CN219981384U - A WEB3-DCS server system for convenient outdoor deployment - Google Patents

Abstract

The utility model discloses a WEB3-DCS server system that is conveniently deployed outdoors and relates to the technical field of edge servers. The utility model has an independent microclimate guarantee system, which can ensure that the server is not affected by the external environment when outdoors, and ensures effective isolation between the parts of the air conditioning system except the evaporator and the lower server body. It is only realized through qualified air injection pipes. The server storage space in working condition is internally connected, and the qualified air injected is dry and impurity-free air. The electric heating tube heating can regularly heat, dry and discharge the reusable desiccant carried on the dehumidification net, thereby realizing the desiccant The repeated use ensures the dryness and cleanliness of the air in the space where the server body is placed; by setting up satellite antennas, the position can be positioned and the time accurately determined in real time; the system energy consumption, vibration, and safety issues can be monitored; and the system can be monitored during outages. Emergency power supply in case of power outage, easy to move.

Description

A WEB3-DCS server system for convenient outdoor deployment

Technical field

The utility model belongs to the technical field of edge servers, and in particular relates to a WEB3-DCS server system that is conveniently deployed outdoors.

Background technique

Servers can be divided into cloud computing servers and edge computing servers according to their set locations. Cloud computing servers centrally place servers in a certain computer room and uniformly process scattered data transmitted from the national general network. The advantage of cloud computing is high utilization and efficiency of computing resources. Because the data is too far away from the server, network transmission causes The disadvantage is that the delay is large. Therefore, edge computing was born, which uses edge servers to support computing power.

Edge servers exist relative to cloud computing servers. Specifically, the servers are placed closer to the data, and how close to the data can be determined based on the latency requirements. Industrial ultra-low latency scenarios may be placed in factories, and civilian game scenes may be placed in cities. Specific scenarios can be further refined into parking lots, rooftops, mobile phone communication base stations, and underneath iron towers, etc. Since edge servers are deployed closer to the data, they are used to support computing power in areas where computing power is tight. The deployment scene of edge servers is often outdoors. Unlike cloud computing servers, which have dedicated computer rooms to provide a stable environment, they are often used Protected in the form of cabinets. In order to improve the stringent operating temperature and operating humidity conditions required for servers in the cabinet, the protective cabinet of the previous energy-saving and environmentally friendly outdoor website server has a structure with solar power generation and power supply, and an electric fan that can be lifted and lowered for heat dissipation. This technical solution Only using an electric fan to dissipate heat does not solve the dehumidification problem; another example is other outdoor server cabinets, which disclose a fresh air fan with a filter structure and an air valve and an air-conditioning integrated machine located outside the cabinet, and the air-conditioning integrated machine has a dehumidification function. However, this dehumidification function is only realized by the all-in-one air conditioner, and its air inlet and outlet channels are not unique. It is impossible to avoid the entry of humid air from the fresh air blower and the fresh air outlet of the air conditioner. That is, there is the embarrassment of humid air flowing in while the all-in-one air conditioner is dehumidifying. Condition. At the same time, because the edge computing server is set up outdoors in a non-enclosed computer room, and the server is a valuable device, considering security factors, in order to prevent theft, it is necessary to perform real-time location positioning and vibration monitoring to prevent uncontrollable movement. and obtain information as soon as possible if the transfer is stolen; there is a correlation between time and location in physical parameters. Without positioning, the specific precise time cannot be known, and the server and network equipment need to keep time synchronization, otherwise they cannot work online, so it is necessary to set up Fixed satellite positioning is achieved; furthermore, because the server needs to be powered to operate, and the edge server is located outdoors, there is no guarantee that it will not lose power. Therefore, it is necessary to provide a server with its own energy storage function, which can also operate when the power is cut off. Provide emergency computing power to meet portable outdoor deployment.

Utility model content

The utility model provides a WEB3-DCS server system that is conveniently deployed outdoors. By locating the parts of the air conditioning system except the evaporator on the top of the cabinet, the server body and rack are isolated by the main electrical platform bearing plate and located on the cabinet. Below the air-conditioning system, ensure effective isolation between the parts of the air-conditioning system except the evaporator and the lower server body. Only the qualified air injection pipe is used to achieve internal communication with the server storage space under working condition. The injected qualified air is dehumidified by the dehumidification network. The impurity filter sieve filters the dry and impurity-free air. The electric heating tube heating can regularly heat, dry and discharge the reusable desiccant carried on the dehumidification net, thereby realizing the reuse of the desiccant and ensuring the storage space of the server body. The air inside is dry and clean; by setting a satellite antenna on the top of the cabinet, the position can be positioned and the time accurately determined in real time, ensuring the time synchronization of the server and network equipment to achieve networking work; by setting up a sealed electronic lock The door is equipped with cameras, speakers and MICs on the cabinet, which can remotely monitor the surrounding conditions and communicate with surrounding emergencies; through the sensor integrated box located on the server rack, the overall vibration monitoring of the rack and main cabinet and internal Ambient temperature and humidity monitoring ensures comprehensive and timely monitoring of the server environment, and further monitors server movement and abnormal conditions; by setting up a battery compartment with an energy storage battery isolated from the server cabinet, it can ensure that during a power outage The emergency power supply under certain circumstances solves the problems in the background technology in summary.

