Two-phase cold plate liquid cooling data center and control method

Abstract

The invention discloses a two-phase cold plate liquid cooling data center and a control method, and the two-phase cold plate liquid cooling data center comprises a plurality of two-phase cold plate liquid cooling cabinets, a secondary side waterway looped network, and a monitoring adjustment module. A plurality of nodes to be cooled, two-phase cold plates in contact connection with the nodes to be cooled, and an electro-hydraulic integrated distribution module, a liquid cooling heat exchange module and a system detection module which are connected with the two-phase cold plates of the nodes are arranged in the liquid cooling cabinet; the secondary side waterway looped network comprises a water supply looped network and a water return looped network which are arranged at the bottom of the data center, low-temperature fluid of the water supply looped network is connected with the liquid cooling heat exchange module through a water supply branch and performs heat exchange to become high-temperature fluid, and the high-temperature fluid is output to the water return looped network through a water return branch; the monitoring and adjusting module obtains circulating system parameters, and / or power consumption information, and / or cooling capacity information of each liquid cooling cabinet, and controls the flow of the water supply branch and the water return branch corresponding to each liquid cooling cabinet.

Description

Technical Field

[0001] The present application relates to the field of liquid cooling technology, and in particular to a two-phase cold plate liquid cooling data center and a control method thereof. Background Art

[0002] The principle of liquid-cooled cold plate technology is to bring the heat source into contact with the cold plate, transfer the heat of the electronic equipment to the cold plate, and then use the cooling medium in the cooling medium pipe to take the heat out of the cold plate for heat dissipation. Finally, the cooling medium is driven by the circulation system to continuously flow through the heat sink to maintain the stable operation of the liquid cooling system. In related technologies, the cooling medium of the two-phase cold plate cooling system enters the cold plate in liquid form under the drive of the circulation system. After absorbing the heat of the cold plate, part of the cooling medium vaporizes to form a gas-liquid two-phase state and flows out of the cold plate. The gas-liquid mixed cooling medium flowing out of the cold plate passes through the liquid cooling heat exchange module and turns back into liquid phase, and finally re-enters the cold plate under the drive of the circulation pump.

[0003] However, due to the different heat generation of heat-generating components at each node in the existing liquid-cooled data center, the two-phase cold plate may dry out and no phase change may occur in the two-phase cold plate. In severe cases, it may cause abnormal temperature rise inside the system and excessive system energy consumption, which may have a serious impact on the reliability of the system and the safe operation of the equipment. Summary of the invention

[0004] Based on this, it is necessary to provide a two-phase cold plate liquid cooling data center and a control method to address the problems that the existing liquid cooling data center is prone to dry burning of the two-phase cold plate part and no phase change occurs in the two-phase cold plate. In severe cases, it will cause abnormal increase in internal temperature of the system and excessive energy consumption of the system.

[0005] A two-phase cold plate liquid cooling data center, the liquid cooling data center comprising:

[0006] A plurality of two-phase cold plate liquid cooling cabinets, wherein the liquid cooling cabinets are provided with a plurality of nodes to be cooled, two-phase cold plates in contact with and connected to the nodes to be cooled, and an electric-liquid integrated distribution module, a liquid cooling heat exchange module and a system detection module connected to the two-phase cold plates of each node;

[0007] The secondary water loop network includes a water supply loop network and a water return loop network arranged at the bottom of the data center. The low-temperature fluid of the water supply loop network is connected to the liquid cooling heat exchange module through the water supply branch and undergoes heat exchange to become a high-temperature fluid, which is then output to the water return loop network through the water return branch.

[0008] The monitoring and regulating module obtains the circulation system parameters, and / or power consumption information, and / or cooling capacity information of each liquid cooling cabinet, and controls the flow of the water supply branch and the return branch corresponding to each liquid cooling cabinet, so that the liquid fluid in the two-phase cold plate of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out.

[0009] In one embodiment, the liquid cooling heat exchange module is provided with:

[0010] A first heat exchange unit, for receiving a vapor fluid and a liquid fluid and cooling the fluid to a first preset temperature;

[0011] a second heat exchange unit, configured to receive the first cooling fluid and cool the first cooling fluid to a second preset temperature;

[0012] a third heat exchange unit, configured to receive the second cooling fluid and reheat the second cooling fluid to a third cooling fluid of a third preset temperature;

[0013] Wherein, the second preset temperature is not lower than the third preset temperature.

[0014] In one embodiment, the first heat exchange unit and the second heat exchange unit are connected in parallel with the first water supply ring network through the first water supply branch, and a first monitoring and regulating unit is arranged on the first water supply branch; the first heat exchange unit is connected with the return water ring network through the first return water branch, and a second monitoring and regulating unit is arranged on the first return water branch; the second heat exchange unit is connected with the return water ring network through the second return water branch, and a third monitoring and regulating unit is arranged on the second return water branch;

[0015] Preferably, the first monitoring and adjusting unit includes a first monitoring component and a first adjusting component; the second monitoring and adjusting unit includes a second monitoring component and a second adjusting component; and the third monitoring and adjusting unit includes a third monitoring component and a third adjusting component.

[0016] In one of the embodiments, the liquid-cooled heat exchange module is further provided with a liquid blocking component, and the liquid blocking component is arranged on a side of the fluid outlet of the liquid-cooled heat exchange module.

[0017] In one embodiment, the liquid cooling cabinet also includes a driving module connected to the system control module, one end of the driving module is connected to the fluid outlet of the liquid cooling heat exchange module, and the other end is connected to the fluid inlet of the third heat exchange unit; and the driving module is used to drive the second cooling fluid of the second preset temperature to the third heat exchange module for reheating to the third cooling fluid of the third preset temperature.

[0018] In one embodiment, the system detection module is provided with:

[0019] A first detection unit, arranged in the liquid cooling heat exchange module, to obtain first pressure information of the cabinet circulation system;

[0020] A second detection unit, disposed at the front side of the fluid inlet of the electro-hydraulic integrated distribution module, to obtain second pressure information of the cabinet circulation system;

[0021] A third detection unit is arranged at the front side of the fluid inlet of the driving module or the fluid outlet side of the liquid cooling heat exchange module, and obtains third temperature information of the cabinet circulation system;

[0022] The fourth detection unit is configured to obtain fourth liquid level information of the liquid-cooled heat exchange module in the liquid-cooled heat exchange module.

[0023] In one embodiment, the electro-hydraulic integrated distribution module is provided with:

[0024] The power distribution unit is provided with a power distribution trunk line electrically connected to the equipment to be cooled at each node;

[0025] A first cooling capacity distribution unit is provided with a first distribution pipeline body connected to the two-phase cold plate, a cooling capacity self-regulating component provided on each branch of the first distribution pipeline body and corresponding to the two-phase cold plate, and a plurality of first fluid pipelines provided on the first distribution pipeline body and correspondingly connected to each node two-phase cold plate;

[0026] A second cooling capacity distribution unit is provided with a second distribution pipeline body connected to the two-phase cold plate, and a plurality of second fluid pipelines provided on the second distribution pipeline body and correspondingly connected to the two-phase cold plate at each node;

[0027] A cooling capacity detection unit is arranged at the front side of the fluid inlet of the cold plate or at each branch of the first distribution pipeline body and acquires cooling capacity information of each branch;

[0028] The electro-hydraulic control unit is electrically connected to the power distribution unit, the cooling capacity self-regulating component, and the cooling capacity detection unit, respectively. The power control unit collects the power consumption information corresponding to the equipment to be cooled at each node through the power distribution unit, and / or the output power information of each power distribution trunk in the power distribution unit, and / or the cooling capacity information of each branch of the first distribution pipeline body; and adjusts the cooling capacity self-regulating component corresponding to each node according to the power consumption information, and / or the output power information, and / or the cooling capacity information.

