A temperature sensor processing detection device

Abstract

This invention discloses a testing device for temperature sensor processing, relating to the field of temperature sensor processing and testing technology. It includes a fixed box, with one end of a fixed rod fixed to the fixed box, and the other end of the fixed rod fixed to a top plate. A constant temperature chamber is fixed inside the fixed box, and a motor is installed below the constant temperature chamber and fixed inside the fixed box. This testing device for temperature sensor processing has a drive structure. The motor drives a driving gear to mesh with a driven gear, causing symmetrically distributed rotating shafts and baffles to rotate synchronously. This allows for all-around agitation and stirring of the temperature-measuring liquids such as silicone oil and water inside the constant temperature chamber, completely solving the problem of localized temperature differences in the liquid and maintaining a highly uniform liquid temperature inside the constant temperature chamber. Combined with real-time temperature measurement and calibration by a standard temperature sensor inside the chamber, it provides an accurate and unified temperature reference for sensor detection, avoiding detection errors caused by uneven temperature distribution from the source.

Description

Technical Field

[0001] This invention relates to the field of temperature sensor processing and testing technology, specifically to a testing device for temperature sensor processing. Background Technology

[0002] Temperature sensors are core components in industrial temperature measurement, intelligent devices, and environmental monitoring. Their temperature measurement accuracy directly determines the operational stability and precision of various temperature control devices and monitoring systems. Therefore, after the sensors are manufactured, their production quality must be rigorously verified through temperature testing to select products with acceptable temperature measurement errors. Currently, traditional temperature sensor detection devices have many shortcomings in practical use. Existing detection methods mostly use a single constant-temperature water or oil zone for temperature measurement. To ensure uniform temperature inside the constant-temperature chamber, a simple turbulence structure is usually equipped to agitate the liquid. However, continuous turbulence of the liquid will cause instability in the liquid surface and water flow state in the detection area. The sensor detection end is easily affected by water flow impact, resulting in large drift and fluctuation of temperature measurement data, which significantly reduces the detection accuracy. At the same time, traditional detection devices lack a dedicated sensor positioning structure. When the sensor is placed, it is easy for it to be offset or tilted. The probe rod is easy to come into contact with the inner wall of the equipment, which will not only cause wear and damage to the probe rod, but also cause deviation of the temperature measurement point, further affecting the accuracy of the detection results. Summary of the Invention

[0003] The purpose of this invention is to provide a detection device for temperature sensor processing to solve the problems mentioned in the background art.

[0004] To achieve the above objectives, the present invention provides the following technical solution: a detection device for processing a temperature sensor, comprising a fixed box, one end of which is fixed to a fixed rod, the other end of which is fixed to a top plate, a constant temperature chamber fixed inside the fixed box, a motor fixed inside the fixed box below the constant temperature chamber, a drive gear fixed to the output end of the motor, a drive structure installed inside the constant temperature chamber for turbulence and circulation of the liquid within the chamber, and a detection mechanism fixed to the top plate for positioning the temperature sensor body and isolating the turbulent flow of the liquid within the constant temperature chamber, thereby ensuring the accuracy of the detection data.

[0005] Preferably, heating tubes are evenly installed inside the constant temperature chamber, and a drain valve pipe is installed on the constant temperature chamber. The drain valve pipe is fixedly connected to the fixed box. The heating tubes can heat the liquid inside the constant temperature chamber, ensuring the normal detection of the subsequent temperature sensor body. The drain valve pipe can provide a basic guarantee for the discharge of liquid inside the constant temperature chamber, thereby ensuring the normal operation of the device.

[0006] Preferably, the driving structure includes a rotating shaft rotatably connected to the constant temperature chamber, and the rotating shaft is symmetrically distributed about the center line of the constant temperature chamber. A driven gear is fixed on the rotating shaft, and the driven gear and the driving gear are meshed. Baffles are also uniformly fixed on the rotating shaft. The driving gear is driven to rotate by a motor. With the meshing transmission between the driving gear and the driven gear, the rotation of the rotating shaft and the baffles can provide the basic force. Through the action of the baffles, the liquid in the constant temperature chamber can be turbulent, ensuring the uniformity of the liquid temperature in the constant temperature chamber, thereby ensuring the normal progress of subsequent testing.

