Power plant equipment energy efficiency data management server

Abstract

The utility model discloses an energy efficiency data management server for power plant equipment, which comprises a box body, a cooling chamber arranged at the upper part in the box body, an accessory chamber and a liquid supply chamber arranged at the lower part in the box body, a liquid cooling box arranged in the cooling chamber, a ventilation grid plate arranged at the position of the cooling chamber on one side of the box body, and the liquid cooling box used for installing server high-heat elements. The device further comprises a water storage tank, a heat dissipation tank, a cooling bin, a liquid storage sliding box, a lifting driving device and a water conveying pump. The cooling device is reasonable in layout and compact in structure, cooling liquid absorbing heat enters the heat dissipation tank and is initially cooled through the multiple slow flow plates, cooling water in the water storage tank can absorb heat of the spiral water pipe and conduct second-step cooling on the cooling liquid, heat dissipation channels and heat dissipation rib plates are arranged outside the cooling bin, heat exchange can be conducted between the cooling bin and air, and cooling efficiency is improved. Therefore, the cooling liquid is finally cooled, the heat dissipation stability of the server is effectively guaranteed, and the service life is prolonged.

Description

Technical Field

[0001] The utility model relates to the technical field of power plant energy efficiency server equipment, and more specifically, to a power plant equipment energy efficiency data management server. Background Art

[0002] Equipment energy efficiency data management refers to comprehensively, accurately and real-time monitoring, recording, analyzing and optimizing the energy efficiency data generated during the operation of equipment through certain technical means and management methods, so as to improve the energy use efficiency of equipment, reduce energy consumption and costs, and promote sustainable development.

[0003] At present, for the upgrade of the data management system in power plants, its energy efficiency data is collected in real time by using Internet of Things technology, sensors and other devices, including the energy consumption data, operation parameters, etc. of the equipment. The data collection should cover the entire life cycle of the equipment, including installation, commissioning, operation, maintenance and scrapping of the equipment. Then, the collected raw data is cleaned, sorted, classified and stored to ensure the accuracy and integrity of the data, and a dedicated server is used to preprocess, transform and integrate the data to provide reliable data support for subsequent analysis and optimization.

[0004] In the prior art, the data management server is generally placed in the computer room, and the server is cooled by the computer room air conditioner. However, the heat dissipation effect of this method is not good. Therefore, water cooling technology is also added to cool the server. However, with continuous circulation, the coolant will be continuously heated by the high-heat generating components in the server, resulting in low cooling efficiency and unstable cooling function. Summary of the Utility Model

[0005] The purpose of the utility model is to provide a power plant equipment energy efficiency data management server.

[0006] To achieve the above purpose, the technical scheme adopted by the utility model is as follows: a power plant equipment energy efficiency data management server, including a box body, a cooling chamber is arranged in the upper part of the box body, a fitting chamber and a liquid supply chamber are arranged in the lower part of the box body, a liquid cooling box is arranged in the cooling chamber, a ventilation grille is arranged on one side of the box body at the position of the cooling chamber, the liquid cooling box is used for installing the high-heat generating components of the server, and it also includes a water storage tank, a heat dissipation tank, a cooling bin, a liquid storage sliding box, a lifting driving device and a water supply pump;

[0007] At least a pair of clamping grid plates are detachably installed inside the liquid cooling box, and a pair of clamping grid plates are used to suspend and support the high-heat generating components of the server in the middle position inside the liquid cooling box;

[0008] The water storage tank, heat dissipation tank, cooling chamber, and liquid storage sliding box are all installed in the liquid supply chamber. The liquid cooling box, heat dissipation tank, water storage tank, and cooling chamber are sequentially connected and communicated. The inside of the liquid storage sliding box is provided with a coolant chamber and a water chamber. The outside of the heat dissipation tank is evenly provided with multiple heat dissipation fins. On both sides inside the heat dissipation tank, downward-inclined flow retarder plates are respectively and fixedly installed. A spiral water pipe is arranged inside the water storage tank, and both ends of the spiral water pipe are respectively connected and communicated with the heat dissipation tank and the coolant chamber. The bottom of the water storage tank is connected and communicated with the water chamber through a circulating water pipe component;

[0009] On one side of the cooling chamber, multiple outward concave portions are evenly arranged along the axial direction. Radiating rib plates are fixedly installed at the outer ends of the outward concave portions. A heat dissipation channel is formed between adjacent radiating rib plates. The liquid storage sliding box is used for storing volatile liquid. Multiple overflow scraping blocks are evenly and fixedly installed on one side of the liquid storage sliding box. The overflow scraping blocks are used for smearing the volatile liquid on the heat dissipation channel. The lifting drive device is located on one side of the cooling chamber, and the lifting drive device is used for driving the liquid storage sliding box to reciprocate along the height direction of the cooling chamber;

[0010] The water supply pump is used to pump the coolant in the coolant chamber into the liquid cooling box.

