Ventilation structure of temperature sensor for meteorological measurement

By adopting a multi-faceted windward mechanism and a reduction flow diversion mechanism in the ventilation structure of the temperature sensor for meteorological measurement, combined with a liquid cooling system, the problem of cooling of the sensor under different wind directions and wind pressure conditions is solved, and stable and efficient temperature control is achieved.

CN120076280AActive Publication Date: 2025-05-30LANZHOU UNIV
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Patent Information

Application Number
CN202510551103.5
Authority / Receiving Office
CN · China
Patent Type
Applications(China)
Current Assignee / Owner
Filing Date
2025-04-29
Publication Date
2025-05-30
Estimated Expiration
2045-04-29

AI Technical Summary

Technical Problem

The existing temperature sensor ventilation structure for meteorological measurement cannot introduce natural wind according to the wind direction to cool down, and the external natural wind cannot meet the sensor's cooling needs when the external natural wind is small.

Method used

Multi-faceted windward mechanism and reduction flow guide mechanism are adopted, including air guide tubes, dispersed air mesh barrels, lightweight air guide balls, air guide springs, air filter mechanisms, air lift mechanisms, sealing mechanisms and liquid cooling mechanisms. Through the mutual cooperation of these structures, natural wind is used for ventilation and cooling, and when natural wind is insufficient, the evaporative cooling effect of the water-absorbing cotton layer is used to cool.

Benefits of technology

It realizes the introduction of natural wind according to the wind direction to cool the temperature sensor, and ensures the stable operation of the sensor through the liquid cooling system when the natural wind is insufficient, meeting the cooling needs of the temperature sensor for meteorological measurement.

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Patent Text Reader

Abstract

The invention belongs to the technical field of meteorological measurement, and particularly relates to a temperature sensor ventilation structure for meteorological measurement, which comprises a ventilation box, an air inducing barrel, multiple groups of one-way exhaust valves, a multi-surface windward mechanism and a decrement type flow guide mechanism, the air inducing barrel is arranged on the upper wall of the ventilation box in a communicating manner, and the multiple groups of one-way exhaust valves are arranged on the side wall of the ventilation box in a communicating manner; the multi-face windward mechanism comprises an air guide mechanism, an air filtering mechanism and an air lifting mechanism, the air guide mechanism is arranged on the inner wall of the air inducing barrel in a penetrating mode, the air filtering mechanism is arranged on the side, close to the air inducing barrel, of the air guide mechanism, and the air lifting mechanism is arranged on the inner wall, below the air guide mechanism, of the air inducing barrel in a penetrating mode. According to the temperature sensor ventilation structure for meteorological measurement, external natural wind can be introduced to the position where the meteorological sensor is located according to different wind directions to cool the meteorological sensor, and when the external natural wind is small, the requirement for cooling the meteorological temperature sensor can still be met.
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Description

Technical Field

[0001] The present invention belongs to the technical field of meteorological measurement, and specifically refers to a ventilation structure for a temperature sensor used in meteorological measurement. Background Art

[0002] Meteorological measurement equipment measures data such as temperature, humidity, wind speed, and air pressure in the air through components such as data chips and temperature sensors installed inside, to accurately judge and predict recent weather changes. A meteorological observation system composed of various means can observe the atmospheric state and its changes from the ground to the high altitude, and from the local area to the global area.

[0003] Currently, the existing ventilation structures for temperature sensors used in meteorological measurement have the following problems: The existing ventilation structures for temperature sensors used in meteorological measurement do not have the ability to introduce external natural wind to the location of the meteorological sensor according to different wind directions for cooling, and the traditional ventilation structures for temperature sensors used in meteorological measurement also do not have the ability to still meet the cooling requirements of the meteorological temperature sensor when the external natural wind is small. Therefore, they cannot meet the current usage requirements for the ventilation structures of temperature sensors used in meteorological measurement. Summary of the Invention

[0004] In view of the above situation, to overcome the defects of the prior art, this solution provides a ventilation structure for a temperature sensor used in meteorological measurement that can introduce external natural wind to the location of the meteorological sensor according to different wind directions for cooling, and can still meet the cooling requirements of the meteorological temperature sensor when the external natural wind is small.

