Integrated management platform for monitoring and early warning of agrometeorological disasters

Abstract

The invention relates to the technical field of monitoring and early warning of agrometeorological disasters, in particular to an integrated management platform for monitoring and early warning of agrometeorological disasters, which comprises an equipment box, an air control structure capable of driving air flow in the equipment box to flow is mounted on the outer side of the equipment box, and a telescopic liquid storage structure is mounted on the outer side of the equipment box. And the part, located on the outer side of the equipment box, of the air control structure penetrates through the interior of the liquid storage structure, a cooling liquid box is arranged on the side, away from the equipment box, of the liquid storage structure, two partition plates are slidably inserted into the cooling liquid box and fixed through linkage rods, and the cooling liquid box communicates with the liquid storage structure through a liquid passing pipe and a power infusion pump. According to the invention, hot cooling liquid inside can be pushed into the cooling liquid box by controlling the liquid storage structure to shrink, and the two partition plates are driven to slide in the cooling liquid box by controlling the single-head remote control telescopic rod to stretch out and draw back, so that new cooling liquid with lower temperature is pumped into the expanded liquid storage structure by the power liquid pump.

Description

Technical Field

[0001] The present invention relates to the technical field of agricultural meteorological disaster monitoring and early warning, and in particular to an integrated management platform for agricultural meteorological disaster monitoring and early warning. Background Art

[0002] Agricultural meteorological disaster monitoring and early warning processes meteorological disaster warnings by monitoring the meteorological environment. The integrated management platform for agricultural meteorological disaster monitoring and early warning is an integrated and intelligent monitoring and early warning system. Computers and electrical intelligent equipment are important components of the management platform. During the operation of the equipment, a large number of electrical components are powered on, which will generate a lot of heat. The heat dissipation inside the equipment is effectively prevented by installing a heat dissipation structure to prevent the internal temperature of the equipment from being too high and causing a short circuit.

[0003] Chinese patent CN117648023B discloses a server heat dissipation module, comprising a plurality of heat dissipation bodies arranged side by side, the heat dissipation bodies comprising two first heat dissipation plates arranged in parallel and at intervals, with an installation space formed between the two first heat dissipation plates; a heat conduction plate is provided on the upper end surface of the heat dissipation body, one end of the heat conduction plate is connected to a T-shaped heat conduction block; a liquid cooling pipe is provided on the peripheral side of the heat dissipation body, one end of the T-shaped heat conduction block extends into the liquid cooling pipe, and one end of the T-shaped heat conduction block is arranged perpendicular to the flow direction of the liquid in the liquid cooling pipe; the heat dissipation module optimizes the spatial installation layout of the server by regularly arranging the heat dissipation bodies and the surrounding liquid cooling pipes, and the design of the T-shaped heat conduction block and the heat conduction plate makes the liquid cooling pipe The channel can be inserted into the installation space for cooling. All components can be installed in sequence and the T-shaped heat conductive block can be plugged in. This simplifies the installation steps, is conducive to improving work efficiency, and at the same time ensures efficient heat exchange and heat dissipation. The above-mentioned related technologies have the following defects: In the existing technology, when air cooling is used to dissipate heat, the internal space of the equipment will be connected with the external space, which will cause external dust to enter the interior of the equipment. When the existing equipment uses liquid cooling for heat dissipation, it will drive the refrigerant to flow and absorb heat. Although the refrigerant flows for cooling, as the use time increases, the temperature of the refrigerant will gradually increase. The freezing effect is low after long-term use. For this reason, an integrated management platform for agricultural meteorological disaster monitoring and early warning is proposed. Summary of the Invention

[0004] In order to ensure that circuit short circuit will not be caused by excessive heat during long-term operation of equipment, the present invention provides an integrated management platform for agricultural meteorological disaster monitoring and early warning.

[0005] The present invention provides an integrated management platform for agricultural meteorological disaster monitoring and early warning, which adopts the following technical solution: it includes an equipment box, an air control structure that can drive the flow of air inside the equipment box is installed on the outside of the equipment box, and a retractable liquid storage structure is installed on the outside of the equipment box. The air control structure is located on the outside of the equipment box and passes through the interior of the liquid storage structure.

