Ultraviolet environment simulation test device for nanometer environment-friendly and energy-saving heater

Abstract

The invention relates to the technical field of ultraviolet irradiation tests, and discloses a nanometer environment-friendly energy-saving heater ultraviolet environment simulation test device which comprises a test tube, an ultraviolet emission lamp is installed at the right end of the test tube, a connector tube is connected to the test tube, a probe is connected to the connector tube in a clamped mode, and the probe is connected to the test tube in a clamped mode. The probe is connected with an irradiation meter through a wireless control module, a control frame is installed on the test tube, and a test assembly is arranged in the test tube. And a test station is arranged in the test tube. According to the ultraviolet environment simulation test device for the nano environment-friendly and energy-saving heater, radiation states of ultraviolet light in various environments can be realized through the arranged environment device, so that irradiation tests of the ultraviolet light in different environments, namely penetration effects of the ultraviolet light in different media, are simulated, and certain data support is provided for subsequent overall test data; therefore, the detection data accuracy of the irradiatometer is improved, and the test data is more accurate and convenient.

Description

Technical Field

[0001] The invention relates to the technical field of ultraviolet irradiation testing, in particular to an ultraviolet environment simulation testing device for a nano environmentally friendly and energy-saving heater. Background Art

[0002] As a precision optical measuring instrument, a UV illuminometer is specifically designed to measure the intensity of ultraviolet radiation. It is widely used in fields such as photochemistry, medicine, environmental protection, and food processing. Its operating principle is based on the photoelectric effect, using a photosensitive element to convert UV radiation into an electrical signal for measurement, accurately reflecting the intensity of UV radiation.

[0003] At present, in the process of ultraviolet irradiation test, usually only the penetrating irradiation state of ultraviolet light in natural air medium is used, and some products or radiometers need to test their performance and detection sensitivity under different working conditions. Therefore, the detection test under this single state cannot simulate the real complex working conditions, and there are differences in the test data, resulting in poor test accuracy. In addition, the detection test working conditions are single, and the sensitivity of the radiometer and the actual performance of the product cannot be effectively detected. Therefore, a nano-environmentally friendly and energy-saving heater ultraviolet environment simulation test device is proposed to solve the above problems. Summary of the Invention

[0004] (1) Technical problems solved In response to the shortcomings of the existing technology, the present invention provides a nano-environmentally friendly and energy-saving heater ultraviolet environment simulation test device, which solves the problem that the radiometer in the existing technology cannot detect the changes in ultraviolet radiation intensity under different working conditions during test detection, and the detection method is single, resulting in differences in detection data and poor accuracy of the detection data.

[0005] (2) Technical solution To achieve the above-mentioned object, the present invention provides the following technical solution: a nano-environmental protection and energy-saving heater ultraviolet environment simulation test device, comprising a test tube, a UV emitting lamp installed at the right end of the test tube, a joint tube connected to the test tube, a probe clamped on the joint tube, the probe connected to the irradiance meter via a wireless control module, a control frame installed on the test tube, a test assembly 5 provided inside the test tube, and a transmission assembly provided on the outer wall of the test tube; The interior of the test tube is provided with a test station: The test component 5 is capable of cyclically switching the working conditions of the ultraviolet emitting lamp to emit light; The test assembly 5 includes a drive circulation device, a switching device and an environmental device; The environmental device includes round box 1, round box 2, round box 3 and round box 4, wherein round box 1 is used to simulate the ultraviolet radiation state in a dusty environment, round box 2 is used to simulate the ultraviolet radiation state in a rainy environment, round box 3 is used to simulate the ultraviolet radiation state in a normal air environment, and round box 4 is used to simulate the ultraviolet radiation state in a pure water environment; The interior of the first circular box is filled with flying dust and gravel, the interior of the second circular box is provided with a partition with a plurality of small pores, the interior of the second circular box is provided with a water solution that slowly flows down from the pores to simulate rain, the interior of the third circular box is provided with air, and the interior of the fourth circular box is filled with the water solution; The movement of the driving circulation device drives the switching device to rotate periodically, thereby driving the environment device connected to the switching device to rotate to switch the environment.

[0006] Preferably, the driving circulation device includes a driving motor, the output end of the driving motor is connected to a driving rod, a reciprocating screw is fixedly connected to the driving rod, a sliding sleeve is slidably connected to the reciprocating screw, an axle pin is provided inside the sliding sleeve, the axle pin is slidably connected in the spiral groove of the reciprocating screw, a sliding frame is fixedly connected to the sliding sleeve, the sliding frame is connected to the switching device, and the outer wall of the sliding frame is fixedly equipped with a push rod.