[0005] A ventilation structure for a temperature sensor used in meteorological measurement proposed by this solution includes a ventilation box, an air guiding cylinder, a one-way exhaust valve, a multi-faceted windward mechanism, and a flow reduction guiding mechanism. The air guiding cylinder is communicatively connected to the upper wall of the ventilation box, and multiple groups of the one-way exhaust valves are communicatively connected to the side wall of the ventilation box. The multi-faceted windward mechanism includes a wind guiding mechanism, a wind filtering mechanism, and a wind lifting mechanism. The wind guiding mechanism penetrates through the inner wall of the air guiding cylinder, the wind filtering mechanism is arranged on the side of the wind guiding mechanism close to the air guiding cylinder, and the wind lifting mechanism penetrates through the inner wall of the air guiding cylinder below the wind guiding mechanism. The flow reduction guiding mechanism includes a blocking mechanism and a liquid cooling mechanism. The blocking mechanism is arranged inside the wind filtering mechanism, and the liquid cooling mechanism is arranged on the side wall of the air guiding cylinder.

[0006] As a further optimization of the solution in this case, the air guiding mechanism includes an air guiding cylinder, a diffuser net cylinder, a lightweight air guiding ball and an air guiding spring. Multiple groups of the air guiding cylinders are arranged through the inner wall of the air suction cylinder at the end far from the ventilation box. The air guiding cylinder is a through cavity. The diffuser net cylinder is connected to the side wall of the air guiding cylinder inside the air suction cylinder. The air guiding spring is arranged on the inner wall of the diffuser net cylinder at the end far from the air guiding cylinder. The lightweight air guiding ball is arranged on the side of the air guiding spring close to the air guiding cylinder. The inner diameter of the end of the air guiding cylinder far from the diffuser net cylinder is smaller than the outer diameter of the lightweight air guiding ball, and the lightweight air guiding ball blocks the end of the air guiding cylinder far from the diffuser net cylinder. The air filtering mechanism includes an annular slider, a moisture absorption cylinder, an inverted cone cylinder, a water absorption cotton layer, an air inlet groove and an air inlet cylinder. The annular slider is arranged between adjacent diffuser net cylinders. The air inlet cylinder is slidably arranged on the inner wall of the annular slider. The air inlet cylinder is a through cavity. The moisture absorption cylinder is arranged on the inner wall of the air inlet cylinder. The moisture absorption cylinder is provided with an open upper end. The inverted cone cylinder is arranged through the bottom wall of the moisture absorption cylinder. The inverted cone cylinder is a through setting. The water absorption cotton layer is arranged between the inverted cone cylinder and the moisture absorption cylinder. The air inlet groove is arranged at the end of the air inlet cylinder close to the top wall of the air suction cylinder. The air inlet groove is a through setting. The air lifting mechanism includes a lifting bladder cylinder, a telescopic tube, a lightweight wind measuring ball, a wind measuring spring, an annular pressing bladder plate, an annular air bag and a one-way air outlet valve. Multiple groups of the lifting bladder cylinders are arranged through the inner wall of the air suction cylinder at the end close to the ventilation box. The lifting bladder cylinder is provided with an open end. The annular pressing bladder plate is arranged on the bottom wall of the moisture absorption cylinder. The annular pressing bladder plate is slidably connected to the inner wall of the air suction cylinder. The annular air bag is arranged between the annular pressing bladder plate and the bottom wall of the air suction cylinder. The telescopic tube is arranged through the annular pressing bladder plate and connected between the lifting bladder cylinder and the annular air bag. The wind measuring spring is arranged on the inner wall of one end of the lifting bladder cylinder. The lightweight wind measuring ball is arranged on the side of the wind measuring spring far from the inner wall of the lifting bladder cylinder. The inner diameter of the opening of the lifting bladder cylinder is smaller than the outer diameter of the lightweight wind measuring ball. Multiple groups of the one-way air outlet valves are arranged through the annular pressing bladder plate and connected to the upper wall of the annular air bag. The inner diameter of the one-way air outlet valve is one-third of the inner diameter of the lifting bladder cylinder.