[0007] Preferably, a reciprocating lead screw is also fixed on the rotating shaft, and the reciprocating lead screw is connected to the movable frame to make the movable frame reciprocate. The lower end face of the movable frame is symmetrically fixed on the movable plate. By rotating the rotating shaft, the reciprocating lead screw can be driven to rotate synchronously. Through the action of the reciprocating lead screw, the basic force can be provided for the up and down reciprocating motion of the movable frame.

[0008] Preferably, pistons are evenly fixed on the movable plate, and the pistons are slidably connected to the sealing cylinder. The sealing cylinder is evenly fixed on the lower end face of the fixed plate, and the fixed plate is fixed inside the constant temperature chamber. A one-way water inlet valve is installed on the sealing cylinder. When the movable frame moves, it synchronously drives the movable frame and the piston to reciprocate. By sliding the piston inside the sealing cylinder, a basic guarantee can be provided for the delivery of liquid inside the sealing cylinder, and a basic guarantee can be provided for the normal conduct of subsequent testing.

[0009] Preferably, the upper surface of the fixed plate is also uniformly fixed with sealing plugs, and the sealing plugs and sealing cylinders are distributed in a one-to-one correspondence. The sealing cylinders are uniformly provided with one-way water outlet valves, which are connected to the sealing cylinders through through holes in the fixed plate. Through the action of the one-way water inlet valve and the one-way water outlet valve, the liquid in the sealing cylinders can be circulated in one direction, thereby ensuring the normal operation of the device.

[0010] Preferably, the detection mechanism includes a cylinder fixed to the lower end face of the top plate, and a mounting plate is fixed to the output end of the cylinder. The mounting plate and the guide rod are slidably connected, and the guide rod is fixed to the base plate. A first spring is fixed between the base plate and the mounting plate, and the first spring is symmetrically distributed about the center line of the base plate. The extension and retraction of the cylinder can provide a basic force for the movement of the mounting plate and the base plate. The sliding action between the mounting plate and the guide rod can make the mounting plate move relative to the base plate. The elastic action of the first spring can provide a basic force for the automatic reset of the mounting plate.

[0011] Preferably, a positioning rod is fixed to the lower end face of the mounting plate, and the positioning rod contacts the base plate to achieve positioning. A positioning seat is also fixed to the lower end face of the mounting plate, and the positioning seat is slidably connected to the temperature sensor body. The temperature sensor body contacts the elastic rubber block to achieve positioning, and the elastic rubber block is fixed to the lower end face of the mounting plate. The sliding action between the positioning seat and the temperature sensor body facilitates the installation and removal of the temperature sensor body. The friction of the elastic rubber block achieves the positioning of the temperature sensor body, ensuring the stability of the temperature sensor body installation and fixation, so as to facilitate subsequent testing.

[0012] Preferably, the lower end face of the mounting plate is also vertically fixed with an inclined plate, and the inclined plate is slidably connected to the base plate and the sliding rod. The lower end face of the inclined plate is higher than the lower end face of the temperature sensor body. The sliding rod is slidably connected to the stainless steel isolation cylinder, and a V-shaped positioning block is fixed on the sliding rod. Ball bearings are evenly fixed on the contact surface between the positioning block and the temperature sensor body. A second spring is also fixed between the sliding rod and the stainless steel isolation cylinder. The sliding action between the inclined plate and the sliding rod provides a basic force for the movement of the positioning block. By clamping and positioning the temperature sensor body with the positioning block, the detection rod of the temperature sensor body is ensured to be located at the center of the stainless steel isolation cylinder, preventing the temperature sensor body from contacting the inner wall of the stainless steel isolation cylinder and affecting the accuracy of the detection data. The elastic action of the second spring provides a basic force for the automatic reset of the positioning block.

[0013] Preferably, the stainless steel isolation cylinder and the sealing plug are nested to achieve a sealing effect, and the stainless steel isolation cylinder is also evenly provided with overflow ports, and the position of the overflow ports is higher than the liquid level in the constant temperature chamber. Through the function of the overflow ports, the normal and stable flow of liquid in the stainless steel isolation cylinder can be ensured, thereby ensuring the normal operation of the test.

