Temperature measuring component and system used in double-tank cloud chamber and laying method

Abstract

The invention provides a temperature measurement component and system used in a double-tank cloud chamber and a laying method, the temperature measurement component comprises a temperature measurement fiber grating sensor for measuring the temperature in the double-tank cloud chamber and a humidity sensor for measuring the humidity in the double-tank cloud chamber, the temperature measurement fiber grating sensor is connected with a temperature transmission fiber, and the temperature transmission fiber is connected with the humidity sensor. The humidity sensor is connected with a humidity transmission optical fiber; the device further comprises a load-bearing rope, a metal hose and a sealing base, the load-bearing rope is vertically arranged, and the temperature measurement fiber grating sensors and the humidity sensors are fixedly arranged on the load-bearing rope; the device is used for temperature measurement and temperature measurement component layout in the double-tank cloud chamber, the detection string can be used as an independent component for temperature measurement layout, the grating can be protected in the site construction layout process, and deformation caused by the effect of external force is prevented; the temperature measuring string can be directly used on site, the laying steps are simplified, the laying speed is improved, and the temperature measuring string is convenient to carry and transport.

Description

Technical Field

[0001] This invention belongs to the field of temperature measurement systems, and in particular relates to a temperature measurement component, system, and deployment method for a dual-tank cloud chamber. Background Technology

[0002] The dual-tank cloud chamber is a comprehensive experimental system for simulating atmospheric environments. Its main structure is a sealed container, capable of partially or completely controlling conditions such as air pressure, temperature, and humidity to create clouds and fog. It serves as a laboratory device for cloud and precipitation physics and has long been widely used in cloud physics experimental research. The cloud chamber primarily focuses on the physics of clouds and fog, the causes, physical structures, and evolutionary laws of artificial phenomena (clouds, fog, icefall, hail, and frost), the catalytic principles of weather modification, research on efficient catalysts, catalytic tools, catalytic techniques, and the development of novel catalysts.

[0003] In the study of dual-tank cloud chamber experiments, temperature is a crucial parameter for the cloud chamber. Due to the special nature of the cloud chamber space, there is a large temperature gradient in the vertical direction within the cloud chamber. Fiber optic temperature sensors have become very effective detection devices in this field because they are not affected by electromagnetic interference, are corrosion resistant, and have high reliability.

[0004] Given the environmental characteristics of the dual-tank cloud chamber experiment, monitoring internal temperature changes requires deploying numerous temperature measurement points throughout the entire tank space. This multi-location temperature measurement is necessary to monitor overall temperature variations within the cloud chamber. However, this necessitates a unified network arrangement of temperature detection units across all measurement points, resulting in extensive wiring that occupies valuable space within the cloud chamber. This not only impacts temperature data measurement and acquisition but also significantly complicates the structural layout and networking of the cloud chamber system.

[0005] In dual-tank cloud chamber experiments, environmental factors dictate the construction and material selection of the temperature measurement system and fiber Bragg grating temperature sensors. The ambient temperature inside the experimental tank typically ranges between -50°C and room temperature, and is also affected by rain, fog, and strong winds, thus placing high demands on the temperature sensor components. Due to these reasons and conditions, existing cloud chamber temperature detection methods often only measure local temperatures. When measuring absolute temperature values, the response speed and measurement accuracy are often insufficient. This is because the fiber Bragg grating is affected not only by temperature but also by factors such as strain during the cloud chamber experiment. Furthermore, during the on-site installation and layout of the fiber Bragg grating temperature measurement cable, the internal grating is easily deformed by external forces, leading to inaccurate temperature measurements. Summary of the Invention

[0006] In view of this, the present invention aims to propose a temperature measuring component, system and deployment method for a dual-tank cloud chamber, for temperature measurement in a dual-tank cloud chamber. The detection string can be deployed as an independent component for temperature measurement, which is convenient for on-site deployment in a dual-tank cloud chamber. It can protect the grating and prevent deformation caused by external forces in the on-site construction and layout of the fiber optic temperature measuring cable.