[0006] A coolant tank is provided on the side of the liquid storage structure away from the equipment box. Two partitions are slidably inserted inside the coolant tank, and the two partitions are fixed by a linkage rod. The coolant tank and the liquid storage structure are connected through a liquid pipe and a power liquid pump. A single-head remote-controlled telescopic rod is fixed through the upper end of the coolant tank, and the telescopic end of the single-head remote-controlled telescopic rod is fixed to the adjacent partition. A remote control structure is installed on the upper end of the liquid storage structure, and the remote control structure can control the extension and retraction of the single-head remote-controlled telescopic rod and the liquid storage structure.

[0007] Optionally, the liquid storage structure includes two end plates and multiple ring cylinders, the multiple ring cylinders are located between the two end plates, the two end plates are fixedly installed on two adjacent ring cylinders respectively, each two adjacent ring cylinders are slidably connected to each other, each two adjacent ring cylinders are elastically connected, and a pressure plate is provided on the side of the two end plates away from each other, a double-headed remote-controlled telescopic rod is provided between the two pressure plates, the two telescopic ends of the double-headed remote-controlled telescopic rod are respectively fixed to the two pressure plates, a turntable is elastically rotated on the outer side of the equipment box, the middle fixed end of the double-headed remote-controlled telescopic rod is fixed to the equipment box, the ring cylinder in the middle position among the multiple ring cylinders is fixedly sleeved on the outer surface of the liquid pipe and the power liquid pump, the coolant tank is fixed to the turntable, two bent rods are fixedly installed on the front of the turntable, and the ring cylinder and the end plate are slidably sleeved on the outer surface of the bent rod.

[0008] Optionally, the remote control structure includes a pressure-controlled remote control and a temperature-controlled remote control. The temperature-controlled remote control passes through adjacent end plates, and the pressure-controlled remote control is fixed to adjacent pressure plates. The other pressure plate is located on the lower side of the pressure-controlled remote control and is equipped with two round rods. The pressure-controlled remote control can control the extension and retraction of a single-head remote-controlled telescopic rod under pressure, and the temperature-controlled remote control can control the extension and retraction of a double-head remote-controlled telescopic rod.

[0009] Optionally, the air control structure includes a return air hose, a power air extraction hose and a flat plate. The outer surface of the flat plate is slidably sleeved with an air box. The return air hose and the power air extraction hose pass through the left and right sides of the equipment box respectively. The other ends of the return air hose and the power air extraction hose pass through the upper surface of the air box. The power extraction hose is located inside the air box and is fixedly connected to a short pipe at one end. The lower end of the short pipe is in sliding contact with the upper surface of the flat plate. Two bent pipes are installed at one end of the flat plate located inside the air box. The other end of the bent pipe is connected and installed with a side box. The side box is fixed to the turntable. A hard pipe is horizontally passed through the inner side of the annular cylinder. Connecting hoses are fixed at both ends of the hard pipe. The other end of the connecting hose is connected and installed with an adjacent side box. An electric telescopic rod is fixed to the outer surface of the air box, and the other end of the electric telescopic rod is fixed to the flat plate.

[0010] Optionally, a bevel gear ring is coaxially fixed on the side of the turntable away from the equipment box, a toothless bevel gear is provided on the upper side of the bevel gear ring, the toothless bevel gear is rotatably connected to the equipment box, an electric motor is fixed on the upper surface of the equipment box, and the shaft of the toothless bevel gear is fixed to the output end of the motor.

[0011] Optionally, the hard tube is located at one end inside the annular tube and is reciprocatingly bent. A plurality of gas gathering cones are fixed inside the hard tube at one end inside the annular tube. A gas dividing cone head is provided at the axis of one side of the gas gathering cone. The gas dividing cone head is fixed inside the hard tube, and the end of the gas dividing cone head close to the adjacent gas gathering cone is the small diameter end.