[0007] During use, the surfaces of the air suction cylinders are all windward surfaces. When the wind blows towards the surfaces of the air suction cylinders, the airflow uses the elasticity of the air guiding spring to push the lightweight air guiding ball away from the opening of the air guiding cylinder. The natural wind passes through the air guiding cylinder and flows into the air suction cylinder through the diffuser net cylinder. The airflow gathered inside the air suction cylinder flows into the air inlet cylinder through the air inlet groove. The airflow inside the air inlet cylinder flows into the water absorption cotton layer inside the moisture absorption cylinder. The water absorption cotton layer adsorbs the moisture in the airflow. The airflow after adsorption enters the ventilation box to cool the temperature sensor placed inside it. The heat-exchanged air is discharged through the one-way exhaust valve. Since the ventilation box is cylindrical, the airflow is blocked by the ventilation box and flows backward along its two sides. When one side wall of the ventilation box is impacted by the wind, the one-way exhaust valves arranged on the other three sides quickly discharge the heat-exchanged air inside it under the action of the downwind airflow.

[0008] Preferably, the plugging mechanism includes a plugging spring, a groove, a heat insulation plate, a spring seat and a conduction groove. A plurality of the spring seats are arranged on the inner wall of the top of the moisture absorption cylinder. A plurality of the grooves are arranged on the bottom wall of the moisture absorption cylinder on the outer side of the inverted cone cylinder. The grooves are open at the upper end. The conduction groove is arranged on the inner wall of the moisture absorption cylinder below the groove and is arranged in a penetrating manner. The groove is communicated with the conduction groove. The liquid cooling mechanism includes a liquid cooling copper pipe, a liquid cooling cylinder and a cooling copper plate. A plurality of the liquid cooling cylinders are arranged on the side wall of the ventilation box. The liquid cooling copper pipe penetrates through the ventilation box and is communicated with the air guiding cylinder and is arranged between the liquid cooling cylinder and the conduction groove. The cooling copper plate penetrates through and is arranged on the inner wall of one end of the liquid cooling cylinder close to the ventilation box.

[0009] During use, when the external wind force is small, the airflow drives the lightweight wind measuring ball and then enters the annular airbag with less flow. The air inside the annular airbag gradually discharges under the gravity of the air inlet cylinder. The air inlet cylinder slides along the inner wall of the annular slider and drives the moisture absorption cylinder to descend. The liquid cooling copper pipe uses the deformation of the plugging spring to push the heat insulation plate out of the groove. The end of the liquid cooling copper pipe away from the liquid cooling cylinder enters the moisture absorption cylinder. Since the water vapor adsorbed by the water absorption cotton layer inside the moisture absorption cylinder is cooled by the external air for a long time, the temperature inside the water absorption cotton layer is relatively low. The water absorption cotton layer cools the liquid cooling copper pipe. The end of the liquid cooling copper pipe away from the water absorption cotton layer extends into the liquid cooling cylinder. The liquid cooling copper pipe cools the liquid pre-placed inside the liquid cooling cylinder. Moreover, the water droplets falling to the bottom of the moisture absorption cylinder inside the water absorption cotton layer flow into the liquid cooling cylinder through the liquid cooling copper pipe. The liquid inside the liquid cooling cylinder cools and then cools the temperature sensor inside the ventilation box through the cooling copper plate.

[0010] Specifically, a positioning and installation mechanism is arranged on the bottom wall of the ventilation box. The positioning and installation mechanism includes an installation frame and an installation plate. The installation frame is arranged on the bottom wall of the ventilation box. The installation plate is arranged on the side of the installation frame away from the ventilation box.