[0007] Preferably, the switching device includes a positioning shaft, both ends of the positioning shaft are connected to the test tube, the surface of the positioning shaft is slidably connected to a steering sleeve, the steering sleeve is fixedly connected to a sliding pin rod, the surface of the sliding pin rod is slidably connected to a sleeve, the inner wall of the sleeve is provided with a plurality of straight grooves and rotational grooves, and the plurality of straight grooves and rotational grooves are connected to each other, the sliding pin rod is slidably connected in the straight grooves and rotational grooves, the sleeve is connected to the environmental device, the outer wall of the positioning shaft is sleeved with a reset spring 2, the outer wall of the reset spring 2 is in contact with a force-bearing plate, the The outer wall of the force-bearing plate is provided with a through groove, the inner wall of the through groove is provided with a return spring 1, the outer wall of the return spring 1 abuts against a limiting ring, the inner wall of the limiting ring is fixedly sleeved with a round rod, the end of the round rod close to the center point of the force-bearing plate is fixedly equipped with a movable plate, the end of the round rod away from the movable plate is fixedly equipped with an extrusion plate, the outer wall of the extrusion plate abuts against a rotating plate, the outer wall of the rotating plate is fixedly equipped with a clamping plate, the outer wall of the test tube is also fixedly equipped with a positioning rod, and the outer wall of the positioning rod is rotatably connected to the clamping plate and the inner wall of the rotating plate respectively.

[0008] Preferably, a gear ring is provided on the surface of the circular box, a rotating sleeve is fixedly connected to the gear ring, a plurality of spacers are provided in the internal circular array of the rotating sleeve, a gear 1 meshing with the gear ring is provided on the driving rod, and an electric heating rod is provided on the inner wall of the test tube.

[0009] Preferably, transparent flat mirrors are installed on the left and right sides of round box one, round box two, round box three and round box four, and the ultraviolet light emitted by the ultraviolet light emitting lamp passes through the two flat mirrors and the medium between the two flat mirrors to radiate onto the test station, and the probe is used to monitor the ultraviolet light on the test station in real time.

[0010] Preferably, the round box one, round box two, round box three and round box four have a bracket rotatably connected to the positioning shaft, and the round box one, round box two, round box three and round box four are arranged in a circular array on the bracket, and the bracket is fixedly connected to the sleeve.

[0011] Preferably, a positioning member is provided in the test station, and the positioning member is used to position and stretch some materials subjected to ultraviolet radiation; the positioning member includes an upper support and a lower support, and the upper support and the lower support are both provided with pins, the bottom of the lower support is connected to a sliding bar, the right end of the sliding bar is connected to a tension spring, the right end of the tension spring is connected to a sliding rod, the bottom of the test tube is connected to a square tube, the sliding rod is slidably connected to the square tube, and the right end of the sliding rod is connected to the sliding frame.

[0012] Preferably, a flip cover is rotatably connected to the test tube, a data interface is fixedly provided on the surface of the test tube, a disc is provided in the middle of the test tube, and the environmental device is provided inside the disc.

[0013] Preferably, the wireless module includes a wireless receiving module and a wireless transmitting module. The wireless transmitting module is arranged inside the probe, and the wireless receiving module is arranged inside the radiometer.

[0014] (3) Beneficial effects Compared with the existing technology, the present invention provides a nano-environmental protection and energy-saving heater ultraviolet environment simulation test device, which has the following beneficial effects: 1. The nano-environmentally friendly and energy-saving heater ultraviolet environment simulation test device can realize the radiation state of ultraviolet light in various environments through the set environmental device, thereby simulating the irradiation test of ultraviolet light in different environments, that is, the penetration effect under different media, providing certain data support for the subsequent overall test data, thereby improving the accuracy of the detection data of the radiometer, and can realize data transmission in the wireless receiving state, providing a more convenient environment for the test. When it is necessary to conduct an ultraviolet radiation test on a certain environment, a round box is directly converted to the transmission path of the light, making the test data more accurate and convenient.