[0007] To achieve the above objectives, the technical solution of the present invention is implemented as follows: A temperature measuring component for a dual-tank cloud chamber includes a temperature-measuring fiber Bragg grating sensor for measuring the temperature inside the dual-tank cloud chamber and a humidity sensor for measuring the humidity inside the dual-tank cloud chamber. The temperature-measuring fiber Bragg grating sensor is connected to a temperature transmission fiber, and the humidity sensor is connected to a humidity transmission fiber. The component is characterized by further including a load-bearing rope, a metal flexible tube, and a sealed base. The load-bearing rope is vertically arranged, and multiple temperature-measuring fiber Bragg grating sensors and multiple humidity sensors are fixedly mounted on it. The multiple temperature-measuring fiber Bragg grating sensors and multiple humidity sensors are spaced apart along the length of the load-bearing rope. The load-bearing rope, the multiple temperature-measuring fiber Bragg grating sensors, and the multiple humidity sensors are fitted inside the metal flexible tube to form an independent detection string. The metal flexible tube has ventilation holes on its side wall, a cable outlet at its upper end, and a sealing base at its lower end. One end of the load-bearing rope is fixed to the center of the sealing base, and the other end extends to the outside of the cable outlet. Multiple temperature transmission optical fibers form a temperature transmission optical fiber bundle, and multiple humidity transmission optical fibers form a humidity transmission optical fiber bundle. The temperature transmission optical fiber bundle and the humidity transmission optical fiber bundle extend to the outside of the cable outlet.

[0008] Furthermore, each detection string includes 10 to 25 temperature-measuring fiber Bragg grating sensors and 10 to 25 humidity sensors, and the temperature-measuring fiber Bragg grating sensors and the humidity sensors are symmetrically arranged on both sides of the load-bearing rope.

[0009] Furthermore, the temperature-sensing fiber Bragg grating sensor includes a temperature-sensing capillary encapsulation tube, a temperature-sensing fiber Bragg grating, a temperature-sensing optical fiber, and sealing silicone. The bottom of the temperature-sensing capillary encapsulation tube is provided with sealing silicone, and its sidewall is provided with a temperature-sensing heat-shrinkable tube. The temperature-sensing fiber Bragg grating, the temperature-sensing optical fiber, and the temperature transmission optical fiber are encapsulated inside the temperature-sensing capillary encapsulation tube. One end of the temperature-sensing fiber Bragg grating is connected to the temperature-sensing optical fiber, and the other end is connected to the temperature transmission optical fiber. The temperature transmission optical fiber extends to the outside of the temperature-sensing capillary encapsulation tube.

[0010] Furthermore, the humidity sensor includes a humidity-measuring capillary encapsulation tube, a humidity-measuring fiber grating, and a humidity-measuring fiber; the bottom of the humidity-measuring capillary encapsulation tube is provided with a hollow opening, and a humidity-measuring heat-shrinkable tube is provided on its side wall, which encapsulates the humidity-measuring fiber grating, the humidity-measuring fiber, and the humidity transmission fiber; one end of the humidity-measuring fiber grating is connected to the humidity-measuring fiber, and the other end is connected to the humidity transmission fiber; the humidity transmission fiber extends to the outside of the humidity-measuring capillary encapsulation tube.

[0011] Furthermore, the temperature transmission fiber bundle and the humidity transmission fiber bundle are respectively installed inside the fiber bundle tube, and the fiber bundle tube extends to the outside of the outlet.

[0012] Furthermore, a cable outlet is provided on the upper part of the tank body, and two cable bundles are provided at the cable outlet. The temperature transmission fiber bundle and the humidity transmission fiber bundle pass through the cable bundles and extend to the outside of the cable outlet.

[0013] A temperature measurement system for a dual-tank cloud chamber includes a temperature measurement component for the dual-tank cloud chamber and a computer connected to the temperature measurement component, the computer including a processor and a display screen.

