Data server system based on numerical simulation

Abstract

The invention discloses a data server system based on numerical simulation, and relates to the field of aeronautical data analysis, two sides of a data cabinet body are both provided with fire extinguishing assemblies, two sides of the data cabinet body symmetrical along a longitudinal axis are both provided with grooves, the plurality of grooves are linearly and uniformly distributed along the longitudinal axis of the data cabinet body, and the data cabinet body is provided with a plurality of fire extinguishing assemblies. The data cabinet body is fixedly connected with a plurality of cooling fans, the cooling fans correspond to the grooves, and the interiors of the grooves are each slidably connected with a sealing assembly. The data cabinet has the advantages that the spray head can rotate by 360 degrees without a dead angle to extinguish fire in the data cabinet body, fluoride can be filtered by multiple layers of filtering assemblies through the filtering assemblies and the spraying assemblies, and the filtering assemblies can operate normally no matter which layer of the data cabinet body is on fire; and through mutual cooperation of the limiting assembly and the spraying assembly, each layer can extinguish fire independently, accurate fire extinguishment is achieved, and the fire extinguishment efficiency is improved.

Description

Technical Field

[0001] The invention relates to the field of aviation data analysis, in particular to a data server system based on numerical simulation. Background Art

[0002] Aviation CFD (Computational Fluid Dynamics) numerical simulation refers to the use of computers to simulate the flow of fluids on and around aircraft surfaces. This simulation can help engineers understand the aerodynamic performance of aircraft under different speeds, altitudes and airflow conditions, as well as optimize design and improve flight performance. These numerical simulations require the use of data cabinets for storage, which can efficiently support big data processing and calculations.

[0003] When a short circuit occurs in a current big data storage cabinet, a fire will occur, which will burn the servers in the central cabinet. However, the current fire extinguishing method is simply manual fire extinguishing, which cannot achieve accurate fire extinguishing. Moreover, perfluorohexanone will produce fluoride after extinguishing the fire. These fluorides will flow into the air, which will affect human health after inhalation, and will also cause damage to the environment. Summary of the invention

[0004] In view of the deficiencies in the prior art, the present invention provides a data server system based on numerical simulation, which solves the problems raised in the above background technology.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions: a data server system based on numerical simulation, including a data cabinet body, fire extinguishing components are arranged on both sides of the data cabinet body, grooves are arranged on both sides of the data cabinet body symmetrically along the longitudinal axis, and several of the grooves are uniformly distributed linearly along the longitudinal axis of the data cabinet body, several cooling fans are fixedly connected to the data cabinet body, the cooling fans correspond to the grooves, and a sealing component is slidably connected inside the several grooves, several partitions are fixedly connected inside the data cabinet body, and several of the partitions are linearly distributed along the longitudinal axis of the large data cabinet body, ventilation slots are arranged on both sides of the data cabinet body, the cooling fans overlap the ventilation slots, filter components are installed inside several of the sealing components, and several of the sealing components are connected to each other, two groups of spraying components are arranged inside the data cabinet body, the two groups of spraying components are symmetrically distributed along the longitudinal axis of the data cabinet body, two output pipes of the fire extinguishing components overlap with the corresponding spraying components, and two groups of exhaust components are fixedly connected to the top of the data cabinet body, and the exhaust components are connected to the sealing components; The spray assembly includes a plurality of connecting pipes, and the plurality of connecting pipes are distributed in a linear array along the longitudinal axis of the data cabinet body. A connecting shaft is rotatably connected between the plurality of connecting pipes, and the connecting shaft is fixed inside the corresponding partition. Two nozzles are fixedly connected to the outer surfaces of the plurality of connecting pipes, and the two nozzles are symmetrically distributed along the longitudinal axis of the connecting pipe. A limiting assembly is sleeved on the outer surface of the nozzle, and the connecting pipe close to the fire extinguishing assembly is overlapped with the fire extinguishing assembly through the connecting shaft, and the connecting shaft is fixedly connected to the fire extinguishing assembly.