[0011] The beneficial effects obtained by this solution with the above structure are as follows: Compared with the prior art, this solution combines a multi-faceted air guiding structure and a diversion liquid cooling structure. Through the multi-faceted windward mechanism and the reduction type diversion mechanism set, under the combined use of the air guiding mechanism, the air filtering mechanism, the air lifting mechanism, the plugging mechanism and the liquid cooling mechanism, the airflow can be introduced into the ventilation box according to the flowing direction of the wind to ventilate and cool the sensor. And when the external natural wind is small and cannot meet the heat dissipation requirements of the temperature sensor, the evaporation cooling effect formed after the water absorption cotton layer adsorbs water vapor can be used to cool the liquid cooling copper pipe. The water vapor adsorbed inside the water absorption cotton layer is cooled by the external natural wind for a long time and has a relatively low temperature, so as to ensure the stable operation of the sensor under the state of less external ventilation volume. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 It is a schematic diagram of the overall structure of this solution; Figure 2 Is the upward-looking three-dimensional view of this solution; Figure 3 Is the schematic diagram of the internal structure of this solution; Figure 4 Is the schematic diagram of the structure of the moisture absorption cylinder of this solution; Figure 5 Is the front view of this solution; Figure 6 Is the top view of this solution; Figure 7 Is Figure 5 The partial sectional view of A-A of Figure 8 Is Figure 6 The partial sectional view of B-B of Figure 9 Is Figure 4 The enlarged structural view of part Ⅰ of Figure 10 Is Figure 3 The enlarged structural view of part Ⅱ of Figure 11 Is Figure 7 The enlarged structural view of part Ⅲ of Figure 12 Is Figure 7 The enlarged structural view of part Ⅳ of

[0013] Among them, 1. ventilation box, 2. air induction cylinder, 3. one-way exhaust valve, 4. multi-faceted windward mechanism, 5. air guiding mechanism, 6. air guiding cylinder, 7. air dispersing net cylinder, 8. lightweight air guiding ball, 9. air guiding spring, 10. air filtering mechanism, 11. annular slider, 12. moisture absorption cylinder, 13. inverted cone cylinder, 14. water absorption cotton layer, 15. air lifting mechanism, 16. lifting bladder cylinder, 17. telescopic pipe, 18. lightweight wind measuring ball, 19. wind measuring spring, 20. reduction type air guiding mechanism, 21. plugging mechanism, 22. plugging spring, 23. groove, 24. heat insulation board, 25. liquid cooling mechanism, 26. liquid cooling copper pipe, 27. liquid cooling cylinder, 28. cooling copper plate, 29. positioning and installation mechanism, 30. installation frame, 31. installation plate, 32. annular pressing bladder plate, 33. annular air bladder, 34. one-way air outlet valve, 35. air inlet groove, 36. air inlet cylinder, 37. spring seat, 38. conduction groove.

[0014] The attached drawings are used to provide a further understanding of this solution, and constitute a part of the specification. Together with the embodiments of this solution, they are used to explain this solution and do not constitute a limitation to this solution. Specific implementation manners

[0015] The technical solutions in the embodiments of the present solution will be clearly and completely described below in conjunction with the accompanying drawings in the embodiments of the present solution. Obviously, the described embodiments are only a part of the embodiments of the present solution, rather than all the embodiments; based on the embodiments in the present solution, all other embodiments obtained by those of ordinary skill in the art without creative efforts belong to the scope of protection of the present solution.

[0016] In the description of the present solution, it should be understood that the terms "upper", "lower", "front", "rear", "left", "right", "top", "bottom", "inner", "outer", etc. indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings, and are only for the convenience of describing the present solution and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation to the present solution.

[0017] As Figures 1-12 shown, a ventilation structure for a temperature sensor used in meteorological measurement proposed by the present solution includes a ventilation box 1, an air guide tube 2, a one-way exhaust valve 3, a multi-faceted windward mechanism 4, and a reduced-flow diversion mechanism 20. The air guide tube 2 is communicatively provided on the upper wall of the ventilation box 1, and multiple groups of the one-way exhaust valves 3 are communicatively provided on the side wall of the ventilation box 1. The multi-faceted windward mechanism 4 includes a wind guiding mechanism 5, a wind filtering mechanism 10, and a wind lifting mechanism 15. The wind guiding mechanism 5 penetrates through the inner wall of the air guide tube 2, the wind filtering mechanism 10 is provided on the side of the wind guiding mechanism 5 close to the air guide tube 2, and the wind lifting mechanism 15 penetrates through the inner wall of the air guide tube 2 below the wind guiding mechanism 5. The reduced-flow diversion mechanism 20 includes a blocking mechanism 21 and a liquid cooling mechanism 25. The blocking mechanism 21 is provided inside the wind filtering mechanism 10, and the liquid cooling mechanism 25 is provided on the side wall of the air guide tube 2.