In order to solve the above technical problems, the present utility model is realized through the following technical solutions:

The utility model provides a WEB3-DCS server system for outdoor convenient deployment, which includes a main cabinet with a sealed door on the side, an air conditioning system on the top, and a server body installed at the bottom of the air conditioning system;

The main cabinet includes a sealed cabinet shell, a main electrical platform bearing plate located above the cabinet shell, a cabinet top cover located on the top of the cabinet shell, and a base with a forklift hole located at the bottom of the cabinet shell; The cavity between the cabinet top covers is equipped with a condenser outlet grille on the front side and a condenser return air grille on the rear side. The cavity carries the main electrical platform module, which includes the air conditioning compressor, micro Climate maintainer, air conditioning condenser with condenser cooling fan installed, and electrical control cabinet for overall power control of the server;

The cabinet casing is provided with an inner cabinet frame below the main electrical platform load-bearing plate. A box-shaped evaporator is installed on the upper part of the cabinet frame. The server body is located below the evaporator. The evaporator is connected with the air conditioning condenser, The air-conditioning compressors are connected through air-conditioning gas-liquid pipes; one side of the evaporator shell is equipped with an axial flow fan, and the other side is equipped with a convection fan group to form efficient air convection in the space where the server body is located in the cabinet shell;

The microclimate holder includes a cylindrical shell, which is equipped with an electric heating tube with a temperature switch for thermal protection, a dehumidification net composed of an upper and lower double-layer mesh screen that can reuse desiccant, and an impurity filter screen located at the bottom of the dehumidification net. The qualified air injection pipe is led out of the cylindrical shell and connected to the main cabinet space below the main electrical platform bearing plate; the starting end of the qualified air injection pipe is connected to the side of the lower cavity of the impurity filter screen, and the qualified air is injected In-tube gas injection is driven by a connected air pump.

Further, the cylindrical shell includes an outer sleeve, an end cap fixedly installed on the top and bottom ends of the outer sleeve through a first flange ring, and a second method respectively provided at an upper position and a lower position on the inner wall of the outer sleeve. The flange ring and the flange plate fixedly installed on the second flange ring; the electric heating pipe is installed at the bottom of the flange plate, and an air inlet valve is installed on the flange plate; between the flange plate and the second flange ring A sealing ring is provided for sealing; a ventilation hole is provided around the outside of the cylindrical shell between the end cover and the second flange ring.

Further, the rack in the cabinet includes a rack chassis fixedly installed on the bottom surface of the cabinet shell, two sets of front rack columns and two sets of rear rack columns installed vertically on the rack chassis, and a machine frame at the top. Top rack, the evaporator is located directly below the top rack of the rack.

Further, the server body includes a server array, a switch, and a power distribution unit installed between the front and rear rack columns by rack partitions, and at least one sensor integrated box is installed on the side of the rack column. , the sensor integrated box is equipped with a first temperature and humidity sensor and a three-axis gyroscope sensor.

Further, an energy storage cabin with an energy storage cabin door is provided on the side of the main cabinet. An energy storage battery is installed in the energy storage cabin through an energy storage cabin partition. The energy storage battery is connected to the electric control cabinet. Used to provide emergency power supply to the entire server.

Furthermore, cameras, microphones and intercom speakers for external environment monitoring and communication are installed outside the main cabinet or energy storage cabin.

Further, a first electronic lock is provided on the sealed door of the main cabinet; a second electronic lock is provided on the energy storage cabin door.

Further, a satellite antenna and a communication antenna are installed on the top of the cabinet top cover.

Further, the inner side of the main cabinet is an inner tank surface, and a thermal insulation layer is provided between the inner tank surface and the cabinet shell.

Further, a second temperature and humidity sensor is provided on the outer wall of the electrical control cabinet for detecting the temperature and humidity of the natural environment outside the server cabinet at the deployment location.