[0014] A method for deploying temperature measuring components in a dual-tank cloud chamber, based on one or both tanks of the dual-tank cloud chamber, includes the following steps: Step 1: Symmetrically install supporting angle steel on the upper part of the tank; Step 2: Install an alloy pipe between the two supporting angle steels, and install multiple connectors at intervals on the alloy pipe; Step 3: Connect one end of the temperature measuring string to the connector, and leave the other end suspended inside the tank.

[0015] Step three is followed by step four, in which the temperature transmission fiber bundle and the humidity transmission fiber bundle are tied along the alloy tube with nylon cable ties, routed to the inner wall of the tank, and fixed along the circumferential direction of the inner wall of the tank with tape.

[0016] Furthermore, the supporting angle steel and connecting parts include a first connecting plate and a second connecting plate arranged perpendicularly to each other, and threaded holes for mounting screws are provided on the first connecting plate and the second connecting plate.

[0017] Compared with existing technologies, the temperature measuring components, systems, and deployment methods for dual-tank cloud chambers described in this invention have the following advantages: (1) The present invention is used for a temperature measuring component and system in a dual-tank cloud chamber. The temperature measuring fiber optic grating sensor, humidity sensor, load-bearing rope, metal hose and sealing base form an independent detection string. The metal hose protects the grating and prevents it from being deformed by external force. Multiple temperature measuring fiber optic grating sensors and multiple humidity sensors are set at intervals to realize synchronous monitoring of temperature and humidity at different heights in the cloud chamber.

[0018] (2) The method for arranging temperature measuring components provided by the present invention uses supporting angle steel, alloy pipe, connector and temperature measuring string for on-site arrangement, which is simple to operate and reduces the arrangement cost; the temperature measuring string is an independent component, which can meet the temperature and humidity measurement requirements of the double tank cloud room, can be used directly on site, simplifies the arrangement steps and improves the arrangement speed; and is easy to carry and transport, which improves the temperature measurement arrangement efficiency. Attached Figure Description

[0019] The accompanying drawings, which form part of this invention, are used to provide a further understanding of the invention. The illustrative embodiments of the invention and their descriptions are used to explain the invention and do not constitute an undue limitation of the invention. In the drawings: Figure 1 This is a schematic diagram of the detection string structure according to an embodiment of the present invention; Figure 2 This is a schematic diagram of the temperature-measuring fiber optic grating sensor according to an embodiment of the present invention; Figure 3 This is a schematic diagram of the humidity sensor structure according to an embodiment of the present invention; Figure 4 This is a schematic diagram of the layout of the detection string according to an embodiment of the present invention; Figure 5 This is a schematic diagram showing the layout of the alloy tubes according to an embodiment of the present invention; Figure 6 This is a schematic diagram of the supporting angle steel and connecting parts structure according to an embodiment of the present invention; Figure 7 This is a schematic diagram of the alloy tube and connector structure according to an embodiment of the present invention; Figure 8 This is a schematic diagram of the alloy tube and U-shaped clip structure described in an embodiment of the present invention; Figure 9 This is a schematic diagram of the metal flexible hose structure according to an embodiment of the present invention.

[0020] Explanation of reference numerals in the attached figures: 1-Outlet; 2-Metal flexible hose; 3-Temperature fiber optic grating sensor; 4-Temperature transmission fiber optic cable; 5-Bearing rope; 6-Sealed base; 7-Humidity sensor; 8-Humidity transmission fiber optic cable; 9-Temperature transmission fiber optic bundle; 10-Humidity transmission fiber optic bundle; 11-Supporting angle steel; 12-Alloy tube; 13-First wiring position; 14-Connector; 15-Tank body; 16-Second wiring position; 17-U-shaped clip; 18-Metal strip; 19-Ventilation Hole; 20-Detection string; 21-First connecting plate; 22-Second connecting plate; 23-Threaded hole; 101-Temperature measuring capillary encapsulation tube; 102-Temperature measuring heat shrink tube; 103-Temperature measuring fiber optic grating; 104-Temperature measuring fiber; 105-Sealing silicone; 201-Moisture measuring capillary encapsulation tube; 202-Moisture measuring heat shrink tube; 203-Moisture measuring fiber optic grating; 204-Moisture measuring fiber; 205-Opening; 301-U-ring; 302-Mounting plate. Detailed Implementation

