Sealant performance detection equipment

Abstract

The utility model provides sealant performance detection equipment, which comprises a heat insulation box, a heating assembly, a temperature detection assembly and a test assembly, a heating cavity is formed in the heat insulation box, a test seat is arranged in the heating cavity, the test seat is used for placing sealant, the heating assembly is arranged in the heating cavity, the temperature detection assembly is arranged around the test seat, and the temperature detection assembly is arranged around the test seat. One end of the testing assembly is arranged in the heat preservation box, and the other end of the testing assembly penetrates through the heat preservation box and extends into the heating cavity so as to test the sealant of the testing seat. According to the sealant performance detection equipment provided by the invention, the test assembly is arranged in the heat preservation box, and the temperature in the heat preservation box is cooperatively controlled through the heating assembly and the temperature test assembly, so that the temperature of the test assembly during an experiment is controlled, and the problem that some sealant performance detection equipment can only be used for an experiment at room temperature is solved.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of detection equipment, and particularly relates to a sealant performance detection equipment. BACKGROUND

[0002] In many industrial fields, sealants are widely used to ensure the sealing performance of equipment and components. In order to ensure the quality and performance of the sealant, a series of tests and detections are usually required. One of the key parameters is the stability of the performance of the sealant at different temperatures.

[0003] Some existing sealant performance detection equipment can only detect the mechanical properties of the sealant at room temperature, but the effect of the sealant in actual use will be greatly different due to different environmental temperatures. If only the data measured at room temperature during the experiment is used as a reference for actual use, a large error will be generated, which may cause the sealant structure to not work normally in some environments, and is not conducive to the overall design of the machine.

[0004] Therefore, it is necessary to provide a sealant performance detection equipment capable of accurately controlling the experimental temperature to solve the problem that some sealant performance detection equipment can only be tested at room temperature. CONTENT OF THE INVENTION

[0005] Therefore, it is necessary to provide a sealant performance detection equipment to solve the above problems.

[0006] Embodiments of the present application provide a sealant performance detection equipment, which comprises:

[0007] A heat preservation box is formed with a heating cavity, a test seat is arranged in the heating cavity, and the test seat is used for placing a sealant.

[0008] A heating assembly is arranged in the heating cavity.

[0009] A temperature detection assembly is arranged around the test seat to detect the temperature of the test seat.

[0010] A test assembly is arranged at one end of the heat preservation box, and the other end of the test assembly penetrates through the heat preservation box and extends into the heating cavity to test the sealant of the test seat.

[0011] In at least one embodiment of the present application, the heating cavity has a top surface and a bottom surface opposite to the top surface, the test seat is arranged on the bottom surface, the heating assembly is arranged on the top surface, and the heating assembly is located on both sides of the test assembly.

[0012] In at least one embodiment of the present application, the incubator is provided with an opening, the heating cavity is communicated with the outside through the opening, two doors are arranged at the opening and are slidably connected with the incubator to shield or open the opening.

[0013] In at least one embodiment of the present application, the door is provided with a heat preservation layer on one side, and the heat preservation layer is located in the heating cavity.

[0014] In at least one embodiment of the present application, the test assembly comprises a rotating mechanism and a stretching mechanism, the rotating mechanism is rotatably connected with the test seat;

[0015] The stretching mechanism comprises a lead screw assembly, a test head and a motor, the motor is arranged on the incubator, one end of the lead screw assembly is rotatably connected with the output end of the motor, the other end is drivingly connected with the test head, the test seat is located on the axis of the lead screw assembly, and the test head can be partially accommodated in the test seat;

[0016] The motor drives the lead screw assembly to rotate and drives the test head to move along the length direction of the lead screw assembly, so as to achieve the stretching effect.

[0017] In at least one embodiment of the present application, a controller is further included, the controller is arranged on the incubator, and the controller is electrically connected with the heating assembly, the temperature detection assembly and the test assembly.

[0018] In at least one embodiment of the present application, a humidity control assembly is further included, the humidity control assembly comprises a liquid tank and a spray head, the liquid tank is arranged on the incubator, one end of the spray head is communicated with the liquid tank, and the other end extends into the heating cavity;

[0019] The humidity control assembly is used for controlling the humidity in the heating cavity.