[0029] In one embodiment, the cooling capacity self-regulating component includes a cooling capacity self-regulating pump 250 and / or a cooling capacity self-regulating valve.

[0030] The present application also provides a control method for a data center using a two-phase cold plate liquid cooling method as described above, the control method comprising:

[0031] The electric-liquid integrated distribution module collects the power consumption information corresponding to the equipment to be cooled at each node and / or the cooling capacity information of the two-phase cold plate at each node; and controls the flow rate of the fluid in the two-phase cold plate according to the power consumption information and / or the cooling capacity information; and controls the flow rate of the fluid in the two-phase cold plate according to the power consumption information;

[0032] The system detection module obtains the cabinet circulation system parameters of each module and pipeline in each liquid cooling cabinet;

[0033] The monitoring and adjustment module obtains the circulation system parameters, and / or power consumption information, and / or the cooling capacity information of each liquid cooling cabinet, and controls the flow of the water supply branch and the return branch corresponding to each liquid cooling cabinet, so that the liquid fluid in the two-phase cold plate of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out.

[0034] In one embodiment, the electric-liquid integrated distribution module collects the power consumption information corresponding to the equipment to be cooled at each node and / or the cooling capacity information of the two-phase cold plate at each node; and controls the flow rate of the fluid in the two-phase cold plate according to the power consumption information and / or the cooling capacity information; and controls the flow rate of the fluid in the two-phase cold plate according to the power consumption information, including:

[0035] The cooling capacity detection unit collects the cooling capacity information of each branch, and the electro-hydraulic control unit obtains the cooling capacity information to control the fluid flow output by the cooling capacity self-regulating component to the two-phase cold plate of each node; and / or,

[0036] The electro-hydraulic control unit collects power consumption information corresponding to the equipment to be cooled at each node, and / or output power information of each power distribution trunk in the power distribution unit;

[0037] The cooling capacity detection unit collects the cooling capacity information of each branch;

[0038] The electro-hydraulic control unit obtains the cooling capacity information and the power consumption information, or the cooling capacity information and the output power information to control the fluid flow output by the cooling capacity self-regulating component to the two-phase cold plate of each node.

[0039] In one embodiment, the monitoring and regulating module obtains the circulation system parameters and / or power consumption information and / or the cooling capacity information of each liquid cooling cabinet, and controls the flow of the water supply branch and the return branch corresponding to each liquid cooling cabinet, so that the liquid fluid in the two-phase cold plate of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out, including:

[0040] The second pressure information collected by the second detection unit is used to control the working frequency of the driving module according to the second pressure information, so that each liquid-cooled cabinet reheats the second cooling fluid to a third cooling fluid of a third preset temperature by the third heat exchange unit under the first preset liquid supply pressure and outputs the third cooling fluid to the electric-liquid integrated distribution module, and the liquid fluid distributed to the two-phase cold plate of each node by the electric-liquid integrated distribution module can absorb the heat of the node to be cooled and vaporize to form a vapor fluid flowing out;

[0041] Obtaining first pressure information collected by the first detection unit and third temperature information collected by the third detection unit, and controlling the first monitoring and adjusting unit, the second monitoring and adjusting unit, and the third monitoring and adjusting unit according to the first pressure information and the third temperature information, so that each liquid cooling cabinet cools the liquid fluid to a second preset temperature by the second heat exchange unit under a second preset pressure;

[0042] Wherein, the second preset temperature is not lower than the third preset temperature.

[0043] In one embodiment, the method further comprises:

[0044] The fourth liquid level information collected by the fourth detection unit is obtained, and the heat exchange efficiency of the second heat exchange unit is controlled so that the liquid level of the liquid-cooled heat exchange module is not less than a preset liquid level.

[0045] Compared with the prior art, the two-phase cold plate liquid cooling data center and control method provided by the present application have the following three beneficial effects:

[0046] 1: The heat generation of each branch is collected in real time through the electro-hydraulic integrated distribution module to realize real-time control of the heat dissipation of the two-phase cold plate of each branch, avoiding dry burning of the two-phase cold plate and no phase change in the two-phase cold plate.

[0047] 2: Effectively ensure stable overclocking of components to be cooled (especially high-power electronic components, CPU, GPU), and can adaptively control the core temperature fluctuation of high-power heating components such as chips within 1.5°C, thereby improving the operating stability and temperature uniformity of the server.

[0048] 3: The heat dissipation performance of each liquid cooling cabinet in the data center is effectively improved, and the heat dissipation effect can be more than doubled compared to the existing liquid cooling cabinets that have not been reheated. BRIEF DESCRIPTION OF THE DRAWINGS

[0049] FIG1 is a schematic diagram of the structure of a two-phase cold plate liquid cooling data center provided in Example 1 of the present application.

[0050] Figure 2 This is a schematic diagram of the structure of a two-phase cold plate liquid cooling cabinet provided in Example 1 of the present application.

[0051] Figure 3 This is a schematic diagram of the structure of a two-phase cold plate liquid cooling data center provided in Example 2 of the present application.

[0052] Figure 4 This is a schematic diagram of the structure of a two-phase cold plate liquid cooling cabinet provided in Example 2 of the present application.

[0053] Figure 5 A schematic diagram of the structure of a data center provided in an embodiment of the present application.

[0054] Figure 6 This is a flow chart of a control method for a liquid-cooled data center provided in an embodiment of the present application.

[0055] Figure 7 A flow chart of a method for controlling the flow rate of a fluid in a two-phase cold plate according to power consumption information provided in an embodiment of the present application.

[0056] Figure 8 A flow chart of a method provided in an embodiment of the present application for causing a liquid fluid in a two-phase cold plate at each node to absorb heat from a node to be cooled and vaporize to form a vapor fluid flowing out.

[0057] In the figure:

[0058] 10. Two-phase cold plate liquid cooling cabinet;

[0059] 100. Two-phase cold plate;

[0060] 200, electro-hydraulic integrated distribution module; 210, cooling capacity detection unit; 211, pressure relief valve; 220, first cooling capacity distribution unit; 230, power distribution unit; 240, cooling capacity self-regulating valve; 250, cooling capacity self-regulating pump 250; 260, regulating valve;

[0061] 300, liquid cooling heat exchange module; 310, first heat exchange unit; 320, second heat exchange unit; 330, third heat exchange unit;

[0062] P1, first detection unit; P2, second detection unit; T1, third detection unit; L1, fourth detection unit;

[0063] 341. a second monitoring component; 351. a second regulating component;

[0064] 342. a third monitoring component; 352. a third regulating component;

[0065] 343. a first monitoring component; 353. a first regulating component;

[0066] 400, drive module;

[0067] 500, outdoor unit;

[0068] 600. Secondary side water ring network. DETAILED DESCRIPTION

[0069] In order to make the above-mentioned purposes, features and advantages of the present application more obvious and easy to understand, the specific implementation methods of the present application are described in detail below in conjunction with the accompanying drawings. In the following description, many specific details are set forth to facilitate a full understanding of the present application. However, the present application can be implemented in many other ways different from those described herein, and those skilled in the art can make similar improvements without violating the connotation of the present application, so the present application is not limited by the specific embodiments disclosed below.