Compared with the existing technology, the utility model has the following beneficial effects:

(1) There is an independent microclimate guarantee system to ensure that the server is not affected by the external environment when outdoors. By placing the parts of the air conditioning system except the evaporator on the top of the cabinet, the main body of the server and the rack are carried through the main electrical platform The board is isolated and installed below the air-conditioning system to ensure effective isolation between the parts of the air-conditioning system except the evaporator and the lower server body. Only qualified air injection pipes are used to achieve internal communication with the server storage space under working condition. The injection is qualified The air is dry and impurity-free air that has been dehumidified by the dehumidification net and filtered by the impurity filter. The electric heating tube heating can regularly heat, dry and discharge the reusable desiccant carried on the dehumidification net, thereby realizing the reuse of the desiccant. Ensures the dryness and cleanliness of the air in the space where the server body is placed;

(2) By setting up a satellite antenna, the position can be positioned and the time accurately determined in real time, ensuring the time synchronization of the server and network equipment, and realizing networking work;

(3) It can monitor system energy consumption, vibration, and safety issues, and communicate with surrounding people in real time; by setting up a sealed door with an electronic lock, and setting up a camera, speaker, and MIC on the cabinet, it can remotely monitor the surrounding situation and communicate with Communicate about surrounding emergencies; use the sensor integrated box located on the server rack to monitor the overall vibration of the rack and main cabinet as well as internal environmental temperature and humidity monitoring, ensuring comprehensive and timely monitoring of the server environment, and further monitoring server movement and monitoring of abnormal conditions;

(4) An independent energy storage system using battery cabins can be deployed near photovoltaic and wind energy green energy to form green computing power. By setting up a battery cabin with energy storage batteries isolated from the server cabinet, it can ensure that during outages Emergency power supply under power outage, it can use its own energy storage and release the stored energy to provide emergency computing power even in the case of power outage;

(5) The bottom is a base with a forklift hole, which can be easily moved and transferred, deployed to areas with tight computing power as needed, and can be combined with satellite positioning to monitor specific locations.

Of course, any product implementing the present invention does not necessarily need to achieve all the above-mentioned advantages at the same time.

Description of the drawings

In order to more clearly illustrate the technical solutions of the embodiments of the present utility model, the drawings required for describing the embodiments will be briefly introduced below. Obviously, the drawings in the following description are only some embodiments of the present utility model. For those of ordinary skill in the art, other drawings can also be obtained based on these drawings without exerting creative efforts.

Figure 1 is a schematic structural diagram of a specific embodiment 1 of a WEB3-DCS outdoor conveniently deployed server system of the present invention;

Figure 2 is a front view of the structure after the sealing door in Figure 1 is opened;

Figure 3 is an exploded view of the structure of Figure 1;

Figure 4 is a schematic structural diagram of the main electrical platform module in Figure 1;

Figure 5 is an exploded view of the structure of Figure 4;

Figure 6 is a diagram of the internal structure of the microclimate holder in Figure 5;

Figure 7 is a front view of the structure of Figure 1;

Figure 8 is a cross-sectional view of A-A in Figure 7;

Figure 9 is a cross-sectional view of B-B in Figure 7;

Figure 10 is a cross-sectional view of C-C in Figure 7;

Figure 11 is a partial enlarged view of position D in Figure 9;

Figure 12 is a partial enlarged view of position E in Figure 9;

Figure 13 is a partial enlarged view of position F in Figure 10;

Figure 14 is a partial enlarged view of the G position in Figure 10;

Figure 15 is a schematic structural diagram of a specific embodiment 2 of a WEB3-DCS outdoor conveniently deployed server system of the present invention;

Figure 16 is a front view of the structure after the sealing door in Figure 15 is opened;

Figure 17 is an exploded view of the structure of Figure 15;

Figure 18 is a front view of the structure of Figure 15;

Figure 19 is the H-H cross-sectional view in Figure 18;

Figure 20 is a structural schematic diagram of specific embodiment 3 of a WEB3-DCS outdoor conveniently deployed server system of the present invention;

Figure 21 is an exploded view of the structure of Figure 20;

Figure 22 is a front view of the structure of Figure 20;

Figure 23 is a cross-sectional view of I-I in Figure 22;

Figure 24 is a system architecture diagram of Embodiment 3 of a WEB3-DCS outdoor conveniently deployed server system of the present invention;

In the drawings, the parts represented by each number are listed as follows:

1-Main cabinet, 101-sealing door, 1011-first electronic lock, 1012-biaxial hinge, 1013-sealing door sealing ring, 1014-sealing door bolt, 102-base, 103-cabinet shell, 1031-section One optical fiber cable entrance, 1032-cabinet top cover, 1033-satellite antenna, 1034-communication antenna, 1035-thermal insulation layer, 1036-inner tank surface, 1037-rivet nut, 104-cable optical fiber signal line, 105-pull Rivet bolt panel, 1051-Rivet bolt mounting plate, 1052-insulation nylon layer, 1053-sealing rubber, 1054-connecting bolts, 1055-positioning spacing adjustment block, 1056-insulation insulation terminal, 1057-welding nut, 2-main electrical Platform module, 201-air conditioning condenser, 2012-condenser guide vane, 202-air conditioning compressor, 2021-qualified air injection pipe, 2013-temperature sensor, 2014-condenser coil and fins, 202-air conditioning compressor , 2021-Qualified air injection pipe, 2022-Air conditioning gas-liquid pipe, 203-Microclimate holder, 2031-Impurity filter screen, 2032-Electric heating pipe, 2033-Sealing ring, 2034-Flange plate, 2035-Inlet valve, 2036-temperature switch, 2037-first flange ring, 2038-end cover, 2039-second flange ring, 204-air pump, 2041-ventilation hole, 2042-dehumidification network, 205-electric control cabinet, 2051-cabinet Panel, 20521-gateway controller, 20522-circuit wiring strip, 20523-main switch, 2053-surge protector, 2054-micro UPS battery, 2055-current transformer, 2056-second temperature and humidity sensor, 2057-cabinet bottom plate , 2058-Fiber optic junction box, 2059-Inverter, 206-Main electrical platform bearing plate, 207-Condenser cooling fan, 208-Condenser outlet grille, 209-Condenser return grille, 3-Evaporator , 301-convection fan group, 302-axial flow fan, 303-evaporator fin, 304-evaporator coil, 305-air conditioning liquid pipe, 4-cabinet rack, 401-rear rack column, 402-front Rack columns, 403-top rack, 404-bottom rack, 405-rack partition, 406-sensor integrated box, 5-server body, 501-switch, 502-server array, 503-power distribution unit , 6-energy storage cabin, 601-energy storage cabin door, 6011-second electronic lock, 602-second optical cable fiber entrance, 603-energy storage cabin partition, 604-energy storage battery, 7-camera, 8-microphone , 9-intercom speaker.

Detailed ways

The technical solutions in the embodiments of the present utility model will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present utility model. Obviously, the described embodiments are only part of the embodiments of the present utility model, not all implementations. example. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative efforts fall within the scope of protection of the present utility model.

In the description of the present invention, it should be understood that the terms "upper", "top", "bottom", "rear side", "inner", "lower", "starting end", etc. indicate the orientation or positional relationship, It is only for the convenience of describing the present invention and simplifying the description, but does not indicate or imply that the components or elements referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation of the present invention.

Specific embodiment 1

Please refer to Figure 1-14, a WEB3-DCS outdoor conveniently deployed server system of the present invention, including a sealed door 101 on the side, an air conditioning system on the top, and a server body 5 installed on the bottom of the air conditioning system. Main cabinet 1; as shown in Figure 2, in this specific embodiment, the main cabinet 1 is specifically in the shape of a cabinet, and the sealing door 101 specifically adopts a biaxial hinge. The sealing door 101 and the door frame opening are closely matched to ensure sealing. property; the sealed door 101 of the main cabinet 1 is provided with a first electronic lock 1011. The first electronic lock 1011 is connected to the electric control cabinet 205 and can remotely control opening and closing;

The main cabinet 1 includes a sealed cabinet shell 103, a main electrical platform bearing plate 206 located above the cabinet shell 103, a cabinet top cover 1032 located on the top of the cabinet shell 103, and a base 102 with a forklift hole located at the bottom of the cabinet shell 103; The cavity between the main electrical platform carrying plate 206 and the cabinet top cover 1032 is provided with a condenser outlet grille 208 on the front side and a condenser return air grille 209 on the rear side. The main electrical platform module 2 is carried in the cavity. , the main electrical platform module 2 includes an air conditioning compressor 202, a microclimate holder 203, an air conditioning condenser 201 installed with a condenser cooling fan 207, and an electrical control cabinet 205 that controls the overall power consumption of the server; the side of the cabinet shell 103 The first optical cable and optical fiber entrance 1031 is provided on the side wall between the cabinet top cover 1032 and the main electrical platform bearing plate 206. The optical cable and optical fiber are used for wiring to connect to the broadband network and are made of The first optical cable fiber entrance 1031 enters and is connected to the electric control cabinet 205. It is arranged close to the data source, which is conducive to reducing the length of the optical fiber cable; a condenser is provided on the side of the air-conditioning condenser 201 facing the condenser outlet grille 208. Guide vanes 2012 and temperature sensor 2013, the inside of the air conditioning condenser 201 is the condenser coil and fins 2014;