[0018] The air guiding mechanism 5 includes an air guiding cylinder 6, a diffuser screen cylinder 7, a lightweight air guiding ball 8 and an air guiding spring 9. A plurality of groups of the air guiding cylinders 6 are arranged through the inner wall of the end of the air suction cylinder 2 far away from the ventilation box 1. The air guiding cylinder 6 is a through cavity. The diffuser screen cylinder 7 is communicated and arranged on the side wall of the air guiding cylinder 6 inside the air suction cylinder 2. The air guiding spring 9 is arranged on the inner wall of the end of the diffuser screen cylinder 7 far away from the air guiding cylinder 6. The lightweight air guiding ball 8 is arranged on the side of the air guiding spring 9 close to the air guiding cylinder 6. The inner diameter of the end of the air guiding cylinder 6 far away from the diffuser screen cylinder 7 is smaller than the outer diameter of the lightweight air guiding ball 8, and the lightweight air guiding ball 8 blocks the end of the air guiding cylinder 6 far away from the diffuser screen cylinder 7. The air filtering mechanism 10 includes an annular slider 11, a moisture absorption cylinder 12, an inverted cone cylinder 13, a water absorption cotton layer 14, an air inlet groove 35 and an air inlet cylinder 36. The annular slider 11 is arranged between adjacent diffuser screen cylinders 7. The air inlet cylinder 36 is slidably arranged on the inner wall of the annular slider 11. The air inlet cylinder 36 is a through cavity. The moisture absorption cylinder 12 is arranged on the inner wall of the air inlet cylinder 36. The moisture absorption cylinder 12 is provided with an open upper end. The inverted cone cylinder 13 is arranged through the bottom wall of the moisture absorption cylinder 12. The inverted cone cylinder 13 is a through setting. The water absorption cotton layer 14 is arranged between the inverted cone cylinder 13 and the moisture absorption cylinder 12. The air inlet groove 35 is arranged at the end of the air inlet cylinder 36 close to the top wall of the air suction cylinder 2. The air inlet groove 35 is a through setting. The air lifting mechanism 15 includes a lifting bladder cylinder 16, a telescopic tube 17, a lightweight wind measuring ball 18, a wind measuring spring 19, an annular bladder pressing plate 32, an annular air bladder 33 and a one-way air outlet valve 34. A plurality of groups of the lifting bladder cylinders 16 are arranged through the inner wall of the end of the air suction cylinder 2 close to the ventilation box 1. The lifting bladder cylinder 16 is provided with an open end. The annular bladder pressing plate 32 is arranged on the bottom wall of the moisture absorption cylinder 12. The annular bladder pressing plate 32 is slidably connected with the inner wall of the air suction cylinder 2. The annular air bladder 33 is arranged between the annular bladder pressing plate 32 and the bottom wall of the air suction cylinder 2. The telescopic tube 17 is arranged through the annular bladder pressing plate 32 and communicated between the lifting bladder cylinder 16 and the annular air bladder 33. The wind measuring spring 19 is arranged on the inner wall of one end of the lifting bladder cylinder 16. The lightweight wind measuring ball 18 is arranged on the side of the wind measuring spring 19 far away from the inner wall of the lifting bladder cylinder 16. The inner diameter of the opening of the lifting bladder cylinder 16 is smaller than the outer diameter of the lightweight wind measuring ball 18. A plurality of groups of the one-way air outlet valves 34 are arranged through the annular bladder pressing plate 32 and communicated on the upper wall of the annular air bladder 33. The inner diameter of the one-way air outlet valve 34 is one third of the inner diameter of the lifting bladder cylinder 16.

[0019] The plugging mechanism 21 includes a plugging spring 22, a groove 23, a heat insulation plate 24, a spring seat 37, and a conduction groove 38. Multiple groups of the spring seats 37 are arranged on the inner wall of the top of the moisture absorption cylinder 12. Multiple groups of the grooves 23 are arranged on the bottom wall of the moisture absorption cylinder 12 on the outer side of the inverted cone cylinder 13. The groove 23 is open at the upper end. The conduction groove 38 is arranged on the inner wall of the moisture absorption cylinder 12 below the groove 23. The conduction groove 38 is arranged in a penetrating manner. The groove 23 communicates with the conduction groove 38. The liquid cooling mechanism 25 includes a liquid cooling copper tube 26, a liquid cooling cylinder 27, and a cooling copper plate 28. Multiple groups of the liquid cooling cylinders 27 are arranged on the side wall of the ventilation box 1. The liquid cooling copper tube 26 penetrates through the ventilation box 1 and is connected between the liquid cooling cylinder 27 and the conduction groove 38 through the air guiding cylinder 2. The cooling copper plate 28 is arranged through the inner wall of one end of the liquid cooling cylinder 27 close to the ventilation box 1.