[0014] Compared with the prior art, the beneficial effects of the present invention are: 1. This temperature sensor processing and detection device is equipped with a drive structure. The motor drives the active gear to mesh with the driven gear, which drives the symmetrically distributed rotating shaft and baffle to rotate synchronously. This can perform all-round turbulence and stirring of the temperature measuring liquids such as silicone oil and water inside the constant temperature chamber, completely solving the problem of local temperature difference in the liquid. This ensures that the liquid temperature inside the constant temperature chamber remains highly uniform. Combined with the real-time temperature measurement and calibration of the standard temperature sensor inside the chamber, it provides an accurate and unified temperature reference for sensor detection, avoiding detection errors caused by uneven temperature distribution from the source. 2. This temperature sensor processing and testing device features a nested sealing structure of a stainless steel isolation cylinder and a sealing plug. During testing, it completely isolates the sensor's detection area from the turbulent area inside the constant temperature chamber. The turbulence-causing structure within the chamber operates normally, ensuring overall temperature uniformity, while the liquid inside the isolation cylinder remains stable and undisturbed. This completely avoids the impact of liquid turbulence and water flow fluctuations on the sensor's temperature measurement data, effectively preventing data drift and significantly improving the stability and reliability of the test data. Simultaneously, the isolation cylinder has an overflow port above the liquid level, enabling smooth liquid circulation and balancing temperature uniformity with environmental stability. 3. This temperature sensor processing and testing device uses a positioning seat and an elastic rubber block to initially clamp and position the temperature sensor body. The elastic friction of the rubber ensures stable sensor installation and accommodates installation limits for sensors of different specifications. Simultaneously, a slanted panel, sliding rod, and second spring work together to drive a V-shaped positioning block to engage with the sensor probe rod. Combined with a ball-bearing sliding contact design, the probe rod is centered and clamped, ensuring it aligns with the central axis of the isolation cylinder. This effectively prevents wear and bending damage caused by contact between the probe rod and the side wall of the isolation cylinder, while also eliminating temperature measurement errors caused by point misalignment, ensuring the standardization and consistency of each test. Furthermore, the cooperative structure of the guide rod, first spring, and positioning rod ensures smooth movement and accurate positioning of the mounting plate, further improving the operational stability of the testing structure. 4. The detection device for processing this temperature sensor synchronously drives the reciprocating screw through a rotating shaft, which in turn drives the movable frame and movable plate to move the piston back and forth inside the sealed cylinder. Combined with the one-way flow characteristics of the one-way inlet and outlet valves, it achieves slow, uniform, and minute-level delivery of liquid from the constant temperature chamber into the isolation cylinder, followed by reflux through the overflow port. This ensures that the temperature of the liquid inside the isolation cylinder remains consistent with the overall temperature of the constant temperature chamber, while avoiding rapid water flow disturbance. Under the premise of ensuring accurate temperature measurement, it maintains the static stability of the liquid in the detection area, guaranteeing the accuracy of the detection data. Attached Figure Description

[0015] Figure 1 This is a frontal three-dimensional structural diagram of the overall composition of the device of the present invention; Figure 2 This is a bottom-view three-dimensional structural diagram of the overall composition of the device of the present invention; Figure 3 This is a frontal cross-sectional three-dimensional structural diagram of the fixing box of the present invention; Figure 4 This is a three-dimensional structural diagram of the fixing box of the present invention, viewed from below. Figure 5 This is a frontal cross-sectional three-dimensional structural diagram of the fixing plate of the present invention; Figure 6 This is a bottom-view three-dimensional structural diagram of the detection mechanism of the present invention; Figure 7 This is a frontal cross-sectional three-dimensional structural diagram of the stainless steel isolation cylinder of the present invention.