[0012] Optionally, breathable side frames are fixed to the inner walls on both sides of the equipment box, and a breathable box that can be moved up and down is slidably inserted inside the breathable side frames. The breathable side frames and the breathable box are in a perforated structure on one side close to the central axis of the equipment box, and a movable hose is fixedly connected to the other end of the breathable box. The return air hose and the power exhaust hose are located at one end inside the equipment box and are fixedly connected to the two movable hoses respectively.

[0013] Optionally, a reciprocating threaded rod is passed through the vertical thread of the box, both ends of the reciprocating threaded rod rotate and pass through the inner wall of the breathable side frame, and the upper end of the reciprocating threaded rod rotates and passes through the inner wall of the equipment box. The two reciprocating threaded rods are located at one end outside the equipment box and are driven by a conveyor belt to the output end of the motor.

[0014] Optionally, the motor and the two reciprocating threaded rods are distributed in a triangle, and tensioning wheels are provided on both the front and rear sides of the conveyor belt, and the lower end of the tensioning wheel is rotatably plugged into the upper surface of the equipment box.

[0015] In summary, the present invention has the following beneficial technical effects: 1. The present invention sets a liquid storage structure, a partition and a single-head remote control telescopic rod and other components. The air control structure drives the hot air flow in the equipment box into the liquid storage structure. The two partitions divide the coolant tank into three spaces. The coolant in the liquid storage structure cools the air flow passing through the inside. When the coolant temperature is too high, the liquid storage structure is controlled to contract to push the hotter coolant inside into the coolant tank. By controlling the extension and contraction of the single-head remote control telescopic rod, the two partitions are driven to slide in the coolant tank, and the space between the partitions connected to the power pump and the liquid pipe is changed, so that new coolant with a lower temperature is pumped into the extended liquid storage structure by the power pump. The hotter coolant does not participate in the circulation for cooling treatment in the coolant tank, which makes it convenient to pump the cooled coolant into the liquid storage structure again when the partition moves again.

[0016] 2. The present invention provides components such as a turntable, a bevel gear ring and a toothless bevel gear. The turntable has the function of driving the ring cylinder in a vertical state due to the elastic connection between the turntable and the equipment box. The toothless bevel gear reciprocates and meshes with the bevel gear ring during rotation. The toothless bevel gear meshes with the bevel gear ring, driving the turntable to twist. The turntable drives the end plate and the ring cylinder to rotate around the turntable axis. After the toothless bevel gear and the bevel gear ring are disengaged, the turntable is reset under the elastic connection with the equipment box, driving the ring cylinder and the end plate to shake, so that the coolant shakes between the ring cylinder and the end plate, and the coolant can evenly cool the airflow in the hard tube.

[0017] 3. The present invention provides components such as a ventilation box, a ventilation side frame, and a reciprocating threaded rod. The two ventilation boxes engage with the corresponding rotating reciprocating threaded rods and move back and forth up and down. During the movement, the ventilation boxes slide within the ventilation side frames, controlling the positions of the air outlet and air extraction of the two ventilation boxes, thereby achieving uniform cooling treatment inside the equipment box.

[0018] 4. The present invention provides components such as a gas gathering cone, a gas dividing cone, a flat plate and a short tube. The electric telescopic rod drives the air box to move back and forth during reciprocating extension and retraction. The air box drives the short tube to alternately connect with the two curved pipes during reciprocating movement, so that the powered air extraction hose is alternately inflated from both ends of the hard tube, changing the flow direction of the airflow in the hard tube. At the same time, when the airflow collides with the gas gathering cone and the gas dividing cone during flow, the position of the gas flow and the axis of the hard tube is changed, so that the gas in the hard tube can evenly contact the inner wall of the hard tube, thereby increasing the effect of the coolant on the gas cooling. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 1 is a schematic diagram of the overall structure of an embodiment of the present invention; Figure 2 1 is a schematic diagram of a top view of the structure in an embodiment of the present invention; Figure 3 2 is a schematic structural diagram of the connection between the partition and the coolant tank in an embodiment of the present invention; Figure 4 This is a schematic structural diagram of the connection between the flat plate and the air box in an embodiment of the present invention; Figure 5 2 is a schematic structural diagram of the connection between the reciprocating threaded rod and the penetrating box in an embodiment of the present invention; Figure 6 2 is a schematic structural diagram of the connection between the double-ended remote control telescopic rod and the pressing plate in an embodiment of the present invention; Figure 7 is a schematic side view of part of the structure in an embodiment of the present invention; Figure 8 This is a schematic diagram of the internal structure of a hard tube in an embodiment of the present invention; Figure 9 In the embodiment of the present invention Figure 8 A magnified schematic diagram of the structure in the middle.