[0070] In the description of the present application, it should be understood that if the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "clockwise", "counterclockwise", "axial", "radial", "circumferential", etc. appear, the orientation or position relationship indicated by these terms is based on the orientation or position relationship shown in the accompanying drawings, which is only for the convenience of describing the present application and simplifying the description, and does not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation on the present application.

[0071] In addition, if the terms "first" or "second" appear, these terms are used for descriptive purposes only and should not be understood as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Therefore, a feature defined as "first" or "second" may explicitly or implicitly include at least one of the features. In the description of this application, if the term "plurality" appears, the meaning of "plurality" is at least two, such as two, three, etc., unless otherwise clearly and specifically defined.

[0072] In this application, unless otherwise clearly specified and limited, if the terms "installed", "connected", "connected", "fixed" and the like appear, these terms should be understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or an integrated connection; it can be a mechanical connection or an electrical connection; it can be a direct connection or an indirect connection through an intermediate medium, it can be the internal connection of two elements or the interaction relationship between two elements, unless otherwise clearly defined. For ordinary technicians in this field, the specific meanings of the above terms in this application can be understood according to the specific circumstances.

[0073] In the present application, unless otherwise clearly specified and limited, if there is a description that a first feature is "above" or "below" a second feature, etc., or similar descriptions appear, it may mean that the first and second features are in direct contact, or that the first and second features are in indirect contact through an intermediate medium. Moreover, the first feature being "above", "above" and "above" the second feature may mean that the first feature is directly above or obliquely above the second feature, or simply means that the first feature is higher in level than the second feature. The first feature being "below", "below" and "below" the second feature may mean that the first feature is directly below or obliquely below the second feature, or simply means that the first feature is lower in level than the second feature.

[0074] It should be noted that if an element is referred to as being "fixed to" or "disposed on" another element, it may be directly on the other element or there may be a central element. If an element is considered to be "connected to" another element, it may be directly connected to the other element or there may be a central element at the same time. If any, the terms "vertical", "horizontal", "upper", "lower", "left", "right" and similar expressions used in this application are for illustrative purposes only and do not represent the only implementation method.

[0075] The cooling medium of the two-phase cold plate cooling system enters the cold plate in liquid form under the drive of the circulation system. After absorbing the heat of the cold plate, part of the cooling medium vaporizes to form a gas-liquid two-phase state and flows out of the cold plate. The gas-liquid two-phase cooling medium flowing out of the cold plate passes through the secondary cooling system and turns back into liquid phase, and finally re-enters the cold plate under the drive of the circulation pump.

[0076] However, conventional two-phase cold plate liquid cooling data centers have the following three problems:

[0077] 1: The liquid supply temperature of the two-phase cold plate 100 is low, and the heating elements have different calorific values, which may cause dry burning of part of the two-phase cold plate 100 and no phase change in the two-phase cold plate 100. In severe cases, the system internal temperature may rise abnormally and the system energy consumption may be excessive.

[0078] 2: Each two-phase cold plate has 100 branches that share a main circulation system. Each branch cannot supply liquid independently. The distribution of the cooling medium flow in each branch is uncontrollable, resulting in uneven cooling effects between different cold plates.

[0079] 3: After the vapor-liquid two-phase cooling fluid enters the confluence pipe, part of the vapor phase fluid cannot be effectively separated in time, and part of the medium will be discharged along with the system exhaust, resulting in medium loss.

[0080] For this purpose, Embodiment 1

[0081] A liquid cooling data center, as shown in FIG1 , includes:

[0082] A plurality of two-phase cold plate liquid cooling cabinets 10, wherein the liquid cooling cabinets 10 are provided with a plurality of nodes to be cooled, two-phase cold plates 100 in contact with the nodes to be cooled, and an electric-liquid integrated distribution module 200, a liquid cooling heat exchange module 300 and a system detection module connected to the two-phase cold plates 100 of each node;

[0083] The secondary water loop network 600 includes a water supply loop network and a water return loop network disposed at the bottom of the data center. The low-temperature fluid of the water supply loop network is connected to the liquid cooling heat exchange module 300 through the water supply branch and undergoes heat exchange to become a high-temperature fluid, which is then output to the water return loop network through the water return branch.

[0084] The monitoring and regulating module obtains the circulation system parameters, and / or power consumption information, and / or cooling capacity information of each liquid cooling cabinet 10, and controls the flow of the water supply branch and the return branch corresponding to each liquid cooling cabinet 10, so that the liquid fluid in the two-phase cold plate 100 of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out.

[0085] Furthermore, the liquid cooling heat exchange module 300 is provided with:

[0086] The first heat exchange unit 310 is used to receive the vapor fluid and the liquid fluid and cool the first cooling fluid to a first preset temperature;

[0087] The second heat exchange unit 320 is used to receive the first cooling fluid and cool it to a second cooling fluid with a second preset temperature;

[0088] The third heat exchange unit 330 is used to receive the second cooling fluid and reheat the second cooling fluid to a third cooling fluid of a third preset temperature;

[0089] Wherein, the second preset temperature is not lower than the third preset temperature.

[0090] In one embodiment, the first heat exchange unit 310 and the second heat exchange unit 320 are connected in parallel with the first water supply ring network through the first water supply branch, and a first monitoring and regulating unit is arranged on the first water supply branch; the first heat exchange unit 310 is connected with the return water ring network through the first return water branch, and a second monitoring and regulating unit is arranged on the first return water branch; the second heat exchange unit 320 is connected with the return water ring network through the second return water branch, and a third monitoring and regulating unit is arranged on the second return water branch;

[0091] Preferably, the first monitoring and adjusting unit includes a first monitoring component 343 and a first adjusting component 353; the second monitoring and adjusting unit includes a second monitoring component 341 and a second adjusting component 351; the third monitoring and adjusting unit includes a third monitoring component 342 and a third adjusting component 352;

[0092] Specifically, the liquid-cooled data center of this embodiment is connected to multiple two-phase cold plate liquid cooling cabinets 10 through the secondary side water ring network 600, and the circulation system parameters, and / or power consumption information, and / or cooling capacity information of each liquid cooling cabinet 10 are obtained in real time, and the flow of the water supply branch and the return branch corresponding to each liquid cooling cabinet 10 is controlled in real time through the monitoring and adjustment module according to the heat dissipation requirements of each liquid cooling cabinet 10, so that the vapor fluid in each liquid cooling cabinet 10 can undergo condensation, supercooling, reheating and other heat exchange processes, and each liquid cooling cabinet 10 can operate under a stable system pressure while outputting a liquid fluid of a third preset temperature to the electro-liquid integrated distribution module 200 (wherein the third preset temperature includes but is not limited to the fluid saturation temperature, slightly lower than the fluid saturation temperature), so that once the liquid fluid flows through the two-phase cold plate 100 to exchange heat with the element to be cooled, it can undergo phase change vaporization, thereby maximizing the use of the phase change latent heat of the fluid and improving the phase change heat exchange efficiency of the two-phase cold plate 100 at each node. Experimental comparison shows that the heat exchange efficiency of the reheated liquid-cooled cabinet 10 can be more than doubled compared to the heat dissipation effect of the non-reheated liquid-cooled cabinet 10, which can effectively increase the installation density of the liquid-cooled cabinet 10 and reduce the power distribution power of the data center computer room; it can also directly achieve zero-carbon heating.