[0015] 2. The nano-environmental protection and energy-saving heater ultraviolet environment simulation test device can automatically switch the position of the environment device through the set driving cycle device, so that the medium that the ultraviolet light penetrates is automatically switched at a fixed time, thereby facilitating the automatic detection of the data feedback affected by ultraviolet light under different media. At the same time, while the operation of the driving cycle device is used to replace the simulated environment, the rotation of the screw rod will cause the sliding frame to move, so that the tensile structure can detect the strength of the material under different environments. After the detection, the sliding frame can be reset by disconnecting the power of electromagnet 1 and electromagnet 2, so that the movable plate contacts the top rod, thereby causing the force plate to move and the rotating rod to rotate through gear 2, so that the user can turn on the device to test the material after the test. The device can be easily taken out and the user can place new materials in the test tube for subsequent testing. If the hatch does not need to be opened, the electromagnet 1 and the electromagnet 2 are energized to move the movable plate and dislocate it from the push rod. The push rod will directly pass through the through slot to ensure that the test component can complete the environment replacement operation without causing motion interference, thereby ensuring the normal operation of the device. At the same time, the energization of the electromagnet 1 and the electromagnet 2 will cause the extrusion plate to pop out and apply thrust to the rotating plate, so that the clamping plate fits tightly against the outer wall of the hatch, thereby achieving the effect of locking the hatch and ensuring the sealing effect of the hatch. The precise coordination of the internal components of the device ensures that the movement of the test component can drive the operation of one component, thereby improving the energy utilization rate of the device. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 This is a schematic diagram of the overall structure of a nano-environmental protection and energy-saving heater ultraviolet environment simulation test device proposed by the present invention; Figure 2 This is a schematic side view of the overall structure of a nano-environmental protection and energy-saving heater ultraviolet environment simulation test device proposed by the present invention; Figure 3 This is a schematic side cross-sectional view of a nano-environmental protection and energy-saving heater ultraviolet environment simulation test device proposed by the present invention; Figure 4 This invention proposes a nano environmental protection and energy saving heater ultraviolet environment simulation test device Figure 3 A in the middle is an enlarged structural diagram; Figure 5 This is a schematic diagram of the environmental device structure of a nano-environmental-friendly and energy-saving heater ultraviolet environment simulation test device proposed by the present invention; Figure 6 This is a schematic diagram of the sliding frame structure of a nano-environmental protection and energy-saving heater ultraviolet environment simulation test device proposed by the present invention; Figure 7 This is a schematic structural diagram of round boxes 1 to 4 of a nano-environmental-friendly and energy-saving heater ultraviolet environment simulation test device proposed by the present invention; Figure 8 This is a schematic diagram of the connection structure of a tension spring of an ultraviolet environment simulation test device for an environmentally friendly and energy-saving nano heater proposed by the present invention.

[0017] In the figure: 1. Test tube; 2. Connector tube; 3. Probe; 4. Radiometer; 5. Test assembly; 501. Drive motor; 502. Drive rod; 503. Reciprocating screw; 504. Sliding sleeve; 505. Sliding frame; 506. Positioning shaft; 507. Steering sleeve; 508. Bracket; 509. Straight groove; 510. Rotational groove; 511. Sliding pin; 512. Round box 1; 5121. Gear ring; 5122. Spacer; 5123. Rotating sleeve; 513. Round box 2; 5131. Partition; 5132. Fine hole; 514. Round box 3; 515. Round box 4; 516. Upper support; 517. Lower support; 5 18. Sliding bar; 519. Tension spring; 520. Sliding rod; 521. Sleeve; 522. Push rod; 523. Force plate; 5231. Through slot; 5232. Movable plate; 5233. Round rod; 5234. Limiting ring; 5235. Return spring 1; 5236. Electromagnet 1; 5237. Electromagnet 2; 5238. Extrusion plate; 524. Tooth plate; 525. Return spring 2; 526. Pressing plate; 527. Rotating plate; 6. Flip cover; 7. Ultraviolet light; 8. Control frame; 9. Gear 1; 10. Data interface; 11. Transmission assembly; 1101. Rotating rod; 1102. Gear 2. DETAILED DESCRIPTION

[0018] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0019] See also Figures 1-8 A nano-environmental protection and energy-saving heater ultraviolet environment simulation test device includes a test tube 1, an ultraviolet emitting lamp 7 is installed at the right end of the test tube 1, a joint tube 2 is connected to the test tube 1, a probe 3 is clamped on the joint tube 2, the probe 3 is connected to the radiation meter 4 through a wireless control module, a control frame 8 is installed on the test tube 1, and a test component 5 is arranged inside the test tube 1; a transmission component 11 is provided on the outer wall of the test tube 1, the wireless module includes a wireless receiving module and a wireless transmitting module, the wireless transmitting module is arranged inside the probe 3, and the wireless receiving module is arranged inside the radiation meter 4. A test station is arranged inside the test tube 1: the test component 5 can cyclically switch the working environment of the ultraviolet emitting lamp 7 emitting light; the test component 5 includes a driving circulation device, a switching device and an environmental device; In this embodiment, the environmental device includes circular box one 512, circular box two 513, circular box three 514 and circular box four 515. Circular box one 512 is used to simulate the ultraviolet radiation state in a dusty environment, circular box two 513 is used to simulate the ultraviolet radiation state in a rainy state, circular box three 514 is used to simulate the ultraviolet radiation state in a normal air environment, and circular box four 515 is used to simulate the ultraviolet radiation state in a pure water environment. Taking into account the intensity change of ultraviolet light when penetrating different media, circular box one 512, circular box two 513, circular box three 514 and circular box four 515 are set up, and different media in the four boxes are used to simulate the real external working environment.

[0020] Furthermore, the interior of circular box 1 512 is provided with flying dust and gravel, the interior of circular box 2 513 is provided with a partition 5131, and the partition 5131 is provided with multiple small pores 5132. The interior of circular box 2 513 is provided with an aqueous solution, which slowly flows down from the interior of the pores 5132 to simulate the state of rain. The interior of circular box 3 514 is provided with air, and the interior of circular box 4 515 is filled with aqueous solution. Through the above four different media, the irradiation test of ultraviolet light in different environments is simulated, that is, the penetration effect under different media, providing certain data support for subsequent overall test data, thereby improving the accuracy of the detection data of the radiation meter 4, and enabling data transmission in a wireless receiving state, providing a more convenient environment for testing. When it is necessary to conduct ultraviolet radiation testing on a certain environment, a circular box is directly converted to the transmission path of the light, making the test data more accurate and convenient. The movement of the drive circulation device drives the switching device to rotate regularly, and then drives the environmental device connected to the switching device to rotate to switch the environment.

