Testing device and testing equipment

Abstract

The utility model is applicable to the technical field of test equipment, and provides a test device and test equipment, the test device comprises a rack, a support part, an energization part and a detection part, the support part is mounted on the rack and is used for supporting a sample; the electrifying part is mounted on the rack and is used for electrifying and detecting the sample arranged on the supporting part; and the detection part is mounted on the rack and is used for detecting the transmittance of the sample arranged on the supporting part. The testing device provided by the utility model can be used for continuously carrying out power-on detection and transmittance detection on the sample without transferring, so that the production efficiency is improved.

Description

Technical Field

[0001] The present application belongs to the technical field of testing equipment, and more specifically, to a testing device and testing equipment. Background Art

[0002] With the modernization of society, light pollution has become a new source of environmental pollution after exhaust gas, wastewater, waste residue and noise pollution, such as the glare of the reflective mirror when driving, the increased incidence of cancer caused by excessive light source exposure, and the disruption of the physiological rhythm of plants caused by night light. Therefore, the research on electrochromic films has gradually become a hot topic in recent years. Electrochromic films have gradually entered every corner of our lives, such as home windows, electrochromic glasses, car glass, car rearview mirrors, etc. After the electrochromic film is processed, it is usually necessary to conduct a power-on test and a transmittance test on the electrochromic film to determine whether the color change performance and transmittance performance of the electrochromic film meet the standards.

[0003] However, the current power-on test and transmittance test of the electrochromic film are separate, which means that the product needs to be transferred between two workstations during the test, which is not conducive to production. Utility Model Content

[0004] The purpose of the embodiments of the present application is to provide a testing device and testing equipment, aiming to solve the technical problem in the prior art that the current power-on test and transmittance test of the electrochromic film are separate, resulting in the need to transfer the product between two workstations during testing, which is not conducive to production.

[0005] To achieve the above-mentioned purpose, according to one aspect of the present application, a testing device is provided, which includes: a frame, a supporting part, a power-on part and a detection part, wherein the supporting part is installed on the frame for supporting the sample; the power-on part is installed on the frame for performing power-on detection on the sample arranged on the supporting part; and the detection part is installed on the frame for performing transmittance detection on the sample arranged on the supporting part.

[0006] Optionally, the supporting portion includes a first conveying component, and the first conveying component is used to convey the sample so that the position of the sample corresponds to the position of the energizing portion or the position of the detecting portion.

[0007] Optionally, the first conveying component is movably mounted on the bracket, and the energizing portion includes a first energizing component, which is mounted on the first conveying component. The first energizing component can be electrically connected to the sample for energizing the sample.

[0008] Optionally, the energizing portion includes a second energizing component, which is disposed on the rack and can be electrically connected to the sample for energizing the sample.

[0009] Optionally, the first power-on component can be movably mounted on the first conveying component, and the first power-on component has a first power-on state in contact with the sample and a first disconnected state for avoiding the sample. When the first power-on component is in the first power-on state, the first power-on component can energize the sample.

[0010] Optionally, there are multiple supporting parts and multiple power-carrying parts, and the multiple supporting parts are arranged on the frame at intervals along the first direction, and the multiple power-carrying parts correspond to the multiple supporting parts one by one.

[0011] Optionally, the detection unit includes a light emitting component and a light receiving component, both of which are arranged on a rack, the position of the light emitting component corresponds to the position of the light receiving component, and the light receiving component can receive the light emitted by the light emitting component.

[0012] Optionally, the detection unit further includes a first supporting assembly, which is movably mounted on the frame along a first direction, and the light emitting assembly and the light receiving assembly are both mounted on the first supporting assembly.

[0013] Optionally, a clearance gap is provided on the first conveying component. When the position of the first conveying component corresponds to the position of the detection unit, the position of the clearance gap can correspond to the position of the light emitting component, and is used to make way for the light emitted by the light emitting component so that the light receiving component can receive the light emitted by the light emitting component.

[0014] Optionally, the detection portion is movably mounted on the frame along a first direction, and the position of the detection portion can correspond to the position of any one of the plurality of support portions.

[0015] Optionally, the testing device further comprises a loading part, which is movably mounted on the frame, and the position of the loading part can correspond to the position of the supporting part, so as to transport the sample to the supporting part.

