outlet pipeline (421) to the control system; The second one-way valve (4223) is arranged on a side of the second flow sensor (4222) close to the liquid supply pipeline.

4. The cleaning detection system for cold plate pipeline according to claim 2, It is characterized in that The liquid supply system (3) further comprises a liquid supply cleaning device, the liquid supply cleaning device comprising a liquid supply sterilization structure (31) and a liquid supply filtering structure (32), the liquid supply sterilization structure (31) and the liquid supply filtering structure (32) being arranged in sequence on the liquid supply pipeline.

5. The cleaning detection system for cold plate pipeline according to claim 4, It is characterized in that The liquid supply filtering structure (32) comprises: A liquid supply filtering state detection unit (321) comprises a liquid supply inlet pressure sensor (3211) and a liquid supply outlet pressure sensor (3212), wherein the liquid supply inlet pressure sensor (3211) and the liquid supply outlet pressure sensor (3212) are sequentially arranged at intervals on the liquid supply pipeline; A liquid supply filtering pipeline (322) is located between the liquid supply inlet pressure sensor (3211) and the liquid supply outlet pressure sensor (3212), and is connected to the liquid supply pipeline; and a liquid supply filter (323) is provided on the liquid supply filtering pipeline (322); The liquid supply inlet pressure sensor (3211) and the liquid supply outlet pressure sensor (3212) are both connected to the control system and transmit the inlet pressure and the outlet pressure to the control system. The control system determines the filter element status of the liquid supply filter (323) by the difference between the inlet pressure and the outlet pressure.

6. The cleaning detection system for cold plate pipeline according to claim 5, It is characterized in that At least two of the liquid supply filter pipelines (322) are provided, and the at least two liquid supply filter pipelines (322) are arranged in parallel; the liquid supply filter pipeline (322) is also provided with a liquid supply inlet valve (324) and a liquid supply outlet valve (325), the liquid supply inlet valve (324) is arranged on the side where the inlet of the liquid supply filter (323) is located, and the liquid supply outlet valve (325) is arranged on the side where the outlet of the liquid supply filter (323) is located; And / or, the liquid supply filtering pipeline (322) is further provided with a liquid supply sampling valve (326), and the liquid supply sampling valve (326) is arranged at one end where the outlet of the liquid supply filter (323) is located.

7. The cleaning detection system for cold plate pipeline according to claim 2, It is characterized in that The liquid supply system (3) further comprises a power structure (33), wherein the power structure (33) comprises a power pipeline (331), and the power pipeline (331) is connected to the liquid supply pipeline.

8. The cleaning detection system for cold plate pipes according to claim 7, It is characterized in that The power pipeline (331) is provided with a driving pump (332), an inlet shock-absorbing pipe (333), and an outlet shock-absorbing pipe (334); the inlet shock-absorbing pipe (333) is arranged on a side where the inlet of the driving pump (332) is located; and the outlet shock-absorbing pipe (334) is arranged on a side where the outlet of the driving pump (332) is located; And / or, the power pipeline (331) is provided with at least two groups, and the at least two groups of the power pipelines (331) are arranged in parallel; the power pipeline (331) is also provided with a power inlet valve (335) and a power outlet valve (336), the power inlet valve (335) is arranged at the end where the inlet of the power pipeline (331) is located, and the power outlet valve (336) is arranged at the end where the outlet of the power pipeline (331) is located; And / or, the power pipeline (331) is further provided with a third one-way valve (337), and the third one-way valve (337) is arranged at one end of the outlet of the outlet shock-absorbing pipe (334); And / or, the liquid supply system (3) further comprises a safety valve (34), wherein the safety valve (34) is located at one end where the outlet of the power pipeline (331) is located, and is arranged on the liquid supply pipeline; And / or, the liquid supply system (3) further comprises a liquid supply detection structure (35), the liquid supply detection structure (35) being located at one end where the outlet of the power pipeline (331) is located, being arranged on the liquid supply pipeline, and being connected to the control system; the liquid supply detection structure (35) being used to detect and feed back to the control system the state of the liquid outputted from the power pipeline (331); And / or, the liquid supply system (3) further comprises a liquid supply flow regulating branch (36), the liquid supply flow regulating branch (36) being located at one end where the outlet of the power pipeline (331) is located, and being in communication with the liquid supply pipeline; and an electric control valve (361) is provided on the liquid supply flow regulating branch (36), the electric control valve (361) being connected to the control system, and the control system controls the valve opening of the electric control valve (361) according to the liquid flow and pressure required by the cold plate pipeline (2).

9. The cleaning detection system for cold plate pipeline according to claim 2, It is characterized in that The detection system (1) further comprises a pressure state detection unit (13), the pressure state detection unit (13) comprising a front pressure sensor (131) and a rear pressure sensor (132), the front pressure sensor (131) being arranged on the first cleaning branch (111), and the rear pressure sensor (132) being arranged on the second cleaning branch (112); The front pressure sensor (131) and the rear pressure sensor (132) are both connected to the control system and transmit the front pressure and the rear pressure to the control system, and the control system determines the state of the cold plate pipeline (2) according to the difference between the front pressure and the rear pressure; And / or, the cleaning pipeline (11) is provided with at least two groups, the at least two groups of the cleaning pipeline (11) are arranged in parallel, and the cleaning pipeline (11) is provided with an on-off valve (14), and the on-off valve (14) is arranged at one end close to the opening of the cleaning pipeline (11); And / or, the cleaning pipeline (11) is further provided with a third flow sensor (15), the third flow sensor (15) being connected to the control system to transmit liquid flow data in the cleaning pipeline (11) to the control system; And / or, the cleaning pipeline (11) is further provided with a constant pressure regulating valve (16), the constant pressure regulating valve (16) is connected to the control system, and the control system controls the valve opening of the constant pressure regulating valve (16) according to the liquid flow and pressure required by the cold plate pipeline (2); And / or, a buffer box (17) is further provided on the cleaning pipeline (11), and the cleanliness detection structure (12) is arranged on the buffer box (17); And / or, the detection system (1) further comprises a first liquid discharge structure, the first liquid discharge structure being connected to the cleaning pipeline (11) and being used for draining liquid from the cleaning pipeline (11) and clearing the cleanliness detection structure (12).