[0020] In at least one embodiment of the present application, a base is further included, the base is arranged on the incubator, the base is located on the side away from the incubator and away from the stretching mechanism, and the rotating mechanism is bolted with the base.

[0021] In at least one embodiment of the present application, a cross beam is arranged between the incubator and the stretching mechanism, and the motor is bolted with the cross beam.

[0022] In at least one embodiment of the present application, a damping pad is arranged on the side of the base away from the incubator, and the damping pad is glued with the base.

[0023] The sealing glue performance detection equipment provided in the above solves the problem that some sealing glue performance detection equipment can only be used in room temperature by setting the test assembly in the incubator, controlling the temperature in the incubator through the heating assembly and the temperature test assembly, and controlling the temperature during the test of the test assembly. BRIEF DESCRIPTION OF DRAWINGS

[0024] Figure 1 It is a perspective view of the sealing glue performance detection equipment;

[0025] Figure 2 It is an exploded view of the sealing glue performance detection equipment;

[0026] Figure 3 It is a perspective view of the incubator;

[0027] Figure 4 It is a perspective view of the door.

[0028] MAIN ELEMENT SYMBOL DESCRIPTION

[0029] 100, sealing glue performance detection equipment; 1, incubator; 11, heating cavity; 111, top surface; 112, bottom surface; 12, test seat; 13, box opening; 14, door; 141, thermal insulation layer; 2, heating assembly; 3, temperature detection assembly; 4, test assembly; 41, rotating mechanism; 42, stretching mechanism; 421, screw assembly; 422, test head; 423, motor; 5, controller; 6, humidity control assembly; 61, liquid tank; 62, spray head; 7, base; 71, shock pad; 8, cross beam. DETAILED DESCRIPTION

[0030] The embodiments of the present application will be described below in conjunction with the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of the present application, not all the embodiments.

[0031] It should be noted that when one component is considered to be "connected" to another component, it can be directly connected to the other component or there can be a middle component. When one component is considered to be "disposed" on another component, it can be directly disposed on the other component or there can be a middle component. The terms "top", "bottom", "upper", "lower", "left", "right", "front", "back", and the like used herein are for illustrative purposes only.

[0032] The embodiments of the present application provide a sealing glue performance detection equipment, comprising:

[0033] The incubator is formed with a heating cavity, and the test seat is arranged in the heating cavity and used for placing the sealing glue;

[0034] The heating assembly is arranged in the heating cavity;

[0035] A temperature detection assembly is arranged around the test seat to detect the temperature of the test seat.

[0036] A test assembly is arranged in the incubator and extends into the heating cavity through the incubator to test the sealant of the test seat.

[0037] The sealant performance detection device provided above solves the problem that some sealant performance detection devices can only be tested at room temperature by arranging the test assembly in the incubator and controlling the temperature in the incubator by the heating assembly and the temperature detection assembly to control the temperature during the test of the test assembly.

[0038] Some embodiments of the present application will be described in detail below with reference to the accompanying drawings. The following embodiments and features in the embodiments can be combined with each other without conflict.