[0016] Optionally, the testing device further comprises a material discharge part, which is movably mounted on the frame, and the position of the material discharge part can correspond to the position of the supporting part, so as to transport the tested samples to an external environment.

[0017] According to another aspect of the present application, a testing device is provided. The testing device includes a testing apparatus, and the testing apparatus is the testing apparatus described above.

[0018] The beneficial effect of the testing device provided in the present application is that compared with the prior art, the testing device provided in the present application is provided with a supporting part on the frame, so that the testing device provided in the present application can be supported by the supporting part. At the same time, by providing a power-on part and a detection part on the frame, and the power-on part is set to be able to perform power-on detection on the sample on the support part, and the detection part is set to be able to perform transmittance detection on the sample on the support part, the testing device provided in the present application can continuously perform power-on detection and transmittance detection on the sample through the power-on part and the detection part, without the need for transportation, thereby effectively improving production efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] In order to more clearly illustrate the technical solutions in the embodiments of the present application, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present application. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative labor.

[0020] Figure 1 A schematic diagram of the structure of a testing device provided in an embodiment of the present application;

[0021] Figure 2 A schematic diagram of the structure of the power supply unit provided in the embodiment of the present application;

[0022] Figure 3 It is a schematic diagram of the structure of area A in the figure;

[0023] Figure 4 It is a schematic diagram of the structure of area B in the figure;

[0024] Figure 5 A schematic diagram of the structure of the detection unit provided in the embodiment of the present application;

[0025] Figure 6 A schematic diagram of the structure of a testing device with some components removed from another perspective provided by an embodiment of the present application;

[0026] The reference numerals in the above drawings are as follows:

[0027] 10. Rack;

[0028] 20. Supporting part; 21. First conveying assembly; 211. First belt pulley; 212. Second belt pulley; 213. First conveying belt; 22. Clearance; 23. First guide rail assembly; 241. First driving motor; 242. First synchronous belt pulley; 243. Second synchronous belt pulley; 244. First driving synchronous belt;

[0029] 30. Power supply unit; 31. First power supply component; 311. First driving member; 312. First conductive copper block; 313. Second conductive copper block;

[0030] 40. Detection unit; 41. Light emitting assembly; 42. Light receiving assembly; 43. First supporting assembly; 44. Fourth guide rail assembly; 45. Second driving assembly; 451. Third driving motor; 452. First lead screw; 453. First nut;

[0031] 50. Loading part; 51. Second conveying assembly; 52. Fifth guide rail assembly; 53. Third driving assembly;

[0032] 60. Unloading section; 61. Third conveying assembly; 62. Sixth guide rail assembly; 63. Fourth driving assembly. DETAILED DESCRIPTION

[0033] In order to make the technical problems, technical solutions and beneficial effects to be solved by the present application more clearly understood, the present application is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present application and are not used to limit the present application.

[0034] It should be noted that when an element is referred to as being "fixed to" or "disposed on" another element, it may be directly on the other element or indirectly on the other element. When an element is referred to as being "connected to" another element, it may be directly connected to the other element or indirectly connected to the other element. In the absence of conflict, the embodiments in this application and the features in the embodiments may be combined with each other. The present application will be described in detail below with reference to the accompanying drawings and in combination with the embodiments.

[0035] It should be understood that the terms "length", "width", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", etc., indicating the orientation or position relationship, are based on the orientation or position relationship shown in the drawings, and are only for the convenience of describing the present application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be understood as a limitation on the present application.

[0036] In addition, the terms "first" and "second" are used for descriptive purposes only and should not be understood as indicating or implying relative importance or implicitly indicating the number of the indicated technical features. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of the features. In the description of this application, the meaning of "plurality" is two or more, unless otherwise clearly and specifically defined.

[0037] As described in the background technology, with the modernization of society, light pollution has become a new source of environmental pollution after waste gas, waste water, waste residue and noise pollution, such as the glare of the reflective mirror when driving, the increase in the incidence of cancer caused by excessive light source irradiation, and the confusion of the physiological rhythm of plants caused by night illumination. Therefore, the research on electrochromic membranes has gradually become a hot topic in recent years. Electrochromic membranes have gradually entered every corner of our lives, such as family windows, electrochromic glasses, car glass, car rearview mirrors, etc. After the electrochromic membrane is processed, it is usually necessary to conduct a power-on test and a transmittance test on the electrochromic membrane to determine whether the color change performance and transmittance performance of the electrochromic membrane meet the standards. However, the current power-on test and transmittance test of the electrochromic membrane are separate, resulting in the need to transfer the product between two stations during the test, which is not conducive to production.