As shown in Figure 9-10, the cabinet shell 103 is provided with an inner cabinet rack 4 below the main electrical platform bearing plate 206. A box-shaped evaporator 3 is installed on the upper part of the inner cabinet rack 4. The server body 5 is located on the evaporator 3. Below, the evaporator 3 is connected to the air-conditioning condenser 201 and the air-conditioning compressor 202 through the air-conditioning gas-liquid pipe 2022; one side of the evaporator 3 shell is provided with an axial flow fan 302, and the other side is provided with a convection fan group 301. Efficient air convection is formed in the space where the server body 5 is located in the cabinet shell 103; the evaporator 3 is also provided with an evaporator coil 304 and an evaporator fin 303. The evaporator coil 304 is connected with a refrigerant connection. Air conditioning fluid pipe 305;

As shown in Figure 5-6, the microclimate maintainer 203 includes a cylindrical shell, inside which is an electric heating tube 2032 with a temperature switch 2036 for thermal protection, and a dehumidification net 2042 composed of an upper and lower double-layer mesh screen that can reuse desiccant. , the impurity filter screen 2031 located at the bottom of the dehumidification network 2042, the qualified air injection pipe 2021 is led out of the cylindrical shell and connected to the main cabinet 1 space below the main electrical platform bearing plate 206; the starting end of the qualified air injection pipe 2021 is connected to the impurity filter The side of the lower cavity of the screen 2031, and the gas injection in the qualified air injection pipe 2021 is driven by the connected air pump 204; the desiccant can be reused. In this specific embodiment, it is specifically a silica gel desiccant, which is specifically laid in a double layer. Between the mesh screens, the hole density of the double-layer mesh screen is smaller than the diameter of the silica gel desiccant, which can prevent the silica gel desiccant from falling; the double-layer mesh screen is specifically made of copper wire; the silica gel desiccant absorbs the moisture flowing into the air. , after a period of time, such as about 1 week, the electric heating tube 2032 is heated at a temperature of, for example, about 180°C under the control of the temperature switch 2036, so that the moisture adsorbed in the desiccant evaporates, and is heated by the air inlet valve. 2035 is discharged so that the silica gel desiccant can be reused; the impurity filter screen 2031 uses a screen to filter impurities in the air.

Wherein, the cylindrical shell includes an outer sleeve, an end cap 2038 fixedly installed on the top and bottom ends of the outer sleeve through a first flange ring 2037, and a second flange respectively provided at an upper position and a lower position on the inner wall of the outer sleeve. ring 2039 and a flange plate 2034 fixedly installed on the second flange ring 2039; the electric heating pipe 2032 is installed at the bottom of the flange plate 2034, and an air inlet valve 2035 is installed on the flange plate 2034; the flange plate 2034 and the second A sealing ring 2033 is provided between the flange rings 2039 for sealing; a ventilation hole 2041 is provided around the outside of the cylindrical shell between the end cover 2038 and the second flange ring 2039; the function of the ventilation hole 2041 is to prevent dust from It falls on the intake valve 2035 from top to bottom and causes blockage.

Among them, the rack 4 in the cabinet includes a rack chassis 404 fixedly installed on the bottom surface of the cabinet shell 103, two sets of front rack columns 402 and two sets of rear rack columns 401 installed vertically on the rack chassis 404. The evaporator 3 is located directly below the top rack 403 of the rack.

As shown in Figures 11 and 13, the inner side of the main cabinet 1 is an inner tank surface 1036, and a thermal insulation layer 1035 is provided between the inner tank surface 1036 and the cabinet shell 103; in this specific embodiment, the cabinet shell 103 is It is made of sus304 stainless steel, and the outer surface is sprayed with anti-heat radiation paint. The paint is not specified in the existing technology. The inner tank surface 1036 is an aluminum alloy panel; a sealing door sealing ring is provided at the connection position between the cabinet shell 103 and the sealing door 101. 1013, and through the door sealing ring 1013, the rivet bolt panel 105, the rivet bolt mounting plate 1051 and the rivet nut 1037 in sequence through the sealing door bolt 1014, the sealing door sealing ring 1013 and the cabinet shell 103 are connected. There is a sealing rubber 1053, and a thermal insulation nylon layer 1052 is provided between the rivet bolt panel 105 and the inner tank 1036 of the cabinet shell 103; in this specific embodiment, the thermal insulation layer 1035 is a fireproof and thermal insulation rock wool layer;