[0093] In addition, in order to further improve the heat dissipation effect of fluid phase change, the liquid cooling heat exchange module 300 of the liquid cooling data center of the present application adopts at least three-stage heat exchange units, so that the vapor fluid can undergo condensation, supercooling, reheating and other heat exchange processes, so that each liquid cooling cabinet 10 can operate under a stable system pressure while outputting liquid fluid of a third preset temperature to the electro-liquid integrated distribution module 200 (wherein the third preset temperature includes but is not limited to the fluid saturation temperature and slightly lower than the fluid saturation temperature), thereby improving the phase change heat transfer efficiency of the two-phase cold plate 100 at each node.

[0094] Compared with the prior art, the two-phase cold plate 100 liquid cooling data center of the present application has the following four beneficial effects:

[0095] 1: Effectively improve the installed density of liquid-cooled data centers and reduce the power distribution power of data center computer rooms; it can also directly achieve zero-carbon heating.

[0096] 2. The heat generation of each branch is collected in real time through the electro-hydraulic integrated distribution module 200, so as to realize real-time control of the heat dissipation of the two-phase cold plate 100 of each branch, so as to avoid partial dry burning of the two-phase cold plate 100 and no phase change in the two-phase cold plate 100.

[0097] 2: Effectively ensure stable overclocking of components to be cooled (especially high-power electronic components, CPU, GPU), and can adaptively control the core temperature fluctuation of high-power heating components such as chips within 1.5°C, thereby improving the operating stability and temperature uniformity of the server.

[0098] 3: The heat dissipation performance of the liquid cooling cabinet 10 is effectively improved, and the heat dissipation effect can be more than doubled compared to the existing liquid cooling cabinet 10 that has not been reheated.

[0099] Embodiment 2

[0100] like Figure 2 As shown, the liquid cooling cabinet 10 includes:

[0101] A plurality of two-phase cold plates 100, used for heat transfer connection with a node to be cooled (such as a server motherboard in FIG. 1);

[0102] The electric-liquid integrated distribution module 200 is arranged at the rear side of the liquid cooling cabinet 10, and is connected to the two-phase cold plate 100 and the node to be cooled respectively; it is used to collect the power consumption information corresponding to the device to be cooled at each node, and / or the cooling capacity information of the two-phase cold plate 100 at each node; and control the flow rate of the fluid in the two-phase cold plate 100 according to the power consumption information and / or the cooling capacity information;

[0103] The liquid cooling heat exchange module 300 includes a receiving cavity provided at the bottom of the liquid cooling cabinet 10 and connected to the electric-liquid integrated distribution module 200, wherein at least three heat exchange units are provided in the receiving cavity;

[0104] A system detection module, used to obtain cabinet circulation system parameters of each module and pipeline in the liquid cooling cabinet 10;

[0105] The system control module is used to connect with the electro-liquid integrated distribution module 200, the liquid cooling heat exchange module 300, and the system detection module, and obtain the cabinet circulation system parameters, and / or power consumption information, and / or cooling capacity information to control the working coordination mode of each heat exchange unit in the liquid cooling heat exchange module 300 so that the liquid fluid in the two-phase cold plate 100 of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out.

[0106] The liquid cooling cabinet 10 of this embodiment first collects the power consumption information corresponding to the equipment to be cooled at each node, and / or the cooling capacity information of the two-phase cold plate 100 at each node through the electric-liquid integrated distribution module 200; and controls the flow rate of the fluid in the two-phase cold plate 100 according to the power consumption information and / or the cooling capacity information. Specifically, the electric-liquid integrated distribution module 200 can calculate the heating value by collecting the power consumption information of each node to be cooled, or calculate the heating value of the corresponding node to be cooled by collecting the cooling capacity information of each two-phase cold plate 100 (for example, the flow rate of each liquid supply branch), or calculate the heating value of the corresponding node to be cooled according to the power consumption information and the cooling capacity information at the same time, and then control the flow rate of each liquid supply branch of the two-phase cold plate 100 according to the heating value, so that the liquid fluid enters the two-phase cold plate 100 to absorb heat and immediately undergoes phase change and vaporizes into a vapor fluid.

[0107] Embodiment 3

[0108] As shown in FIGS. 1-4 , the liquid cooling heat exchange module 300 in this embodiment is provided with:

[0109] The first heat exchange unit 310 is used to receive the vapor fluid and the liquid fluid and cool the first cooling fluid to a first preset temperature;

[0110] The second heat exchange unit 320 is used to receive the first cooling fluid and cool it to a second cooling fluid with a second preset temperature;

[0111] The third heat exchange unit 330 is used to receive the second cooling fluid and reheat the second cooling fluid to a third cooling fluid of a third preset temperature;

[0112] Wherein, the second preset temperature is not lower than the third preset temperature.

[0113] Specifically, the liquid cooling cabinet 10 of this embodiment is provided with three-stage heat exchange units in series, so that the vapor fluid can undergo heat exchange processes such as condensation, supercooling, and reheating. The liquid cooling cabinet 10 can output a liquid fluid of a third preset temperature to the electric-liquid integrated distribution module 200 (wherein the third preset temperature includes but is not limited to the fluid saturation temperature, slightly lower than the fluid saturation temperature) while operating under a stable system pressure, so that the liquid fluid can undergo phase change vaporization once it flows through the two-phase cold plate 100 to exchange heat with the element to be cooled, maximizing the use of the phase change latent heat of the fluid, and improving the phase change heat transfer efficiency of the two-phase cold plate 100 at each node. Experimental comparison shows that the heat exchange efficiency of the reheated liquid cooling cabinet 10 can be more than doubled compared to the heat dissipation effect of the liquid cooling cabinet 10 that has not been reheated, which can effectively increase the installed density of the liquid cooling cabinet 10 and reduce the power distribution power of the data center computer room; it can also directly achieve zero-carbon heating.

[0114] In one embodiment, the liquid-cooling heat exchange module 300 is further provided with a liquid blocking component, and the liquid blocking component is arranged on a side of the fluid outlet of the liquid-cooling heat exchange module 300 .

[0115] In one embodiment, the liquid cooling cabinet 10 also includes a driving module 400 connected to the system control module, one end of the driving module 400 is connected to the fluid outlet of the liquid cooling heat exchange module 300, and the other end is connected to the fluid inlet of the third heat exchange unit 330; it is used to drive the second cooling fluid of the second preset temperature to the third heat exchange module for reheating to the third cooling fluid of the third preset temperature.