[0038] See also Figures 1 to 6 As shown, in order to solve the above-mentioned problem, according to one aspect of the present application, an embodiment of the present application provides a testing device, the testing device comprising: a frame 10, a supporting portion 20, a power-on portion 30 and a detection portion 40, wherein the supporting portion 20 is installed on the frame 10 for supporting the sample; the power-on portion 30 is installed on the frame 10 for performing power-on detection on the sample arranged on the supporting portion 20; the detection portion 40 is installed on the frame 10 for performing transmittance detection on the sample arranged on the supporting portion 20. The testing device provided in the present embodiment is provided with a support part 20 on the frame 10, so that the testing device provided in the present embodiment can be supported by the support part 20. At the same time, by providing a power-on part 30 and a detection part 40 on the frame 10, and the power-on part 30 is set to be able to perform power-on detection on the sample on the support part 20, and the detection part is set to be able to perform transmittance detection on the sample on the support part 20, the testing device provided in the present embodiment can continuously perform power-on detection and transmittance detection on the sample through the power-on part 30 and the detection part 40, without the need for transportation, thereby effectively improving production efficiency.

[0039] In an optional embodiment, the sample provided in this embodiment is an electrochromic film. Of course, in other embodiments, the sample provided in this embodiment may also be other products that require power-on detection and transmittance detection.

[0040] See also Figure 1As shown, in order to make the position of the sample provided in this embodiment correspond to the position of the power supply portion 30 or the position of the detection portion 40, the support portion 20 in this embodiment includes a first conveying component 21, and the first conveying component 21 is used to convey the sample so that the position of the sample corresponds to the position of the power supply portion 30 or the position of the detection portion 40. By configuring the support portion 20 provided in this embodiment to include the first conveying component 21, the testing device provided in this embodiment can convey the sample through the first conveying component 21, so that the position of the sample can correspond to the position of the power supply portion 30 or the position of the detection portion 40.

[0041] See also Figure 2 and Figure 4 As shown, in a specific embodiment, the first conveying component 21 in this embodiment is movably mounted on a bracket, and the power-on portion 30 includes a first power-on component 31, which is mounted on the first conveying component 21. The first power-on component 31 can be electrically connected to the sample for powering the sample.

[0042] In an optional embodiment, a first guide rail assembly 23 is arranged between the frame 10 provided in this embodiment and the first conveying assembly 21, and the first guide rail assembly 23 extends along a second direction, and the second direction is the left and right direction in the figure. The first guide rail assembly 23 provided in this embodiment can enable the first conveying assembly 21 provided in this embodiment to be movably installed on the frame 10 along the second direction.

[0043] In an optional embodiment, the first guide rail assembly 23 provided in this embodiment includes a first guide rail body and a first slider. The first guide rail body provided in this embodiment is installed on the frame 10 and extends along the second direction. The first slider is movably installed on the first guide rail body and connected to the first conveying assembly 21.

[0044] In an optional embodiment, the testing device provided in this embodiment also includes a first driving component, which is disposed on the frame 10 and is drivingly connected to the first conveying component 21, so that the first conveying component 21 provided in this embodiment can move along the second direction under the drive of the first driving component, thereby enabling the position of the sample set on the first conveying component 21 to correspond to the position of the detection unit 40.

