Liquid cooling server energy management system and equipment

Abstract

The invention discloses a liquid cooling server energy management system and equipment, and the system comprises a power distribution system which is used for supplying energy to a liquid cooling server, a voltage stabilization system which provides stable voltage, and a temperature detection system which is used for detecting temperature, and the temperature detection system and the voltage stabilization system are arranged in a bidirectional manner. The power distribution system is composed of a voltage module providing a connector, a total power supply module and an electric quantity detection module, the voltage module and the total power supply module are arranged in a one-way mode, the total power supply module and the electric quantity detection module are arranged in a one-way mode, and the power distribution system is formed through the voltage module. According to the liquid cooling server energy management system and equipment, a voltage module, a total power supply module and a power consumption monitoring module are adopted to supply power to each independent condensation server and a refrigeration system, and each corresponding server is independently supplied with power according to a power supply socket; and the specific voltage is converted by the variable-frequency and variable-voltage module and then enters the steady-current monitoring system.

Description

Technical Field

[0001] The present invention relates to the technical field of liquid cooling servers, and in particular to a liquid cooling server energy management system and equipment. Background Art

[0002] Server: The core technology has a wide range of application scenarios. China currently encourages the research of green advanced technology products to be tried first and to accelerate the integration of multiple technologies. For example, liquid cooling technology can be combined with artificial intelligence, edge computing and other 5G technologies to support the implementation of other technologies. At the same time, edge computing scenarios have also accelerated the upgrade of liquid-cooled data centers to high-density deployment and modular delivery, which can provide more computing power in a smaller space. Therefore, we should actively promote the collision of liquid cooling and emerging technologies. At present, with the explosive growth of data volume, a large amount of computing power requires massive servers to support it. However, due to the limitations of data center construction area and environmental protection regulations, increasing the power density of a single cabinet and increasing the heat dissipation capacity of a single cabinet have become the key to reconciling the growing computing power demand and the limited data center carrying capacity. There is bound to be a need for a heat dissipation solution that replaces air cooling.

[0003] Among them, the "liquid-cooling server liquid anti-leakage integrated component and liquid-cooling server" disclosed in the application number "CN201821214149.X" is also an increasingly mature technology, which records "the utility model discloses a liquid-cooling server liquid anti-leakage integrated component and a liquid-cooling server including the integrated component, including a block-shaped mounting shell, a nested electronic component and a potting material, the mounting shell surface has a nesting opening, the nested electronic component is embedded in the mounting shell through the nesting opening, and the nested electronic component has a wiring terminal provided on the mounting shell, the wiring terminal is used to be connected to the liquid-cooling server motherboard, and the potting material is filled in the mounting shell. Cured integrated component. The utility model is to embed the nested electronic component in the installation shell through the nesting port and fill it with potting material to solidify and form an integrated component. When it is spliced ​​on the liquid-cooled server chassis, due to the good sealing of the integrated component, it can well solve the problem of coolant leakage that is easy to occur when the traditional server chassis structure is applied to the liquid-cooled server chassis, thereby extending the service life of the server and improving the operational reliability of the server. "For such listed application documents, it will easily cause the server itself to have no remote monitoring function. In today's relatively high level of conventional intelligence, it is difficult to make the server itself respond and monitor it in a timely and rapid manner;

[0004] Further search revealed that the application number is: CN201721376651.6, a liquid-cooled server containing a front liquid-cooled air cooling device, the invention discloses that the utility model provides a liquid-cooled server containing a front liquid-cooled air cooling device, the liquid-cooled server is provided with a mainboard, a switching power supply, a hard disk and a front liquid-cooled air cooling device, the front liquid-cooled air cooling device is arranged at the front end of the liquid-cooled server, the front liquid-cooled air cooling device is provided with a water-cooling coil and a fan group, the fan group is arranged on the side of the front liquid-cooled air cooling device facing the outside of the liquid-cooled server, and the water-cooling coil is arranged on the side of the front liquid-cooled air cooling device facing the liquid-cooled server; the hard disk is arranged at the rear end of the front liquid-cooled air cooling device, the mainboard is arranged at the rear end of the hard disk, the mainboard is provided with a memory bar and a CPU, and the CPU is provided with a water cooling plate; the switching power supply is arranged at a position close to the mainboard at the rear end of the liquid-cooled server, and the rear end of the liquid-cooled server is also provided with a water inlet pipe interface and a water outlet pipe interface, the water inlet pipe interface is connected to the water inlet pipe, and the water outlet pipe interface is connected to the water outlet pipe; the water cooling plate is connected in series or in parallel with the water cooling coil. The refrigeration link in the listed documents only involves the server host. The built-in parts are placed in the specific coolant replacement cycle and there are also the following defects:

[0005] 1) Servers are an indispensable way for various industries to transform the Internet. However, as the main computing power machine, they need to run for a long time. This operation process will inevitably have relatively high and strict requirements on the temperature stability of the server. The heat dissipation of traditional servers is relatively dependent on air cooling. In addition, in the server room, there are many servers, which will inevitably be disturbed by the heat and noise generated by the dense servers, causing the temperature to rise, and the heat cannot be dissipated in time. This makes it difficult for the server to dissipate its own heat, resulting in poor heat replacement efficiency in the later stage, affecting the load efficiency of the server;

[0006] 2) In addition, conventional servers take up a large space. When setting up a scale-intensive computing service center, it is difficult to quickly cool down the specific server temperature. In addition, in addition to being the main computing-intensive mechanism, the server's own heat greatly affects the smoothness of system operation, which makes it difficult to discharge the heat perfectly. Either noise or the server cooling effect is unsatisfactory. Therefore, with comprehensive consideration of energy management and cooling media, the range of options has gradually narrowed, affecting the overall server computing power consumption and computing efficiency. It is bound to be difficult to balance the two. Summary of the invention

[0007] The object of the present invention is to provide a liquid cooling server energy management system and equipment to solve the problems raised by the above background technology.

[0008] To achieve the above-mentioned object, the present invention provides the following technical solutions: a liquid-cooled server energy management system, a liquid-cooled server energy management system, comprising a power distribution system for supplying energy to the liquid-cooled server, a voltage stabilization system for providing voltage stability, and a temperature detection system for detecting temperature;

[0009] The temperature detection system is bidirectionally arranged with the voltage stabilizing system;

[0010] The power distribution system consists of a voltage module providing a joint, a main power supply module and a power detection module;

[0011] The voltage module and the main power supply module are unidirectionally arranged, and the main power supply module and the power consumption detection module are unidirectionally arranged, and the power distribution system is formed through the voltage module;

[0012] The voltage module provides various power supply sockets for the server, and the power supply sockets and the voltage module are unidirectionally arranged, wherein the power supply sockets are electrically connected to the power supply end of the server;

[0013] The built-in branch of the voltage stabilization system also includes: a frequency conversion and voltage conversion module for voltage adaptation, a current stabilization monitoring system, a PLC error correction module and a power supply module;

[0014] The PLC error correction module is bidirectionally set with the steady current monitoring system, and the steady current monitoring system is unidirectionally set with the variable frequency and voltage conversion module, which are used to obtain the supply voltage and interact with the power supply module. The steady current monitoring system also includes an electronic meter and a voltage stabilizer, and the electronic meter and the voltage stabilizer are both bidirectionally set with the PLC error correction module;

[0015] The temperature detection system includes a temperature and humidity detection module, a liquid level detection module, a liquid leakage detection module, a fan speed detection module, a water pump module and a timing module;

[0016] The liquid level detection module and the water pumping module are unidirectionally arranged, while the leakage detection module and the water pumping module are bidirectionally arranged;

[0017] The fan speed detection module is unidirectionally arranged with the water pump module, and the liquid level detection module, the water pump module, the fan speed detection module and the liquid level detection module are bidirectionally arranged with the timing module to coordinate the operating frequency of each group of modules in a timely manner;

[0018] The temperature and humidity detection module is bidirectionally arranged with the temperature detection system;

[0019] The temperature and humidity detection module and the timing module are set unidirectionally.

[0020] As a preferred solution of the present invention: the temperature and humidity detection module has an internal branch integrated with an early warning module and a file system module, the early warning module detects temperature and humidity information data, and the file system module collects data;

[0021] The early warning module and the file system module are bidirectionally arranged.

[0022] As a preferred solution of the present invention: wherein the power distribution system, the voltage stabilization system and the temperature detection system are controlled by the data collection system;

[0023] The data collection system also includes: a cloud processing module for connecting to cloud data, a database module for presenting specific machine operations, a broadband transceiver module for data monitoring, and a bypass receiving module.

[0024] As a preferred solution of the present invention: the cloud processing module and the database module are bidirectionally arranged, wherein the database module is a visualization webpage module with data information;

[0025] The cloud processing module and the visual web page module are bidirectionally arranged, and the database module and the visual web page are bidirectionally arranged, wherein the bypass receiving module and the database module are bidirectionally arranged to provide Internet connection.

[0026] As a preferred solution of the present invention: the data interface of the database module extends the virtual container and is constructed based on a hardware hard disk;

[0027] The bypass receiving module is connected to the database LAN port through a broadband crystal connector.

[0028] A liquid cooling server device, comprising the above-mentioned liquid cooling server energy management system,

[0029] The equipment includes a foundation for the distribution and placement of various cooling water tanks, a piping mechanism for providing cold circulation, a liquid cooling server mechanism and a pressurizing mechanism for centralized pressurization of the cooling liquid;

[0030] The foundation consists of compacted ground, a waterproof layer as a moisture-proof and leakage-proof layer, and bonding bricks. Reinforced concrete aggregates are embedded inside the compacted ground. The waterproof layer is evenly arranged on the surface of the reinforced concrete aggregates, and bonding bricks are bonded based on the adhesion of the waterproof layer.