[0021] Furthermore, the drive circulation device includes a drive motor 501, the output end of which is connected to a drive rod 502, to which a reciprocating screw 503 is fixedly connected, to which a sliding sleeve 504 is slidably connected, and an axle pin is provided inside the sliding sleeve 504, which is slidably connected within the spiral groove of the reciprocating screw 503. A sliding frame 505 is fixedly connected to the sliding sleeve 504, which is connected to the switching device, and a push rod 522 is fixedly mounted on the outer wall of the sliding frame 505. By controlling the start of the drive motor 501, the drive rod 502 and the reciprocating screw 503 are driven to rotate synchronously, and the threaded groove on the reciprocating screw 503 is used to drive the sliding sleeve 504 to move horizontally left and right. The left and right movement of the sliding sleeve 504 drives the sliding frame 505 to move synchronously, and the sliding frame 505 indirectly drives the steering sleeve 507 to slide on the positioning shaft 506, thereby providing left and right circulation power and realizing the subsequent automatic cycle switching working environment.

[0022] In addition, the switching device includes a positioning shaft 506, both ends of the positioning shaft 506 are connected to the test tube 1, the surface of the positioning shaft 506 is slidably connected to the steering sleeve 507, the steering sleeve 507 is fixedly connected to the sliding pin rod 511, the surface of the sliding pin rod 511 is slidably connected to the sleeve 521, the inner wall of the sleeve 521 is provided with a plurality of straight grooves 509 and rotational grooves 510, and the plurality of straight grooves 509 and rotational grooves 510 are communicated with each other, the sliding pin rod 511 is slidably connected in the straight grooves 509 and the rotational grooves 510, the outer wall of the sleeve 521 connected to the environmental device and the positioning shaft 506 is sleeved with a reset spring 2 525, the outer wall of the reset spring 2 525 is in contact with the force plate 523, and the outer wall of the force plate 523 A through groove 5231 is provided on the wall, and a return spring 5235 is provided on the inner wall of the through groove 5231. The outer wall of the return spring 5235 abuts against the limit ring 5234. The inner wall of the limit ring 5234 is fixedly sleeved with a round rod 5233. The end of the round rod 5233 close to the center point of the force-bearing plate 523 is fixedly equipped with a movable plate 5232, and the end of the round rod 5233 away from the movable plate 5232 is fixedly equipped with an extrusion plate 5238. The outer wall of the extrusion plate 5238 abuts against the rotating plate 527. The outer wall of the rotating plate 527 is fixedly equipped with a clamping plate 526. The outer wall of the test tube 1 is also fixedly equipped with a positioning rod, and the outer wall of the positioning rod is rotatably connected to the inner wall of the clamping plate 526 and the rotating plate 527 respectively. When the sliding frame 505 moves to the left, the sliding pin 511 will slide to the interface position of the rotation groove 510 and the straight groove 509. Then, as the sliding frame 505 returns to the right, it will drive the sliding pin 511 to slide in the rotation groove 510. The structure of the rotating groove will drive the indexing rotation of the sleeve 521. Then, the sleeve 521 will drive the bracket 508 to rotate, and then drive the four boxes connected to it to rotate, thereby realizing automatic switching of different media at a certain time, so that the ultraviolet light can automatically radiate the penetration effect of different media within a certain period of time.

[0023] In addition, a gear ring 5121 is provided on the surface of the circular box 1 512, and a rotating sleeve 5123 is fixedly connected to the gear ring 5121. The internal circular array of the rotating sleeve 5123 is provided with a plurality of partition bars 5122. The driving rod 502 is provided with a gear 19 meshing with the gear ring 5121. The inner wall of the test tube 1 is provided with an electric heating rod, and the circular box 1 512 is a simulated ultraviolet light irradiation state under the dust state. At this time, as the circular box 1 512 rotates to the position of the test tube 1, the gear ring 5121 will form a meshing state with the gear 19, and the gear 19 and the driving rod 502 will rotate synchronously. Therefore, the gear ring 5121 will continue to rotate, thereby driving the rotating sleeve 5123 to rotate, and the internal partition bars 5122 will rotate synchronously. The purpose of the rotation is to generate flying dust inside the circular box 1 512 to prevent the dust from being in a static state.