[0006] The present invention has the following beneficial effects: In the present invention, the perfluorohexanone in the fire extinguisher drives the fan blades and the connecting pipe to rotate, so that the nozzle can rotate 360 ​​degrees without dead angles, extinguish the fire inside the data cabinet body, improve the fire extinguishing efficiency, and layer the data cabinet body through the partition. No matter which layer of the data cabinet body starts to catch fire, only the first pull rope on the burning layer is burned off. By burning the first pull rope, the sealing sleeve is taken away by the tension of the stretching spring, so that each layer can be extinguished separately. For the layer that is not on fire, because the first pull rope is not burned off, the limit ring cannot be separated from the fan blade, the fan blade cannot be extended, and the stretching spring cannot drive the sealing sleeve to move upward. There is a sealing sleeve on the nozzle for sealing, and perfluorohexanone cannot be sprayed out from the nozzle. In this case, the perfluorohexanone will directly flow from the connecting pipe into the connecting pipe below. If multiple layers are on fire, the present invention is also the same as the above steps. The present invention realizes accurate fire extinguishing of each layer through the above steps, thereby improving the fire extinguishing efficiency.

[0007] The airbags in the present invention are connected through an air transmission tube, and there is air in the air transmission tube. No matter which airbag among the several airbags is squeezed by the rotating component, the gas in the airbag will push the gas in the air transmission tube. After the gas in the air transmission tube is pushed, the gas will be transported to the corresponding airbag. At this time, the cavity is filled with gas and begins to squeeze the middle of the filter tank. When the airbag is no longer squeezed by the rotating component, all the gas begins to flow back into the airbag, and the filter tank returns to a normal state. When the arc plate rotates to the side of the airbag again, the airbag is squeezed again. Through the above steps, the multi-layer filter assembly can filter fluoride, and it is also ensured that the filter assembly can operate normally no matter which layer of the data cabinet body is on fire. The filtered air is discharged from the data cabinet body. The present invention solves the problem that fluoride flows into the air and affects people's health after inhalation by filtering fluoride, and also causes damage to the environment. BRIEF DESCRIPTION OF THE DRAWINGS

[0008] Figure 1 It is a schematic diagram of the first cross-sectional structure inside the data cabinet body of the present invention; Figure 2 For the present invention Figure 1 A schematic diagram of the enlarged structure at A in the middle; Figure 3 For the present invention Figure 1 A schematic diagram of the enlarged structure at B in the middle; Figure 4 It is a second cross-sectional structural schematic diagram of the interior of the data cabinet body of the present invention; Figure 5 For the present invention Figure 4 A is an enlarged structural diagram; Figure 6 For the present invention Figure 4 The enlarged structural diagram at B in FIG. Figure 7 For the present invention Figure 4 The enlarged structural diagram at C in FIG. Figure 8 This is a first structural schematic diagram of the interior of the data cabinet body of the present invention; Fig. 9 For the present invention Figure 8 A schematic diagram of the enlarged structure at A in the middle; Fig.10 It is a second structural schematic diagram of the interior of the data cabinet body of the present invention; Fig.11 For the present invention Fig.10 Schematic diagram of the enlarged structure at point A in the middle.

[0009] Among them, 1. data cabinet body; 101. solenoid valve; 102. fire extinguishing assembly; 103. partition; 104. fixed box; 105. fire extinguisher; 106. groove; 107. cooling fan; 108. ventilation slot; 2. spray assembly; 201. connecting pipe; 202. connecting shaft; 203. nozzle; 204. sealing sleeve; 205. limit ring; 206. second limit piece; 207. second pull rope; 208. tension spring; 209. fan blade; 2 10. First pull rope; 211. Limiting assembly; 212. First limiting plate; 3. Sealing assembly; 301. Sealing plate; 302. Telescopic hose; 303. Third pull rope; 4. Rotating assembly; 401. Connecting ring; 402. Straight plate; 403. Curved plate; 5. Filter assembly; 501. Filter tank; 502. Exhaust pipe; 503. Air bag; 504. Cavity; 505. Air transfer tube; 6. Exhaust assembly; 601. Exhaust pipe; 602. Exhaust pump. DETAILED DESCRIPTION

[0010] 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.