[0011] Preferably, liquid outlet holes are respectively formed on the surface of one side of the liquid storage sliding box corresponding to the positions of the heat dissipation channels. Hollow overflow scraping blocks are fixedly installed outside the liquid outlet holes. The cross-sectional size of the overflow scraping block corresponds to the cross-sectional size of the heat dissipation channel. The inside of the overflow scraping block is filled with absorbent sponge. Multiple cotton swabs are evenly inserted outside the overflow scraping block. One end of the cotton swab is in contact with the absorbent sponge. An absorbent layer is arranged outside the overflow scraping block.

[0012] Preferably, the lifting drive device is a lead screw motor. The lead screw motor is fixedly installed on the top of the liquid supply chamber. A protruding block with an integral structure is arranged on one side of the middle part of the liquid storage sliding box. A threaded hole is formed on the protruding block. The screw shaft of the lead screw motor is in fit connection with the threaded hole. Through holes are respectively formed at both ends of the liquid storage sliding box. Slide rods are movably inserted into the through holes, and the upper and lower ends of the slide rods are fixedly installed in the liquid supply chamber.

[0013] Preferably, the circulating water pipe component includes a submersible pump, a water inlet pipe, and a water outlet pipe. Water inlets and water outlets are respectively arranged at both ends of the water chamber. The water inlets and water outlets are respectively connected and communicated with the water storage tank through the water inlet pipe and the water outlet pipe, and a submersible pump is installed on the pipeline of the water inlet. A water separation plate is fixedly installed inside the water chamber at a position between the water inlet and the water outlet.

[0014] Preferably, a filter is fixedly installed on the top of the liquid cooling box. The water outlet end of the water pump is connected and communicated with the filter. A water collecting funnel is fixedly installed inside the liquid cooling box at the position of the water outlet of the filter. A water guiding plate is fixedly installed at one side of one end of the water collecting funnel. The lower end of the water guiding plate is an arc inclined towards the clamping mesh plate.

[0015] Preferably, guide rails are fixedly installed side by side at the top inside the liquid cooling box. Sliders are fixedly installed at both ends of the bottom of the clamping wire mesh plate. The sliders are fixedly connected to the corresponding guide rails by screws. A plurality of U-shaped supporting plates are fixedly installed on the surface of the clamping wire mesh plate, and the U-shaped supporting plates are used to clamp the ends of the high-heat components of the server.

[0016] Preferably, openings are formed in the middle of a plurality of flow buffering plates arranged in the same direction on one side inside the heat dissipation tank. A flap is movably installed at one end inside the opening through a pin shaft, and the flap is used to close the opening. A deflection mechanism is installed on one side outside the heat dissipation tank. A top pushing mechanism is installed at one end of the liquid storage sliding box, and the top pushing mechanism controls the flipping of the flap through the deflection mechanism.

[0017] Preferably, the deflection mechanism includes a device box, a transmission gear and a toothed plate that are the same in number as the flaps. One end of the pin shaft of the flap penetrates outside the heat dissipation tank and is fixedly connected to the corresponding transmission gear. The toothed plate is movably inserted into the device box. The upper tooth groove of the toothed plate meshes with the corresponding transmission gear. The device box is fixedly installed on one side outside the heat dissipation tank. A push plate is arranged inside the device box. One end of the toothed plate is fixedly connected to the push plate. A top column is fixedly installed in the middle of one side of the push plate. One end of the top column movably penetrates outside the device box. A spring is sleeved on the surface of the top column, and the spring is located inside the device box. An irregular socket is vertically formed at the outer end of the top column. The cross section of the irregular socket is in the shape of a horn that is thick at the bottom and narrow at the top. One side of the irregular socket close to the device box is horizontal.