[0024] It is worth noting that transparent flat mirrors are installed on the left and right sides of circular box 1 512, circular box 2 513, circular box 3 514, and circular box 4 515. The ultraviolet light emitted by the ultraviolet lamp 7 passes through the two flat mirrors and the medium between the two flat mirrors to radiate onto the test station. The probe 3 is used to monitor the ultraviolet light at the test station in real time. The purpose of the flat mirrors is to seal the internal space of circular box 1 512, circular box 2 513, circular box 3 514, and circular box 4 515 to prevent leakage of the internal medium. In addition, circular box 2 513 is used to simulate the ultraviolet radiation state under rainy conditions. When circular box 2 513 is rotated to the bottom position and inverted, the falling "rainwater" will flow back to the bottom of the partition 5131, waiting for the next time circular box 2 513 is reversed, and the "rain" state will be restored.

[0025] It is worth noting that round box 1 512, round box 2 513, round box 3 514, and round box 4 515 are rotatably connected to a bracket 508 on a positioning shaft 506. Round box 1 512, round box 2 513, round box 3 514, and round box 4 515 are arranged in a circular array on bracket 508, which is fixedly connected to sleeve 521. The rotation of sleeve 521 drives the positions of round box 1 512, round box 2 513, round box 3 514, and round box 4 515 to switch, thereby achieving a change in the medium through which ultraviolet light penetrates.

[0026] Furthermore, a positioning member is provided within the test station for positioning and stretching materials subjected to ultraviolet radiation. The positioning member comprises an upper support 516 and a lower support 517, both of which are provided with pins. A slide bar 518 is connected to the bottom of the lower support 517, the right end of which is connected to a tension spring 519, the right end of which is connected to a sliding rod 520. The bottom of the test tube 1 is connected to a square tube, the sliding rod 520 is slidably connected to the square tube, and the right end of the sliding rod 520 is connected to the sliding frame 505. The upper support 516 and the lower support 517 are provided at the test station because during testing or inspection, it may be necessary to test the tensile state of a certain material under ultraviolet light irradiation under different working conditions. Therefore, an upper support 516 and a lower support 517 are provided. The material can be hung on the pins of the upper and lower supports 516 and 517. As the sliding frame 505 cyclically moves horizontally, it will synchronously drive the sliding rod 520 to perform a stretching cycle. The sliding rod 520, in turn, drives the slider 518 to cyclically pull horizontally via the elastic connection of the tension spring 519. The product hung on the upper and lower supports 516 and 517 will be stretched by the elastic pull. Because the ultraviolet light is irradiating the product at the test station, if the product is ductile after being irradiated by the light, it will be stretched by the lower support 517. If the product is not ductile, the tension spring 519 will stretch. Therefore, the tester can determine the product's ductility based on the stretched state of the tension spring 519, thereby performing the irradiation light test on the product.

[0027] Furthermore, a flip cover 6 is rotatably connected to the test tube 1. A data port 10 is fixedly mounted on the surface of the test tube 1. A circular disc is located in the middle of the test tube 1, and the environmental device is located within the disc. The entire device also includes a data port 10 for electrically connecting the wired probe 3, enhancing the device's versatility. The disc can be used to enclose circular boxes 1 512, 2 513, 3 514, and 4 515. The flip cover 6 can be opened and closed to accommodate the product under test.