[0011] See also Figure 1-11 As shown, a data server system based on numerical simulation includes a data cabinet body 1. A temperature sensor is installed inside the data cabinet body 1 of the present invention. When a fire occurs, the temperature sensor senses that the temperature becomes high and transmits a signal to the controller. The controller cuts off the power supply of the data cabinet body 1 to prevent the fire from spreading further. The temperature sensor is a prior art, and the sensing temperature of the temperature sensor is known to those skilled in the art. Fire extinguishing components 102 are provided on both sides of the data cabinet body 1. Grooves 106 are provided on both sides of the data cabinet body 1 symmetrically along the longitudinal axis. The grooves 106 are uniformly distributed along the longitudinal axis of the data cabinet body 1. A plurality of cooling fans 107 are fixedly connected to the data cabinet body 1. The cooling fans 107 correspond to the grooves 106. A sealing component 3 is slidably connected to the interior of the data cabinet body 1. A plurality of partitions 103 are fixedly connected to the interior of the data cabinet body 1. The plurality of partitions 103 are linearly distributed along the longitudinal axis of the data cabinet body 1. Ventilation slots 108 are provided on both sides of the data cabinet body 1. The grooves 106 are connected to the ventilation slots 108. 3 are all equipped with filter components 5, several sealing components 3 are interconnected, two groups of spray components 2 are arranged inside the data cabinet body 1, the two groups of spray components 2 are symmetrically distributed along the longitudinal axis of the data cabinet body 1, two fire extinguishing components 102 output pipes are overlapped with the corresponding spray components 2, two groups of exhaust components 6 are fixedly connected to the top of the data cabinet body 1, the exhaust components 6 are connected with the sealing components 3, the fire extinguishing components 102 in the present invention are perfluorohexanone fire extinguishing, when the data cabinet body 1 is on fire, the temperature sensor senses the temperature rise inside the data cabinet body 1 and starts to transmit a signal to the controller, the controller opens the solenoid valve 101, and the fire extinguishing component 102 extinguishes the data cabinet body 1, several partitions 103 divide the inside of the data cabinet body 1 into several spaces, each space is equipped with a temperature sensor, and the cooling fan 107 dissipates heat inside the data cabinet body 1, and the sealing component 3 seals the data cabinet body 1 when it is on fire, so that the inside of the data cabinet body 1 is isolated from oxygen, so that the flame cannot burn fully, and the filter component 5 can filter the harmful gas generated by the combustion inside the data cabinet body 1; The spray assembly 2 includes a plurality of connecting pipes 201. The connecting pipes 201 and the nozzles 203 in the present invention are made of polypropylene material. The polypropylene pipe has the characteristics of low density and light weight. The outer surfaces of the connecting pipes 201 and the nozzles 203 are coated with a fireproof coating to prevent the connecting pipes 201 from being ignited by fire. When perfluorohexanone flows into the connecting pipes 201 and the nozzles 203, it will cool them down. Therefore, there is no need to worry about the connecting pipes 201 and the nozzles 203 overheating in the present invention. The plurality of connecting pipes 201 are distributed in a linear array along the longitudinal axis of the data cabinet body 1. A connecting shaft 202 is rotatably connected between the plurality of connecting pipes 201. The plurality of connecting pipes 201 are rotatably connected through the connecting shaft 202. The connecting shaft 202 is fixed inside the corresponding partition 103. The outer surfaces of the plurality of connecting pipes 201 are fixedly connected with two nozzles 203. The two nozzles 203 are symmetrically distributed along the longitudinal axis of the connecting pipe 201. The outer surfaces of the nozzles 203 are A limit assembly 211 is sleeved on the surface, wherein a connecting pipe 201 close to the fire extinguishing assembly 102 is overlapped with the fire extinguishing assembly 102 through a connecting shaft 202. When a fire occurs in the data cabinet body 1 due to a short circuit, the temperature sensor senses that the temperature inside the data cabinet body 1 becomes high, and the temperature sensor starts to transmit a signal to the controller. The controller controls the solenoid valve 101 to open, and perfluorohexanone flows into the connecting pipe 201 and then is sprayed out from the nozzle 203. At this time, when perfluorohexanone enters the connecting pipe 201, its own pressure can drive the fan blades 209 to rotate the connecting pipe 201. When the connecting pipe 201 rotates, it can drive the nozzles 203 on both sides to rotate together. The rotation of the nozzle 203 can extinguish the fire inside the data cabinet body 1 at a 360-degree angle without dead ends, thereby improving the fire extinguishing efficiency. The connecting shaft 202 is fixedly connected to the fire extinguishing assembly 102, and the connecting shaft 202 is rotatably connected to the connecting pipe 201.