[0039] Please refer to Figures 1-4The embodiment of the present application provides a sealant performance detection device 100, which comprises an incubator 1, a heating assembly 2, a temperature detection assembly 3 and a test assembly 4. The incubator 1 is formed with a heating cavity 11, the test seat 12 is arranged in the heating cavity 11, and the test seat 12 is used for placing sealant. The heating assembly 2 is arranged in the heating cavity 11. The temperature detection assembly 3 is arranged around the test seat 12 and is used for detecting the temperature of the test seat 12. One end of the test assembly 4 is arranged in the incubator 1, and the other end penetrates through the incubator 1 and extends into the heating cavity 11, so that the sealant on the test seat 12 is tested. Specifically, the heating cavity 11 provides a controlled temperature environment, and the test seat 12 is used for placing the sealant to be tested. It is ensured that the test is carried out under the same temperature condition, and the repeatability and accuracy of the test are improved. The temperature detection assembly 3 is arranged around the test seat 12 and is used for detecting the temperature of the test seat 12. It is ensured that the temperature change can be monitored in real time during the test, so that more accurate test results are obtained. The test assembly 4 is used for testing the sealant on the test seat 12. A means for measuring the performance of the sealant is provided, and the performance of the sealant under different temperature conditions can be evaluated. In a specific example, the heating cavity 11 has a top surface 111 and a bottom surface 112 opposite to the top surface 111, the test seat 12 is arranged on the bottom surface 112, the heating assembly 2 is arranged on the top surface 111, and the heating assembly 2 is located on both sides of the test assembly 4. Specifically, the design helps to ensure that the sealant is uniformly heated during the test. By placing the heating assembly 2 on both sides of the test assembly 4, uniform heating of the sealant on the test seat 12 can be achieved, so that more accurate performance test results are obtained. The arrangement of the top surface 111 and the bottom surface 112 helps to ensure the uniformity of heat transfer. When the test starts, the heating assembly 2 starts to provide heat energy, is located on the top surface 111, and emits heat into the heating cavity 11. Since the test seat 12 is located on the bottom surface 112 and the bottom part contacts the heating cavity 11, the sealant is uniformly heated by the heat from the top and the bottom. The heating assembly 2 is located on both sides of the test assembly 4, ensuring uniform distribution of heat on the test seat 12. This helps to simulate the performance of the sealant under actual use conditions and ensures that the test results are more true and reliable. In a specific example, the incubator 1 is provided with a box opening 13, the heating cavity 11 is connected with the outside through the box opening 13, two box doors 14 are arranged at the box opening 13, and the box doors 14 are in sliding connection with the incubator 1 to shield or open the box opening 13. Specifically, the opening and closing control of the heating cavity 11 and the adjustment of the external environment are provided. Through the design of the box opening 13, the connection between the heating cavity 11 and the outside can be realized, and the sliding connection of the box door 14 makes the opening and closing more convenient. When the test needs to start, the box door 14 can be opened to facilitate the placement of the test sample into the test seat 12. In a specific example, the box door 14 is provided with a heat preservation layer 141 located in the heating cavity 11.Specifically, the stability and energy efficiency of the test environment are ensured, and heat loss is prevented. By providing a thermal insulation layer 141 on one side of the door 14, heat loss in the heating chamber 11 can be effectively reduced, ensuring that the sealant in the test seat 12 is constantly affected by a constant temperature during testing, improving the accuracy and reliability of the test. When the test starts, the door 14 is closed and the thermal insulation layer 141 covers one side of the door 14, effectively reducing heat loss. The presence of the thermal insulation layer 141 ensures that a stable temperature is maintained in the heating chamber 11 during testing, unaffected by external environments. This helps to simulate the performance of sealant under actual use conditions, ensuring more accurate and reliable test results. In a specific example, the test assembly 4 includes a rotating mechanism 41 and a stretching mechanism 42, the rotating mechanism 41 being rotatably connected to the test seat 12; the stretching mechanism 42 includes a lead screw assembly 421, a test head 422, and a motor 423, the motor 423 being provided on the thermal insulation box 1, one end of the lead screw assembly 421 being rotatably connected to the output end of the motor 423, the other end being in transmission connection with the test head 422, the test seat 12 being located on the axis of the lead screw assembly 421, and the test head 422 being capable of being partially accommodated in the test seat 12; wherein the motor 423 drives the lead screw assembly 421 to rotate and drive the test head 422 to move along the length direction of the lead screw assembly 421, achieving the effect of stretching. Specifically, to simulate the stress and deformation of the sealant under actual use conditions to test its performance. A multi-dimensional test method is provided, which can simulate the performance of the sealant under different directions and stress conditions through the cooperation of the rotating mechanism 41 and the stretching mechanism 42, more comprehensively evaluating its sealing performance and durability. Through the rotating mechanism 41, the test seat 12 can rotate at different angles to simulate the different direction stresses and twists that the sealant may encounter in actual use. This is very important for evaluating the sealing performance of the sealant at different angles, especially in complex shapes or corner application