[0028] The working principle of the device is that when the entire device is in use, the material or product to be tested needs to be placed on the test station, that is, the position of the flip cover 6 is opened, and the product to be tested is placed in the radiation area of ​​the ultraviolet light. Then, when the flip cover 6 is closed and the ultraviolet light emitting lamp 7 is turned on, ultraviolet light will be generated. Then, the ultraviolet light will pass through the central tube of the test tube 1 and radiate to the position of the test station. Then, the probe 3 will detect the irradiation intensity of the ultraviolet light at this time, and then transmit the data to the display interface of the radiometer 4 through the wireless transmission module. The wireless module used in the arrangement can solve the problem of wire entanglement in the wired state. Some of the current radiation meters 4 are wired, but in order to ensure personal safety and the accuracy of test data, the ultraviolet irradiation area of ​​many devices is a closed space, and there is no reserved data line transmission port, which leads to great limitations in detection. Therefore, the use of wirelessly transmitted data can solve this problem, making the data transmission and data reception of the entire detection test device more convenient. Moreover, because the current probe 3 is wired, the display of the radiation meter 4 and the probe 3 are very close, and readings cannot be achieved, let alone continuous readings. Therefore, by adding a wireless module, a wireless connection between the radiation meter 4 and the probe 3 can be achieved, so that readings can be achieved from a relatively far distance. The entire device is equipped with an environmental device, which is used to simulate the difference in ultraviolet radiation under different working conditions and truly simulate different environments. The four boxes, circular box 1 512, circular box 2 513, circular box 3 514 and circular box 4 515, correspond to four different working conditions. The first is the environment under raining conditions. A water solution is set above the partition 5131 in circular box 2 513, which will slowly flow downward from the position of the pore 5132 to form a simulated raining state. After that, the ultraviolet light will pass through the glass on both sides of circular box 2 513 and then penetrate the medium rainwater between them. After that, the ultraviolet light will be radiated to the test station. At this time, the product to be tested will be irradiated by the ultraviolet light passing through the rainwater. Therefore, the probe 3 will monitor the light in the test station and transmit the data to the radiation meter 4 for data reception.The entire device is also provided with a drive circulation device and a switching device to automatically switch the environmental working position, control the start of the drive motor 501, and then drive the drive rod 502 and the reciprocating screw 503 to rotate synchronously. The threaded groove on the reciprocating screw 503 will drive the sliding sleeve 504 to move left and right, and the left and right movement of the sliding sleeve 504 will drive the sliding frame 505 to move synchronously, and the sliding frame 505 will indirectly drive the steering sleeve 507 to slide on the positioning shaft 506. The sliding pin rod 511 on the sliding sleeve 507 slides inside the rotation groove 510 and the straight groove 509, which will realize the automatic rotation of the angle of the sleeve 521. When the sliding frame 505 moves to the left, it will indirectly control the sliding pin rod 511 to slide horizontally inside the straight groove 509. At this time, the sleeve 521 will not move. When the sliding frame 505 moves to the left to the extreme position, the sliding pin rod 511 will slide to the interface position of the rotation groove 510 and the straight groove 509. Then, as the sliding frame 505 returns to the right, , it will drive the sliding pin rod 511 to slide in the rotation groove 510. The structure of the rotation groove will drive the indexing rotation of the sleeve 521. Then the sleeve 521 will drive the bracket 508 to rotate, and then drive the four boxes connected to it to rotate. At this time, the round box 2 513 located inside the test tube 1 will rotate to make way, and the round box 4 515 will take over the position of the round box 2 513 and be located in the middle of the pipeline of the test tube 1. The interior of the round box 4 515 is filled with aqueous solution. Therefore, at this time, the ultraviolet light will pass through the lenses on both sides of the round box 4 515 and needs to pass through the medium aqueous solution between them to radiate to the test station. Therefore, the simulated state at this time is that the ultraviolet light is similar to the irradiation state in the aqueous solution. As the drive motor 501 continues to rotate, it will continue the previous cycle, driving the round box 4 515 to turn and change position. After that, the round box 3 514 will be between the pipelines of the test tube 1. The interior of the round box 3 514 is actually in an empty state. At this time, the irradiation state of ultraviolet light under natural air is simulated, and the principle is the same as above.Finally, the round box 1 512 will move to the pipes of the test tube 1, and the round box 1 512 is in the ultraviolet light irradiation state under the simulated dust state. At this time, as the round box 1 512 rotates to the position of the test tube 1, the gear ring 5121 will form a meshing state with the gear 1 9, and the gear 1 9 and the driving rod 502 rotate synchronously, so the gear ring 5121 will continue to rotate, thereby driving the rotating sleeve 5123 to rotate, and the internal partition 5122 will rotate synchronously. The purpose of rotation is to generate flying dust inside the round box 1 512 to prevent the dust from being in a static state, because the dust and gravel will sink to the bottom due to gravity, so the use of The continuous rotation of the rotating sleeve 5123 will lift the dust accumulated in the lower part of the interior, thereby simulating the irradiation environment under the dust. At this time, the ultraviolet light will pass through the medium dust between the glass on both sides of the round box 512 and radiate to the test station. The probe 3 is then used to monitor the light at this time, and finally the ultraviolet light radiation state under multiple environmental switching is achieved, which improves the accuracy of the test data. It also provides a variety of harsh environments for the product to be tested, and truly simulates the use environment. The four environments used in this embodiment are not limited to these four environments. Other working conditions can also be used, such as high temperature, or to test the intensity of a certain product blocking ultraviolet light. If a test of a certain material blocking ultraviolet light is required, the material needs to be placed in the four boxes, and the ultraviolet light penetrates the material in the box and then radiates to the test station. The irradiation intensity data at this time is transmitted to the irradiator 4 through the detection of the probe 3 to realize data reception and reference testing. In addition, an upper support 516 and a lower support 517 are provided at the test station because during the test or inspection process, it may be necessary to inspect the tensile state of a certain material under ultraviolet light irradiation under different working conditions.Therefore, an upper support 516 and a lower support 517 are provided. At this time, the material can be hung on the pins of the upper support 516 and the lower support 517. As the sliding frame 505 moves in a horizontal circular motion left and right, the sliding rod 520 will be synchronously driven to perform a stretching circular motion, and the sliding rod 520 will drive the slide bar 518 to pull in a left and right circular motion through the elastic connection of the tension spring 519, thereby driving the lower support 517 to pull left and right, and the product hung on the upper support 516 and the lower support 517, such as cloth or film, will be stretched with the elastic pulling, because the ultraviolet light is irradiated on the product on the test station at this time, so if the product has ductility after being irradiated by the light, it will be stretched and stretched by the lower support 517. If the product does not have ductility, the tension spring 519 will be stretched and lengthened, so the inspector can judge the tensile ductility of the product at this time according to the stretched state of the tension spring 519, thereby realizing the irradiation light test of the product. In the test process, the test component 5 is used to The rotation can move the sliding frame 505, so that the user can use the movement of the sliding frame 505 to allow the push rod 522 to apply pressure to the movable plate 5232, thereby causing the tooth plate 524 to move synchronously and engage with the gear 2 1102, driving the rotating rod 1101 to rotate and automatically open the hatch, thereby facilitating the user to store and access materials. If there is no need to replace the material, the movable plate 5232 and the push rod 522 can be directly offset by energizing the electromagnet 1 5236 and the electromagnet 2 5237, so that the push rod 522 directly passes through the through slot 5231, thereby allowing the test assembly 5 to rotate normally without opening the hatch. At the same time, the squeezing plate 5238 will squeeze the rotating plate 527 to rotate, so that the outer wall of the pressing plate 526 is tightly attached to the outer wall of the hatch, thereby ensuring that the hatch and the test tube 1 are tightly attached, and improving the stability of the hatch after closing. The power source of the above structure all comes from the rotation of the test assembly 5, thereby improving the precise coordination of the internal components of the device, thereby improving the energy saving effect and automation of the device, and also improving the precision of the device.