[0016] In the diagram: 1. Fixed box; 2. Fixed rod; 3. Top plate; 4. Constant temperature chamber; 401. Heating element; 402. Drain valve pipe; 5. Motor; 6. Drive gear; 7. Drive structure; 701. Rotating shaft; 702. Driven gear; 703. Baffle; 704. Reciprocating screw; 705. Movable frame; 706. Movable plate; 707. Piston; 708. Sealing cylinder; 709. Fixed plate; 710. One-way inlet valve; 711. 712. Sealing plug; 8. One-way outlet valve; 8. Detection mechanism; 801. Cylinder; 802. Mounting plate; 803. Guide rod; 804. Base plate; 805. First spring; 806. Positioning rod; 807. Positioning seat; 808. Elastic rubber block; 809. Sloping panel; 810. Slide rod; 811. Stainless steel isolation cylinder; 812. Positioning block; 813. Second spring; 814. Overflow port; 9. Temperature sensor body. Detailed Implementation

[0017] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0018] Please see Figures 1-7 This invention provides a technical solution: a detection device for processing a temperature sensor, comprising a fixed box 1, one end of the fixed box 1 and a fixed rod 2 are fixed to each other, the other end of the fixed rod 2 is fixed to a top plate 3, a constant temperature chamber 4 is fixed inside the fixed box 1, a motor 5 is fixed inside the fixed box 1 below the constant temperature chamber 4, a drive gear 6 is fixed to the output end of the motor 5, a drive structure 7 is installed inside the constant temperature chamber 4, the drive structure 7 is used to realize the turbulence effect and the driving circulation effect of the liquid inside the constant temperature chamber 4, and a detection mechanism 8 is fixed on the top plate 3, the detection mechanism 8 is used to realize the positioning of the temperature sensor body 9 and to isolate the turbulence of the liquid inside the constant temperature chamber 4, so as to ensure the accuracy of the detection data.