[0045] In an optional embodiment, the first drive assembly provided in this embodiment includes a first drive motor 241, a first synchronous pulley 242, a second synchronous pulley 243 and a first drive synchronous belt 244. The first synchronous pulley 242 provided in this embodiment is rotatably mounted on the first end of the first guide rail body, and the second synchronous pulley 243 is rotatably mounted on the second end of the first guide rail body. The rotation axis of the first synchronous pulley 242 is parallel to the rotation axis of the second synchronous pulley 243. The first drive synchronous belt 244 is sleeved on the first synchronous pulley 242 and the second synchronous pulley 243, and is driven and connected to the first conveying assembly 21. The first drive motor 241 provided in this embodiment is mounted on the first guide rail body and is connected to the first synchronous pulley 24 2 driving connection, the first synchronous pulley 242 can be driven by the first driving motor 241, and the rotating first synchronous pulley 242 can drive the first driving synchronous belt 244 to rotate on the first synchronous pulley 242 and the second synchronous pulley 243. Since the first driving synchronous belt 244 is drivingly connected to the first conveying assembly 21, the first conveying assembly 21 can move along the second direction on the first guide rail assembly 23 with the movement of the first driving synchronous belt 244, so that the position of the sample set on the first conveying assembly 21 can correspond to the position of the detection unit 40. Of course, in other embodiments, the first driving assembly provided in this embodiment can also be a device capable of linear driving, such as a cylinder, a hydraulic cylinder, an electric cylinder, a sprocket assembly, a gear rack assembly, etc.

[0046] In an optional embodiment, the support part 20 provided in this embodiment also includes a first support frame, and the first conveying assembly 21 provided in this embodiment includes a second driving motor, a first pulley 211, a second pulley 212 and a first conveying belt 213. The first pulley 211 provided in this embodiment is rotatably mounted on the first end of the first support frame, and the second pulley 212 is rotatably mounted on the second end of the first support frame. The rotation axis of the first pulley 211 is arranged parallel to the rotation axis of the second pulley 212 and is perpendicular to the first direction. The first conveying belt 213 is sleeved on the first pulley 211 and the second pulley 212. The second driving motor provided in this embodiment is installed on the first support frame and is drivingly connected to the first pulley 211. The first pulley 211 can be driven by the second driving motor, and the rotating first pulley 211 can drive the first conveying belt 213 to rotate on the first pulley 211 and the second pulley 212, so that the sample can be conveyed by the first conveying belt 213.

[0047] In another embodiment, the power-on portion 30 in this embodiment includes a second power-on component, which is disposed on the rack 10. By making the position of the second power-on component on the rack 10 correspond to the position of the sample, the second power-on component can be electrically connected to the sample to achieve power-on detection of the sample.

[0048] In order to improve the versatility of the test device provided by the present embodiment, the first energizing component 31 in the present embodiment is movably mounted on the first conveying component 21, and the first energizing component 31 has a first energizing state abutting against the sample and a first disconnecting state avoiding the sample. When the first energizing component 31 is in the first energizing state, the first energizing component 31 can energize the sample. By movably mounting the first energizing component 31 provided by the present embodiment on the first conveying component 21, the test device provided by the present embodiment can adjust the position of the first energizing component 31 according to the position of the sample on the first conveying component 21, so that the position of the first energizing component 31 corresponds to the position of the sample, thereby effectively improving the versatility of the test device provided by the present embodiment. At the same time, by setting the first energizing component 31 provided by the present embodiment to have a first energizing state abutting against the sample and a first disconnecting state avoiding the sample, the test device provided by the present embodiment can realize the energization detection of the sample by setting the first energizing component 31 to the first energizing state when the position of the first energizing component 31 corresponds to the position of the conductive structure.

[0049] In an optional embodiment, a conductive structure is provided on the sample provided in the present embodiment. When the first power-on component 31 provided in the present embodiment is in a first power-on state, the first power-on component 31 can abut against the conductive structure on the sample and energize the sample. When the first power-on component 31 provided in the present embodiment is in a first disconnection state, the first power-on component 31 can avoid the conductive structure.

[0050] In an optional embodiment, the first power-on component 31 provided in this embodiment includes a first driving member 311, a first conductive copper block 312 and a second conductive copper block 313. The first driving member 311 is movably mounted on the support portion 20. The first conductive copper block 312 and the second conductive copper block 313 are both mounted on the output end of the first driving member 311. The first conductive copper block 312 and the second conductive copper block 313 can be electrically connected to an external power supply device. The conductive structure provided in this embodiment includes a first conductive sheet and a second conductive sheet. When the first power-on component 31 is in the first power-on state, the position of the first conductive copper block 312 corresponds to the position of the first conductive sheet, and the position of the second conductive copper block 313 corresponds to the position of the second conductive sheet. The first conductive copper block 312 and the second conductive copper block 313 can respectively abut against the first conductive sheet and the second conductive sheet under the drive of the first driving member 311. In an optional embodiment, the first driving member 311 provided in this embodiment is a cylinder. Of course, in other embodiments, the first driving member 311 provided in this embodiment can also be a linear drive device such as an electric cylinder or a hydraulic cylinder.