[0020] Figure 1: Equipment box; 2: Coolant tank; 3: Partition; 4: Linkage rod; 5: Liquid storage structure; 51: End plate; 52: Ring cylinder; 53: Pressing plate; 54: Double-head remote control telescopic rod; 55: Turntable; 551: Bevel gear ring; 552: Toothless bevel gear; 553: Motor; 56: Bend rod; 6: Air control structure; 61: Return air hose; 62: Power exhaust hose; 63: Flat plate; 64: Air box; 65: Short pipe; 66: Bend pipe; 67: 7. Side box; 68. Connecting hose; 69. Hard pipe; 691. Gas gathering cone; 692. Gas distribution cone; 610. Electric telescopic rod; 7. Liquid pipe; 8. Single-head remote control telescopic rod; 9. Remote control structure; 91. Pressure control remote control; 92. Temperature control remote control; 93. Round rod; 10. Power liquid pump; 11. Ventilation box; 111. Reciprocating threaded rod; 112. Conveyor belt; 113. Tensioner; 12. Ventilation side frame; 13. Movable hose. DETAILED DESCRIPTION

[0021] The following is combined with Figures 1-9 The present invention is described in further detail.

[0022] The embodiment of the present invention discloses an integrated management platform for monitoring and early warning of agricultural meteorological disasters. Figures 1-9 As shown, it includes an equipment box 1, in which electrical components are installed. The equipment box 1 is removably closed by bolts. An air control structure 6 is installed on the outside of the equipment box 1 to drive the flow of air inside the equipment box 1. The air control structure 6 can extract the air in the equipment box 1 and then refill it into the equipment box 1. A retractable liquid storage structure 5 is installed on the outside of the equipment box 1. The air control structure 6 is located on the outside of the equipment box 1 and passes through the interior of the liquid storage structure 5.

[0023] A coolant tank 2 is provided on the side of the liquid storage structure 5 away from the equipment box 1. A cooler is installed on the outside of the coolant tank 2, which can cool the coolant in the coolant tank 2. Two partitions 3 are slidably inserted inside the coolant tank 2. The two partitions 3 divide the coolant tank 2 into three spaces. The two partitions 3 are fixed by a linkage rod 4. The coolant tank 2 and the liquid storage structure 5 are connected through a liquid pipe 7 and a power liquid pump 10. The power liquid pump 10 can draw the liquid in the coolant tank 2 into the liquid storage structure 5, and then the liquid in the liquid storage structure 5 flows back to the coolant tank 2 through the liquid pipe 7 for cooling.

[0024] The liquid storage structure 5 includes two end plates 51 and multiple ring tubes 52. The multiple ring tubes 52 are located between the two end plates 51. The two end plates 51 are fixedly installed with two adjacent ring tubes 52 respectively. Every two adjacent ring tubes 52 are slidably connected to each other. Every two adjacent ring tubes 52 are elastically connected. The elastic connection between the two ring tubes 52 is connected by elastic materials such as springs and elastic telescopic rods, and has a tendency to push the two ring tubes 52 away from each other.

[0025] The air control structure 6 includes a return air hose 61, a power air extraction hose 62 and a flat plate 63. The outer surface of the flat plate 63 is slidably connected to an air box 64. The return air hose 61 and the power air extraction hose 62 respectively penetrate the left and right sides of the equipment box 1. The other ends of the return air hose 61 and the power air extraction hose 62 penetrate the upper surface of the air box 64. The power air extraction hose 62 has a tendency to extract the air flow in the equipment box 1, and then the cooled air flow returns to the equipment box 1 through the return air hose 61. The power air extraction hose 62 is located inside the air box 64 and is fixedly connected to a short pipe 65 at one end. The lower end of the short pipe 65 is in sliding contact with the upper surface of the flat plate 63. The flat plate 63 is located inside the air box 64 and is penetrated by two bent pipes 66. The other end of the bent pipe 66 is connected to a side box 67. The side box 67 is fixed to the turntable 55. When the air box 64 moves, it drives the short pipe 65 to slide on the upper surface of the flat plate 63, and controls the short pipe 65 to be alternately connected to the two bent pipes 66.