[0029] Regarding the opening, there may be leakage of ultraviolet light. This is because the entire ultraviolet light penetrates the medium, and the small amount of light leakage is before it passes through the medium. The light is similar to a direct state, but there will definitely be a certain amount of light radiated on the wall of the test tube 1. Because the opening is facing upward, the light radiated on the wall of the test tube 1 is ineffective. The opening leakage here is equivalent to the light radiated on the wall of the test tube 1, which is useless light for the experiment. It does not affect the light after the direct exposure of the ultraviolet light, so the impact on the experimental parameters and data is negligible and can be ignored.

[0030] The continuous stretching test primarily measures the material's tensile properties under varying environmental conditions, specifically the tensile properties of the material when switching between four environments over a single cycle. The final test result is the material's properties after testing in multiple environments. The intermediate, cyclical stretching test uses the radiometer 4 to determine whether the material exhibits changes in tensile properties under varying light intensities and durations. For example, when the device switches between four environments over a single cycle, the material's tensile properties change. This continues for the second and third cycles, and so on, until the desired duration is reached.

[0031] It should be noted that, in this document, relational terms such as first and second, etc., are used only to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply the existence of any such actual relationship or order between these entities or operations. Moreover, the terms "comprises," "comprising," or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article, or device comprising a series of elements includes not only those elements, but also other elements not explicitly listed, or elements inherent to such process, method, article, or device. In the absence of further limitations, an element defined by the phrase "comprising a ..." does not exclude the presence of other identical elements in the process, method, article, or device comprising the element.

Claims

1. A nano environmentally friendly and energy-saving heater ultraviolet environment simulation test device, characterized in that: The invention comprises a test tube (1), wherein an ultraviolet emitting lamp (7) is installed at the right end of the test tube (1), a joint tube (2) is connected to the test tube (1), a probe (3) is clamped on the joint tube (2), the probe (3) is connected to a irradiator (4) via a wireless control module, a control frame (8) is installed on the test tube (1), a test assembly 5 (5) is arranged inside the test tube (1), and a transmission assembly (11) is arranged on the outer wall of the test tube (1); The test tube (1) is provided with a test station inside: The test component 5 (5) is capable of cyclically switching the working conditions of the ultraviolet emitting lamp (7) emitting light; The test assembly 5 (5) includes a drive circulation device, a switching device and an environmental device; The environmental device includes a circular box one (512), a circular box two (513), a circular box three (514) and a circular box four (515), wherein the circular box one (512) is used to simulate the ultraviolet radiation state in a dusty environment, the circular box two (513) is used to simulate the ultraviolet radiation state in a rainy state, the circular box three (514) is used to simulate the ultraviolet radiation state in a normal air environment, and the circular box four (515) is used to simulate the ultraviolet radiation state in a pure water environment; The interior of the circular box 1 (512) is provided with flying dust and gravel, the interior of the circular box 2 (513) is provided with a partition (5131), and the partition (5131) is provided with a plurality of small pores (5132), the interior of the circular box 2 (513) is provided with an aqueous solution, and the aqueous solution slowly flows down from the inside of the pores (5132) to simulate the state of rain, the interior of the circular box 3 (514) is provided with air, and the interior of the circular box 4 (515) is filled with the aqueous solution; The movement of the driving circulation device drives the switching device to rotate periodically, thereby driving the environment device connected to the switching device to rotate to switch the environment.

2. The ultraviolet environment simulation test device for nano environmentally friendly and energy-saving heaters according to claim 1 is characterized in that: The drive circulation device comprises a drive motor (501), the output end of the drive motor (501) is connected to a drive rod (502), a reciprocating screw rod (503) is fixedly connected to the drive rod (502), a sliding sleeve (504) is slidably connected to the reciprocating screw rod (503), an axle pin is provided inside the sliding sleeve (504), the axle pin is slidably connected in the spiral groove of the reciprocating screw rod (503), a sliding frame (505) is fixedly connected to the sliding sleeve (504), the sliding frame (505) is connected to the switching device, and the outer wall of the sliding frame (505) is fixedly equipped with a push rod (522).