[0051] In an optional embodiment, a second guide rail assembly is provided between the support portion 20 provided in this embodiment and the first power-carrying assembly 31, and the second guide rail assembly extends along the second direction. Through the second guide rail assembly provided in this embodiment, the first power-carrying assembly 31 provided in this embodiment can be positioned on the support portion 20 along the second direction.

[0052] In an optional embodiment, a third guide rail assembly is arranged between the second guide rail assembly provided in this embodiment and the first power-carrying assembly 31, and the third guide rail assembly extends along a third direction, and the third direction is perpendicular to the first direction and the second direction respectively. Through the third guide rail assembly provided in this embodiment, the first power-carrying assembly 31 provided in this embodiment can be positioned on the support portion 20 along the third direction.

[0053] In an optional embodiment, the second guide rail assembly provided in this embodiment includes a second guide rail body and a second slider. The second guide rail body provided in this embodiment is installed on the support part 20 and extends along the second direction. The second slider is movably installed on the second guide rail body and is driven and connected to the first power-on component 31.

[0054] In an optional embodiment, the third guide rail assembly provided in this embodiment includes a third guide rail body and a third slider. The third guide rail body provided in this embodiment is installed on the second slider and extends along the third direction. The third slider is movably installed on the third guide rail body and connected to the first power-on component 31.

[0055] See also Figure 1As shown, in order to enable the test device provided by the present embodiment to simultaneously conduct power-on detection on multiple samples, the support portion 20 and the power-on portion 30 in the present embodiment are both multiple, and the multiple support portions 20 are arranged on the frame 10 at intervals along the first direction, and the multiple power-on portions 30 correspond one-to-one with the multiple support portions 20. By providing the support portion 20 and the power-on portion 30 provided by the present embodiment as multiple, and making the multiple support portions 20 arranged on the frame 10 at intervals along the first direction, and the multiple power-on portions 30 correspond one-to-one with the multiple support portions 20, the test device provided by the present embodiment can simultaneously conduct detection on multiple samples through the cooperation of the multiple power-on portions 30 and the multiple support portions 20, which is conducive to improving production efficiency.

[0056] In an optional embodiment, the first direction provided by this embodiment is a vertical direction. Of course, in other embodiments, the first direction provided by this embodiment may also be other directions.

[0057] See also Figure 1 and Figure 5 As shown, in order to enable the detection unit provided in this embodiment to perform transmittance detection on the sample, the detection unit 40 in this embodiment includes a light emitting component 41 and a light receiving component 42. The light emitting component 41 and the light receiving component 42 are both arranged on the frame 10. The position of the light emitting component 41 corresponds to the position of the light receiving component 42. The light receiving component 42 can receive the light emitted by the light emitting component 41. By setting the detection part 40 provided in the present embodiment to include a light emitting component 41 and a light receiving component 42, and making the position of the light emitting component 41 correspond to the position of the light receiving component 42, the light emitted by the light emitting component 41 provided in the present embodiment can be received by the light receiving component 42; at the same time, when the position of the sample provided in the present embodiment corresponds to the position of the detection part 40, the sample is located between the light emitting component 41 and the light receiving component 42. At this time, the light emitted by the light emitting component 41 can pass through the sample and be received by the light receiving component 42. When the light emitted by the light emitting component 41 passes through the sample, it will be partially absorbed and reflected by the sample, resulting in a decrease in the intensity of the light received by the light receiving component 42. By comparing the light intensity received by the light receiving component 42 before and after the power-on detection, the transmittance of the electrochromic film to be detected can be obtained.

[0058] See also Figure 1As shown, in order to enable the detection unit 40 provided in this embodiment to detect the sample on any one of the multiple supporting parts 20, the detection unit 40 in this embodiment is movably mounted on the frame 10 along the first direction, and the position of the detection unit 40 can correspond to the position of any one of the multiple supporting parts 20. By movably mounting the detection unit 40 provided in this embodiment on the frame 10 along the first direction, the detection unit 40 provided in this embodiment can be adjusted in position along the first direction, thereby enabling the detection to detect the sample on any one of the multiple supporting parts 20.