[0020] A positioning and installation mechanism 29 is arranged on the bottom wall of the ventilation box 1. The positioning and installation mechanism 29 includes an installation frame 30 and an installation plate 31. The installation frame 30 is arranged on the bottom wall of the ventilation box 1. The installation plate 31 is arranged on the side of the installation frame 30 away from the ventilation box 1.

[0021] During specific use, when using the meteorological temperature sensor, the meteorological temperature sensor is placed inside the ventilation box 1. The monitoring end of the meteorological temperature sensor penetrates and is placed on the side wall of the ventilation box 1. The temperature measuring upright column is fixedly connected to the installation plate 31. The temperature measuring upright column is fixed in the temperature measuring area. The meteorological temperature sensor is erected in the air. The meteorological temperature sensor is turned on. The remote terminal is electrically connected to the meteorological temperature sensor. In the first embodiment, there are many types of wind directions inside the temperature measuring area. The surfaces of the air guiding cylinders 2 are all set as windward surfaces. When the wind blows from a certain direction towards the surface of the air guiding cylinder 2, the air flow respectively uses the elasticity of the air guiding spring 9 and the wind measuring spring 19 to push the lightweight air guiding ball 8 and the lightweight wind measuring ball 18. The lightweight air guiding ball 8 moves away from the opening of the air guiding cylinder 6. The lightweight wind measuring ball 18 moves away from the opening of the air bag lifting cylinder 16. The air guiding cylinder 6 and the air bag lifting cylinder 16 are respectively communicated with the air guiding cylinder 2. A part of the natural wind blowing on the surface of the air guiding cylinder 2 flows into the interior of the air guiding cylinder 2 through the air guiding cylinder 6 and the air dispersing net cylinder 7. The air flow gathered inside the air guiding cylinder 2 flows into the interior of the air inlet cylinder 36 through the air inlet groove 35. Another part of the natural wind blowing on the surface of the air guiding cylinder 2 flows into the interior of the annular air bag 33 through the air bag lifting cylinder 16 and the telescopic tube 17. After the air flow inside the annular air bag 33 increases, it bulges. The annular air bag 33 drives the air inlet cylinder 36 to rise along the inner wall of the air guiding cylinder 2 through the annular air bag pressing plate 32. The air inlet cylinder 36 drives the moisture absorption cylinder 12 to rise along the inner wall of the annular sliding block 11. The moisture absorption cylinder 12 drives the conduction groove 38 away from the liquid cooling copper tube 26. The plugging spring 22 is normally in an extended state. The plugging spring 22 drives the heat insulation plate 24 into the groove 23 by using its own deformation to block the conduction groove 38. Since the inner diameter of the one-way air outlet valve 34 is smaller than the inner diameter of the air bag lifting cylinder 16, the air intake volume of the annular air bag 33 is greater than the exhaust volume, and the annular air bag 33 can carry the air inlet cylinder 36. The air flow inside the air inlet tube 36 flows into the water-absorbing cotton layer 14 inside the moisture-absorbing cylinder 12. The water-absorbing cotton layer 14 adsorbs the moisture in the air flow, reducing the probability of the influence of external moisture on the meteorological temperature sensor. The air flow after being adsorbed by the water-absorbing cotton layer 14 enters the ventilation box 1 to ventilate and cool the temperature sensor placed inside it. The heat-exchanged air is discharged through the one-way exhaust valve 3. Since the ventilation box 1 is cylindrical, the air flow is blocked by the front of the ventilation box 1 and then flows backward along its two sides. When one side wall of the ventilation box 1 is impacted by the wind force, the one-way exhaust valves 3 provided on the other three sides quickly discharge the heat-exchanged air inside it under the action of the downwind air flow, completing the air-cooling operation of the meteorological temperature sensor; Embodiment 2. This embodiment is based on the above embodiment. When the external wind force is small and the natural wind cannot meet the heat dissipation requirements of the meteorological temperature sensor, the amount of air flow entering the annular air bag 33 after pushing the lightweight wind-measuring ball 18 by the external air flow is small. At this time, the intake air volume of the annular air bag 33 is less than the exhaust air volume, and the air inside the annular air bag 33 gradually discharges under the gravity of the air inlet tube 36. The air inlet tube 36 slides along the inner wall of the annular slider 11 to drive the moisture-absorbing cylinder 12 to descend. The liquid-cooling copper tube 26 uses the deformation of the plugging spring 22 to push the heat-insulating plate 24 out of the groove 23. One end of the liquid-cooling copper tube 26 away from the liquid-cooling cylinder 27 enters the moisture-absorbing cylinder 12. Since the water vapor adsorbed by the water-absorbing cotton layer 14 inside the moisture-absorbing cylinder 12 is cooled by the long-term air-cooling of the external air, the temperature inside the water-absorbing cotton layer 14 is relatively low, and the water-absorbing cotton layer 14 can cool the liquid-cooling copper tube 26. A heat-insulating coating is applied to the side of the liquid-cooling copper tube 26 in contact with the external air. Half of the water is pre-injected into the liquid-cooling cylinder 27. One end of the liquid-cooling copper tube 26 away from the water-absorbing cotton layer 14 extends into the water in the liquid-cooling cylinder 27. The liquid-cooling copper tube 26 cools the water in the liquid-cooling cylinder 27, and there is a water inlet at the end of the liquid-cooling copper tube 26 close to the moisture-absorbing cylinder 12. The water droplets falling to the bottom of the moisture-absorbing cylinder 12 inside the water-absorbing cotton layer 14 flow into the liquid-cooling cylinder 27 through the liquid-cooling copper tube 26. The cooled water in the liquid-cooling cylinder 27 cools the temperature sensor inside the ventilation box 1 through the cooling copper plate 28, completing the water-cooling operation of the temperature sensor; Repeat the above operation when using it next time.