[0021] It should be noted that, unless otherwise specified, the embodiments and features described in the present invention can be combined with each other.

[0022] The present invention will now be described in detail with reference to the accompanying drawings and embodiments.

[0023] In a first aspect, the present invention provides a temperature measuring component for use in a dual-tank cloud chamber, such as... Figure 1 As shown, the device includes a temperature-measuring fiber optic grating sensor 3 for measuring the temperature inside the dual-tank cloud chamber, and a humidity sensor 7 for measuring the humidity inside the dual-tank cloud chamber. The temperature-measuring fiber optic grating sensor 3 is connected to a temperature transmission fiber 4, and the humidity sensor 7 is connected to a humidity transmission fiber optic 8. It also includes a load-bearing rope 5, a metal flexible tube 2, and a sealed base 6. The load-bearing rope 5 is vertically arranged, and multiple temperature-measuring fiber optic grating sensors 3 and multiple humidity sensors 7 are fixedly mounted on it. The multiple temperature-measuring fiber optic grating sensors 3 and multiple humidity sensors 7 are spaced apart along the length of the load-bearing rope 5. The load-bearing rope 5, the multiple temperature-measuring fiber optic grating sensors 3, and the multiple humidity sensors 7 are assembled within the metal flexible tube 2 to form an independent detection string. The metal flexible hose 2 has ventilation holes 19 on its side wall, a cable outlet 1 at its upper end, and a sealing base 6 at its lower end. One end of the load-bearing rope 5 is fixed to the central area of ​​the sealing base 6, and the other end extends to the cable outlet 1. Multiple temperature transmission optical fibers 4 form a temperature transmission optical fiber bundle 9, and multiple humidity transmission optical fibers 8 form a humidity transmission optical fiber bundle 10. The temperature transmission optical fiber bundle 9 and the humidity transmission optical fiber bundle 10 extend to the outside of the cable outlet 1.

[0024] This invention discloses a temperature measuring component for a dual-tank cloud chamber. Multiple temperature-measuring fiber Bragg grating sensors and multiple humidity sensors are connected via a load-bearing rope. The load-bearing rope is fixed to the center of a sealed base, creating a gap between the inner wall of a metal flexible tube and the temperature-measuring fiber Bragg grating sensors and humidity sensors. The metal flexible tube protects the gratings from deformation under external forces. An independent detection string is also installed within the metal flexible tube, which can be deployed as an independent temperature measuring component. The multiple temperature-measuring fiber Bragg grating sensors and multiple humidity sensors are spaced apart to achieve simultaneous monitoring of temperature and humidity at different altitudes within the cloud chamber. Preferred, such as Figure 9 As shown, the flexible metal hose is composed of metal strips 18, with ventilation holes 19 formed between the strips. This provides good permeability and sag characteristics, allowing for rapid response to changes in the external environment. The load-bearing rope is a steel wire rope, capable of supporting multiple temperature-measuring fiber optic grating sensors and multiple humidity sensors.

[0025] like Figure 1 As shown in this preferred embodiment, each detection string includes 10 to 25 temperature-measuring fiber Bragg grating sensors 3 and 10 to 25 humidity sensors 7, and the temperature-measuring fiber Bragg grating sensors 3 and the humidity sensors 7 are symmetrically arranged on both sides of the load-bearing rope 5. The temperature-measuring fiber Bragg grating sensors 3 and the humidity sensors 7 can be fixed to the load-bearing rope 5 with tape, enabling the measurement of temperature and humidity at the same height, and resulting in a more compact structure.