[0059] In an optional embodiment, in order to improve the detection efficiency of the testing device provided in this embodiment, there are multiple detection parts 40 provided in this embodiment, and the multiple detection parts 40 are arranged on the rack 10 at intervals along the first direction.

[0060] In a specific embodiment, the detection unit 40 in this embodiment further includes a first support assembly 43, which is movably mounted on the frame 10 along a first direction, and the light emitting assembly 41 and the light receiving assembly 42 are both mounted on the first support assembly 43. By movably mounting the first support assembly 43 provided in this embodiment on the frame 10 along a first direction, and mounting the light emitting assembly 41 and the light receiving assembly 42 provided in this embodiment on the first support assembly 43, the detection unit 40 can be movably mounted on the frame 10 along the first direction.

[0061] In an optional embodiment, the first support assembly 43 provided in this embodiment includes a second support frame, the light emitting assembly 41 and the light receiving assembly 42 provided in this embodiment are both arranged on the second support frame, and a fourth guide rail assembly 44 is arranged between the second support frame provided in this embodiment and the rack 10, and the fourth guide rail assembly 44 extends along the first direction. Through the fourth guide rail assembly 44 provided in this embodiment, the second support frame provided in this embodiment can be adjusted in position along the first direction on the rack 10.

[0062] In an optional embodiment, the fourth guide rail assembly 44 provided in this embodiment includes a fourth guide rail body and a fourth slider. The fourth guide rail body provided in this embodiment is installed on the frame 10 and extends along the first direction. The fourth slider is movably installed on the fourth guide rail body and connected to the second support frame.

[0063] In an optional embodiment, the detection unit 40 provided in this embodiment also includes a second drive assembly 45, and the second drive assembly 45 provided in this embodiment includes a third drive motor 451, a first lead screw 452 and a first nut 453. The first lead screw 452 provided in this embodiment extends along the first direction and is rotatably mounted on the frame 10. The third drive motor 451 provided in this embodiment is arranged on the frame 10 and is drivingly connected to the first lead screw 452. The first nut 453 provided in this embodiment is sleeved on the first lead screw 452 and is connected to the second support frame. Then, the first lead screw 452 can be driven by the third drive motor 451 to rotate along its circumferential direction. The rotating first lead screw 452 drives the first nut 453. Since the first nut 453 is connected to the second support frame, the second support frame can be driven by the first nut 453 to adjust its position along the extension direction of the fourth guide rail assembly 44. Of course, in other embodiments, the second drive assembly 45 provided in this embodiment can also be a device capable of linear drive, such as a cylinder, a hydraulic cylinder, an electric cylinder, a sprocket assembly, a gear rack assembly, etc.

[0064] See also Figure 6 As shown, in order to enable the detection unit 40 provided in this embodiment to effectively detect the transmittance of the sample on the first conveying component 21, a clearance gap 22 is provided on the first conveying component 21 in this embodiment. When the position of the first conveying component 21 corresponds to the position of the detection unit 40, the position of the clearance gap 22 can correspond to the position of the light emitting component 41, and is used to make way for the light emitted by the light emitting component 41, so that the light receiving component 42 can receive the light emitted by the light emitting component 41. By providing the clearance gap 22 on the first conveying component 21 provided in this embodiment, and making the position of the clearance gap 22 correspond to the position of the light emitting component 41, the interference between the light emitted by the first conveying component 21 and the light emitting component 41 can be effectively avoided, so that the light emitted by the light emitting component 41 provided in this embodiment can pass through the sample and the clearance gap 22 in sequence, and irradiate the light receiving component 42 when the position of the first conveying component 21 corresponds to the position of the detection unit 40, so that the detection unit 40 provided in this embodiment can effectively detect the transmittance of the sample on the first conveying component 21.

[0065] In an optional embodiment, the first conveying belts 213 provided in this embodiment are multiple, and the multiple first conveying belts 213 are arranged at intervals along the extension direction of the first pulley 211, and a clearance gap 22 is formed between two adjacent first conveying belts 213.