scenarios. In a specific example, a controller 5 is also included, which is provided on the thermal insulation box 1 and is in electrical connection with the heating assembly 2, the temperature detection assembly 3, and the test assembly 4. Specifically, the controller 5 is the intelligent core of the sealant performance detection device 100, responsible for coordinating, monitoring, and adjusting the heating, temperature detection, and testing processes to ensure the accuracy and safety of the test. Through electrical connection, the controller 5 can acquire and process data from the heating assembly 2, the temperature detection assembly 3, and the test assembly 4 in real time, achieving precise control over the entire device. Through electrical connection with the temperature detection assembly 3, the controller 5 can monitor the temperature of the test seat 12 in real time and adjust the heating assembly 2 according to the preset temperature requirements. This ensures the stability of the test environment, making the test results more reliable. The controller 5 is in electrical connection with the test assembly 4, which can acquire test data in real time and monitor the state of the test seat 12.Through the electrical control of the test assembly 4, the progress of the test can be flexibly controlled, such as adjusting the movement speed of the stretching mechanism 42 to adapt to different test conditions. The electrical connection of the controller 5 realizes the cooperation between the components within the device, ensuring the orderly performance of functions such as heating, testing, and monitoring. This is beneficial to improve the degree of automation of the test, reduce the intervention of the operator, and at the same time reduce the possibility of human operation error. In a specific example, a humidity control assembly 6 is also included, which includes a liquid tank 61 located on the incubator 1 and a spray head 62 that communicates with the liquid tank 61 at one end and extends into the heating cavity 11 at the other end; the humidity control assembly 6 is used to control the humidity in the heating cavity 11. Specifically, the humidity control assembly 6 is to simulate or adjust the humidity environment in the heating cavity 11 to meet the specific requirements of the sealant performance test on humidity. The liquid tank 61 stores the liquid required to adjust the humidity, and the spray head 62 is responsible for spraying the liquid into the heating cavity 11 to adjust the performance of the sealant under different humidity conditions. The liquid in the liquid tank 61 can be water or other adjustable humidity medium. The controller 5 can monitor and adjust the liquid level in the liquid tank 61 through electrical connection with the humidity control assembly 6, thereby controlling the liquid spraying amount of the spray head 62. The spray head 62 can effectively adjust the humidity level in the heating cavity 11 by spraying liquid into the heating cavity 11. This is of great significance for simulating the humidity conditions in the actual use environment, thereby more comprehensively evaluating the performance of the sealant. In a specific example, a base 7 is also included, which is located on the incubator 1 and is located away from the stretching mechanism 42 on the side of the incubator 1, and the rotating mechanism 41 is bolted to the base 7. Specifically, the base 7 is a component of the sealant performance testing device 100, mainly used to provide stable support for the device, and through the bolt connection with the rotating mechanism 41, it ensures the firm fixation of the rotating mechanism 41. The base 7 is arranged on the incubator 1 away from the stretching mechanism 42, providing a solid foundation for the entire sealant performance testing device 100, ensuring that the device does not shake or tilt during the test process. The rotating mechanism 41 is tightly connected to the base 7 through the bolts on the base 7. This connection method helps to transfer power and movement, ensuring the smooth operation of the rotating mechanism 41. The stability of the device is crucial for conducting sealant performance tests, as instability can affect the accuracy of the test results. In a specific example, a crossbeam 8 is provided between the incubator 1 and the stretching mechanism 42, and the motor 423 is bolted to the crossbeam 8. Specifically, the crossbeam 8 is part of the sealant performance testing device 100, located between the incubator 1 and the stretching mechanism 42, and its main function is to provide structural support to ensure the stability of the device during the test process. As a structural element connecting the incubator 1 and the stretching mechanism 42, the crossbeam 8 provides additional support by evenly distributing the force, enhancing the stability of the entire device.The motor 423 is bolted to the crossbeam 8, which ensures the secure fixing of the motor 423 and enables it to effectively drive the movement of the stretching mechanism 42. Through the crossbeam 8, the force exerted on the device can be evenly transmitted to the entire structure, reducing the burden on each component and helping to improve the durability and service life of the device. In a specific example, the base 7 is provided with a shock pad 71 on the side away from the incubator 1, and the shock pad 71 is glued to the base 7. Specifically, the crossbeam 8 is part of the sealing glue performance detection device 100, located between the incubator 1 and the stretching mechanism 42, and its main function is to provide structural support to ensure the stability of the device during testing. The crossbeam 8 serves as a structural element connecting the incubator 1 and the stretching mechanism 42, providing additional support by evenly distributing the force and enhancing the stability of the entire device. The motor 423 is bolted to the crossbeam 8, which ensures the secure fixing of the motor 423 and enables it to effectively drive the movement of the stretching mechanism 42. Through the crossbeam 8, the force exerted on the device can be evenly transmitted to the entire structure, reducing the burden on each component and helping to improve the durability and service life of the device.