[0116] In one embodiment, the system detection module is provided with:

[0117] The first detection unit P1 is arranged in the liquid cooling heat exchange module 300 to obtain the first pressure information of the cabinet circulation system;

[0118] The second detection unit P2 is arranged at the front side of the fluid inlet of the electro-hydraulic integrated distribution module 200 to obtain the second pressure information of the cabinet circulation system;

[0119] The third detection unit T1 is arranged at the front side of the fluid inlet of the driving module 400 or the fluid outlet side of the liquid cooling heat exchange module 300, and obtains the third temperature information of the cabinet circulation system;

[0120] The fourth detection unit L1 is configured in the liquid-cooling heat exchange module 300 to obtain fourth liquid level information of the liquid-cooling heat exchange module.

[0121] In one embodiment, the electro-hydraulic integrated distribution module 200 is provided with:

[0122] The power distribution unit 230 is provided with a power distribution trunk line electrically connected to the equipment to be cooled at each node;

[0123] The first cooling capacity distribution unit 220 is provided with a first distribution pipeline body connected to the two-phase cold plate 100, a cooling capacity self-regulating component provided on each branch of the first distribution pipeline body and corresponding to the two-phase cold plate 100; and a plurality of first fluid pipelines provided on the first distribution pipeline body and correspondingly connected to each node two-phase cold plate 100;

[0124] The second cooling capacity distribution unit is provided with a second distribution pipeline body connected to the two-phase cold plate 100, and a plurality of second fluid pipelines provided on the second distribution pipeline body and correspondingly connected to the two-phase cold plate 100 at each node;

[0125] The cooling capacity detection unit 210 is arranged at the front side of the fluid inlet of the cold plate or each branch of the first distribution pipeline body and obtains the cooling capacity information of each branch;

[0126] The electro-hydraulic control unit is electrically connected to the power distribution unit 230, the cooling capacity self-regulating component, and the cooling capacity detection unit 210, respectively. The power control unit collects the power consumption information corresponding to the equipment to be cooled at each node through the power distribution unit 230, and / or the output power information of each power distribution trunk in the power distribution unit 230, and / or the cooling capacity information of each branch of the first distribution pipeline body; and adjusts the cooling capacity self-regulating component corresponding to each node according to the power consumption information, and / or the output power information, and / or the cooling capacity information.

[0127] Specifically, Figure 5 As shown, the power distribution unit 230, the first cooling capacity distribution unit 220, the second cooling capacity distribution unit and the electric-liquid control unit in the electric-liquid integrated distribution module 200 can also be set as an integrated structure to improve the compactness of the structure of the liquid cooling cabinet 10.

[0128] In addition, in order to further improve the system pressure problem, the second cooling distribution unit also includes a regulating valve 260 arranged on the second fluid pipeline and a pressure relief valve 211 arranged on the top of the second distribution pipeline body to improve the stability of the system pressure.

[0129] In one embodiment, the cooling capacity self-regulating component includes a cooling capacity self-regulating pump 250 and / or a cooling capacity self-regulating valve 240 .

[0130] Specifically, in order to further improve the stability and reliability of the liquid cooling cabinet, further extend the service life of the liquid cooling cabinet, and further ensure the safe operation of the liquid cooling cabinet, the first cooling distribution unit 220 of this embodiment includes two first fluid pipelines, and two cooling self-regulating pumps 250 are provided. On each first fluid pipeline, a cooling self-regulating pump 250 is installed, and the cooling self-regulating pump 250 is electrically connected to the electro-hydraulic control unit.

[0131] The first fluid pipeline is connected to the corresponding two-phase cold plate 100 at each node, and the liquid cooling medium can flow into the two-phase cold plate 100 in sequence through the first distribution pipeline body and one of the first fluid pipelines. A cooling capacity self-regulating pump 250 is provided on the first fluid pipelines corresponding to the multiple two-phase cold plates 100, and the cooling capacity self-regulating pump 250 is connected to the electro-hydraulic control unit. The electro-hydraulic control unit determines the power of each two-phase cold plate 100 according to the power consumption information, output power information, and / or cooling capacity information of the cooling parts corresponding to each two-phase cold plate 100, and then controls the working frequency of the first cooling capacity self-regulating pump 250 corresponding to each two-phase cold plate 100, and adjusts the liquid inlet amount of the corresponding two-phase cold plate 100.

[0132] It should be noted that one of the two cooling self-regulating pumps 250 can be selected to work. For example, when the liquid cooling system is in a normal working state, the liquid cooling medium can flow into the two-phase cold plate 100 through one of the first fluid pipelines in sequence. At this time, the cooling self-regulating pump 250 corresponding to one of the first fluid pipelines works. When the cooling self-regulating pump 250 is damaged, that is, the liquid cooling system is in an abnormal alarm state, another first fluid pipeline and its corresponding cooling self-regulating pump 250 can be selected to perform liquid separation work.

[0133] Embodiment 4

[0134] In order to further improve the heat exchange performance of the liquid cooling cabinet and the stability of the operation of the liquid cooling cabinet, reduce the operation loss of the cooling fluid and other problems, the second cooling capacity distribution unit of this embodiment includes a second distribution pipeline body, a fluid separation unit arranged in the second distribution pipeline body accommodating cavity, a plurality of second fluid pipelines arranged on the second pipeline body and correspondingly connected to each node two-phase cold plate 100, and at least two fluid outlets connected to the liquid cooling heat exchange module 300. The fluid separation unit can be set as a blocking component corresponding to the second fluid pipeline, and / or a spiral channel corresponding to the second fluid pipeline, and / or a separation membrane arranged between the two fluid outlets.

[0135] Specifically, the second distribution pipeline is provided with two fluid outlets, and the gas-liquid two-phase cooling medium flowing out of the multiple two-phase cold plates 100 is collected through the corresponding second fluid pipeline and flows into the second distribution pipeline body, and then separated by the fluid separation unit in the second distribution pipeline body. After separation, the gaseous cooling medium flows into the liquid cooling heat exchange module 300 through one of the fluid outlets, and the liquid cooling medium flows into the liquid heat exchange module through the other fluid outlet. By providing the fluid separation unit in the second distribution pipeline body, the gas-liquid mixed cooling medium in the second distribution pipeline is diverted, and by providing two fluid outlets on the second distribution pipeline, the diverted gaseous cooling medium and liquid cooling medium flow into the liquid heat exchange module respectively, and the gas-liquid mixed cooling medium flowing out of the two-phase cold plate 100 is quickly separated, and the separated gaseous fluid and liquid fluid are connected to the liquid cooling heat exchange module 200 through different pipelines. Not only the heat exchange efficiency of the liquid cooling heat exchange module 200 is enhanced, but also the stability of the system operation can be further improved; the loss of cooling fluid is effectively reduced.

[0136] Embodiment 5

[0137] In order to solve the cooling problem of the secondary side water circuit ring network 600, as shown in Figures 1 and Figure 3 As shown, the secondary water circuit ring network 600 is connected to the outdoor unit 500, and the cooling cut-off energy in the secondary water circuit ring network 600 flows into the outdoor unit 500 for cooling.