10. The cleaning detection system for cold plate pipeline according to claim 2, It is characterized in that It also comprises a liquid return system (5), wherein the liquid return system (5) comprises a liquid return pipeline (51), wherein one end of the liquid return pipeline (51) is connected to the cleaning pipeline (11), and the other end is connected to the high-temperature water storage device (41).

11. The cleaning detection system for cold plate pipeline according to claim 10, It is characterized in that The liquid return system (5) comprises a gas content detection structure (52), wherein the gas content detection structure (52) is arranged on the liquid return pipeline (51) and is suitable for detecting the gas content of the liquid in the liquid return pipeline (51); And / or, the liquid return system (5) comprises an exhaust and flow stabilizing structure (53), the exhaust and flow stabilizing structure (53) being arranged on the liquid return pipeline (51) and being suitable for performing an exhaust and flow stabilizing operation on the liquid in the liquid return pipeline (51); And / or, the liquid return system (5) comprises a liquid return monitoring structure (54), wherein the liquid return monitoring structure (54) is arranged on the liquid return pipeline (51) and is suitable for monitoring the state of the liquid in the liquid return pipeline (51); And / or, the liquid return system (5) comprises a liquid return cleaning device (55), wherein the liquid return cleaning device (55) is arranged on the liquid return pipeline (51) and is suitable for cleaning the liquid in the liquid return pipeline (51).

12. The cleaning detection system for cold plate pipeline according to claim 10, It is characterized in that The high-temperature water storage device (41) comprises: A high-temperature water storage tank (413) is connected to the first water outlet pipeline (411); and the liquid return pipeline (51) is connected to the high-temperature water storage tank (413); A high-temperature water liquid level detection structure (414) is arranged on the high-temperature water storage tank (413) and is connected to the control system, and is used to transmit liquid level data in the high-temperature water storage tank (413) to the control system.

13. The cleaning detection system for cold plate pipeline according to claim 12, It is characterized in that The high-temperature water storage device (41) further comprises a high-temperature water exhaust valve (415), wherein the high-temperature water exhaust valve (415) is arranged on the high-temperature water storage tank (413) and is suitable for performing exhaust treatment on the high-temperature water storage tank (413); And / or, the high-temperature water storage device (41) further comprises a high-temperature water quality detection structure (416), wherein the high-temperature water quality detection structure (416) is disposed on the high-temperature water storage tank (413) and is connected to a control system, and is suitable for transmitting information on the quality of the liquid in the high-temperature water storage tank (413) to the control system; And / or, the high-temperature water storage device (41) further includes: a high-temperature water temperature sensor (417), arranged on the high-temperature water storage tank (413) and connected to the control system, for transmitting temperature data of the liquid in the high-temperature water storage tank (413) to the control system; A heating structure (418) is arranged in the high-temperature water storage tank (413) and is connected to the control system. The control system controls the start and stop of the heating structure (418) according to temperature data of the liquid in the high-temperature water storage tank (413).

14. The cleaning detection system for cold plate pipes according to claim 12, It is characterized in that The pure water storage device (42) comprises: A pure water storage tank (423), the outlet of which is connected to the second water outlet pipeline (421); A liquid replenishing structure connected to the inlet of the pure water storage tank (423); A pure water liquid level detection structure (425) is arranged on the pure water storage tank (423) and connected to the control system, and is used to transmit liquid level data in the pure water storage tank (423) to the control system.

15. The cleaning detection system for cold plate pipeline according to claim 14, It is characterized in that The pure water storage device (42) further comprises a pure water exhaust valve (426), wherein the pure water exhaust valve (426) is arranged on the pure water storage tank (423) and is suitable for performing exhaust treatment on the pure water storage tank (423); And / or, the pure water storage device (42) further comprises a pure water quality detection structure (427), wherein the pure water quality detection structure (427) is arranged on the pure water storage tank (423) and is connected to a control system, and is suitable for transmitting the water quality of the liquid in the pure water storage tank (423) to the control system.

16. The cleaning detection system for cold plate pipes according to claim 14, It is characterized in that The liquid storage system (4) further comprises a second liquid discharge structure, wherein the second liquid discharge structure comprises: A first overflow component, the liquid inlet end of which is in communication with the upper portion of the high-temperature water storage tank (413); A second overflow component, the liquid inlet end of which is in communication with the upper side of the pure water storage tank (423); The liquid discharge component is connected to the liquid outlet end of the first overflow component, the liquid outlet end of the second overflow component, the bottom of the high-temperature water storage tank (413) and the bottom of the pure water storage tank (423), and is suitable for connecting to external pipelines.

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