[0031] As a preferred embodiment of the present invention:

[0032] The pipeline mechanism is arranged on the top of the bonding brick and is arranged around the top edge of the waterproof layer. The pipeline mechanism includes a plurality of independent distributed pipelines arranged on the top of the compacted ground, wherein a U-shaped connecting pipe for bonding is provided in the middle of the top of the distributed pipeline, and a plurality of connecting sleeves are provided on the side wall branches of the U-shaped connecting pipe. A plurality of branch pipelines for providing liquid entry are provided at the end branch parts of the plurality of connecting sleeves, and the end parts of the branch pipelines are all connected with connecting valves corresponding to the pipes, and a liquid cooling server mechanism is provided at the end position of the valve body of the connecting valve.

[0033] As a preferred solution of the present invention: the liquid cooling server mechanism comprises a chassis connected to the connection valve, the front surface of the chassis is embedded with two observation windows, the chassis body has a plurality of U servers built in, and the plurality of U servers are evenly placed inside the chassis, wherein an access bracket is provided on the top side of the chassis body, and a plurality of integrated access cables are respectively arranged in the middle of the top of the access bracket, and the surfaces of the integrated access cables are respectively integrated with wiring slots, and the wiring slots are respectively connected with the U server panels placed at the corresponding workstations;

[0034] The top surface of the access bracket is sequentially provided with a number of slots, and the front surfaces of the slots are fitted with square fitting plates, a trapezoidal gasket is provided in the middle of the plate surface of the square fitting plate, and a reflux water tank for coordination is provided in the middle of the top end of the trapezoidal gasket, a searchlight is installed on the inside of the reflux water tank, a connecting seat is connected to the top pipe of the reflux water tank, one end of the connecting seat is sealed and connected with a U-shaped connecting pipe, and an arc-shaped sleeve is provided in the middle of the U-shaped connecting pipe.

[0035] As a preferred solution of the present invention: a water volume control valve is provided on the surface of the U-shaped pipe, the water volume control valve, one end of the U-shaped pipe is provided with a water outlet, one end of the water outlet is connected to the U-shaped connecting pipe, and the pipe connection end of the U-shaped pipe forms a circulation loop with the branch pipeline;

[0036] The boosting mechanism includes a boosting pump connected to the water inlet end of the U-shaped connecting pipe, the water inlet of the boosting pump is connected to an external water reservoir, the water outlet end of the U-shaped connecting pipe is connected to a water pump, and the water outlet of the water pump is connected to the other end of the water reservoir.

[0037] As a preferred solution of the present invention: the outer wall of the water tank is equipped with a refrigeration main unit, the top side of the chassis is hinged with a damping bracket, one end of the damping bracket is provided with a flip cover, the surface of the flip cover is provided with a window, and a lock is provided on the side of the flip cover, and one end of the lock is respectively engaged with a buckle arranged on the front surface of the chassis.

[0038] Compared with the prior art, the present invention has the following beneficial effects:

[0039] 1) The voltage module, the main power supply module and the power consumption monitoring module are used to supply power to each independent condensing server and the refrigeration system. The power supply is independently supplied to each corresponding server according to the power strip. During the power supply stage, the specific voltage is converted by the frequency conversion and voltage conversion module and enters the steady current monitoring system. The electronic meter obtains the frequency power, and the voltage stabilizer stabilizes the high-strength voltage to ensure the stability of the output current.

[0040] 2) The liquid level detection module and liquid leakage detection module are used to ensure convenience during the operation and maintenance stage. The temperature and humidity detection module and early warning module in the temperature detection system play a more effective role in temperature difference monitoring. The file system module and liquid level detection module are used to ensure the classification and acquisition of corresponding data. The liquid leakage detection module can issue an alarm in time when a leak occurs, so as to improve the efficiency and safety of the specific liquid cooling server energy;

[0041] 3) The cloud processing module is combined with the data collection system to ensure the collection of corresponding data and use the visualized web page heat module and bypass receiving module to achieve the reception feedback of data volume, realize the dynamic liquid cooling temperature of the liquid cooling server, and achieve network display of voltage data, so as to truly achieve data-based operation and maintenance;

[0042] 4) In terms of hardware, the foundation and compacted ground are used as the bearing surface to support the liquid-cooled server above. It is combined with a U-shaped interconnecting pipe, a connecting sleeve and a branch pipe to ensure that the coolant can be injected from here by the booster pump, and then combined with the U-shaped interconnecting pipe along the arc sleeve to return to the corresponding water tank. The coolant stored in the water tank is reduced in temperature by the refrigeration host for circulation. BRIEF DESCRIPTION OF THE DRAWINGS

[0043] Figure 1 It is a schematic diagram of the structure of the present invention;

[0044] Figure 2 It is one of the structural schematic diagrams of the present invention;

[0045] Figure 3 It is a structural schematic diagram of a U-shaped connecting pipe of the present invention;