[0066] In a specific embodiment, the testing device in this embodiment further includes a loading portion 50, which is movably mounted on the frame 10, and the position of the loading portion 50 can correspond to the position of the support portion 20, and is used to transport the sample to the support portion 20. By setting the position of the loading portion 50 provided in this embodiment to correspond to the position of the support portion 20, the sample set on the loading portion 50 provided in this embodiment can be transported to the support portion 20 through the loading portion 50.

[0067] In an optional embodiment, the loading part 50 provided in this embodiment includes a third support frame and a second conveying assembly 51. The third support frame provided in this embodiment is movably mounted on the frame 10. The second conveying assembly 51 provided in this embodiment includes a fourth driving motor, a third pulley, a fourth pulley and a second conveying belt. The third pulley provided in this embodiment is rotatably mounted on the first end of the third support frame, and the fourth pulley is rotatably mounted on the second end of the third support frame. The rotation axis of the third pulley is arranged parallel to the rotation axis of the fourth pulley and is perpendicular to the first direction. The second conveying belt is sleeved on the third pulley and the fourth pulley. The fourth driving motor provided in this embodiment is installed on the third support frame and is drivingly connected to the third pulley. The third pulley can be driven by the fourth driving motor. The rotating third pulley can drive the second conveying belt to rotate on the third pulley and the fourth pulley, so that the sample can be conveyed through the second conveying belt.

[0068] In an optional embodiment, a fifth guide rail assembly 52 is arranged between the third support frame provided in this embodiment and the rack 10, and the fifth guide rail assembly 52 extends along the first direction. Through the fifth guide rail assembly 52 provided in this embodiment, the third support frame provided in this embodiment can be positioned on the rack 10 along the first direction.

[0069] In an optional embodiment, the fifth guide rail assembly 52 provided in this embodiment includes a fifth guide rail body and a fifth slider. The fifth guide rail body provided in this embodiment is installed on the frame 10 and extends along the first direction. The fifth slider is movably installed on the fifth guide rail body and connected to the third support frame.

[0070] In an optional embodiment, the feeding part 50 provided in this embodiment also includes a third driving assembly 53, and the third driving assembly 53 provided in this embodiment includes a fifth driving motor, a second lead screw and a second nut. The second lead screw provided in this embodiment extends along the first direction and is rotatably installed on the frame 10. The fifth driving motor provided in this embodiment is arranged on the frame 10 and is drivingly connected to the second lead screw. The second nut provided in this embodiment is sleeved on the second lead screw and is connected to the third support frame. The second lead screw can be driven by the fifth driving motor to rotate along its circumferential direction. The rotating second lead screw drives the second nut. Since the second nut is connected to the third support frame, the third support frame can be driven by the second nut to adjust its position along the extension direction of the fifth guide rail assembly 52, so that the position of the loading part 50 can correspond to the position of any one of the multiple support parts 20, so that the sample can be transported to the support part 20 through the loading part 50. Of course, in other embodiments, the third driving assembly 53 provided in this embodiment can also be a device capable of linear driving, such as a cylinder, a hydraulic cylinder, an electric cylinder, a sprocket assembly, a synchronous belt assembly, a gear rack assembly, etc.

[0071] In a specific embodiment, the testing device in this embodiment further includes a material discharge portion 60, which is movably mounted on the frame 10, and the position of the material discharge portion 60 can correspond to the position of the support portion 20, and is used to transport the tested sample to the external environment. By setting the position of the material discharge portion 60 provided in this embodiment to correspond to the position of the support portion 20, the tested sample set on the support portion 20 provided in this embodiment can be transported to the external environment through the material discharge portion 60.

[0072] In an optional embodiment, the unloading part 60 provided in this embodiment includes a fourth support frame and a third conveying assembly 61. The fourth support frame provided in this embodiment is movably mounted on the frame 10. The third conveying assembly 61 provided in this embodiment includes a sixth drive motor, a fifth pulley, a sixth pulley and a third conveying belt. The fifth pulley provided in this embodiment is rotatably mounted on the first end of the fourth support frame, and the sixth pulley is rotatably mounted on the second end of the fourth support frame. The rotation axis of the fifth pulley is arranged parallel to the rotation axis of the sixth pulley and is perpendicular to the first direction. The third conveying belt is sleeved on the fifth pulley and the sixth pulley. The sixth drive motor provided in this embodiment is mounted on the fourth support frame and is drivingly connected to the fifth pulley. The fifth pulley can be driven by the sixth drive motor, and the rotating fifth pulley can drive the third conveying belt to rotate on the fifth pulley and the sixth pulley, so that the sample can be conveyed through the third conveying belt.