As shown in Figure 12, the rack bottom frame 404 is an inverted C-shaped structure with an opening facing upward. A positioning distance adjustment block 1055 is fitted inside. Connecting bolts 1054 are installed on the bottom plates of the rear rack column 401 and the front rack column 402. , the connecting bolt 1054 extends into the positioning hole of the positioning distance adjustment block 1055 for locking and fixing;

As shown in Figure 14, there are thermally insulated terminals 1056 made of ceramics between the cabinet shell 103 and the inner tank 1036 located above the top shelf 403 of the rack. The thermally insulated terminals 1056 are embedded between the thermal insulation layers 1035 to provide thermal insulation. The terminal 1056 is fixed to the cabinet shell 103 through the welding nut 1057 on the top, and the top frame 403 of the rack is threadedly connected to the threaded hole on the thermally insulated terminal 1056 through the connecting bolt 1054;

As shown in Figure 2, a satellite antenna 1033 and a communication antenna 1034 are installed on the top of the cabinet top cover 1032. The satellite antenna 1033 can be adaptively deployed according to specific scenarios, including GPS, glonass, galileo, qzss and Beidou satellite antennas. The communication antenna 1034 can be specifically deployed. Deployment includes 4G, 5G, NBIOT, and Wifi antennas according to the needs of adapting to the scenario. The cabinet top cover 1032 is locked and fixed through the top cover bolts; the satellite antenna 1033 can be set up based on the satellite timing RTOS, which can be deployed in a large number of different geographical locations at any time. Baseline synchronization enables real-time location positioning and accurate time determination, ensuring time synchronization between the server and network equipment and enabling networking work;

As shown in Figure 5, the electric control cabinet 205 adopts the shape of a cabinet. A cabinet panel 2051 is installed on the outside through cabinet panel bolts. A gateway controller 20521, a main switch 20523, and a gateway controller 20521 and a main switch 20523 are installed inside through the cabinet bottom plate 20521. Optical fiber junction box 2058, inverter 2059, surge protector 2053, circuit wiring strip 20522, micro UPS battery 2054, current transformer 2055; a second temperature and humidity sensor 2056 is provided on the outer wall of the electric control cabinet 205 for detection The temperature and humidity of the natural environment outside the server cabinet at the deployment location; a temperature sensor 2013 is provided on the outer wall of the air-conditioning condenser 201. The optical fiber entering through the first optical fiber entrance 1031 is connected to the optical fiber junction box 2058 and is internally connected to the electrical control cabinet 205 The outgoing optical fiber signal line 104 is connected to the server body;

Among them, the server body 5 includes a server array 502, a switch 501, and a power distribution unit 503, commonly known as PDU, which are installed between the front rack column 402 and the rear rack column 401 by the rack partition 405. The corresponding composition of the server body 5 The constituted structure belongs to the prior art and will not be described in detail in this specification; in this specific embodiment, a sensor integrated box 406 is installed above and below the side of the rack column, and a first sensor integrated box 406 is provided in the sensor integrated box 406. Temperature and humidity sensor, three-axis gyro sensor; the sensor integrated box 406 is installed on the side of the rack column through a fixed plate. The first temperature and humidity sensor and the three-axis gyro sensor are fixedly installed on the fixed plate and connected to the electronic control by wiring. Cabinet 205 is connected to the gateway controller 20521; the three-axis gyro sensor can simultaneously measure the position, movement trajectory, and acceleration in 6 directions, that is, it can monitor vibration and movement. The first temperature and humidity sensor detects the inside of the server body 5 at all times. The temperature and humidity data ensures comprehensive and timely monitoring of the server environment.

In this specific embodiment, by arranging the parts of the air conditioning system except the evaporator 3 on the top of the cabinet, the server body 5 and the cabinet rack 4 are isolated by the main electrical platform bearing plate 206 and placed below the air conditioning system to ensure The effective isolation between the parts of the air-conditioning system except the evaporator 3 and the lower server body 5 is only realized through the qualified air injection pipe to achieve internal communication with the server storage space in working condition. The injected qualified air is dehumidified and impurities are removed through the dehumidification network 2042 The filter screen 2031 filters the dry and impurity-free air, and the electric heating tube 2032 can heat and dry the reusable desiccant carried on the dehumidification net 2042 regularly and discharge it, thereby realizing the reuse of the desiccant and ensuring that the server body Air dryness and cleanliness in the placement space