[0018] Preferably, the top pushing mechanism is an L-shaped plug board. One end of the L-shaped plug board is fixedly connected to the liquid storage sliding box. A reflective sheet is fixedly installed at the upper end of the L-shaped plug board. A position sensor is fixedly installed at the top of the liquid supply chamber aligned with the position of the reflective sheet. A temperature sensor is fixedly installed inside the liquid cooling box. The temperature sensor and the position sensor control the start and stop of the submersible pump, the water supply pump and the lifting drive device through a PLC.

[0019] Preferably, a supporting wheel is rotatably installed at a position below the toothed plate outside the heat dissipation tank, and the supporting wheel and the transmission gear roll and clamp the toothed plate.

[0020] Compared with the prior art, the advantages of the present utility model are as follows:

[0021] The utility model has a reasonable layout and a compact structure. The high-heat components of the server are suspended and supported in the middle of the liquid cooling box by a clamping mesh plate. The water supply pump pumps the coolant in the cooling bin into the liquid cooling box. The coolant can absorb the heat dissipated by the components. The coolant after absorbing the heat enters the heat dissipation tank, and is initially cooled through multiple flow retarder plates, and then enters the spiral water pipe. The cooling water in the water storage tank can absorb the heat of the spiral water pipe, thereby cooling the coolant for the second time. Then the coolant enters the coolant cavity of the cooling bin. Since the outside of the cooling bin is provided with heat dissipation channels and heat dissipation rib plates, it can exchange heat with the air, thereby cooling the coolant finally. Thus, the coolant that has undergone three cooling effects is circulated into the liquid cooling box through the water supply pump to continuously cool the components, effectively ensuring the stability of the server heat dissipation and extending the service life. Brief Description of the Drawings

[0022] In order to more clearly illustrate the technical solutions in the embodiments of the present utility model or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the following-described drawings are only some embodiments of the present utility model. For those of ordinary skill in the art, without creative efforts, other drawings can be obtained based on these drawings.

[0023] Figure 1 is a three-dimensional view of the power plant equipment energy efficiency data management server of the present utility model;

[0024] Figure 2 is a cross-sectional view of the power plant equipment energy efficiency data management server of the present utility model;

[0025] Figure 3 is a cross-sectional view of the cooling bin of the present utility model;

[0026] Figure 4 is a partial structural cross-sectional view of the liquid storage sliding box of the present utility model;

[0027] Figure 5 is a cross-sectional view of the heat dissipation tank and the water storage tank of the present utility model;

[0028] Figure 6 is a structural diagram of the clamping mesh plate of the present utility model;

[0029] Figure 7 is a three-dimensional view of the liquid storage sliding box of the present utility model;

[0030] Figure 8 is a structural diagram of another embodiment of the heat dissipation tank of the present utility model;

[0031] Figure 9 is a structural diagram of the deflection mechanism of the utility model;

[0032] Figure 10It is a structural diagram of another embodiment of the flow retarder plate of the present utility model;

[0033] Figure 11 It is Figure 2 an enlarged schematic diagram of the structure at position A in

[0034] Figure 12 It is Figure 3 a sectional view of the structure at B - B in

[0035] In the figure: 100 box body, 101 ventilation grille plate, 102 cooling chamber, 103 accessory chamber, 104 liquid supply chamber, 110 liquid cooling box, 111 clamping mesh plate, 1111 slider, 112 U - shaped support plate, 113 guide rail, 114 temperature sensor, 115 filter, 116 water - collecting funnel, 117 water - guiding plate;

[0036] 120 water storage tank, 121 spiral water pipe, 122 submersible pump, 130 heat dissipation tank, 131 flow retarder plate, 1311 opening, 1312 flap, 132 heat dissipation fins, 140 cooling bin, 141 coolant cavity, 142 water cavity, 1421 water - separating plate, 143 outer concave part, 144 heat dissipation rib plate, 145 heat dissipation channel, 150 liquid storage sliding box, 151 liquid outlet hole, 152 overflow liquid scraping block, 153 water - absorbing sponge, 154 water - absorbing layer, 155 cotton swab, 156 protruding block, 157 threaded hole, 160 lifting drive device, 170 water supply pump, 180 deflection mechanism, 181 device box, 182 transmission gear, 183 rack, 184 supporting wheel, 185 ejector post, 1851 special - shaped socket, 186 push plate, 187 spring, 188 position sensor, 190 pushing mechanism, 191 L - shaped top plate. Specific embodiments

[0037] The following combines the attached drawings to elaborate on the preferred embodiments of the present utility model, so that the advantages and features of the present utility model can be more easily understood by those skilled in the art, thereby making the protection scope of the present utility model more clearly defined.