[0046] Figure 4 This is a schematic diagram of the structure of tamping the ground according to the present invention;

[0047] Figure 5 This is a schematic diagram of the flip cover structure of the present invention;

[0048] Figure 6 It is a structural schematic diagram of the chassis of the present invention;

[0049] Figure 7 It is a schematic diagram of the structure of the chassis of the present invention from the top perspective;

[0050] Figure 8 This is a schematic diagram of the structure of a 1U server of the present invention;

[0051] Fig. 9 It is a structural schematic diagram of the liquid cooling server mechanism of the present invention;

[0052] Fig.10 This is a schematic diagram of the structure of the integrated access cable of the present invention;

[0053] Fig.11 It is a structural schematic diagram of the reflux water tank of the present invention.

[0054] In the figure: 1. Power distribution system; 11. Voltage module; 12. Main power supply module; 13. Power consumption detection module; 14. Power strip;

[0055] 2. Voltage stabilization system; 21. Frequency conversion and voltage transformation module; 22. Current stabilization monitoring system; 221. Electronic electric meter; 222. Voltage stabilizer; 23. PLC error correction module; 24. Power supply module;

[0056] 3. Temperature detection system; 31. Temperature and humidity detection module; 311. Early warning module; 312. File system module; 32. Liquid level detection module; 33. Liquid leakage detection module; 34. Fan speed detection module; 35. Water pump module; 36. Timing module; 4. Data collection system; 41. Cloud processing module; 42. Database module; 421. Broadband transceiver module; 43. Visual webpage module; 44. Bypass receiving module;

[0057] 5. Foundation; 51. Compact the ground; 52. Waterproof layer; 6. Pipeline mechanism; 61. U-shaped connecting pipe; 62. Connecting sleeve; 63. Branch pipeline; 64. Connecting valve;

[0058] 7. Liquid cooling server mechanism; 71. Chassis; 711. Damping bracket; 712. Flip cover; 713. Lock; 714. Buckle;

[0059] 72. Inspection window; 73. 1U server; 74. Access bracket; 75. Integrated access cable; 76. Wiring slot; 77. Slot; 78. Square plywood; 79. Trapezoidal gasket; 791. Return water tank; 792. Connecting seat; 793. U-shaped pipe; 794. Arc sleeve;

[0060] 8. Booster mechanism; 81. Booster pump; 82. Water reservoir; 83. Water pump; 84. Refrigeration main unit. DETAILED DESCRIPTION

[0061] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only 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 ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0062] See also Figure 1 - Fig.11, the present invention provides a technical solution: a liquid cooling server energy management system, comprising a power distribution system 1 for supplying energy to a liquid cooling server, a voltage stabilization system 2 for providing voltage stability, and a temperature detection system 3 for detecting temperature, which is bidirectionally arranged with the voltage stabilization system 2, and the temperature detection system 3 is bidirectionally arranged with the voltage stabilization system 2;

[0063] The power distribution system 1 is composed of a voltage module 11 providing a connection, a main power supply module 12 and a power consumption detection module 13;

[0064] The voltage module 11 and the main power supply module 12 are unidirectionally arranged, and the main power supply module 12 and the power consumption detection module 13 are unidirectionally arranged, and the power distribution system 1 is formed through the voltage module 11;

[0065] The voltage module 11 provides a power supply socket 14 for various types of servers. The power supply socket 14 and the voltage module 11 are unidirectionally arranged, wherein the power supply socket 14 is electrically connected to the power supply end of the server;

[0066] The built-in branch of the voltage stabilization system 2 is also provided with: a frequency conversion and voltage conversion module 21 for providing voltage adaptation, a current stabilization monitoring system 22, a PLC error correction module 23 and a power supply module 24;

[0067] The PLC error correction module 23 is bidirectionally arranged with the steady current monitoring system 22, and the steady current monitoring system 22 is unidirectionally arranged with the variable frequency and voltage conversion module 21, and is used to obtain the supply voltage and interact with the power supply module 24, wherein the steady current monitoring system 22 also includes an electronic meter 221 and a voltage stabilizer 222, and the electronic meter 221 and the voltage stabilizer 222 are both bidirectionally arranged with the PLC error correction module 23;

[0068] The temperature detection system 3 includes a temperature and humidity detection module 31, a liquid level detection module 32, a liquid leakage detection module 33, a fan speed detection module 34, a water pump module 35 and a timing module 36;

[0069] The liquid level detection module 32 and the water pumping module 35 are unidirectionally arranged, while the liquid leakage detection module 33 and the water pumping module 35 are bidirectionally arranged;

[0070] The fan speed detection module 34 and the water pump module 35 are unidirectionally arranged, and the liquid level detection module 32, the water pump module 35, the fan speed detection module 34 and the liquid level detection module 32 are all bidirectionally arranged with the timing module 36 to coordinate the operating frequency of each group of modules in a timely manner;

[0071] The temperature and humidity detection module 31 and the temperature detection system 3 are bidirectionally arranged;

[0072] The temperature and humidity detection module 31 and the timing module 36 are unidirectionally arranged;

[0073] In this embodiment: the temperature and humidity detection module 31 has an early warning module 311 and a file system module 312 integrated in the branch. The early warning module 311 detects temperature and humidity information data, and the file system module 312 collects data;

[0074] The warning module 311 and the file system module 312 are set up bidirectionally.