[0012] The limiting component 211 includes a sealing sleeve 204, the interior of the sealing sleeve 204 is provided with a through groove adapted to the nozzle 203, the top of the sealing sleeve 204 is fixedly connected to two tension springs 208, the tension spring 208 close to the inner top wall of the data cabinet body 1 is fixedly connected to the inner top wall of the data cabinet body 1, and several other tension springs 208 are fixedly connected to the bottom of the corresponding partition 103, and the bottoms of several sealing sleeves 204 are fixedly connected to two first pull ropes 210, the first pull ropes 210 correspond to the tension springs 208, the two tension springs 208 are symmetrically distributed along the longitudinal axis of the sealing sleeve 204, and one end of the two first pull ropes 210 are fixedly connected There is a first limiting piece 212, one end of the two first limiting pieces 212 is fixedly connected to a second pull rope 207, and the two second pull ropes 207 are fixedly connected to a second limiting piece 206, and the second limiting piece 206 is located inside the connecting tube 201. The sealing sleeve 204, the tension spring 208, the first limiting piece 212, the second limiting piece 206 and the second pull rope 207 in the present invention are all flame-retardant materials to prevent them from being burned by flames. One end of the second pull rope 207 is fixedly connected to the limiting ring 205. In the present invention, the fan blade 209 is reset by the torsion spring installed by itself after rotating upward. The inside of the connecting tube 201 is fixedly connected to a fan The blade 209 is provided with a limiting ring 205 which is sleeved on the blade 209. When the second limiting piece 206 in the present invention is not burned out, it is in a state of being in contact with the inner wall of the connecting tube 201. The limiting position of the second limiting piece 206 can prevent the tension spring 208 from pulling the second pull rope 207 out of the connecting tube 201, causing the limiting ring 205 to be separated from the blade 209. The blade 209 is rotated by the torsion spring. At this time, the first limiting piece 212 is suspended inside the data cabinet body 1. When the inside of the data cabinet body 1 is on fire, the first pull rope 210 will be burned out. After the first pull rope 210 is burned out, it no longer has a supporting force. At this time, the tension spring 208 pulls back the sealing sleeve 204. At this time, the sealing sleeve 204 is The sleeve 204 no longer seals the nozzle. When the first pull rope 210 is burned out, the second pull rope 207 can no longer support it and begins to descend into the connecting tube 201. When the second pull rope 207 descends, it will drive the first limit plate 212 and the second limit plate 206 to move along the moving trajectory of the second pull rope 207. When the first limit plate 212 moves to the outer surface of the connecting tube 201, the second pull rope 207 no longer moves. At this time, the limit ring 205 is no longer under force. The limit ring 205 begins to move downward with the second pull rope 207. At this time, the limit ring 205 no longer limits the fan blades 209, and the fan blades 209 will return to the expanded position through the torsion springs on themselves.

[0013] The sealing assembly 3 includes a sealing plate 301, which slides inside the groove 106. The top and bottom of the sealing plate 301 are fixedly connected to a telescopic hose 302. In the present invention, a solenoid valve is installed on the telescopic hose 302 near the bottom of the data cabinet body 1. When there is no fire inside the data cabinet body 1, the solenoid valve is in a closed state to prevent external oxygen from entering the sealing plate 301 from the telescopic hose 302 to corrode the iron powder. After being corroded by oxygen, it cannot be used normally. The solenoid valve is controlled by a temperature sensor. When the data cabinet body 1 is on fire, the temperature sensor senses the temperature and transmits a signal to the inside of the control box, then the solenoid valve opens. A third pull rope 303 is fixedly connected to one of the sealing plates 301 near the top wall of the data cabinet body 1. In the present invention, the third pull rope 303 can be opened from the sealing plate 301. Figure 1 It can be seen that the third pull rope 303 is limited by a connecting roller, so as to be fixed on the inner bottom wall of the data cabinet body 1, and obtains a supporting force to achieve the effect of lifting the sealing plate 301. Because the third pull rope 303 in the present invention passes through multiple partitions 103 and is fixedly connected to the inner bottom wall of the data cabinet body 1, the third pull rope 303 can be burned no matter which layer of the data cabinet body 1 is on fire, and the sealing plate 301 will fall without a supporting point. One end of the third pull rope 303 passes through the partition 103 and is fixedly connected to the inner bottom wall of the data cabinet body 1. When the interior of the data cabinet body 1 is on fire, the third pull rope 303 will be burned. When the third pull rope 303 is burned, several sealing plates 301 will fall without a support point, and the sealing plate 301 will fall to one side of the cooling fan 107. The sealing plate 107 cuts off the air flow between the cooling fan 301 and the data cabinet body 1, so that the data cabinet body 1 is in a state of being isolated from oxygen. By isolating the oxygen inside the data cabinet body 1, the fire inside the data cabinet body 1 is prevented from spreading. When the sealing plate 301 falls, the telescopic hose 302 will also be extended and retracted. When the sealing plate 301 falls, the telescopic hose 302 at the top will be extended, and the telescopic hose 302 at the bottom will be compressed. The sealing plate 301 and the telescopic hose 302 in the present invention are both made of fire-proof and flame-retardant materials, so they will not be burned by fire.