[0138] Embodiment 6

[0139] The present application also provides a control method for a liquid cooling cabinet using any of the above items. The control method for the liquid cooling cabinet 10 includes:

[0140] S11, the electric-liquid integrated distribution module 200 collects the power consumption information corresponding to the equipment to be cooled at each node, and / or the cooling capacity information of the two-phase cold plate 100 at each node; and controls the flow rate of the fluid in the two-phase cold plate 100 according to the power consumption information and / or the cooling capacity information; and controls the flow rate of the fluid in the two-phase cold plate 100 according to the power consumption information;

[0141] S12, the system detection module obtains the cabinet circulation system parameters of each module and pipeline in the liquid cooling cabinet 10 during operation;

[0142] S13, the system control module obtains the cabinet circulation system parameters, and / or power consumption information, and / or cooling capacity information to control the working coordination mode of each heat exchange unit in the liquid cooling heat exchange module 300 so that the liquid fluid in the two-phase cold plate 100 of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out.

[0143] The control method of the liquid cooling cabinet 10 in this embodiment has the following three beneficial effects:

[0144] 1: Control method The heat generation of each branch is collected in real time through the electro-hydraulic integrated distribution module 200, and the heat dissipation of the two-phase cold plate 100 of each branch is controlled in real time to avoid dry burning of part of the two-phase cold plate 100 and no phase change in the two-phase cold plate 100.

[0145] 2: Effectively ensure stable overclocking of components to be cooled (especially high-power electronic components, CPU, GPU), and can adaptively control the core temperature fluctuation of high-power heating components such as chips within 1.5°C, thereby improving the operating stability and temperature uniformity of the server.

[0146] 3: The control method adjusts the working coordination mode of each heat exchange unit in the liquid cooling heat exchange module 300 in real time according to the system operation status, so that the heat dissipation performance of the system is effectively improved, and the heat dissipation effect can be more than doubled compared with the existing liquid cooling cabinet 10 without reheating.

[0147] In one embodiment, the electric-liquid integrated distribution module 200 collects power consumption information corresponding to the equipment to be cooled at each node and / or cooling capacity information of the two-phase cold plate 100 at each node; and controls the flow rate of the fluid in the two-phase cold plate 100 according to the power consumption information and / or cooling capacity information; and controlling the flow rate of the fluid in the two-phase cold plate 100 according to the power consumption information includes:

[0148] S1111, the cooling capacity detection unit 210 collects cooling capacity information of each branch, and the electro-hydraulic control unit obtains the cooling capacity information to control the fluid flow output by the cooling capacity self-regulating component to each node two-phase cold plate 100; and / or,

[0149] S1121, the electro-hydraulic control unit collects power consumption information corresponding to the equipment to be cooled at each node, and / or output power information of each power distribution trunk in the power distribution unit 230;

[0150] S1122, the cooling capacity detection unit 210 collects cooling capacity information of each branch;

[0151] S1123, the electro-hydraulic control unit obtains cooling capacity information and power consumption information, or cooling capacity information and output power information to control the fluid flow output by the cooling capacity self-regulating component to the two-phase cold plate 100 of each node.

[0152] In one embodiment, the system control module obtains the cabinet circulation system parameters, and / or power consumption information, and / or cooling capacity information to control the working coordination mode of each heat exchange unit in the liquid cooling heat exchange module 300 so that the liquid fluid in the two-phase cold plate 100 of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out, including:

[0153] S131, the second pressure information collected by the second detection unit, and the operating frequency of the driving module 400 are controlled according to the second pressure information, so that the liquid cooling cabinet 10 reheats the second cooling fluid to the third cooling fluid of the third preset temperature by the third heat exchange unit 330 under the first preset liquid supply pressure and outputs it to the electric-liquid integrated distribution module 200, and the liquid fluid in the two-phase cold plate 100 distributed to each node by the electric-liquid integrated distribution module 200 can absorb the heat of the node to be cooled and vaporize to form a vapor fluid flowing out;

[0154] S132, obtaining first pressure information collected by the first detection unit and third temperature information collected by the third detection unit, and controlling the heat exchange efficiency of the first heat exchange unit 310 and the second heat exchange unit 320 according to the first pressure information and the third temperature information, so that the liquid cooling cabinet 10 cools the liquid fluid to a second preset temperature by the second heat exchange unit 320 at a second preset pressure;

[0155] Wherein, the second preset temperature is not lower than the third preset temperature.

[0156] Specifically, the control method of this embodiment adjusts the working coordination mode of the three-stage heat exchange unit in real time, so that the vapor fluid can undergo heat exchange processes such as condensation, supercooling, and reheating. The liquid cooling cabinet 10 can operate under a stable system pressure while outputting a liquid fluid of a third preset temperature to the electric-liquid integrated distribution module 200 (wherein the third preset temperature includes but is not limited to the fluid saturation temperature, slightly lower than the fluid saturation temperature), so that the liquid fluid can undergo phase change vaporization once it flows through the two-phase cold plate 100 to exchange heat with the element to be cooled, maximizing the use of the phase change latent heat of the fluid, and improving the phase change heat transfer efficiency of the two-phase cold plate 100 at each node. Experimental comparison shows that the heat exchange efficiency of the reheated liquid cooling cabinet 10 can be more than doubled compared to the heat dissipation effect of the liquid cooling cabinet 10 that has not been reheated, which can effectively increase the installed density of the liquid cooling cabinet 10 and reduce the power distribution power of the data center computer room; it can also directly achieve zero-carbon heating.

[0157] In one embodiment, the control method of the liquid cooling cabinet 10 further includes:

[0158] S14, obtaining fourth liquid level information collected by the fourth detection unit, and controlling the heat exchange efficiency of the second heat exchange unit 320 so that the liquid level of the liquid-cooling heat exchange module 300 is not less than a preset liquid level.

[0159] Specifically, in order to further improve the heat dissipation efficiency of the liquid cooling cabinet 10 and reduce the power consumption of the liquid cooling cabinet 10 system, the preset liquid level is basically flush with the upper surface of the second heat exchange unit 320, thereby maximizing the condensation effect of the first heat exchange unit 310 and the supercooling effect of the second heat exchange unit 320.

[0160] Embodiment 7

[0161] The present application also provides a control method for a two-phase cold plate liquid cooling data center using any of the above items, such as Figure 6 As shown, the control method of the two-phase cold plate liquid cooling data center includes:

[0162] The electric-liquid integrated distribution module 200 collects the power consumption information corresponding to the equipment to be cooled at each node and / or the cooling capacity information of the two-phase cold plate 100 at each node; and controls the flow rate of the fluid in the two-phase cold plate 100 according to the power consumption information and / or the cooling capacity information; and controls the flow rate of the fluid in the two-phase cold plate 100 according to the power consumption information;

[0163] The system detection module obtains the cabinet circulation system parameters of each module and pipeline in each liquid cooling cabinet 10;

[0164] The monitoring and regulating module obtains the circulation system parameters, and / or power consumption information, and / or cooling capacity information of each liquid cooling cabinet 10, and controls the flow of the water supply branch and the return branch corresponding to each liquid cooling cabinet 10, so that the liquid fluid in the two-phase cold plate 100 of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out.