[0026] like Figure 2 As shown, the temperature-sensing fiber Bragg grating sensor 3 includes a temperature-sensing capillary tube 101, a temperature-sensing fiber Bragg grating 103, a temperature-sensing optical fiber 104, and a sealing silicone 105. The temperature-sensing capillary tube 101 has a sealing silicone 105 at its bottom and a temperature-sensing heat-shrinkable tube 102 on its sidewall. The temperature-sensing fiber Bragg grating 103, the temperature-sensing optical fiber 104, and a temperature-transmitting optical fiber 4 are encapsulated within the temperature-sensing capillary tube 101. One end of the temperature-sensing fiber Bragg grating 103 is connected to the temperature-sensing optical fiber 104, and the other end is connected to the temperature-transmitting optical fiber 4. The temperature-transmitting optical fiber 4 extends to the outside of the temperature-sensing capillary tube 101. Preferably, the temperature-sensing capillary tube 101 is made of 316 stainless steel. The sealing silicone 105 seals the bottom of the temperature-sensing capillary tube 101, and the temperature-sensing capillary tube 101 is encapsulated using a heat-shrinkable tube 102. The temperature-transmitting optical fiber 4 extends from the heat-shrinkable tube 6.

[0027] like Figure 3As shown, the humidity sensor 7 includes a humidity-measuring capillary encapsulation tube 201, a humidity-measuring fiber optic grating 203, and a humidity-measuring optical fiber 204. The bottom of the humidity-measuring capillary encapsulation tube 201 has a hollowed-out opening 205, and its side wall has a humidity-measuring heat-shrinkable tube 202, which encapsulates the humidity-measuring fiber optic grating 203, the humidity-measuring optical fiber 204, and a humidity transmission optical fiber 8. One end of the humidity-measuring fiber optic grating 203 is connected to the humidity-measuring optical fiber 204, and the other end is connected to the humidity transmission optical fiber 8. The humidity transmission optical fiber 8 extends to the outside of the humidity-measuring capillary encapsulation tube 201. Preferably, the humidity-measuring capillary encapsulation tube 201 is made of 316 stainless steel, and the humidity-measuring fiber optic grating 203 consists of a fiber optic grating and a humidity-sensitive material coated thereon. The humidity-sensitive material is polyimide, and its thickness is 80 μm. The humidity-measuring fiber optic grating 203 detects the humidity in the air, thereby measuring the relative humidity inside the container.

[0028] like Figure 1 As shown, the temperature transmission fiber bundle 9 and the humidity transmission fiber bundle 10 are respectively installed inside the fiber bundle tube, which extends to the outside of the outlet 1. Figure 5 As shown, the tank body 15 is provided with a tank outlet 24, and the tank outlet 24 is provided with two wire harness tubes 25. The temperature transmission fiber bundle and the humidity transmission fiber bundle are respectively passed through the wire harness tubes 25 and extend to the outside of the tank outlet 24. Furthermore, multiple temperature transmission fibers are connected in parallel, and multiple humidity transmission fibers are connected in parallel, and are respectively installed in the wire harness tubes 25 for wiring positioning and protection.

[0029] Secondly, the present invention provides a temperature measurement system for a dual-tank cloud chamber, comprising a temperature measuring component for the dual-tank cloud chamber and a computer connected to the temperature measuring component. The computer includes a processor and a display screen. The processor is used to receive and process temperature and humidity data collected by the temperature measuring component and display it on the display screen. Preferably, the computer runs processing and analysis software for processing and analyzing the temperature and humidity data collected by the temperature measuring component.