[0014] The filter assembly 5 includes a filter tank 501 and an air bag 503. The filter tank 501 is fixed inside the sealing plate 301 along the longitudinal axis of the sealing plate 301. The air bag 503 in the present invention is made of silicone rubber. Silicone rubber has the characteristics of high temperature resistance and good elasticity and softness. The outer surface of the air bag 503 is fixedly connected to the inner wall of the data cabinet body 1. The bottom of the filter tank 501 is fixedly connected with a cavity 504. The bottom of the air bag 503 is fixedly connected with an exhaust pipe 502. The other end of the exhaust pipe 502 passes through the sealing plate 301, and the other end of the exhaust pipe 502 is fixedly connected to the bottom of the cavity 504. An air transfer pipe 505 is fixedly connected between several air bags 503. The outer surfaces of several connecting pipes 201 are fixedly connected with a rotating assembly 4. The air transfer tube 505 in the present invention is made of stainless steel, which is resistant to high temperatures. The air transfer tube 505 can be cooled by the sprayed perfluorohexanone. The gas in the airbag 503 can be transmitted to each other through the air transfer tube 505. The air transfer tube 505 connects several airbags 503. The side of the airbag 503 away from the data cabinet body 1 is overlapped with the rotating component 4. The middle part of the filter tank 501 is made of rubber material, so it can be squeezed by the gas. In the present invention, because the airbag 503 and the exhaust pipe 502 are fixedly connected to the sealing plate 301, when the sealing plate 301 descends, the exhaust pipe 502 and the airbag 503 descend together. When the airbag 503 descends to the same horizontal position as the rotating component 4, the sealing plate 301 stops descending. Iron powder is placed inside the filter tank 501. When a fire occurs inside the data cabinet body 1, the oxygen inside the data cabinet body 1 is first extracted through the exhaust assembly 6. Because perfluorohexanone has not been sprayed out at this time, the oxygen flows into the telescopic hose 302 through the exhaust pipe 601, and then flows into the sealing plate 301 from the telescopic hose 302. When the perfluorohexanone flows into the connecting pipe 201, the connecting pipe 201 is driven to rotate by the fan blade 209. The rotation of the connecting pipe 201 drives the rotating assembly 4 to rotate. The rotating assembly 4 squeezes the airbag 503, and the airbag 503 squeezes the gas into the cavity 504. After the gas in the cavity 504 is filled with gas, it will squeeze the bottom of the filter tank 501. The middle part of the squeezed bottom of the filter tank 501 will be lifted up by the gas, and the bottom of the filter tank 501 is located at the bottom of the filter tank 501. The iron powder in the middle of the upper part will be lifted up and fall on both sides of the filter tank 501. When the air in the cavity 504 flows back into the airbag 503, the lifted part begins to fall. While falling, the iron powder on both sides of the filter tank 501 will flow back into the U-shaped groove. The airbag 503 is used to shake the iron powder so that the iron powder can react with oxygen evenly and finally form iron oxide. Because the temperature inside the data cabinet body 1 increases instantly when a fire breaks out, the energy released by the flame increases the temperature of the oxygen inside the data cabinet body 1. The high-temperature oxygen can accelerate the oxidation reaction with the iron powder, allowing the iron powder to quickly form iron oxide powder. When perfluorohexanone is sprayed out from the nozzle 203 to extinguish the fire, the gas generated is sucked into the telescopic hose 302 by the exhaust component 6.The telescopic hose 302 discharges these gases into the sealing plate 301. The iron oxide powder can absorb the fluoride in the gas. The filtered gas is directly discharged from the telescopic hose 302. At this time, the rotating component 4 still squeezes the airbag 503. When the gas flows into the sealing plate 301, the iron oxide powder absorbs the fluoride in the gas. The rotating component 4 squeezes the airbag 503. The gas in the airbag 503 squeezes the bottom of the filter tank 501 to produce a reciprocating up and down movement, causing the iron oxide powder to bump. The iron oxide powder can evenly absorb the fluoride in the gas, thereby improving the filtering effect.