[0165] The control method of the two-phase cold plate liquid cooling data center in this embodiment has the following three beneficial effects:

[0166] 1: Control method The heat generation of each branch is collected in real time through the electro-hydraulic integrated distribution module 200, and the heat dissipation of the two-phase cold plate 100 of each branch is controlled in real time to avoid dry burning of part of the two-phase cold plate 100 and no phase change in the two-phase cold plate 100.

[0167] 2: Effectively ensure stable overclocking of components to be cooled (especially high-power electronic components, CPU, GPU), and can adaptively control the core temperature fluctuation of high-power heating components such as chips within 1.5°C, thereby improving the operating stability and temperature uniformity of the server.

[0168] 3: The control method is to obtain the circulation system parameters and / or power consumption information and / or cooling capacity information of each liquid cooling cabinet 10 by the monitoring and regulating module, and control the flow of the water supply branch and the return branch corresponding to each liquid cooling cabinet 10, so that the liquid fluid in the two-phase cold plate 100 of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out, thereby effectively improving the heat dissipation performance of the system, and the heat dissipation effect can be more than doubled compared with the existing liquid cooling cabinet 10 that has not been reheated.

[0169] In one embodiment, if Figure 7 As shown, the electric-liquid integrated distribution module 200 collects the power consumption information corresponding to the equipment to be cooled at each node and / or the cooling capacity information of the two-phase cold plate 100 at each node; and controls the flow rate of the fluid in the two-phase cold plate 100 according to the power consumption information and / or the cooling capacity information; and controlling the flow rate of the fluid in the two-phase cold plate 100 according to the power consumption information includes:

[0170] The cooling capacity detection unit 210 collects the cooling capacity information of each branch, and the electro-hydraulic control unit obtains the cooling capacity information to control the fluid flow output by the cooling capacity self-regulating component to the two-phase cold plate 100 of each node; and / or,

[0171] The electric-hydraulic control unit collects power consumption information corresponding to the equipment to be cooled at each node, and / or output power information of each power distribution trunk in the power distribution unit 230;

[0172] The cooling capacity detection unit 210 collects cooling capacity information of each branch;

[0173] The electro-hydraulic control unit obtains cooling capacity information and power consumption information, or cooling capacity information and output power information to control the fluid flow output by the cooling capacity self-regulating component to the two-phase cold plate 100 of each node.

[0174] In one embodiment, if Figure 8 As shown, the monitoring and regulating module obtains the circulation system parameters, and / or power consumption information, and / or cooling capacity information of each liquid cooling cabinet 10, and controls the flow of the water supply branch and the return branch corresponding to each liquid cooling cabinet 10, so that the liquid fluid in the two-phase cold plate 100 of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out, including:

[0175] The second pressure information collected by the second detection unit controls the working frequency of the driving module 400 according to the second pressure information, so that each liquid cooling cabinet 10 reheats the second cooling fluid to a third cooling fluid of a third preset temperature by the third heat exchange unit 330 under the first preset liquid supply pressure and outputs it to the electric-liquid integrated distribution module 200, and the liquid fluid in the two-phase cold plate 100 distributed to each node by the electric-liquid integrated distribution module 200 can absorb the heat of the node to be cooled and vaporize to form a vapor fluid flowing out;

[0176] Obtaining first pressure information collected by the first detection unit and third temperature information collected by the third detection unit, and controlling the first monitoring and adjusting unit, the second monitoring and adjusting unit, and the third monitoring and adjusting unit according to the first pressure information and the third temperature information, so that each liquid cooling cabinet 10 cools the liquid fluid to a second preset temperature by the second heat exchange unit 320 at a second preset pressure;

[0177] Wherein, the second preset temperature is not lower than the third preset temperature.

[0178] Specifically, the control method of this embodiment adjusts the working coordination mode of the three-stage heat exchange unit in real time, so that the vapor fluid can undergo heat exchange processes such as condensation, supercooling, and reheating. The liquid cooling cabinet 10 can operate under a stable system pressure while outputting a liquid fluid of a third preset temperature to the electric-liquid integrated distribution module 200 (wherein the third preset temperature includes but is not limited to the fluid saturation temperature, slightly lower than the fluid saturation temperature), so that the liquid fluid can undergo phase change vaporization once it flows through the two-phase cold plate 100 to exchange heat with the element to be cooled, maximizing the use of the phase change latent heat of the fluid, and improving the phase change heat transfer efficiency of the two-phase cold plate 100 at each node. Experimental comparison shows that the heat exchange efficiency of the reheated liquid cooling cabinet 10 can be more than doubled compared to the heat dissipation effect of the liquid cooling cabinet 10 that has not been reheated, which can effectively increase the installed density of the liquid cooling cabinet 10 and reduce the power distribution power of the data center computer room; it can also directly achieve zero-carbon heating.

[0179] In one embodiment, if Figure 8 As shown, the control method of the liquid cooling data center also includes:

[0180] The fourth liquid level information collected by the fourth detection unit is obtained, and the heat exchange efficiency of the second heat exchange unit 320 is controlled so that the liquid level of the liquid-cooling heat exchange module 300 is not less than a preset liquid level.

[0181] The technical features of the above-described embodiments may be arbitrarily combined. To make the description concise, not all possible combinations of the technical features in the above-described embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0182] The above-described embodiments only express several implementation methods of the present application, and the descriptions thereof are relatively specific and detailed, but they cannot be construed as limiting the scope of the patent application. It should be pointed out that, for a person of ordinary skill in the art, several variations and improvements can be made without departing from the concept of the present application, and these all belong to the protection scope of the present application. Therefore, the protection scope of the patent application shall be subject to the attached claims.

Claims

1. A two-phase cold plate liquid cooling data center, characterized in that: The liquid cooling data center comprises: A plurality of two-phase cold plate liquid cooling cabinets, wherein the liquid cooling cabinets are provided with a plurality of nodes to be cooled, two-phase cold plates in contact with and connected to the nodes to be cooled, and an electric-liquid integrated distribution module, a liquid cooling heat exchange module and a system detection module connected to the two-phase cold plates of each node; The secondary water loop network includes a water supply loop network and a water return loop network arranged at the bottom of the data center. The low-temperature fluid of the water supply loop network is connected to the liquid cooling heat exchange module through the water supply branch and undergoes heat exchange to become a high-temperature fluid, which is then output to the water return loop network through the water return branch. The monitoring and regulating module obtains the circulation system parameters, and / or power consumption information, and / or cooling capacity information of each liquid cooling cabinet, and controls the flow of the water supply branch and the return branch corresponding to each liquid cooling cabinet, so that the liquid fluid in the two-phase cold plate of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out.

2. The two-phase cold plate liquid cooling data center according to claim 1, characterized in that: The liquid cooling heat exchange module is provided with: A first heat exchange unit, for receiving a vapor fluid and a liquid fluid and cooling the fluid to a first preset temperature; a second heat exchange unit, configured to receive the first cooling fluid and cool the first cooling fluid to a second preset temperature; a third heat exchange unit, configured to receive the second cooling fluid and reheat the second cooling fluid to a third cooling fluid of a third preset temperature; Wherein, the second preset temperature is not lower than the third preset temperature.