[0038] Refer to Figure 1 and Figure 2As shown in the figure, the utility model provides an energy efficiency data management server for power plant equipment, which includes a box body 100. An upper part inside the box body 100 is provided with a cooling chamber 102, and a lower part inside the box body 100 is provided with a fitting chamber 103 and a liquid supply chamber 104. The fitting chamber 103 is used for placing tools or server components and hardware with low heat release and no need for heat dissipation. A liquid cooling box 110 is arranged inside the cooling chamber 102. The liquid cooling box 110 is a box-shaped structure with high sealing performance in the prior art. One side of it is provided with a transparent window, which can facilitate the staff to observe the internal situation. The coolant filled inside the liquid cooling box 110 can be silicone oil or fluorinated liquid in the prior art. A ventilation grille 101 is arranged on one side of the box body 100 at the position of the cooling chamber 101. The ventilation grille 101 is used to meet the normal ventilation requirements of the cooling chamber 102. The liquid cooling box 110 is used for installing server high-heat components. The server high-heat components are CPU, GPU and some modules that are prone to generate high heat during the working process, and most of them are concentrated on the circuit board. To improve the heat dissipation efficiency of the liquid cooling box 110, the utility model further includes a water storage tank 120, a heat dissipation tank 130, a cooling bin 140, a liquid storage sliding box 150, a lifting driving device 160 and a water supply pump 170;

[0039] To ensure that the server high-heat components can fully contact the coolant in the liquid cooling box 110, at least a pair of clamping mesh plates 111 are detachably installed inside the liquid cooling box 110. The clamping mesh plates 111 are made of corrosion-resistant metal mesh structure, which can ensure that the coolant can flow through normally. A pair of the clamping mesh plates 111 are used to suspend and support the server high-heat components at the middle position inside the liquid cooling box 110, ensuring that the server high-heat components can contact the coolant in all directions and improving the heat exchange efficiency of the coolant to the server high-heat components;

[0040] Refer to Figure 5As shown, further, the water storage tank 120, the heat dissipation tank 130, the cooling chamber 140, and the liquid storage sliding box 150 are all installed in the liquid supply chamber 104. The liquid cooling box 110, the heat dissipation tank 130, the water storage tank 120, and the cooling chamber 140 are sequentially connected and communicated with each other. Inside the liquid storage sliding box 150, there are a coolant cavity 141 and a water cavity 142. The coolant cavity 141 and the water cavity 142 are respectively located at the upper and lower ends inside the liquid storage sliding box 150. The coolant cavity 141 is used for storing coolant, and the water cavity 142 is used for storing cooling water. A plurality of heat dissipation fins 132 are evenly arranged on the outside of the heat dissipation tank 130. On both sides inside the heat dissipation tank 130, downwardly inclined flow retarder plates 131 are respectively fixedly installed. The flow retarder plates 131 can reduce the flow rate of the coolant flowing from the liquid cooling box 110 into the heat dissipation tank 130, ensuring that the coolant after absorbing heat can exchange heat and be cooled on the flow retarder plates 131, initially cooling the coolant. To further reduce the temperature of the coolant flowing out of the heat dissipation tank 130, a spiral water pipe 121 is arranged in the water storage tank 120. Both ends of the spiral water pipe 121 are respectively connected and communicated with the heat dissipation tank 130 and the coolant cavity 141. The bottom of the water storage tank 120 is connected and communicated with the water cavity 142 through a circulating water pipe component. The cooling water in the water cavity 142 can exchange heat with the spiral water pipe 121, thereby reducing the temperature of the coolant in the spiral water pipe 121;