Specific embodiment 2

As shown in Figures 15-19, the difference between this specific embodiment and specific embodiment 1 is that an energy storage cabin 6 with an energy storage cabin door 601 is provided on the side of the main cabinet 1. The energy storage battery 604 is installed on the cabin partition 603, and the energy storage battery 604 is connected to the electric control cabinet 205 for emergency power supply to the entire server; a second optical cable fiber entrance 602 is provided on the outer side of the energy storage cabin 6; the optical fiber cable passes through the third After the second optical cable fiber entrance 602 passes through, the first optical cable fiber entrance 1031 penetrates and connects to the electric control cabinet 205; the energy storage battery 604 is isolated and carried based on the energy storage cabin partition 603, and can be arranged in an array, corresponding to The energy storage battery 604 can be a lithium battery or a lead-acid battery; the energy storage battery 604 can ensure emergency power supply in the event of a power outage, so that the server can continue to operate safely and stably.

Specific embodiment 3

As shown in Figures 20-23, the difference between this specific embodiment and specific embodiment 2 is that a camera 7, a microphone 8 and an intercom speaker for external environment monitoring and communication are installed outside the main cabinet 1 or the energy storage cabin 6 9. This enables remote monitoring of surrounding conditions and communication with surrounding emergencies; the energy storage cabin door 601 is provided with a second electronic lock 6011. The second electronic lock 601 is connected to the electric control cabinet 205 and can be opened and closed remotely. , ensuring the safety of opening and closing inside the energy storage cabin 6.

Figure 24 discloses the system architecture diagram, in which the core intelligent gateway controller is the gateway controller 20521, which is connected to the air conditioning system, microclimate keeper system, outdoor temperature and humidity monitoring, security system, energy monitoring unit system, and intelligent sensor controller , relay/smart PDU, UPS/BMC; AC smart circuit breaker, satellite antenna 1033, cloud server, PC, mobile APP, etc.; among them, the smart sensor controller is equipped with the first temperature and humidity sensor and a three-axis gyro sensor. The sensor integrated box 406 is also equipped with a server restart/O at this position; the corresponding air conditioning system includes a compressor 202, an evaporator cold chain water pump (not specifically shown in the figure, it is an existing evaporator), and an evaporator axial flow fan 302 , evaporator convection fan 301, condenser fan which is the condenser cooling fan 207, condensation temperature sensor which is the temperature sensor 2013, system detection protector which is the main switch 2053 which is the air switch; the microclimate maintainer system includes temperature protection insurance which is the temperature switch 2036 , the climate regeneration electric heating pipe is the electric heating pipe 2032, the climate pump is the air pump 204; the security system includes the electronic lock, the first electronic lock 1101 and the second electronic lock 6011, the camera 7, the speaker 9 the intercom speaker 9, the MCI the microphone 8; energy The detection unit system includes a current transformer 2055, voltage detection (that is, the voltage detector is not specifically shown as a common electronic device in the figure), and surge protection, that is, a surge protector 2053; the intelligent sensor controller includes temperature and humidity detection, which is the first Temperature and humidity sensor, vibration monitoring, which is a three-axis gyroscope sensor that can detect vibration, server restart/O (not specifically shown in the figure, they are common devices); relay/smart PDU includes main server power supply and main switch power supply (comes with PDU) , the specific structure is not shown in the figure); the UPS/BMC includes an inverter 2059 and an energy storage battery 604.

The preferred embodiments of the present invention disclosed above are only used to help explain the present invention. The preferred embodiment does not describe all details in detail, nor does it limit the utility model to the specific implementation described. Obviously, many modifications and variations are possible in light of the contents of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can better understand and utilize the present invention. The invention is limited only by the claims and their full scope and equivalents.

Claims (10)