3. The two-phase cold plate liquid cooling data center according to claim 2, characterized in that: The first heat exchange unit and the second heat exchange unit are connected in parallel with the first water supply ring network through the first water supply branch, and a first monitoring and regulating unit is arranged on the first water supply branch; the first heat exchange unit is connected with the return water ring network through the first return water branch, and a second monitoring and regulating unit is arranged on the first return water branch; the second heat exchange unit is connected with the return water ring network through the second return water branch, and a third monitoring and regulating unit is arranged on the second return water branch; Preferably, the first monitoring and adjusting unit includes a first monitoring component and a first adjusting component; the second monitoring and adjusting unit includes a second monitoring component and a second adjusting component; and the third monitoring and adjusting unit includes a third monitoring component and a third adjusting component.

4. The two-phase cold plate liquid cooling data center according to claim 2, characterized in that: The liquid-cooled heat exchange module is also provided with a liquid blocking component, and the liquid blocking component is arranged on one side of the fluid outlet of the liquid-cooled heat exchange module.

5. The two-phase cold plate liquid cooling data center according to claim 2, characterized in that: The liquid cooling cabinet also includes a driving module connected to the system control module, one end of the driving module is connected to the fluid outlet of the liquid cooling heat exchange module, and the other end is connected to the fluid inlet of the third heat exchange unit; and the driving module is used to drive the second cooling fluid of the second preset temperature to the third heat exchange module for reheating to the third cooling fluid of the third preset temperature.

6. The two-phase cold plate liquid cooling data center according to claim 5, characterized in that: The system detection module is provided with: A first detection unit, arranged in the liquid cooling heat exchange module, to obtain first pressure information of the cabinet circulation system; A second detection unit, disposed at the front side of the fluid inlet of the electro-hydraulic integrated distribution module, to obtain second pressure information of the cabinet circulation system; A third detection unit is arranged at the front side of the fluid inlet of the driving module or the fluid outlet side of the liquid cooling heat exchange module, and obtains third temperature information of the cabinet circulation system; The fourth detection unit is configured to obtain fourth liquid level information of the liquid-cooled heat exchange module in the liquid-cooled heat exchange module.

7. The two-phase cold plate liquid cooling data center according to claim 1, characterized in that: The electro-hydraulic integrated distribution module is provided with: The power distribution unit is provided with a power distribution trunk line electrically connected to the equipment to be cooled at each node; A first cooling capacity distribution unit is provided with a first distribution pipeline body connected to the two-phase cold plate, a cooling capacity self-regulating component provided on each branch of the first distribution pipeline body and corresponding to the two-phase cold plate, and a plurality of first fluid pipelines provided on the first distribution pipeline body and correspondingly connected to each node two-phase cold plate; A second cooling capacity distribution unit is provided with a second distribution pipeline body connected to the two-phase cold plate, and a plurality of second fluid pipelines provided on the second distribution pipeline body and correspondingly connected to the two-phase cold plate at each node; A cooling capacity detection unit is arranged at the front side of the fluid inlet of the cold plate or at each branch of the first distribution pipeline body and acquires cooling capacity information of each branch; The electro-hydraulic control unit is electrically connected to the power distribution unit, the cooling capacity self-regulating component, and the cooling capacity detection unit, respectively. The power control unit collects the power consumption information corresponding to the equipment to be cooled at each node through the power distribution unit, and / or the output power information of each power distribution trunk in the power distribution unit, and / or the cooling capacity information of each branch of the first distribution pipeline body; and adjusts the cooling capacity self-regulating component corresponding to each node according to the power consumption information, and / or the output power information, and / or the cooling capacity information.

8. The two-phase cold plate liquid cooling data center according to claim 7, characterized in that: The cold capacity self-regulating component includes a cold capacity self-regulating pump and / or a cold capacity self-regulating valve.

9. A control method for a two-phase cold plate liquid cooling data center using any one of claims 1 to 8, characterized in that: The control method comprises: The electric-liquid integrated distribution module collects the power consumption information corresponding to the equipment to be cooled at each node and / or the cooling capacity information of the two-phase cold plate at each node; and controls the flow rate of the fluid in the two-phase cold plate according to the power consumption information and / or the cooling capacity information; and controls the flow rate of the fluid in the two-phase cold plate according to the power consumption information; The system detection module obtains the cabinet circulation system parameters of each module and pipeline in each liquid cooling cabinet; The monitoring and adjustment module obtains the circulation system parameters, and / or power consumption information, and / or the cooling capacity information of each liquid cooling cabinet, and controls the flow of the water supply branch and the return branch corresponding to each liquid cooling cabinet, so that the liquid fluid in the two-phase cold plate of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out.

10. The control method of the liquid cooling data center according to claim 9, characterized in that: The electric-liquid integrated distribution module collects the power consumption information corresponding to the equipment to be cooled at each node and / or the cooling capacity information of the two-phase cold plate at each node; and controls the flow rate of the fluid in the two-phase cold plate according to the power consumption information and / or the cooling capacity information; and controls the flow rate of the fluid in the two-phase cold plate according to the power consumption information, including: The cooling capacity detection unit collects the cooling capacity information of each branch, and the electro-hydraulic control unit obtains the cooling capacity information to control the fluid flow output by the cooling capacity self-regulating component to the two-phase cold plate of each node; and / or, The electro-hydraulic control unit collects power consumption information corresponding to the equipment to be cooled at each node, and / or output power information of each power distribution trunk in the power distribution unit; The cooling capacity detection unit collects the cooling capacity information of each branch; The electro-hydraulic control unit obtains the cooling capacity information and the power consumption information, or the cooling capacity information and the output power information to control the fluid flow output by the cooling capacity self-regulating component to the two-phase cold plate of each node.

11. The control method of a liquid cooling data center according to claim 9, characterized in that: The monitoring and regulating module obtains the circulation system parameters and / or power consumption information and / or the cooling capacity information of each liquid cooling cabinet, and controls the flow of the water supply branch and the return branch corresponding to each liquid cooling cabinet, so that the liquid fluid in the two-phase cold plate of each node absorbs the heat of the node to be cooled and vaporizes to form a vapor fluid flowing out, including: The second pressure information collected by the second detection unit is used to control the working frequency of the driving module according to the second pressure information, so that each liquid-cooled cabinet reheats the second cooling fluid to a third cooling fluid of a third preset temperature by the third heat exchange unit under the first preset liquid supply pressure and outputs the third cooling fluid to the electric-liquid integrated distribution module, and the liquid fluid distributed to the two-phase cold plate of each node by the electric-liquid integrated distribution module can absorb the heat of the node to be cooled and vaporize to form a vapor fluid flowing out; Obtaining first pressure information collected by the first detection unit and third temperature information collected by the third detection unit, and controlling the first monitoring and adjusting unit, the second monitoring and adjusting unit, and the third monitoring and adjusting unit according to the first pressure information and the third temperature information, so that each liquid cooling cabinet cools the liquid fluid to a second preset temperature by the second heat exchange unit under a second preset pressure; Wherein, the second preset temperature is not lower than the third preset temperature.

12. The control method of the liquid cooling data center according to claim 11, characterized in that: The method further comprises: The fourth liquid level information collected by the fourth detection unit is obtained, and the heat exchange efficiency of the second heat exchange unit is controlled so that the liquid level of the liquid-cooled heat exchange module is not less than a preset liquid level.

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