[0041] Refer to Figure 3 As shown, to further cool the coolant and the cooling water, a plurality of outwardly concave portions 143 are evenly arranged along the axial direction on one side of the cooling chamber 140. Radiating rib plates 144 are fixedly installed at the outer ends of the outwardly concave portions 143. A heat dissipation channel 145 is formed between adjacent radiating rib plates 144. The liquid storage sliding box 150 is used for storing volatile liquid. A plurality of overflow scraping blocks 152 are evenly and fixedly installed on one side of the liquid storage sliding box 150. The overflow scraping blocks 152 are used for smearing the volatile liquid on the heat dissipation channel 145. The lifting drive device 160 is located on one side of the cooling chamber 140. The lifting drive device 160 is used for driving the liquid storage sliding box 150 to reciprocate along the height direction of the cooling chamber 140. When the liquid storage sliding box 150 moves up and down, the overflow scraping blocks 152 smear the volatile liquid on the heat dissipation channel 145. The volatile liquid absorbs heat and volatilizes on the heat dissipation channel 145, thereby taking away the heat and reducing the temperature of the coolant and the cooling water in the cooling chamber 140. It should be noted that the liquid stored in the liquid storage sliding box 150 is a volatile flame-retardant liquid, such as a diluted alcohol solution. To ensure that the liquid can overflow normally and facilitate the addition of the volatile liquid, a liquid inlet joint and an adjusting air valve are installed on the liquid storage sliding box 150;

[0042] The water supply pump 170 is installed in the cooling chamber 102. The water inlet end and the water outlet end of the water supply pump 170 are respectively connected and communicated with the coolant cavity 141 and the liquid cooling box 110 through pipes, so as to pump the coolant in the coolant cavity 141 into the liquid cooling box 110.

[0043] Refer to Figure 4 and Figure 7 As shown, in this embodiment, to ensure that the liquid storage sliding box 150 can evenly apply the volatile liquid stored inside on the heat dissipation channel 145, liquid outlet holes 151 are provided on one side surface of the liquid storage sliding box 150 corresponding to the position of the heat dissipation channel 145. A hollow overflow scraping block 152 is fixedly installed outside the liquid outlet holes 151. The cross-sectional dimension of the overflow scraping block 152 corresponds to the cross-sectional dimension of the heat dissipation channel 145. A water-absorbing sponge 153 is filled inside the overflow scraping block 152. A plurality of cotton swabs 155 are evenly inserted outside the overflow scraping block 152. One end of the cotton swab 155 is in contact with the water-absorbing sponge 153. An absorbent layer 154 is provided outside the overflow scraping block 152, and the absorbent layer 154 can evenly apply the volatile liquid on the heat dissipation channel 145.

[0044] In this embodiment, the lifting drive device is a lead screw motor. The lead screw motor is fixedly installed on the top of the liquid supply chamber 104. A protruding block 156 with an integral structure is provided on one side of the middle of the liquid storage sliding box 150. A threaded hole 157 is provided on the protruding block 156. The screw shaft of the lead screw motor is in fit connection with the threaded hole 157. The lower end of the screw shaft of the lead screw motor is installed on the inner bottom of the liquid supply chamber 104 through a bearing sleeve. When the lead screw motor is started, the liquid storage sliding box 150 can move along the length direction of the threaded shaft. Through holes are provided at both ends of the liquid storage sliding box 150, and sliding rods are movably inserted into the through holes. The upper and lower ends of the sliding rods are fixedly installed inside the liquid supply chamber 104 to ensure the stability of the lifting of the liquid storage sliding box 150.

[0045] Refer to Figure 12 As shown, in this embodiment, to ensure that the cooling water can circulate between the water cavity 142 and the water storage tank 120, the circulating water pipe assembly includes a submersible pump 122, a water inlet pipe, and a water outlet pipe. An inlet and an outlet are respectively provided at both ends of the water cavity 142. The inlet and the outlet are respectively connected to the water storage tank 120 through the water inlet pipe and the water outlet pipe, and a submersible pump 122 is installed on the pipeline of the inlet. A partition plate 1421 is fixedly installed inside the water cavity 142 at a position between the inlet and the outlet.

[0046] Refer to Figure 11As shown, in this embodiment, a filter 115 is fixedly installed on the top of the liquid cooling box 110. A filter element for filtering the coolant is provided inside the filter 115. The water outlet end of the water pump 170 is connected to the filter 115 in a communicating manner. A water collecting funnel 116 is fixedly installed inside the liquid cooling box 110 at the position of the lower water outlet of the filter 115. One side of one end of the water collecting funnel 116 is fixedly installed with a water guiding plate 117. The lower end of the water guiding plate 117 is an arc-shaped inclined towards the clamping mesh plate 111. The water collecting funnel 116 is in the shape of a funnel with a wide upper part and a narrow lower part, which can increase the water flow rate. When the coolant is discharged, the coolant impacts the arc-shaped lower end of the water guiding plate 117, which can increase the flow rate of the coolant in the liquid cooling box 110, enabling the coolant to flow towards the position of the high-heat element and increasing the heat exchange efficiency of the coolant.