[0019] The detection mechanism 8 includes a cylinder 801 fixed to the lower end face of the top plate 3, and a mounting plate 802 fixed to the output end of the cylinder 801. The mounting plate 802 is slidably connected to the guide rod 803, and the guide rod 803 is fixed to the base plate 804. A first spring 805 is fixed between the base plate 804 and the mounting plate 802, and the first spring 805 is symmetrically distributed about the center line of the base plate 804. A positioning rod 806 is fixed to the lower end face of the mounting plate 802, and the positioning rod 806 contacts the base plate 804 to achieve positioning. A positioning seat 807 is also fixed to the lower end face of the mounting plate 802, and the positioning seat 807 is slidably connected to the temperature sensor body 9. The temperature sensor body 9 contacts the elastic rubber block 808 to achieve positioning, and the elastic rubber block 808 is fixed to the lower end face of the mounting plate 802. When using this temperature sensor in a processing detection device, such as Figures 1-7 As shown, the temperature sensor body 9 is first installed. The installation of the temperature sensor body 9 can be achieved through the sliding action between the temperature sensor body 9 and the positioning seat 807 until the end of the temperature sensor body 9 contacts the positioning seat 807. During the installation process, when the temperature sensor body 9 contacts the elastic rubber block 808, the elasticity of the elastic rubber block 808 can ensure the normal installation of the temperature sensor body 9. After the temperature sensor body 9 is installed, the elasticity of the elastic rubber block 808 can create a certain friction between the elastic rubber block 808 and the temperature sensor body 9, thereby achieving the positioning function of the temperature sensor body 9 and ensuring the stability of the installation of the temperature sensor body 9. Heating tubes 401 are evenly installed inside the constant temperature chamber 4, and a drain valve pipe 402 is installed on the constant temperature chamber 4, and the drain valve pipe 402 is fixedly connected to the fixed box 1; the drive structure 7 includes a rotating shaft 701 rotatably connected to the constant temperature chamber 4, and the rotating shaft 701 is symmetrically distributed about the center line of the constant temperature chamber 4, and a driven gear 702 is fixed on the rotating shaft 701. At the same time, the driven gear 702 is meshed with the driving gear 6, and a baffle plate 703 is also evenly fixed on the rotating shaft 701. After the temperature sensor body 9 is installed, as follows Figures 1-7As shown, liquid (such as silicone oil or water) can be injected into the constant temperature chamber 4 through the drain valve pipe 402. After injection, the liquid in the constant temperature chamber 4 can be heated by starting the heating pipe 401. The temperature of the liquid in the constant temperature chamber 4 is detected by the standard temperature sensor installed in the constant temperature chamber 4. During the heating process of the liquid in the constant temperature chamber 4, the motor 5 is started simultaneously. The motor 5 can drive the drive gear 6 to rotate. Through the meshing transmission between the drive gear 6 and the driven gear 702, the rotating shaft 701 and the baffle 703 can be rotated. Through the turbulence effect of the rotation of the baffle 703, the liquid in the constant temperature chamber 4 can be turbulent, ensuring the uniformity of the liquid temperature in the constant temperature chamber 4 and ensuring the accuracy of the temperature detection by the temperature sensor body 9. The lower end face of the mounting plate 802 is also vertically fixed with an inclined plate 809, and the inclined plate 809 is slidably connected to the base plate 804, and the inclined plate 809 is slidably connected to the slide rod 810. At the same time, the lower end face of the inclined plate 809 is higher than the lower end face of the temperature sensor body 9. The slide rod 810 is slidably connected to the stainless steel isolation cylinder 811, and a V-shaped positioning block 812 is fixed on the slide rod 810. Ball bearings are evenly fixed on the contact surface between the positioning block 812 and the temperature sensor body 9. A second spring 813 is also fixed between the slide rod 810 and the stainless steel isolation cylinder 811. The stainless steel isolation cylinder 811 and the sealing plug 711 are nested to achieve a sealing effect. The stainless steel isolation cylinder 811 is also evenly provided with overflow ports 814, and the position of the overflow ports 814 is higher than the liquid level in the constant temperature chamber 4. When the temperature inside the constant temperature chamber 4 reaches the preset value (80℃), such as Figures 1-7 As shown, by controlling the extension of cylinder 801, the mounting plate 802, base plate 804, stainless steel isolation cylinder 811 and temperature sensor body 9 can be moved down synchronously. When the stainless steel isolation cylinder 811 comes into contact with the liquid in the constant temperature chamber 4, the liquid can enter the stainless steel isolation cylinder 811 through the lower end of the stainless steel isolation cylinder 811. Through the turbulence effect of baffle 703, the temperature inside and outside the stainless steel isolation cylinder 811 can be kept uniform and balanced, so as to facilitate subsequent detection. Until the lower opening of the stainless steel isolation cylinder 811 is nested with the sealing plug 711 to achieve a seal, the liquid in the stainless steel isolation cylinder 811 can be kept stable, and the liquid in the stainless steel isolation cylinder 811 is prevented from being disturbed by baffle 703 and affecting the accuracy of the detection data of the temperature sensor body 9. At this time, the base plate 804 is in contact with the upper surface of the constant temperature chamber 4. Once the base plate 804 is in contact with the upper surface of the constant temperature chamber 4 and positioned, the cylinder 801 continues to extend, causing the mounting plate 802 to move downwards relative to the base plate 804. Combined with the sliding guide action between the mounting plate 802 and the guide rod 803, the stability of the mounting plate 802's movement is ensured. The movement of the mounting plate 802 synchronously moves the temperature sensor body 9, allowing its probe to enter the stainless steel isolation cylinder 811 and contact the stable liquid for liquid temperature detection. Simultaneously, as the mounting plate 802 moves downwards relative to the base plate 804, it also moves the inclined plate 809. When the inclined plate 809 contacts and slides against the sliding rod 810, the positioning block 812 is forced to move towards the temperature sensor body 9 inside the stainless steel isolation cylinder 811. Through the action of the positioning block 812, the probe of the temperature sensor body 9 inside the stainless steel isolation cylinder 811 is clamped and positioned, ensuring... The probe of the temperature sensor body 9 coincides with the central axis of the stainless steel isolation cylinder 811, thus avoiding damage or affecting the accuracy of the detection data due to contact between the probe of the temperature sensor body 9 and the side wall of the stainless steel isolation cylinder 811. When the mounting plate 802 moves downward relative to the base plate 804, it simultaneously drives the positioning rod 806 to move. When the positioning rod 806 contacts the base plate 804 to achieve positioning, the positioning operation of the temperature sensor body 9 is completed, ensuring that the probe of the temperature sensor body 9 is stable in the liquid inside the stainless steel isolation cylinder 811, so as to achieve the function of temperature detection. Due to the isolation effect of the stainless steel isolation cylinder 811, the turbulence of the liquid inside the constant temperature chamber 4 can be avoided from affecting the stability of the liquid inside the stainless steel isolation cylinder 811, thereby causing the detection data to drift, better meeting the detection requirements. By comparing the detected temperature of the temperature sensor body 9 with the temperature of the standard temperature sensor installed in the constant temperature chamber 4, the production quality of the temperature sensor body 9 can be determined. A reciprocating screw 704 is fixed on the rotating shaft 701, and the reciprocating screw 704 is connected to the movable frame 705 to make the movable frame 705 reciprocate. The lower end face of the movable frame 705 is symmetrically fixed on the movable plate 706. Pistons 707 are evenly fixed on the movable plate 706, and the pistons 707 and the sealing cylinders 708 are slidably connected. The sealing cylinders 708 are evenly fixed on the lower end face of the fixed plate 709. The fixed plate 709 is fixed inside the constant temperature chamber 4. A one-way water inlet valve 710 is installed on the sealing cylinder 708. Sealing plugs 711 are evenly fixed on the upper end face of the fixed plate 709. The sealing plugs 711 and the sealing cylinders 708 are distributed in a one-to-one correspondence. One-way water outlet valves 712 are evenly opened on the sealing cylinder 708. The one-way water outlet valves 712 are connected to the sealing cylinder 708 through the through hole on the fixed plate 709. When the temperature sensor body 9 detects the temperature of the liquid inside the stainless steel isolation cylinder 811, such as Figures 1-7As shown, when the rotating shaft 701 rotates, it synchronously drives the reciprocating screw 704 to rotate. Through the action of the reciprocating screw 704, the movable frame 705 can be driven to perform orderly and slow up-and-down reciprocating motion. Through the up-and-down reciprocating motion of the movable frame 705, the sealing plug 711 can move slowly up and down inside the sealing cylinder 708. With the action of the one-way inlet valve 710 and the one-way outlet valve 712, after the stainless steel isolation cylinder 811 and the sealing plug 711 are nested and sealed, the liquid in the constant temperature chamber 4 can slowly enter the sealing cylinder 708 through the one-way inlet valve 710 and slowly enter the stainless steel isolation cylinder 811 through the one-way outlet valve 712. Finally, it flows back into the constant temperature chamber 4 through the overflow port 814. Through the uniform and slow flow of the liquid in the stainless steel isolation cylinder 811, the temperature of the liquid in the stainless steel isolation cylinder 811 and the liquid in the constant temperature chamber 4 can be balanced, thereby creating a stable temperature measurement environment and ensuring the accuracy of the test data.