[0040] The above only describes the embodiments of the present application, and it should be pointed out that those skilled in the art can make improvements without departing from the inventive concept of the present application, and these improvements are all within the protection scope of the present application.

Claims

1. A sealant performance detection apparatus, characterized by, The utility model relates to a heat preservation box for testing sealant, comprising: a heat preservation box formed with a heating cavity, wherein a test seat for placing sealant is arranged in the heating cavity; a heating assembly arranged in the heating cavity; a temperature detection assembly arranged around the test seat to detect the temperature of the test seat; a test assembly having one end arranged in the heat preservation box and the other end penetrating through the heat preservation box and extending into the heating cavity to test the sealant of the test seat.

2. The sealant performance testing apparatus of claim 1, wherein The heating cavity has a top surface and a bottom surface opposite to the top surface, the test seat is arranged on the bottom surface, the heating assembly is arranged on the top surface, and the heating assembly is located on both sides of the test assembly.

3. The sealant performance testing apparatus of claim 1, wherein A box opening is formed on the heat preservation box, the heating cavity is communicated with the outside through the box opening, two box doors are arranged at the box opening, and the box doors are slidingly connected with the heat preservation box to shield or open the box opening.

4. The sealant performance testing apparatus of claim 3, wherein A heat preservation layer is arranged on one side of the box door, and the heat preservation layer is located in the heating cavity.

5. The sealant performance testing apparatus of claim 1, wherein The test assembly comprises a rotating mechanism and a stretching mechanism, and the rotating mechanism is rotationally connected with the test seat. The stretching mechanism comprises a lead screw assembly, a test head and a motor, the motor is arranged on the heat preservation box, one end of the lead screw assembly is rotationally connected with the output end of the motor, the other end of the lead screw assembly is drivingly connected with the test head, the test seat is located on the axis of the lead screw assembly, and the test head can be partially accommodated in the test seat. The motor drives the lead screw assembly to rotate and drives the test head to move along the length direction of the lead screw assembly to achieve the stretching effect.

6. The sealant performance testing apparatus of claim 1, wherein A controller is further arranged on the heat preservation box, and the controller is electrically connected with the heating assembly, the temperature detection assembly and the test assembly.

7. The sealant performance testing apparatus of claim 1, wherein A humidity control assembly is further arranged, the humidity control assembly comprises a liquid tank and a spray head, the liquid tank is arranged on the heat preservation box, one end of the spray head is communicated with the liquid tank, and the other end of the spray head extends into the heating cavity. The humidity control assembly is used for controlling the humidity in the heating cavity.

8. The sealant performance testing apparatus of claim 5, wherein A base is further arranged on the heat preservation box, the base is located on the side away from the heat preservation box and away from the stretching mechanism, and the rotating mechanism is bolted with the base.

9. The sealant performance testing apparatus of claim 5, wherein A cross beam is arranged between the heat preservation box and the stretching mechanism, and the motor is bolted with the cross beam.

10. The sealant performance detection apparatus of claim 8, wherein A damping pad is arranged on the side of the base away from the heat preservation box, and the damping pad is glued with the base.

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