[0030] Thirdly, the present invention provides a method for deploying the temperature measuring components used in the dual-tank cloud chamber, such as... Figure 4 , Figure 5 As shown, temperature measurement is deployed based on one or two tanks 15 of the dual-tank cloud chamber, including the following steps: Step 1, symmetrically set up supporting angle steels 11 on the upper part of the tank 15; Step 2, erect an alloy pipe 12 between the two supporting angle steels 11, and set up multiple connectors 14 at intervals on the alloy pipe 12; Step 3, connect one end of the temperature measuring string to the connector, and suspend the other end inside the tank.

[0031] Following step three, a fourth step is included: binding the temperature transmission fiber bundle 9 and the humidity transmission fiber bundle 10 along the alloy tube 12 with nylon cable ties, as follows. Figure 4 As shown in the first wiring position of section 13; the wiring extends to the inner wall of tank 15 and is secured circumferentially along the inner wall of tank 15 with tape, as shown. Figure 4 The second routing position is shown in section 16.

[0032] The method for arranging the temperature measuring components provided by the present invention involves on-site installation using supporting angle steel 11, alloy tube 12, and connector 14. Preferably, the supporting angle steel 11 and connector 14 are angle steel, which is a commonly used connector, reducing installation costs and simplifying the structure for easy on-site installation. The temperature measuring string is an independent component that can be used directly on-site, improving installation speed. The independent component of the temperature measuring string meets the requirements for accuracy, consistency, speed, and slimness in the dual-tank cloud chamber, and is easy to carry and transport, facilitating on-site installation.

[0033] like Figure 5 As shown, the supporting angle steel 13 and the connecting member 14 include a first connecting plate 21 and a second connecting plate 22 arranged perpendicularly to each other, and threaded holes 23 for mounting screws are formed on the first connecting plate 21 and the second connecting plate 22. As a preferred embodiment of this invention, as... Figure 6 , Figure 7 As shown, the first connecting plate 21 and the second connecting plate 22 of the connector 14 are respectively connected to the alloy tube 12 and the outlet 1 of the detection string by screws. Preferably, the supporting angle steel 13 and the connector 14 are made of 316 stainless steel, with a length of 160mm, a width of 70mm, a height of 70mm, and a thickness of 3mm. The angle steel is welded to the tank body.

[0034] As another preferred embodiment, such as Figure 8 As shown, the connector 14 includes a U-shaped clip 17, which is detachably connected to the alloy tube 12 and can be adjusted left and right along the alloy tube 12 to facilitate position adjustment according to the site conditions; the U-shaped clip 17 includes a U-ring 301 and a mounting plate 302, the U-ring 301 is spaced on the alloy tube 12, and the mounting plate 302 is connected to the alloy tube 12 and the outlet 1 of the detection string by screws.

[0035] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A temperature measuring component for a dual-tank cloud chamber, comprising a temperature-measuring fiber Bragg grating sensor for measuring the temperature inside the dual-tank cloud chamber, and a humidity sensor for measuring the humidity inside the dual-tank cloud chamber, wherein the temperature-measuring fiber Bragg grating sensor is connected to a temperature transmission fiber, and the humidity sensor is connected to a humidity transmission fiber; characterized in that: It also includes a load-bearing rope, a metal hose, and a sealed base. The load-bearing rope is vertically arranged, and multiple temperature-measuring fiber optic grating sensors and multiple humidity sensors are fixedly mounted on it. The multiple temperature-measuring fiber optic grating sensors and multiple humidity sensors are spaced apart along the length of the load-bearing rope. The load-bearing rope, multiple temperature-measuring fiber optic grating sensors, and multiple humidity sensors are assembled inside the metal hose to form an independent detection string. The metal flexible tube has ventilation holes on its side wall, a cable outlet at its upper end, and a sealing base at its lower end. One end of the load-bearing rope is fixed to the center of the sealing base, and the other end extends to the outside of the cable outlet. Multiple temperature transmission optical fibers form a temperature transmission optical fiber bundle, and multiple humidity transmission optical fibers form a humidity transmission optical fiber bundle. The temperature transmission optical fiber bundle and the humidity transmission optical fiber bundle extend to the outside of the cable outlet.