[0026] A hard tube 69 is passed through the inner side of the ring tube 52 in the horizontal direction. The hard tube 69 is located at one end of the inner side of the ring tube 52 and is bent back and forth. A plurality of gas gathering cones 691 are fixed inside the hard tube 69 at one end of the inner side of the ring tube 52. A gas dividing cone head 692 is provided at the axis of one side of the gas gathering cone 691. The gas dividing cone head 692 is fixed inside the hard tube 69. The end of the gas dividing cone head 692 and the adjacent gas gathering cone 691 that is close to each other is a small diameter end. When the airflow flows in the hard tube 69, when the airflow collides with the gas gathering cone 691 and the gas dividing cone head 692 during the flow, the gas concentration of the gas is changed. The position of the gas flow and the axis of the hard tube 69 allows the gas in the hard tube 69 to evenly contact the inner wall of the hard tube 69, so that the coolant evenly cools the airflow in the hard tube 69. Connecting hoses 68 are fixed at both ends of the hard tube 69, and the other end of the connecting hose 68 is connected and installed with the adjacent side box 67. An electric telescopic rod 610 is fixed to the outer surface of the air box 64, and the other end of the electric telescopic rod 610 is fixed to the flat plate 63. When the electric telescopic rod 610 is extended and retracted to drive the short tube 65 to alternately connect with the two bent pipes 66, the flow direction of the airflow in the hard tube 69 is changed.

[0027] The two end plates 51 are each provided with a pressure plate 53 on one side away from each other, and a double-headed remote control telescopic rod 54 is provided between the two pressure plates 53. The two telescopic ends of the double-headed remote control telescopic rod 54 are respectively fixed to the two pressure plates 53. A turntable 55 is elastically rotated on the outer side of the equipment box 1. The elastic connection between the turntable 55 and the equipment box 1 is connected by a torsion spring. The elastic connection between the turntable 55 and the equipment box 1 has a tendency to drive the axis of the ring tube 52 and the end plate 51 to be in a vertical state. The middle fixed end of the double-headed remote control telescopic rod 54 is fixed to the equipment box 1. The middle of the multiple ring tubes 52 is located in the middle The annular tube 52 in the position is fixedly sleeved on the outer surface of the liquid pipe 7 and the power liquid pump 10, the coolant tank 2 is fixed to the turntable 55, and two bent rods 56 are fixedly installed on the front of the turntable 55. The annular tube 52 and the end plate 51 are slidably sleeved on the outer surface of the bent rod 56. The bent rod 56 limits the moving trajectory of the end plate 51. When the two ends of the double-headed remote control telescopic rod 54 are extended and retracted, the pressure plates 53 on the upper and lower sides can be driven to approach each other, pushing the annular tube 52 between them to slide relative to each other. When the two end plates 51 are pushed close to each other, the coolant on the inside of the annular tube 52 is pushed into the coolant tank 2 through the liquid pipe 7.

[0028] The bevel gear ring 551 is coaxially fixed to the turntable 55 away from the equipment box 1. A toothless bevel gear 552 is provided on the upper side of the bevel gear ring 551. The toothless bevel gear 552 is rotatably connected to the equipment box 1. An electric motor 553 is fixed to the upper surface of the equipment box 1. The shaft of the toothless bevel gear 552 is fixed to the output end of the motor 553. When the toothless bevel gear 552 rotates, it reciprocates and meshes with the bevel gear ring 551. When the toothless bevel gear 552 is meshed with the bevel gear ring 551, the turntable 55 is driven to twist. The turntable 55 drives the end plate 51 and the ring cylinder 52 to rotate around the axis of the turntable 55. After the toothless bevel gear 552 and the bevel gear ring 551 are disengaged, the turntable 55 is reset under the elastic connection with the equipment box 1, driving the ring cylinder 52 and the end plate 51 to shake, so that the coolant shakes between the ring cylinder 52 and the end plate 51, and the coolant can evenly cool the airflow in the hard tube 69.