[0022] It should be noted that in this article, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the term "comprising", "including" or any other variant thereof is intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements not only includes those elements, but also includes other elements not expressly listed, or also includes elements inherent to such process, method, article or device.

[0023] The above describes the present solution and its implementation manners. Such description is not restrictive. What is shown in the drawings is only one of the implementation manners of the present solution, and the actual structure is not limited thereto. Generally speaking, if those of ordinary skill in the art are inspired by it and design, without creative work, a structural manner and embodiments similar to the technical solution without departing from the creative concept of the present solution, they shall fall within the protection scope of the present solution.

Claims

1. A temperature sensor ventilation structure for meteorological measurement, comprising a ventilation box, an air duct and a one-way exhaust valve, characterized in that: It also includes a multi-faceted wind-facing mechanism and a reduced-volume flow-guiding mechanism, the air duct is connected and arranged on the upper wall of the ventilation box, and multiple groups of one-way exhaust valves are connected and arranged on the side wall of the ventilation box; The multi-faceted windward mechanism comprises a wind guiding mechanism, a wind filtering mechanism and a wind lifting mechanism; The wind guide mechanism is arranged through the inner wall of the wind induced tube, the wind filtering mechanism is arranged on the side of the wind guide mechanism close to the wind induced tube, and the wind lifting mechanism is arranged through the inner wall of the wind induced tube below the wind guide mechanism; The reduction-type flow guiding mechanism includes a blocking mechanism and a liquid cooling mechanism; The blocking mechanism is arranged inside the air filtering mechanism, and the liquid cooling mechanism is arranged on the side wall of the air induced cylinder; The air guide mechanism comprises an air guide cylinder and an air dispersion net cylinder; A plurality of groups of the air guide tubes are arranged through the inner wall of the air induced tube at one end away from the ventilation box, and the air dispersion net tube is connected to the side wall of the air guide tube arranged inside the air induced tube; The air filtering mechanism comprises an annular slider, a moisture absorbing cylinder, an inverted cone cylinder and an air inlet cylinder; The annular slider is arranged between adjacent wind dispersing net cylinders, the air inlet cylinder is slidably arranged on the inner wall of the annular slider, the moisture absorption cylinder is arranged on the inner wall of the air inlet cylinder, and the inverted cone cylinder is penetrated and arranged on the bottom wall of the moisture absorption cylinder; The blocking mechanism includes a blocking spring, a groove, a temperature insulation plate, a spring seat and a conducting groove; A plurality of groups of spring seats are arranged on the inner wall of the top of the moisture absorbing cylinder, a plurality of groups of grooves are arranged on the bottom wall of the moisture absorbing cylinder outside the inverted cone cylinder, and the conducting grooves are arranged on the inner wall of the moisture absorbing cylinder below the grooves.