[0047] Refer to Figure 6 As shown, for the convenience of adjusting the position of the clamping mesh plate 111, in this embodiment, guide rails 113 are fixedly installed side by side on the inner top of the liquid cooling box 110. Sliders 1111 are fixedly installed at both ends of the bottom of the clamping mesh plate 111. The sliders 1111 can be slidably connected to the guide rails 113. At the same time, the sliders 1111 can be fixedly connected to the corresponding guide rails 113 by screws. A plurality of U-shaped support plates 112 are fixedly installed on the surface of the clamping mesh plate 111. The U-shaped support plates 112 are used to clamp the ends of the high-heat elements of the server, so as to be able to adapt to the installation work of circuit boards with different lengths and widths.

[0048] Refer to Figure 8 and Figure 10 As shown, the present utility model also provides a structure capable of adjusting the speed of the coolant flowing into the spiral water pipe 121 on the flow control plate 131. Specifically, in this embodiment, openings 1311 are formed in the middle of a plurality of flow control plates 131 arranged in the same direction on one side inside the heat dissipation tank 130. One end inside the opening 1311 is movably installed with a flap 1312 through a pin shaft. The flap 1312 is used to close the opening 1311. A deflection mechanism 180 is installed on one side outside the heat dissipation tank 130. A pushing mechanism 190 is installed at one end of the liquid storage sliding box 150. The pushing mechanism 190 controls the flipping of the flap 1312 through the deflection mechanism 180. When the flap 1312 is flipped up, the opening 1311 can be exposed, so that the coolant can directly flow into the spiral water pipe 121 through the opening 1311 quickly, improving the flow rate.

[0049] Refer to Figure 9As shown, in this embodiment, the deflection mechanism 180 includes a device box 181, a transmission gear 182 and a toothed plate 183 that are equal in number to the number of the flap 1312. One end of the pin shaft of the flap 1312 penetrates through the outside of the heat dissipation tank 130 and is fixedly connected to the transmission gear 182 at the corresponding position. The toothed plate 183 is movably inserted into the device box 181. The upper tooth groove of the toothed plate 183 meshes with the corresponding transmission gear 182. The device box 181 is fixedly installed on one side outside the heat dissipation tank 130. A push plate 186 is arranged in the device box 181. One end of the toothed plate 183 is fixedly connected to the push plate 186. A top column 185 is fixedly installed in the middle of one side of the push plate 186. One end of the top column 185 movably penetrates through the outside of the device box 181. A spring 187 is sleeved on the surface of the top column 185. The spring 186 is located in the device box 181. An irregular socket 1851 is vertically opened at the outer end of the top column 185. The cross section of the irregular socket 1851 is in the shape of a horn that is thick at the bottom and narrow at the top. One side of the irregular socket 185 close to the device box 181 is horizontal.

[0050] In this embodiment, the pushing mechanism 190 is an L-shaped insertion plate 191. One end of the L-shaped insertion plate 191 is fixedly connected to the liquid storage sliding box 150. A reflecting sheet is fixedly installed at the upper end of the L-shaped insertion plate 191. A position sensor 188 is fixedly installed at the top of the liquid supply chamber 104 aligned with the position of the reflecting sheet. A temperature sensor 114 is fixedly installed inside the liquid cooling box 110. The temperature sensor 114 and the position sensor 188 control the start and stop of the submersible pump 122, the water supply pump 170 and the lifting drive device 160 through a PLC.

[0051] In this embodiment, a supporting wheel 184 is rotatably installed at a position below the toothed plate 183 outside the heat dissipation tank 130. The supporting wheel 184 and the transmission gear 182 roll and clamp the toothed plate 183.

[0052] The specific operation steps are as follows: A pair of clamping mesh plates 111 suspend and support the high-heat components of the server in the middle of the liquid cooling box 110. When the temperature sensor 114 detects that the components are operating at low heat, the water supply pump 170 pumps the coolant in the cooling chamber 140 into the liquid cooling box 110. The coolant can absorb the heat dissipated by the components. The coolant after absorbing the heat enters the heat dissipation tank 130 and undergoes initial cooling through multiple flow retarder plates 130, and then enters the spiral water pipe 121. The cooling water in the water storage tank 120 can absorb the heat of the spiral water pipe 121, thereby performing the second cooling on the coolant. Then the coolant enters the coolant chamber 141 of the cooling chamber 140. Since the outside of the cooling chamber 140 is provided with a heat dissipation channel 145 and heat dissipation ribs 144, it can exchange heat with the air, thereby performing the final cooling on the coolant. Thus, the coolant that has undergone three cooling effects is circulated into the liquid cooling box 110 through the water supply pump 170 to continuously cool the components;