3. The ultraviolet environment simulation test device for nano environmentally friendly and energy-saving heaters according to claim 2 is characterized in that: The switching device includes a positioning shaft (506), both ends of the positioning shaft (506) are connected to the test tube (1), the surface of the positioning shaft (506) is slidably connected to a steering sleeve (507), the steering sleeve (507) is fixedly connected to a sliding pin rod (511), the surface of the sliding pin rod (511) is slidably connected to a sleeve (521), the inner wall of the sleeve (521) is provided with a plurality of straight grooves (509) and rotational grooves (510), and the plurality of straight grooves (509) and rotational grooves (510) are interconnected, the sliding pin rod (511) is slidably connected in the straight grooves (509) and rotational grooves (510), the sleeve (521) is connected to the environmental device, the outer wall of the positioning shaft (506) is sleeved with a second return spring (525), the outer wall of the second return spring (525) is in contact with a force plate (523), the force plate (523) is connected to the outer wall of the positioning shaft (506), and the outer wall of the second return spring (525) is in contact with a force plate (523). 3) is provided with a through groove (5231), the inner wall of the through groove (5231) is provided with a return spring (5235), the outer wall of the return spring (5235) abuts against a limit ring (5234), the inner wall of the limit ring (5234) is fixedly sleeved with a round rod (5233), one end of the round rod (5233) close to the center point of the force-bearing plate (523) is fixedly equipped with a movable plate (5232), the end of the round rod (5233) away from the movable plate (5232) is fixedly equipped with an extrusion plate (5238), the outer wall of the extrusion plate (5238) abuts against a rotating plate (527), the outer wall of the rotating plate (527) is fixedly equipped with a clamping plate (526), ​​the outer wall of the test tube (1) is also fixedly equipped with a positioning rod, and the outer wall of the positioning rod is rotatably connected to the inner wall of the clamping plate (526) and the rotating plate (527) respectively.

4. The ultraviolet environment simulation test device for nano environmentally friendly and energy-saving heaters according to claim 2 is characterized in that: The surface of the circular box (512) is provided with a gear ring (5121), a rotating sleeve (5123) is fixedly connected to the gear ring (5121), a plurality of spacers (5122) are provided in a circular array inside the rotating sleeve (5123), a gear (9) meshing with the gear ring (5121) is provided on the driving rod (502), and an electric heating rod is provided on the inner wall of the test tube (1).

5. The ultraviolet environment simulation test device for nano environmentally friendly and energy-saving heaters according to claim 1 is characterized in that: Transparent flat mirrors are installed on the left and right sides of the circular box one (512), the circular box two (513), the circular box three (514) and the circular box four (515). The ultraviolet light emitted by the ultraviolet emitting lamp (7) passes through the two flat mirrors and the medium between the two flat mirrors and radiates to the test station. The probe (3) is used to monitor the ultraviolet light on the test station in real time.

6. The ultraviolet environment simulation test device for nano environmentally friendly and energy-saving heaters according to claim 3 is characterized by: The round box one (512), the round box two (513), the round box three (514) and the round box four (515), the positioning shaft (506) is rotatably connected to a bracket (508), the round box one (512), the round box two (513), the round box three (514) and the round box four (515) are arranged in a circular array on the bracket (508), and the bracket (508) is fixedly connected to the sleeve (521).

7. The ultraviolet environment simulation test device for nano environmentally friendly and energy-saving heaters according to claim 2, characterized in that: A positioning member is provided in the test station, and the positioning member is used to position and stretch some materials subjected to ultraviolet radiation; The positioning member includes an upper support (516) and a lower support (517), and pins are provided on the upper support (516) and the lower support (517). The bottom of the lower support (517) is connected to a slide bar (518), the right end of the slide bar (518) is connected to a tension spring (519), and the right end of the tension spring (519) is connected to a sliding rod (520). The bottom of the test tube (1) is connected to a square tube, and the sliding rod (520) is slidably connected to the square tube. The right end of the sliding rod (520) is connected to the sliding frame (505).

8. The ultraviolet environment simulation test device for nano environmentally friendly and energy-saving heaters according to claim 1 is characterized by: The test tube (1) is rotatably connected to a flip cover (6), a data interface (10) is fixedly provided on the surface of the test tube (1), a disc is provided in the middle of the test tube (1), and the environmental device is provided inside the disc.

9. The ultraviolet environment simulation test device for nano environmentally friendly and energy-saving heaters according to claim 1, characterized in that: The wireless module includes a wireless receiving module and a wireless transmitting module. The wireless transmitting module is arranged inside the probe (3), and the wireless receiving module is arranged inside the irradiator (4). The transmission assembly (11) includes a rotating rod (1101). The outer wall of the rotating rod (1101) is fixedly sleeved with a gear 2 (1102), and the outer wall of the gear 2 (1102) is meshed with a toothed plate (524).

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