[0075] The main function of using the early warning module 311 and the file system module 312 is to facilitate the acquisition of data such as fan speed, temperature and liquid level that need to be ensured when some modules are running, so the file system module 312 summarizes and organizes them.

[0076] In this embodiment: the power distribution system 1, the voltage stabilization system 2 and the temperature detection system 3 are controlled by the data collection system 4;

[0077] The data collection system 4 also includes: a cloud processing module 41 for connecting to cloud data, a database module 42 for presenting specific machine operations, a broadband transceiver module 421 for data monitoring, and a bypass receiving module 44.

[0078] The cloud processing module 41 is set up mainly considering that the computer room for operation and maintenance monitoring is huge and it is not convenient for personnel to enter and operate. Therefore, the broadband transceiver module 421 and the bypass receiving module 44 are used for port forwarding to ensure that data can be obtained in the cloud.

[0079] In this embodiment: the cloud processing module 41 and the database module 42 are bidirectionally arranged, wherein the database module 42 includes a visualization webpage module 43 with data information;

[0080] The cloud processing module 41 and the visual web page module 43 are bidirectionally arranged, and the database module 42 and the visual web page 43 are bidirectionally arranged. The bypass receiving module 44 and the database module 42 are bidirectionally arranged to provide Internet connection.

[0081] By adopting the database module 42 and the visual web page module 43, it is ensured that some acquired operation and maintenance information is stored in the database module 42 and called in time, and the visual web page module 43 realizes feedback display of the data again.

[0082] In this embodiment: the data interface of the database module 42 extends the virtual container and is constructed based on the hardware hard disk.

[0083] The bypass receiving module 44 is connected to the database LAN port through a broadband crystal connector.

[0084] The LAN port is used as the basic communication port between the database and each specific Internet.

[0085] A liquid cooling server device, including the above-mentioned liquid cooling server energy management system, in this embodiment: the device includes a foundation 5 for various cooling water tanks to be distributed and placed, a pipeline mechanism 6 for providing cold circulation, a liquid cooling server mechanism 7 and a pressurizing mechanism 8 for centralized pressurization of the cooling liquid;

[0086] The foundation 5 consists of a compacted ground 51, a waterproof layer 52 for preventing moisture and leakage, and bonding bricks. Reinforced concrete aggregates are embedded in the compacted ground 51, and the waterproof layer 52 is evenly arranged on the surface of the reinforced concrete aggregates. Bonding bricks are bonded based on the adhesion of the waterproof layer 52.

[0087] The compacted ground 51 and the waterproof layer 52 are mainly used to provide the load-bearing strength of the reinforced concrete. In addition, the waterproof layer 52 prevents moisture from returning to the ground, improves the power safety of the server itself, and prevents water from entering the equipment.

[0088] In this embodiment: the pipeline mechanism 6 is arranged on the top of the bonding brick and is arranged around the top edge of the waterproof layer 52. The pipeline mechanism 6 includes a plurality of independent distributed pipelines arranged on the top of the compacted ground 51, wherein a U-shaped connecting pipe 61 for bonding is provided in the middle of the top of the distributed pipeline, and a plurality of connecting sleeves 62 are branched on the side wall of the U-shaped connecting pipe 61. A plurality of branch pipelines 63 for providing liquid entry are provided at the end branch parts of the plurality of connecting sleeves 62. The end parts of the branch pipelines 63 are all connected with connecting valves 64 corresponding to the pipes, and a liquid cooling server mechanism 7 is provided at the valve body end position of the connecting valve 64.

[0089] Distributed pipelines are used so that some coolant can be circulated through multiple points and multiple pipelines, so as to increase the water circulation efficiency and reduce the extraction load of the water pump 83.

[0090] In this embodiment: the liquid cooling server mechanism 7 includes a chassis 71 connected to the connection valve 64, two observation windows 72 are embedded in the front surface of the chassis 71, a plurality of 1U servers 73 are built inside the chassis 71, and the plurality of 1U servers 73 are evenly placed inside the chassis 71, wherein an access bracket 74 is provided on the top side of the chassis 71, and a plurality of integrated access cables 75 are respectively arranged in the middle of the top of the access bracket 74, and wiring slots 76 are respectively integrated on the surface of the integrated access cables 75, and the wiring slots 76 are respectively connected to the 1U server panels placed at the corresponding stations;

[0091] The top surface of the access bracket 74 is provided with a plurality of slots 77 in sequence, and a square fitting plate 78 is fitted and installed on the front surface of the plurality of slots 77. A trapezoidal gasket 79 is provided in the middle of the plate surface of the square fitting plate 78, and a reflux water tank 791 for coordination is provided in the middle of the top end of the trapezoidal gasket 79. A searchlight is installed inside the reflux water tank 791, and a connecting seat 792 is connected to the top end of the reflux water tank 791. One end of the connecting seat 792 is sealed and connected to a U-shaped connecting pipe 793, and an arc sleeve 794 is sleeved in the middle of the U-shaped connecting pipe 793.