[0029] The inner walls of the left and right sides of the equipment box 1 are fixed with a breathable side frame 12, and a permeable box 11 that can be moved up and down is slidably inserted into the inner side of the breathable side frame 12. The breathable side frame 12 and the permeable box 11 are close to the central axis of the equipment box 1. A permeable structure is formed so that the gas of the equipment box 1 can pass through the permeable structure of the breathable side frame 12 and the permeable box 11. The permeable box 11 is vertically threaded with a reciprocating threaded rod 111. The two ends of the reciprocating threaded rod 111 rotate through the inner wall of the breathable side frame 12, and the upper end of the reciprocating threaded rod 111 rotates through the equipment On the inner wall of the box 1, the reciprocating threaded rod 111 rotates and engages with the transparent box 11 to drive the transparent box 11 to move back and forth up and down. The two reciprocating threaded rods 111 are located at one end outside the equipment box 1 and are transmitted to the output end of the motor 553 through the conveyor belt 112. The other end of the transparent box 11 is fixedly connected to a movable hose 13, which can drive the movable hose 13 to move synchronously when the transparent box 11 moves up and down. The return air hose 61 and the power exhaust hose 62 are located at one end inside the equipment box 1 and are fixedly connected to the two movable hoses 13 respectively.

[0030] The motor 553 and the two reciprocating threaded rods 111 are distributed in a triangle. Tensioning wheels 113 are provided on both the front and rear sides of the conveyor belt 112. The lower end of the tensioning wheel 113 is rotatably inserted into the upper surface of the equipment box 1. The tensioning wheel 113 ensures that when the conveyor belt 112 rotates, it can stably drive the two reciprocating threaded rods 111 to rotate synchronously.

[0031] A single-head remote-controlled telescopic rod 8 is fixedly passed through the upper end of the coolant tank 2. The telescopic end of the single-head remote-controlled telescopic rod 8 is fixed to the adjacent partition 3. A remote control structure 9 is installed on the upper end of the liquid storage structure 5. The remote control structure 9 can control the extension and retraction of the single-head remote-controlled telescopic rod 8 and the liquid storage structure 5. When the single-head remote-controlled telescopic rod 8 is extended or retracted, the space between the partitions 3 connected to the power liquid pump 10 can be changed.

[0032] The remote control structure 9 includes a pressure-controlled remote control 91 and a temperature-controlled remote control 92. The temperature-controlled remote control 92 passes through the adjacent end plates 51. The pressure-controlled remote control 91 is fixed to the adjacent pressure plate 53. The other pressure plate 53 is located on the lower side of the pressure-controlled remote control 91 and is equipped with two round rods 93. The pressure-controlled remote control 91 can control the extension and retraction of the single-head remote-controlled telescopic rod 8 under pressure, and the temperature-controlled remote control 92 can control the extension and retraction of the double-head remote-controlled telescopic rod 54. When the temperature-controlled remote control 92 detects that the coolant temperature in the ring cylinder 52 is high, it controls the double-head remote-controlled telescopic rod 54 to retract, pushing the two end plates 51 closer to each other, and pushing the coolant between the two end plates 51 into the coolant tank 2. When the two end plates 51 move to the minimum distance, the round rod 93 applies pressure to the pressure-controlled remote control 91, and then controls the single-head remote-controlled telescopic rod 8 to retract once, changing the space between the partitions 3 connected to the power liquid pump 10. After the double-head remote-controlled telescopic rod 54 is extended, the elastic connection between the ring cylinders 52 pushes the two end plates 51 away from each other and resets.