[0053] When the temperature sensor 114 detects that the component is operating at high power and high heat, it is necessary to increase the flow rate of the coolant in the liquid cooling box 110. The temperature sensor 114 starts the lead screw motor through the PLC. The lead screw motor drives the liquid storage sliding box 150 to move, so that the overflow scraping block 152 smears the volatile liquid on the heat dissipation channel 145. The volatile liquid absorbs heat and volatilizes on the heat dissipation channel 145, thereby taking away the heat. Compared with heat exchange by natural wind, this method can further reduce the temperature of the coolant and cooling water in the cooling bin 140, thereby improving the cooling effect. At the same time, the position sensor 188 detects the position of the L-shaped top plate 191, so that the PLC controls the liquid storage sliding box 150 to move to the position of the device box 181. At this time, the L-shaped top plate 191 will insert into the special-shaped socket 1851, thereby pushing the top column 185 to move into the device box 181. At this time, the toothed plate 183 will drive the transmission gear 182 to rotate, causing the flap 1312 to flip, exposing the opening 1311, so that the coolant can directly flow into the spiral water pipe 121 through the opening 1311 quickly, increasing the flow rate, ensuring that under the premise of the PLC increasing the power of the water supply pump 170, the coolant can continuously circulate in the water storage tank 120, improving the heat dissipation efficiency.

[0054] Although the embodiments of the present invention have been described in conjunction with the accompanying drawings, the patent owner can make various deformations or modifications within the scope of the appended claims. As long as it does not exceed the protection scope described by the claims of the present invention, it should be within the protection scope of the present invention.

Claims

1. A power plant equipment energy efficiency data management server, comprising a box body, a cooling chamber is provided in the upper part of the box body, an accessory chamber and a liquid supply chamber are provided in the lower part of the box body, a liquid cooling box is provided in the cooling chamber, a ventilation grille is provided on one side of the box body at the position of the cooling chamber, and the liquid cooling box is used to install the server high-heat components, characterized in that: It also includes a water storage tank, a heat dissipation tank, a cooling bin, a liquid storage slide box, a lifting drive device and a water delivery pump; At least one pair of clamping mesh plates are detachably installed inside the liquid cooling box, and the pair of clamping mesh plates are used to suspend and support the high-heat components of the server in the middle of the liquid cooling box; The water storage tank, heat sink, cooling bin and liquid storage slide box are all installed in the liquid supply room, the liquid cooling box, heat sink, water storage tank and cooling bin are connected in sequence, a cooling liquid cavity and a water cavity are arranged inside the liquid storage slide box, a plurality of heat sink fins are evenly arranged outside the heat sink, downwardly inclined slow flow plates are fixedly installed on both sides of the heat sink, a spiral water pipe is arranged inside the water storage tank, and both ends of the spiral water pipe are connected to the heat sink and the cooling liquid cavity respectively, and the bottom of the water storage tank is connected to the water cavity through a circulating water pipe fitting; One side of the cooling bin is evenly provided with a plurality of external concave portions along the axial direction, and a heat dissipation rib is fixedly installed on the outer end of the external concave portion, and a heat dissipation channel is formed between adjacent heat dissipation ribs. The liquid storage slide box is used to store volatile liquid, and one side of the liquid storage slide box is evenly fixedly provided with a plurality of overflow scrapers, and the overflow scrapers are used to apply the volatile liquid on the heat dissipation channel. The lifting drive device is located on one side of the cooling bin, and the lifting drive device is used to drive the liquid storage slide box to reciprocate along the height direction of the cooling bin; The water supply pump is used to pump the coolant in the coolant cavity into the liquid cooling box.

2. A power plant equipment energy efficiency data management server according to claim 1, characterized in that: A liquid outlet hole is provided on the surface of one side of the liquid storage slide box corresponding to the position of the heat dissipation channel, a hollow overflow scraper block is fixedly installed outside the liquid outlet hole, the cross-sectional size of the overflow scraper block corresponds to the cross-sectional size of the heat dissipation channel, the overflow scraper block is filled with a water-absorbing sponge, and a plurality of cotton swabs are evenly inserted outside the overflow scraper block, one end of the cotton swab is in contact with the water-absorbing sponge, and a water-absorbing layer is provided outside the overflow scraper block.