[0015] The rotating assembly 4 includes a rotating connecting ring 401, which is fixedly connected to the outer surface of the connecting tube 201. Two straight plates 402 are fixedly connected to the outer surface of the connecting ring 401. The two straight plates 402 are symmetrically distributed. The other end of the straight plate 402 is fixedly connected to an arc plate 403. The arc plate 403 overlaps the air bag 503. The connecting ring 401 in the present invention rotates under the rotation of the connecting tube 201. The rotation of the connecting ring 401 drives the straight plate 402 and the arc plate 403 to rotate. The arc plate 403 can squeeze the air bag 503 when rotating. The squeezed air bag 503 discharges the gas into the cavity 504. At this time, the gas in the cavity 504 moves the middle part of the filter tank 501 up and down, which plays a bumping role, allowing the iron powder to bump fully and react with oxygen to form iron oxide.

[0016] The exhaust assembly 6 includes an exhaust pipe 601, the output end of the exhaust pipe 601 is fixed on the top of the data cabinet body 1, and the outer surface of the exhaust pipe 601 is fixedly connected to an exhaust pump 602. The exhaust assembly 6 is controlled by a temperature sensor and a controller. When a fire occurs inside the data cabinet body 1 and the internal temperature is too high, the temperature sensor sends a signal to the controller to let the controller turn on the exhaust pump 602. The other end of the exhaust pipe 601 is fixedly connected to the telescopic hose 302. In the present invention, when a fire occurs inside the data cabinet body 1, the gas inside the data cabinet body 1 is exhausted by the exhaust pump 602. When a fire occurs inside the data cabinet body 1, the exhaust pump 602 first extracts the oxygen inside the data cabinet body 1. When the perfluorohexanone spray is sprayed from the nozzle 203 to extinguish the fire, the exhaust pump 602 first extracts the oxygen inside the data cabinet body 1. After the fire, the vacuum pump 602 extracts the gas generated after the perfluorohexanone fire is extinguished. The gas flows into the telescopic hose 302 through the vacuum pipe 601. The telescopic hose 302 discharges the gas into the sealing plate 301. The iron oxide in the sealing plate 301 adsorbs and filters the fluoride in the gas. In the present invention, a solenoid valve is installed on the vacuum pipe 601. The solenoid valve prevents oxygen from flowing from the vacuum pipe 601 into the telescopic hose 302 when the vacuum assembly 6 is not working, and then flows into the sealing plate 301, and finally contacts with the iron oxide powder in the filter tank 501, causing the iron powder to be corroded. The solenoid valve is controlled by a temperature sensor. When the fire temperature sensor inside the data cabinet body 1 senses the temperature height and transmits a signal to the inside of the control box, the solenoid valve opens.

[0017] The fire extinguishing assembly 102 includes a fire extinguisher 105 and a fixed box 104. Perfluorohexanone is stored in the fire extinguisher 105. Perfluorohexanone is in a liquid state in the fire extinguisher 105. When perfluorohexanone is sprayed out from the fire extinguisher 105 and forms gas with air, fire extinguishing begins. The fire extinguisher 105 is installed inside the fixed box 104. The fixed box 104 is connected to the data cabinet body 1 along the longitudinal axis of the data cabinet body 1. The output pipe of the fire extinguisher 105 is fixedly connected with a solenoid valve 101. The output pipe of the fire extinguisher 105 overlaps with the connecting pipe 201. The output pipe of the fire extinguisher 105 is fixedly connected to the inside of the connecting shaft 202. When the data cabinet body 1 needs to be extinguished, the solenoid valve 101 on the output pipe of the fire extinguisher 105 transmits a signal to the controller through the temperature sensor. The controller opens the solenoid valve 101, and the perfluorohexanone flows into the spray assembly 2 through the output pipe on the fire extinguisher 105. The spray assembly 2 extinguishes the inside of the data cabinet body 1.

[0018] In the present invention, when any layer of the data cabinet body 1 is on fire, the fire can be extinguished separately. The first pull rope 210, the first limit plate 212, the second pull rope 207, the second limit plate 206 and the limit ring 205 are matched to allow the connecting pipe 201 to move independently. No matter which layer of the data cabinet body 1 starts to catch fire, only the first pull rope 210 on the burning layer is burned off. By burning the first pull rope 210, the sealing sleeve 204 is taken away by the tension of the tension spring 208. At this time, the two nozzles 203 are exposed and are no longer sealed by the sealing sleeve 204. Perfluorohexanone is sprayed out from the nozzle 203. Because the pressure of perfluorohexanone is relatively large when it is released, The pressure of perfluorohexanone drives the connecting pipe 201 to rotate through the fan blades 209, and performs 360-degree spraying without dead angles. For the layer that is not on fire, because the first pull rope 210 is not burned, the limit ring 205 cannot be separated from the fan blades 209, and the fan blades 209 cannot be extended. Moreover, the first pull rope 210 is not burned and the tension spring 208 cannot drive the sealing sleeve 204 to move upward. There is a sealing sleeve 204 on the nozzle 203 for sealing, and perfluorohexanone cannot be sprayed out from the nozzle 203. In this case, perfluorohexanone will directly flow from the connecting pipe 201 into the connecting pipe 201 below. If multiple layers are on fire, the present invention is the same as the above steps.