[0033] The working principle is as follows: when the electrical components in the equipment box 1 are working, the gas with increased temperature inside the equipment box 1 is passed through the liquid storage structure 5 by the gas control structure 6. The coolant in the liquid storage structure 5 cools down the passing gas. The gas control structure 6 then controls the cooled gas to enter the equipment box 1, thereby reducing the temperature inside the equipment box 1. The two partitions 3 divide the coolant tank 2 into three spaces. The power pump 10 pumps the coolant in the coolant tank 2 into the liquid storage structure 5 for circulation. When the coolant temperature is too high, the liquid storage structure 5 is controlled to contract to push the hotter coolant inside into the coolant tank 2. By controlling the single-head remote control telescopic rod 8 to extend and retract, the two partitions 3 are driven to slide in the coolant tank 2, changing the space between the partitions 3 connected by the power pump 10 and the liquid pipe 7. Then, the liquid storage structure 5 is controlled to expand. The new coolant with lower temperature is pumped into the expanded liquid storage structure 5 by the power pump 10. Then, the coolant with higher temperature is stably cooled in the coolant tank 2 to ensure that the coolant temperature in the liquid storage structure 5 does not rise too high.

[0034] The above are all preferred embodiments of the present invention, and are not intended to limit the scope of protection of the present invention. Therefore, any equivalent changes made based on the structure, shape, and principle of the present invention should be included in the scope of protection of the present invention.

Claims

1. An integrated management platform for monitoring and early warning of agricultural meteorological disasters, comprising an equipment box (1), characterized in that: An air control structure (6) capable of driving the flow of air inside the equipment box (1) is installed on the outside of the equipment box (1), and a retractable liquid storage structure (5) is installed on the outside of the equipment box (1). The air control structure (6) is located on the outside of the equipment box (1) and passes through the inside of the liquid storage structure (5); The liquid storage structure (5) is provided with a coolant tank (2) on a side away from the equipment box (1), and two partitions (3) are slidably inserted inside the coolant tank (2), and the two partitions (3) are fixed by a linkage rod (4). The coolant tank (2) and the liquid storage structure (5) are connected through a liquid pipe (7) and a power liquid pump (10). A single-head remote control telescopic rod (8) is fixedly passed through the upper end of the coolant tank (2), and the telescopic end of the single-head remote control telescopic rod (8) is fixed to the adjacent partition (3). A remote control structure (9) is installed on the upper end of the liquid storage structure (5), and the remote control structure (9) can control the telescopic movement of the single-head remote control telescopic rod (8) and the liquid storage structure (5).

2. The integrated management platform for monitoring and early warning of agricultural meteorological disasters according to claim 1, characterized in that: The liquid storage structure (5) comprises two end plates (51) and a plurality of annular cylinders (52), wherein the plurality of annular cylinders (52) are located between the two end plates (51), the two end plates (51) are fixedly mounted on two adjacent annular cylinders (52), each adjacent two annular cylinders (52) are slidably connected to each other, each adjacent two annular cylinders (52) are elastically connected, a pressing plate (53) is provided on one side of the two end plates (51) away from each other, a double-headed remote control telescopic rod (54) is provided between the two pressing plates (53), and two telescopic rods of the double-headed remote control telescopic rod (54) are provided. The ends are fixed to two pressing plates (53) respectively, a turntable (55) is elastically rotated on the outer side of the equipment box (1), the middle fixed end of the double-head remote control telescopic rod (54) is fixed to the equipment box (1), the middle ring tube (52) among the multiple ring tubes (52) is fixedly sleeved on the outer surface of the liquid pipe (7) and the power liquid pump (10), the coolant tank (2) is fixed to the turntable (55), and two bent rods (56) are fixedly installed on the front of the turntable (55), and the ring tube (52) and the end plate (51) are slidably sleeved on the outer surface of the bent rod (56).

3. The integrated management platform for monitoring and early warning of agricultural meteorological disasters according to claim 2 is characterized by: The remote control structure (9) includes a pressure control remote control (91) and a temperature control remote control (92). The temperature control remote control (92) passes through the adjacent end plate (51). The pressure control remote control (91) is fixed to the adjacent pressure plate (53). The other pressure plate (53) is located on the lower side of the pressure control remote control (91) and is equipped with two round rods (93). The pressure control remote control (91) can control the single-head remote control telescopic rod (8) to extend and retract when subjected to pressure, and the temperature control remote control (92) can control the double-head remote control telescopic rod (54) to extend and retract.