1. A WEB3-DCS outdoor conveniently deployed server system, characterized by including a main cabinet with a sealed door (101) on the side, an air conditioning system on the top, and a server body (5) installed at the bottom of the air conditioning system. (1); The main cabinet (1) includes a sealed cabinet shell (103), a main electrical platform bearing plate (206) located above the cabinet shell (103), a cabinet top cover (1032) located on the top of the cabinet shell (103), A base (102) with a forklift hole is located at the bottom of the cabinet shell (103); a condenser outlet grille (208) is provided on the front side of the cavity between the main electrical platform bearing plate (206) and the cabinet top cover (1032) ) and a condenser return air grille (209) is provided on the rear side. The cavity carries a main electrical platform module (2). The main electrical platform module (2) includes an air conditioning compressor (202) and a microclimate keeper (203). ), equipped with an air conditioning condenser (201) with a condenser cooling fan (207) and an electrical control cabinet (205) that controls the overall power consumption of the server; The cabinet shell (103) is provided with an inner cabinet rack (4) below the main electrical platform bearing plate (206). A box-shaped evaporator (3) is installed on the upper part of the inner cabinet rack (4). The server The main body (5) is located below the evaporator (3), and the evaporator (3) is connected to the air-conditioning condenser (201) and the air-conditioning compressor (202) through an air-conditioning gas-liquid pipe (2022); the evaporator (3) An axial flow fan (302) is provided on one side of the casing, and a convection fan group (301) is provided on the other side to form efficient air convection in the space where the server body (5) is located in the cabinet casing (103); The microclimate holder (203) includes a cylindrical shell, inside which is an electric heating tube (2032) with a temperature switch (2036) for thermal protection, and a dehumidification net (2032) composed of an upper and lower double-layer mesh screen that can reuse desiccant. 2042), the impurity filter screen (2031) located at the bottom of the dehumidification screen (2042), and a qualified air injection pipe (2021) is led out of the cylindrical shell and connected to the main cabinet (1) below the main electrical platform bearing plate (206) In the space; the starting end of the qualified air injection pipe (2021) is connected to the side of the lower cavity of the impurity filter screen (2031), and the gas injection in the qualified air injection pipe (2021) is driven by the connected air pump (204). 2. A WEB3-DCS outdoor conveniently deployed server system according to claim 1, characterized in that the cylindrical shell includes an outer sleeve and is fixedly installed on the outer sleeve through a first flange ring (2037). End caps (2038) at the top and bottom ends, second flange rings (2039) respectively located at the upper and lower positions of the inner wall of the outer sleeve, and a flange plate fixedly installed on the second flange ring (2039) (2034); the electric heating pipe (2032) is installed at the bottom of the flange plate (2034), and the air inlet valve (2035) is installed on the flange plate (2034); the flange plate (2034) and the second flange ring (2039) are provided with a sealing ring (2033) for sealing; the outer side of the cylindrical shell is surrounded by a ventilation hole (2041) between the end cover (2038) and the second flange ring (2039). 3. A WEB3-DCS outdoor conveniently deployed server system according to claim 1, characterized in that the cabinet rack (4) includes a rack chassis (103) fixedly installed on the bottom surface of the cabinet shell (103). 404), two sets of front rack columns (402) and two sets of rear rack columns (401) installed vertically on the rack bottom frame (404), and a rack top frame (403) at the top, the evaporation The device (3) is located directly below the top shelf (403) of the rack. 4. A WEB3-DCS server system for outdoor convenient deployment according to claim 1, characterized in that the server body (5) includes a rack partition (405) installed on a front rack column (402) , the server array (502), switch (501), and power distribution unit (503) between the rear rack columns (401), at least one sensor integrated box (406) is installed on the side of the rack column. The sensor integrated box (406) is provided with a first temperature and humidity sensor and a three-axis gyroscope sensor. 5. A WEB3-DCS outdoor conveniently deployed server system according to claim 1, characterized in that an energy storage cabin (601) with an energy storage cabin door (601) is provided on the side of the main cabinet (1). 6), an energy storage battery (604) is installed in the energy storage cabin (6) through the energy storage cabin partition (603), and the energy storage battery (604) is connected to the electric control cabinet (205) for controlling the server. Provide emergency power supply as a whole. 6. A WEB3-DCS outdoor conveniently deployed server system according to claim 5, characterized in that the main cabinet (1) or the energy storage cabin (6) is equipped with an external environment monitoring and communication device. Camera (7), microphone (8) and intercom speaker (9). 7. A WEB3-DCS outdoor conveniently deployed server system according to claim 5, characterized in that a first electronic lock (1011) is provided on the sealed door (101) of the main cabinet (1); The energy storage cabin door (601) is provided with a second electronic lock (6011). 8. A WEB3-DCS server system for convenient outdoor deployment according to claim 1, characterized in that a satellite antenna (1033) and a communication antenna (1034) are installed on the top of the cabinet top cover (1032). 9. A WEB3-DCS outdoor conveniently deployed server system according to claim 1, characterized in that the inner side of the main cabinet (1) is an inner tank surface (1036), and the inner tank surface (1036) There is a thermal insulation layer (1035) between it and the cabinet shell (103). 10. A WEB3-DCS server system for convenient outdoor deployment according to claim 1, characterized in that a second temperature and humidity sensor (2056) is provided on the outer wall of the electric control cabinet.