[0092] The combination of the return water tank 791 and the specific U-shaped pipe 793 promotes the specific water circulation supply, and the arc sleeve 794 ensures the provision of flowing coolant, one is to supply low-temperature coolant in time, and the other is to discharge high-temperature coolant in time.

[0093] In this embodiment: a water volume control valve is provided on the surface of the U-shaped pipe 793, a water volume control valve, a water outlet is provided at one end of the U-shaped pipe 793, one end of the water outlet is connected to the U-shaped connecting pipe 61, and the pipe connection end of the U-shaped pipe 793 forms a circulation loop with the branch pipe 63;

[0094] The boosting mechanism 8 includes a boosting pump 81 connected to the water inlet end of the U-shaped connecting pipe 61, the water inlet of the boosting pump 81 is connected to an external water reservoir 82, the water outlet end of the U-shaped connecting pipe 61 is connected to a water pump 83, and the water outlet of the water pump 83 is connected to the other end of the water reservoir 82.

[0095] The main purpose of the water reservoir 82, water pump 83 and booster pump 81 is to realize internal and external circulation supply of the cooling liquid, and the U-shaped connecting pipe 61 is used for liquid transportation circulation.

[0096] In this embodiment: the outer wall of the water reservoir 82 is equipped with a refrigeration main unit 84, the top side of the chassis 71 is hinged with a damping bracket 711, one end of the damping bracket 711 is provided with a flip cover 712, the surface of the flip cover 712 is provided with a window, and a lock 713 is provided on the side of the flip cover 712, and one end of the lock 713 is respectively engaged with a buckle 714 arranged on the front surface of the chassis 71.

[0097] The adopted lock buckle 713 and the corresponding flip cover 712 facilitate personnel maintenance and play a role in server protection.

[0098] When in use, the personnel first need to open the flip cover 712 to expose the placement port for placing the server, and then put the 1U servers 73 into the chassis 71 in batches after opening it through the damping bracket 711, and then flip it through the pulling state of the chassis 71 itself to support it to a certain angle to prevent it from resetting. At this time, the user can further put the corresponding server into the specified position, and then the personnel again connect the wiring slot 76 set in the area of ​​the access bracket 74, connect the corresponding wiring slot 76 to the integrated access cable 75, so that the designated cable area is tightened again, and one end is integrated to complete the collection and arrangement of the cables, so that the heat is not blocked when it is dissipated;

[0099] After that, the user turns over the upper cover 712 on the cover, and lays it in batches, and connects the circulating cooling pipes: the specific laying process requires first purchasing the factory foundation 5, and laying the reinforced concrete aggregate and bonding bricks based on the surface layer according to the compacted ground 51 of the foundation 5 and the bonding of the waterproof layer 52. After the laying is completed, the personnel can then connect the corresponding pipes to the connecting valve 64 and the branch pipeline 63 so that the cooling coolant can circulate smoothly with the internal space of the chassis 71. The U-shaped connecting pipe 61 is connected to the booster pump 81 and the water pump 83 respectively, and the water outlet of the water pump 83 and the water intake of the booster pump 81 are connected to the water reservoir 82, forming a set of displacement circuits;

[0100] The direction of the liquid at this time:

[0101] First, the water is dispatched from the water reservoir 82 to the water inlet of the booster pump 81, and then the booster pump 81 boosts the pressure and then introduces it into the connecting sleeve 62 from the water outlet to realize the water circulation, and dispatches it to the branch pipeline 63, and then introduces it into the chassis 71, which is filled with coolant. It is combined with the liquid level detection module 32 in the customized system, and stops after sensing the specific set liquid level line. In addition, the machine's own timing module 36 stops after reaching a certain position. This process requires the auxiliary operation and maintenance of the system module;

[0102] Afterwards, the lighting in the box is emitted by the searchlight in the return water tank 791 and then shines through to the inside to make it easier to operate and maintain each server. At this time, the user connects the connecting seat 792 and then adjusts the valve on the arc sleeve 794 accordingly, so that the liquid flow rate is manually controlled;

[0103] The two ends of the U-shaped pipe 793 are connected to the other end of the U-shaped connecting pipe 61 to facilitate water circulation and regularly extract the coolant in the heated state;

[0104] Rapid cooling of the coolant;

[0105] At this time, the extracted coolant will be sent back to the water reservoir 82 by the water pump 83. In addition, an additional cooling host 84 for cooling the water reservoir 82 is turned on by default. After the coolant is cooled again, it will be transported by the booster pump 81 to form a cycle.