2. A temperature sensor ventilation structure for meteorological measurement according to claim 1, characterized in that: The liquid cooling mechanism includes a liquid cooling copper tube, a liquid cooling cylinder and a cooling copper plate. Multiple groups of the liquid cooling cylinders are arranged on the side wall of the ventilation box. The liquid cooling copper tube passes through the ventilation box and the induced draft tube and is connected between the liquid cooling cylinder and the conduction groove. The cooling copper plate passes through the inner wall of one end of the liquid cooling cylinder close to the ventilation box.

3. A temperature sensor ventilation structure for meteorological measurement according to claim 1, characterized in that: The air inlet cylinder is a through cavity, the moisture absorption cylinder is arranged with an upper opening, and the inverted cone cylinder is arranged through.

4. A temperature sensor ventilation structure for meteorological measurement according to claim 1, characterized in that: The groove is opened at the upper end, the conducting groove is through-set, and the groove is connected to the conducting groove.

5. A temperature sensor ventilation structure for meteorological measurement according to claim 1, characterized in that: The wind lifting mechanism includes a bag lifting tube, a telescopic tube, a lightweight wind measuring ball, a wind measuring spring, an annular bag pressure plate, an annular air bag and a one-way air outlet valve. Multiple groups of the bag lifting tubes are arranged through the inner wall of the air induced tube close to the ventilation box at one end. The annular bag pressure plate is arranged on the bottom wall of the moisture absorption tube. The annular bag pressure plate is slidably connected to the inner wall of the air induced tube. The annular air bag is arranged between the annular bag pressure plate and the bottom wall of the air induced tube. The telescopic tube passes through the annular bag pressure plate and is connected between the bag lifting tube and the annular air bag. The wind measuring spring is arranged on the inner wall of one end of the bag lifting tube. The lightweight wind measuring ball is arranged on the side of the wind measuring spring away from the inner wall of the bag lifting tube. Multiple groups of the one-way air outlet valves pass through the annular bag pressure plate and are connected to the upper wall of the annular air bag.

6. A temperature sensor ventilation structure for meteorological measurement according to claim 5, characterized in that: The inner diameter of the opening of the bag lifting tube is smaller than the outer diameter of the lightweight wind measuring ball, and the inner diameter of the one-way air outlet valve is one third of the inner diameter of the bag lifting tube.

7. A temperature sensor ventilation structure for meteorological measurement according to claim 1, characterized in that: The wind guide mechanism also includes a lightweight wind guide ball and an wind guide spring. The wind guide tube is a through cavity. The wind guide spring is arranged on the inner wall of one end of the wind dispersion net tube away from the wind guide tube. The lightweight wind guide ball is arranged on the side of the wind guide spring close to the wind guide tube. The inner diameter of the end of the wind guide tube away from the wind dispersion net tube is smaller than the outer diameter of the lightweight wind guide ball. The lightweight wind guide ball blocks the end of the wind guide tube away from the wind dispersion net tube.

8. A temperature sensor ventilation structure for meteorological measurement according to claim 1, characterized in that: The air filtering mechanism also includes a water-absorbing cotton layer and an air inlet groove. The water-absorbing cotton layer is arranged between the inverted cone cylinder and the moisture-absorbing cylinder. The air inlet groove is arranged at one end of the air inlet cylinder close to the top wall of the air induced cylinder, and the air inlet groove is arranged through.

9. A temperature sensor ventilation structure for meteorological measurement according to claim 1, characterized in that: The bottom wall of the ventilation box is provided with a positioning and mounting mechanism, and the positioning and mounting mechanism comprises a mounting frame and a mounting plate. The mounting frame is arranged on the bottom wall of the ventilation box, and the mounting plate is arranged on a side of the mounting frame away from the ventilation box.

Citation Information

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