[0020] It should be noted that, in this document, the terms “comprising,” “including,” or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0021] This article uses specific examples to illustrate the principles and implementation methods of the present invention. The above examples are only for the purpose of helping to understand the method and core ideas of the present invention. The above descriptions are only preferred embodiments of the present invention. It should be noted that due to the limitations of textual expression, while there are objectively infinite specific structures, those skilled in the art can make several improvements, modifications, or changes without departing from the principles of the present invention, and can also combine the above technical features in an appropriate manner. These improvements, modifications, changes, or combinations, or the direct application of the inventive concept and technical solution to other situations without modification, should all be considered within the scope of protection of the present invention.

Claims

1. A detection device for processing temperature sensors, comprising a fixed box (1), characterized in that: The fixed box (1) and one end of the fixed rod (2) are fixed to each other, and the other end of the fixed rod (2) is fixed on the top plate (3). A constant temperature box (4) is fixed inside the fixed box (1). A motor (5) is fixed inside the fixed box (1) below the constant temperature box (4). An active gear (6) is fixed at the output end of the motor (5). A drive structure (7) is installed inside the constant temperature box (4). The drive structure (7) is used to realize the turbulence effect of the liquid in the constant temperature box (4) and the driving circulation effect of the liquid. A detection mechanism (8) is fixed on the top plate (3). The detection mechanism (8) is used to realize the positioning of the temperature sensor body (9) and the isolation of the liquid turbulence in the constant temperature box (4) to ensure the accuracy of the detection data.