[0106] In addition, as a system aspect:

[0107] In this process, the power distribution system 1 is responsible for stabilizing the power supply of each host and the water-cooled chassis, and the voltage module 11 and the main power supply module 12 are combined to stabilize the corresponding voltage to provide power;

[0108] The power consumption is detected by the power consumption detection module 13. The power strip 14 is combined with the liquid cooling server mechanism 7 to provide basic power. The power consumption detection module 13 analyzes the specific power consumption and power consumption. The frequency conversion and voltage conversion module 21 is equivalent to a frequency converter, which is used by subsequent personnel to adjust the voltage when the current is not stable enough.

[0109] Then for some data acquisition and specific UI presentation:

[0110] It is necessary to use the electronic meter 221 to obtain the power consumption of each unit. The temperature and humidity detection module 31 analyzes the humidity of the independent host after integration. In terms of system operation and maintenance, the early warning module 311 monitors the liquid level, leakage and fan speed of some chassis 71 in advance.

[0111] The specific information is obtained by the liquid level detection module 32, the leakage detection module 33, the fan speed detection module 34 and the water pump module 35 respectively, and then archived by the file system module 312 to form a set of tables for reference. The dynamic data presented in such tables are then regularly summarized, collected and packaged uniformly by the timing module 36;

[0112] For better maintenance:

[0113] You can build a system that can be accessed remotely by mobile phone:

[0114] This process is performed by the cloud processing module 41 as remote computing data processing. The visualization web page module 43 can connect the port to the bypass receiving module 44 and complete the construction of the web page database after domain name binding. It only needs to access the web page by the domain name, and obtain the image presented by the visualization web page module 43 through the port to obtain various indicator information of the server.

[0115] The contents not described in detail in this specification belong to the prior art known to professional and technical personnel in the field. Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A liquid cooling server energy management system, comprising a power distribution system (1) for supplying energy to the liquid cooling server, a voltage stabilization system (2) for providing voltage stability, and a temperature detection system (3) for detecting temperature; Features: The power distribution system (1) and the voltage stabilization system (2) are bidirectionally arranged, and the temperature detection system (3) and the voltage stabilization system (2) are bidirectionally arranged; The power distribution system (1) is composed of a voltage module (11) for providing a joint, a main power supply module (12) and an electric quantity detection module (13); The voltage module (11) and the main power supply module (12) are unidirectionally arranged, and the main power supply module (12) and the power consumption detection module (13) are unidirectionally arranged, and a power distribution system (1) is formed through the voltage module (11); The voltage module (11) provides various power supply sockets (14) for supplying the server, the power supply sockets (14) and the voltage module (11) are unidirectionally arranged, and the power supply sockets (14) are electrically connected to the power supply end of the server; The built-in branch of the voltage stabilization system (2) is also provided with: a frequency conversion and voltage conversion module (21) for providing voltage adaptation, a current stabilization monitoring system (22), a PLC error correction module (23) and a power supply module (24); The PLC error correction module (23) is bidirectionally arranged with the steady current monitoring system (22), and the steady current monitoring system (22) is unidirectionally arranged with the variable frequency and voltage conversion module (21), and is used to obtain the supply voltage and interactively combine with the power supply module (24), wherein the steady current monitoring system (22) also includes an electronic meter (221) and a voltage stabilizer (222), and the electronic meter (221) and the voltage stabilizer (222) are both bidirectionally arranged with the PLC error correction module (23); The temperature detection system (3) comprises a temperature and humidity detection module (31), a liquid level detection module (32), a liquid leakage detection module (33), a fan speed detection module (34), a water pump module (35) and a timing module (36); The liquid level detection module (32) and the water pumping module (35) are unidirectionally arranged, while the liquid leakage detection module (33) and the water pumping module (35) are bidirectionally arranged; The fan speed detection module (34) and the water pumping module (35) are unidirectionally arranged, and the liquid level detection module (32), the water pumping module (35), the fan speed detection module (34) and the liquid level detection module (32) are all bidirectionally arranged with the timing module (36) to coordinate the operating frequencies of each group of modules in a timely manner; The temperature and humidity detection module (31) and the temperature detection system (3) are bidirectionally arranged; The temperature and humidity detection module (31) and the timing module (36) are unidirectionally arranged.

2. A liquid cooling server energy management system according to claim 1, characterized in that: The temperature and humidity detection module (31) has an internal branch integrated with an early warning module (311) and a file system module (312), wherein the early warning module (311) detects temperature and humidity information data, and the file system module (312) collects data; The early warning module (311) and the file system module (312) are bidirectionally arranged.

3. A liquid cooling server energy management system according to claim 2, characterized in that: The power distribution system (1), the voltage stabilization system (2) and the temperature detection system (3) are controlled by the data collection system (4); The data collection system (4) also includes: a cloud processing module (41) for connecting to cloud data, a database module (42) for presenting specific machine operations, a broadband transceiver module (421) for data monitoring, and a bypass receiving module (44).