2. The temperature measuring component for a dual-tank cloud chamber according to claim 1, characterized in that: Each detection string includes 10 to 25 temperature-measuring fiber Bragg grating sensors and 10 to 25 humidity sensors, and the temperature-measuring fiber Bragg grating sensors and the humidity sensors are symmetrically arranged on both sides of the load-bearing rope.

3. The temperature measuring component for a dual-tank cloud chamber according to claim 1, characterized in that: The temperature-sensing fiber optic grating sensor includes a temperature-sensing capillary encapsulation tube, a temperature-sensing fiber optic grating, a temperature-sensing optical fiber, and sealing silicone. The bottom of the temperature-sensing capillary encapsulation tube is provided with sealing silicone, and its side wall is provided with a temperature-sensing heat-shrinkable tube. The temperature-sensing fiber optic grating, the temperature-sensing optical fiber, and the temperature transmission optical fiber are encapsulated inside the temperature-sensing capillary encapsulation tube. One end of the temperature-sensing fiber optic grating is connected to the temperature-sensing optical fiber, and the other end is connected to the temperature transmission optical fiber. The temperature transmission fiber extends to the outside of the temperature-sensing capillary encapsulation tube.

4. The temperature measuring component for a dual-tank cloud chamber according to claim 1, characterized in that: The humidity sensor includes a humidity-measuring capillary tube, a humidity-measuring fiber grating, and a humidity-measuring fiber. The bottom of the humidity-measuring capillary tube has a hollowed-out opening, and its side wall has a humidity-measuring heat-shrinkable tube. The humidity-measuring fiber grating, the humidity-measuring fiber, and the humidity transmission fiber are encapsulated inside the capillary tube. One end of the humidity-measuring fiber grating is connected to the humidity-measuring fiber, and the other end is connected to the humidity transmission fiber. The humidity transmission fiber extends to the outside of the humidity-measuring capillary tube.

5. The temperature measuring component for a dual-tank cloud chamber according to claim 1, characterized in that: The temperature transmission fiber bundle and the humidity transmission fiber bundle are respectively installed inside the fiber bundle tube, and the fiber bundle tube extends to the outside of the outlet.

6. The method for arranging temperature measuring components in a dual-tank cloud chamber according to claim 1, characterized in that: The upper part of the tank is provided with a tank outlet, and two wire harness tubes are provided at the tank outlet. The temperature transmission fiber optic bundle and the humidity transmission fiber optic bundle pass through the wire harness tubes and extend to the outside of the tank outlet.

7. A temperature measurement system for a dual-tank cloud chamber, characterized in that: It includes a temperature measuring component as described in any one of claims 1-6, and a computer connected to the temperature measuring component, the computer including a processor and a display screen.

8. A method for arranging temperature measuring components in a dual-tank cloud chamber according to any one of claims 1-6, characterized in that, Temperature measurement deployment is based on one or both tanks of a dual-tank cloud chamber, including the following steps: Step 1: Symmetrically install supporting angle steel on the upper part of the tank; Step 2: Install an alloy pipe between the two supporting angle steels, and install multiple connectors at intervals on the alloy pipe; Step 3: Connect one end of the temperature measuring string to the connector, and leave the other end suspended inside the tank.

9. A method for arranging temperature measuring components in a dual-tank cloud chamber according to claim 8, characterized in that: Step three is followed by step four, in which the temperature transmission fiber bundle and the humidity transmission fiber bundle are tied along the alloy tube with nylon cable ties, routed to the inner wall of the tank, and fixed along the circumferential direction of the inner wall of the tank with tape.

10. A method for arranging temperature measuring components in a dual-tank cloud chamber according to claim 9, characterized in that: The supporting angle steel and connectors include a first connecting plate and a second connecting plate arranged perpendicularly to each other, with threaded holes for mounting screws on the first connecting plate and the second connecting plate.

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