[0019] The gas in the airbag 503 of the present invention is filled in advance. Whenever the rotating component 4 squeezes the airbag 503, the gas in the airbag 503 enters the cavity 504. When the arc plate 403 rotates away from the airbag 503, the airbag 503 is no longer squeezed, and the gas returns to the airbag 503 from the cavity 504. When the arc plate 403 rotates to the side of the airbag 503 again, the airbag 503 is squeezed again, and the cycle is repeated to achieve a state in which the filter tank 501 reciprocates. The plurality of airbags 503 in the present invention are connected by an air transmission tube 505, and the air transmission tube 505 also has air. No matter which airbag 503 among the plurality of airbags 503 is squeezed by the rotating assembly 4, the gas in the airbag 503 will push the gas in the air transmission tube 505, and the gas in the air transmission tube 505 will be pushed and transported to the corresponding airbag 503. Because the airbag 503 is filled with gas in advance, the airbag 503 is in an expanded state. When the expanded airbag 503 is injected with gas again, the original gas inside the airbag 503 will be discharged. The gas is discharged into the cavity 504 through the exhaust pipe 502. At this time, the cavity 504 is filled with gas and begins to squeeze the middle of the filter tank 501. When the airbag 503 is no longer squeezed by the rotating component 4, all the gas begins to flow back into the airbag 503, and the filter tank 501 returns to a normal state. When the arc plate 403 rotates to the side of the airbag 503 again, the airbag 503 is squeezed again. Through the above steps, the multi-layer filter component 5 can filter fluorides, and it also ensures that the filter component 5 can operate normally no matter which layer in the data cabinet body 1 is on fire.

[0020] In the present invention, a placement plate is fixedly connected to the inside of the data cabinet body 1, and the placement plate is located above the partition 103. The placement plate is specially used to install the server. The technicians in this field can perform the actual installation according to the space inside the data cabinet body 1. This is understandable and achievable for the technicians in this field to install. In addition, the first pull rope 210 and the third pull rope 303 in the invention are made of paper rope, which is more easily burned by fire to prevent the burning from being too slow, resulting in the inability of the present invention to respond quickly to fire extinguishing.

[0021] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A data server system based on numerical simulation, comprising a data cabinet body (1), Features: Fire extinguishing components (102) are provided on both sides of the data cabinet body (1); grooves (106) are provided on both sides of the data cabinet body (1) symmetrically along the longitudinal axis; a plurality of the grooves (106) are evenly distributed linearly along the longitudinal axis of the data cabinet body (1); a plurality of cooling fans (107) are fixedly connected to the data cabinet body (1); the cooling fans (107) correspond to the grooves (106); a sealing component (3) is slidably connected inside the plurality of grooves (106); a plurality of partitions (103) are fixedly connected inside the data cabinet body (1); the plurality of partitions (103) are evenly distributed linearly along the longitudinal axis of the data cabinet body (1); The data cabinet body (1) is provided with ventilation slots (108) on both sides, the cooling fan (107) overlaps the ventilation slots (108), a plurality of the sealing components (3) are internally installed with filter components (5), a plurality of the sealing components (3) are interconnected, two groups of spray components (2) are arranged inside the data cabinet body (1), the two groups of spray components (2) are symmetrically distributed along the longitudinal axis of the data cabinet body (1), two output pipes of the fire extinguishing components (102) overlap with the corresponding spray components (2), and two groups of exhaust components (6) are fixedly connected to the top of the data cabinet body 1, and the exhaust components (6) are connected to the sealing components (3); The spray assembly (2) comprises a plurality of connecting pipes (201), the plurality of connecting pipes (201) being arranged in a linear array along the longitudinal axis of the data cabinet body (1), a connecting shaft (202) being rotatably connected between the plurality of connecting pipes (201), the connecting shaft (202) being fixed inside a corresponding partition (103), two nozzles (203) being fixedly connected to the outer surfaces of the plurality of connecting pipes (201), the two nozzles (203) being symmetrically arranged along the longitudinal axis of the connecting pipe (201), a limiting assembly (211) being sleeved on the outer surface of the nozzle 203, wherein the connecting pipe (201) close to the fire extinguishing assembly (102) is overlapped with the fire extinguishing assembly (102) via the connecting shaft (202), the connecting shaft (202) being fixedly connected to the fire extinguishing assembly (102), and the connecting shaft (202) being rotatably connected to the connecting pipe (201).