4. A liquid cooling server energy management system according to claim 3, characterized in that: The cloud processing module (41) and the database module (42) are bidirectionally arranged, wherein the database module (42) is provided with a visualization webpage module (43) with data information; The cloud processing module (41) and the visual webpage module (43) are bidirectionally arranged, and the database module (42) and the visual webpage (43) are bidirectionally arranged, wherein the bypass receiving module (44) and the database module (42) are bidirectionally arranged to provide Internet connection.

5. A liquid cooling server energy management system according to claim 4, characterized in that: The data interface of the database module (42) is extended as a virtual container and is constructed based on a hardware hard disk; The bypass receiving module (44) is connected to the database LAN port via a broadband crystal connector.

6. A liquid cooling server device, comprising a liquid cooling server energy management system as described in claims 1 to 5, characterized in that: The equipment includes a foundation (5) for distributing and placing various cooling water tanks, a pipeline mechanism (6) for providing a cold cycle, a liquid cooling server mechanism (7) and a pressurizing mechanism (8) for centrally pressurizing the cooling liquid; The foundation (5) is composed of a compacted ground (51), a waterproof layer (52) for preventing moisture and leakage, and bonding bricks. The compacted ground (51) is embedded with reinforced concrete aggregates. The waterproof layer (52) is evenly arranged on the surface of the reinforced concrete aggregates. The bonding bricks are bonded based on the adhesion of the waterproof layer (52).

7. The liquid cooling server device according to claim 6, characterized in that: The pipeline mechanism (6) is arranged on the top of the bonding brick and is arranged around the top edge of the waterproof layer (52). The pipeline mechanism (6) includes a plurality of independent distributed pipelines arranged on the top of the compacted ground (51), wherein a U-shaped connecting pipe (61) for bonding is provided at the middle of the top of the distributed pipeline, and a plurality of connecting sleeves (62) are provided on the side wall branches of the U-shaped connecting pipe (61). The end branch parts of the plurality of connecting sleeves (62) are provided with a plurality of branch pipelines (63) for providing liquid entry, and the end parts of the branch pipelines (63) are all connected to corresponding pipes with connecting valves (64), and the valve body end position of the connecting valve (64) is provided with a liquid cooling server mechanism (7).

8. The liquid cooling server device according to claim 7, characterized in that: The liquid cooling server mechanism (7) comprises a chassis (71) connected to a connecting valve (64), the front surface of the chassis (71) is embedded with two observation windows (72), the interior of the chassis (71) is built with a plurality of 1U servers (73), the plurality of 1U servers (73) are evenly placed inside the chassis (71), wherein an access bracket (74) is provided on the top side of the chassis (71), a plurality of integrated access cables (75) are respectively arranged in the middle of the top of the access bracket (74), the surfaces of the integrated access cables (75) are respectively integrated with wiring slots (76), and the wiring slots (76) are respectively connected to the 1U server panels placed at the corresponding workstations; The top surface of the access bracket (74) is provided with a plurality of slots (77) in sequence, and a square bonding plate (78) is fitted on the front surface of the plurality of slots (77). A trapezoidal gasket (79) is provided in the middle of the plate surface of the square bonding plate (78), and a return water tank (791) for coordination is provided in the middle of the top of the trapezoidal gasket (79). A searchlight is installed inside the return water tank (791), and a connecting seat (792) is connected to the top of the return water tank (791). One end of the connecting seat (792) is sealed and connected to a U-shaped connecting pipe (793), and an arc sleeve (794) is sleeved in the middle of the U-shaped connecting pipe (793).

9. The liquid cooling server device according to claim 8, characterized in that: A water volume control valve is provided on the surface of the U-shaped pipe (793), and a water volume control valve is provided at one end of the U-shaped pipe (793). One end of the water outlet is integrally connected to the U-shaped connecting pipe (61), and a pipe connection end located at the U-shaped pipe (793) forms a circulation loop with the branch pipe (63); The boosting mechanism (8) comprises a boosting pump (81) connected to the water inlet end of the U-shaped connecting pipe (61); the water inlet of the boosting pump (81) is connected to an external water reservoir (82); the water outlet end of the U-shaped connecting pipe (61) is connected to a water pump (83); the water outlet of the water pump (83) is connected to the other end of the water reservoir (82).

10. The liquid cooling server device according to claim 9, characterized in that: The outer wall of the water reservoir (82) is provided with a refrigeration main unit (84); a damping bracket (711) is hingedly connected to the top side of the chassis (71); a flip cover (712) is provided at one end of the damping bracket (711); a window is provided on the surface of the flip cover (712); a lock (713) is provided on the side of the flip cover (712); one end of the lock (713) is respectively engaged with a buckle (714) provided on the front surface of the chassis (71).

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