4. The integrated management platform for monitoring and early warning of agricultural meteorological disasters according to claim 2, characterized in that: The air control structure (6) includes a return air hose (61), a power air extraction hose (62) and a flat plate (63). The outer surface of the flat plate (63) is slidably connected to an air box (64). The return air hose (61) and the power air extraction hose (62) respectively penetrate the left and right sides of the equipment box (1). The other ends of the return air hose (61) and the power air extraction hose (62) penetrate the upper surface of the air box (64). The power air extraction hose (62) is located inside the air box (64) and is fixedly connected to a short tube (65). The lower end of the short tube (65) is in sliding contact with the upper surface of the flat plate (63). The flat plate (63) is located inside the air box (64) and has two bent pipes (66) installed at one end. The other end of the bent pipe (66) is connected to a side box (67). The side box (67) is fixed to the turntable (55). A hard pipe (69) is passed through the inner side of the annular cylinder (52). Both ends of the hard pipe (69) are fixed with a connecting hose (68). The other end of the connecting hose (68) is connected to the adjacent side box (67). An electric telescopic rod (610) is fixed to the outer surface of the air box (64). The other end of the electric telescopic rod (610) is fixed to the flat plate (63).

5. The integrated management platform for monitoring and early warning of agricultural meteorological disasters according to claim 4 is characterized by: A bevel gear ring (551) is coaxially fixed to one side of the turntable (55) away from the equipment box (1), a toothless bevel gear (552) is provided on the upper side of the bevel gear ring (551), and the toothless bevel gear (552) is rotationally connected to the equipment box (1). An electric motor (553) is fixed to the upper surface of the equipment box (1), and a shaft of the toothless bevel gear (552) is fixed to an output end of the electric motor (553).

6. The integrated management platform for monitoring and early warning of agricultural meteorological disasters according to claim 4, characterized in that: The hard tube (69) is located inside the annular tube (52) at one end and is arranged to be reciprocatingly bent. A plurality of gas gathering cones (691) are fixed inside the hard tube (69) at one end inside the annular tube (52). A gas separation cone head (692) is provided at the axis of one side of the gas gathering cone (691). The gas separation cone head (692) is fixed inside the hard tube (69), and the end of the gas separation cone head (692) that is close to the adjacent gas gathering cone (691) is a small-diameter end.

7. The integrated management platform for monitoring and early warning of agricultural meteorological disasters according to claim 5, characterized in that: The inner walls of the left and right sides of the equipment box (1) are both fixed with air-permeable side frames (12), and a vertically movable transparent box (11) is slidably inserted into the interior of the air-permeable side frame (12). The air-permeable side frame (12) and the transparent box (11) are in a perforated structure on one side close to the central axis of the equipment box (1). The other end of the transparent box (11) is fixedly connected to a movable hose (13). The return air hose (61) and the power exhaust hose (62) are located at one end inside the equipment box (1) and are fixedly connected to the two movable hoses (13).

8. The integrated management platform for monitoring and early warning of agricultural meteorological disasters according to claim 7, characterized in that: The vertical thread of the ventilation box (11) is penetrated by a reciprocating threaded rod (111), and both ends of the reciprocating threaded rod (111) rotate to penetrate the inner wall of the ventilation side frame (12), and the upper end of the reciprocating threaded rod (111) rotates to penetrate the inner wall of the equipment box (1). The two reciprocating threaded rods (111) are located at one end outside the equipment box (1) and are connected to the output end of the motor (553) through a conveyor belt (112) for transmission.

9. The integrated management platform for monitoring and early warning of agricultural meteorological disasters according to claim 8, characterized in that: The motor (553) and the two reciprocating threaded rods (111) are distributed in a triangle. Tensioning wheels (113) are provided on both the front and rear sides of the conveyor belt (112). The lower end of the tensioning wheel (113) is rotatably plugged into the upper surface of the equipment box (1).

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