2. The data server system based on numerical simulation according to claim 1, Features: The limiting component (211) comprises a sealing sleeve (204), the interior of the sealing sleeve (204) is provided with a through groove adapted to the nozzle (203), the top of the sealing sleeve (204) is fixedly connected to two tension springs (208), the tension spring (208) close to the inner top wall of the data cabinet body (1) is fixedly connected to the inner top wall of the data cabinet body (1), and several of the tension springs (208) are fixedly connected to the bottom of the corresponding partition (103), and the bottoms of several of the sealing sleeves (204) are fixedly connected to two first pull ropes (210), the first pull ropes (210) correspond to the tension springs (208), and the two tension springs (210) are fixedly connected to the bottom of the corresponding partition (103). The spring (208) is symmetrically distributed along the longitudinal axis of the sealing sleeve (204); one end of each of the two first pull ropes (210) is fixedly connected to a first limiting plate (212); one end of each of the two first limiting plates (212) is fixedly connected to a second pull rope (207); each of the two second pull ropes (207) is fixedly connected to a second limiting plate (206); the second limiting plate (206) is located inside the connecting tube (201); one end of the second pull rope (207) is fixedly connected to a limiting ring (205); a fan blade (209) is fixedly connected to the inside of the connecting tube 201; and the limiting ring (205) is sleeved on the fan blade (209).

3. The data server system based on numerical simulation according to claim 2, Features: The sealing assembly (3) comprises a sealing plate (301), the sealing plate (301) slides inside the groove (106), the top and bottom of the sealing plate (301) are fixedly connected to a telescopic hose (302), one of the sealing plates (301) close to the inner top wall of the data cabinet body (1) is fixedly connected to a third pull rope (303), one end of the third pull rope (303) passes through the partition (103) and is fixedly connected to the inner bottom wall of the data cabinet body (1).

4. The data server system based on numerical simulation according to claim 3, Features: The filter assembly (5) comprises a filter trough (501) and an air bag (503); the filter trough (501) is fixed inside the sealing plate (301) along the longitudinal axis of the sealing plate (301); the outer surface of the air bag (503) is fixedly connected to the inner wall of the data cabinet body (1); the bottom of the filter trough (501) is fixedly connected to a cavity (504); the bottom of the air bag (503) is fixedly connected to an exhaust pipe (502); the other end of the exhaust pipe (502) penetrates the sealing plate (301), and the other end of the exhaust pipe (502) is fixedly connected to the bottom of the cavity (504); a plurality of the air bags (503) are fixedly connected to an air transfer pipe (505); the outer surfaces of a plurality of the connecting pipes (201) are fixedly connected to a rotating assembly (4); and the side of the air bag (503) away from the data cabinet body (1) is overlapped with the rotating assembly (4).

5. The data server system based on numerical simulation according to claim 4, Features: The rotating assembly (4) comprises a rotating connecting ring (401), the connecting ring (401) being fixedly connected to the outer surface of the connecting tube (201), the outer surface of the connecting ring (401) being fixedly connected to two straight plates (402), the two straight plates (402) being symmetrically distributed, the other end of the straight plate (402) being fixedly connected to an arc plate (403), the arc plate (403) being overlapped with the airbag (503).

6. The data server system based on numerical simulation according to claim 5, Features: The exhaust assembly (6) comprises an exhaust pipe (601), the output end of the exhaust pipe (601) is fixed to the top of the data cabinet body (1), the outer surface of the exhaust pipe (601) is fixedly connected to an exhaust pump (602), and the other end of the exhaust pipe (601) is fixedly connected to a telescopic hose (302).

7. The data server system based on numerical simulation according to claim 6, Features: The fire extinguishing assembly (102) comprises a fire extinguisher (105) and a fixed box (104). The fire extinguisher (105) is installed inside the fixed box (104). The fixed box (104) is connected to the data cabinet body (1) along the longitudinal axis of the data cabinet body (1). The output pipe of the fire extinguisher (105) is fixedly connected to a solenoid valve (101). The output pipe of the fire extinguisher (105) is overlapped with a connecting pipe (201). The output pipe of the fire extinguisher (105) is fixedly connected to the inside of the connecting shaft (202).

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