3. The power plant equipment energy efficiency data management server according to claim 1, characterized in that: The lifting drive device is a screw motor, which is fixedly installed on the top of the liquid supply chamber. A protruding block of an integral structure is provided on one side of the middle part of the liquid storage slide box, and a threaded hole is provided on the protruding block. The screw shaft of the screw motor is matched and connected with the threaded hole. Through holes are provided at both ends of the liquid storage slide box, and a sliding rod is movably inserted in the through hole. The upper and lower ends of the sliding rod are fixedly installed in the liquid supply chamber.

4. The power plant equipment energy efficiency data management server according to claim 3, characterized in that: The circulating water pipe fittings include a submersible pump, a water inlet pipe and a water outlet pipe. A water inlet and a water outlet are respectively provided at both ends of the water chamber. The water inlet and the water outlet are respectively connected to the water storage tank through the water inlet pipe and the water outlet pipe, and a submersible pump is installed on the pipe of the water inlet. A water baffle is fixedly installed inside the water chamber between the water inlet and the water outlet.

5. The power plant equipment energy efficiency data management server according to claim 1, characterized in that: A filter is fixedly installed on the top of the liquid cooling box, the water outlet end of the water pump is connected to the filter, a water funnel is fixedly installed at the water outlet of the filter inside the liquid cooling box, a water guide plate is fixedly installed on one end of the water funnel, and the lower end of the water guide plate is an arc-shaped arc inclined toward the clamping mesh plate.

6. The power plant equipment energy efficiency data management server according to claim 1, characterized in that: Guide rails are fixedly installed side by side on the top of the liquid cooling box, and sliders are fixedly installed at both ends of the bottom of the clamping mesh. The sliders are fixedly connected to the guide rails at corresponding positions by screws. A plurality of U-shaped support plates are fixedly installed on the surface of the clamping mesh, and the U-shaped support plates are used to clamp the ends of the high-heat components of the server.

7. The power plant equipment energy efficiency data management server according to claim 4, characterized in that: A plurality of slow flow plates arranged in the same direction on one side of the interior of the heat sink are all provided with openings in the middle, a flap is movably installed at one end of the opening through a pin shaft, and the flap is used to close the opening, a deflection mechanism is installed on one side of the exterior of the heat sink, and a pushing mechanism is installed at one end of the liquid storage slide box, and the pushing mechanism controls the flipping of the flap through the deflection mechanism.

8. A power plant equipment energy efficiency data management server according to claim 7, characterized in that: The deflection mechanism includes a device box and a transmission gear and a tooth plate with the same number as the flaps, one end of the pin shaft of the flap passes through the outside of the heat sink and is fixedly connected to the transmission gear at the corresponding position, the tooth plate is movably inserted in the device box, and the upper tooth groove of the tooth plate is meshed with the corresponding transmission gear, the device box is fixedly installed on one side of the outside of the heat sink, a push plate is provided in the device box, one end of the tooth plate is fixedly connected to the push plate, a top column is fixedly installed in the middle of one side of the push plate, one end of the top column movably passes through the outside of the device box, a spring is sleeved on the surface of the top column, the spring is located in the device box, and a special-shaped socket is vertically opened at the outer end of the top column, the cross-section of the special-shaped socket is a trumpet-shaped socket that is thick at the bottom and narrow at the top, and the side of the special-shaped socket close to the position of the device box is horizontal.

9. A power plant equipment energy efficiency data management server according to claim 8, characterized in that: The pushing mechanism is an L-shaped plug plate, one end of which is fixedly connected to the liquid storage slide box, a reflective sheet is fixedly installed on the upper end of the L-shaped plug plate, a position sensor is fixedly installed on the top of the liquid supply chamber aligned with the position of the reflective sheet, and a temperature sensor is fixedly installed inside the liquid cooling box. The temperature sensor and the position sensor control the start and stop of the submersible pump, the water supply pump and the lifting drive device through PLC.

10. The power plant equipment energy efficiency data management server according to claim 8, characterized in that: A supporting wheel is rotatably mounted on the outside of the heat dissipation tank below the tooth plate, and the supporting wheel and the transmission gear rollably clamp the tooth plate.

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