2. The detection device for processing temperature sensors according to claim 1, characterized in that: Heating tubes (401) are evenly installed inside the constant temperature box (4), and a drain valve pipe (402) is installed on the constant temperature box (4), and the drain valve pipe (402) is fixedly connected to the fixed box (1).

3. The detection device for processing temperature sensors according to claim 1, characterized in that: The drive structure (7) includes a rotating shaft (701) rotatably connected to the constant temperature chamber (4), and the rotating shaft (701) is symmetrically distributed about the center line of the constant temperature chamber (4). A driven gear (702) is fixed on the rotating shaft (701), and the driven gear (702) is meshed with the driving gear (6). A baffle plate (703) is also uniformly fixed on the rotating shaft (701).

4. The detection device for processing temperature sensors according to claim 3, characterized in that: A reciprocating lead screw (704) is also fixed on the rotating shaft (701), and the reciprocating lead screw (704) is connected to the movable frame (705) to make the movable frame (705) reciprocate. The lower end face of the movable frame (705) is symmetrically fixed on the movable plate (706).

5. The detection device for processing temperature sensors according to claim 4, characterized in that: The piston (707) is evenly fixed on the movable plate (706), and the piston (707) and the sealing cylinder (708) are slidably connected. The sealing cylinder (708) is evenly fixed on the lower end face of the fixed plate (709), and the fixed plate (709) is fixed in the constant temperature box (4). A one-way water inlet valve (710) is installed on the sealing cylinder (708).

6. The detection device for processing temperature sensors according to claim 5, characterized in that: The upper end face of the fixing plate (709) is also uniformly fixed with sealing plugs (711), and the sealing plugs (711) and the sealing cylinder (708) are distributed in a one-to-one correspondence. The sealing cylinder (708) is uniformly provided with one-way water outlet valves (712), and the one-way water outlet valves (712) are connected to the sealing cylinder (708) through the through hole on the fixing plate (709).

7. The detection device for processing temperature sensors according to claim 6, characterized in that: The detection mechanism (8) includes a cylinder (801) fixed to the lower end face of the top plate (3), and a mounting plate (802) is fixed to the output end of the cylinder (801). The mounting plate (802) and the guide rod (803) are slidably connected. Meanwhile, the guide rod (803) and the base plate (804) are fixed to each other. A first spring (805) is fixed between the base plate (804) and the mounting plate (802), and the first spring (805) is symmetrically distributed about the center line of the base plate (804).

8. The detection device for processing temperature sensors according to claim 7, characterized in that: A positioning rod (806) is fixed on the lower end face of the mounting plate (802), and the positioning rod (806) contacts the base plate (804) to achieve positioning. A positioning seat (807) is also fixed on the lower end face of the mounting plate (802), and the positioning seat (807) is slidably connected to the temperature sensor body (9). The temperature sensor body (9) contacts the elastic rubber block (808) to achieve positioning, and the elastic rubber block (808) is fixed on the lower end face of the mounting plate (802).

9. A detection device for processing temperature sensors according to claim 8, characterized in that: The lower end face of the mounting plate (802) is also vertically fixed with a slanted panel (809), and the slanted panel (809) is slidably connected to the base plate (804), and the slanted panel (809) is slidably connected to the slide rod (810). At the same time, the lower end face of the slanted panel (809) is higher than the lower end face of the temperature sensor body (9). The slide rod (810) is slidably connected to the stainless steel isolation cylinder (811), and a V-shaped positioning block (812) is fixed on the slide rod (810). The contact surface between the positioning block (812) and the temperature sensor body (9) is uniformly fixed with balls. A second spring (813) is also fixed between the slide rod (810) and the stainless steel isolation cylinder (811).

10. A detection device for processing temperature sensors according to claim 9, characterized in that: The stainless steel isolation cylinder (811) and the sealing plug (711) are nested to achieve a sealing effect. The stainless steel isolation cylinder (811) is also uniformly provided with overflow ports (814), and the position of the overflow ports (814) is higher than the liquid level in the constant temperature box (4).

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