[0073] In an optional embodiment, a sixth guide rail assembly 62 is arranged between the fourth support frame provided in this embodiment and the rack 10, and the sixth guide rail assembly 62 extends along the first direction. Through the sixth guide rail assembly 62 provided in this embodiment, the fourth support frame provided in this embodiment can be positioned on the rack 10 along the first direction.

[0074] In an optional embodiment, the sixth guide rail assembly 62 provided in this embodiment includes a sixth guide rail body and a sixth slider. The sixth guide rail body provided in this embodiment is installed on the frame 10 and extends along the first direction. The sixth slider is movably installed on the sixth guide rail body and connected to the fourth support frame.

[0075] In an optional embodiment, the unloading part 60 provided in this embodiment also includes a fourth drive assembly 63, and the fourth drive assembly 63 provided in this embodiment includes a seventh drive motor, a third lead screw and a third nut. The third lead screw provided in this embodiment extends along the first direction and is rotatably mounted on the frame 10. The seventh drive motor provided in this embodiment is arranged on the frame 10 and is drivingly connected to the third lead screw. The third nut provided in this embodiment is sleeved on the third lead screw and connected to the fourth support frame. The third lead screw can be driven by the seventh drive motor to rotate along its circumferential direction. The rotating third lead screw drives the third nut. Since the third nut is connected to the fourth support frame, the fourth support frame can be driven by the third nut. The position of the sixth guide rail assembly 62 is adjusted along the extension direction, so that the position of the unloading part 60 can correspond to the position of any one of the multiple support parts 20, so that the sample on the support part 20 can be transported to the external environment through the unloading part 60. Of course, in other embodiments, the fourth drive assembly 63 provided in this embodiment may also be a device capable of linear driving, such as a cylinder, a hydraulic cylinder, an electric cylinder, a sprocket assembly, a synchronous belt assembly, a gear rack assembly, etc.

[0076] In an optional embodiment, the adjacent power-on parts 30 and detection parts 40 in the second direction provided in this embodiment jointly form a double testing mechanism. The testing device provided in this embodiment includes multiple double testing mechanisms, and the multiple double testing mechanisms are arranged on the rack 10 at intervals along the third direction.

[0077] In an optional embodiment, the loading part 50 and the unloading part 60 provided in this embodiment are both movably mounted on the frame 10 along a third direction. By movably mounting the loading part 50 provided in this embodiment on the frame 10 along the third direction, the loading part 50 can load materials for any one of a plurality of dual testing mechanisms. By movably mounting the unloading part 60 provided in this embodiment on the frame 10 along the third direction, the unloading part 60 can unload materials for any one of a plurality of dual testing mechanisms.

[0078] In a specific embodiment, when the test device provided in this embodiment is used to test a sample, the sample is first placed on the second conveying assembly 51 of the loading part 50. After the sample is placed, the third driving assembly 53 drives the second conveying assembly 51 to move the second conveying assembly 51 along the extension direction of the fifth guide rail assembly 52. ​​When the second conveying assembly 51 is aligned with the first conveying assembly 21 of the supporting part 20, the third driving assembly 53 stops working. At this time, the supporting part 20 drives the first conveying assembly 21 through the first driving assembly, so that the end of the first conveying assembly 21 close to the second conveying assembly 51 is connected to the end of the second conveying assembly 51 close to the first conveying assembly 21. When the first conveying assembly 51 is aligned with the first conveying assembly 21 of the supporting part 20, the third driving assembly 53 stops working. After one end of the conveying component 21 close to the second conveying component 51 is docked with the other end of the second conveying component 51 close to the first conveying component 21, the second conveying component 51 can be controlled to work, and the second conveying component 51 will convey the sample to the first conveying component 21. When the sample is completely conveyed to the first conveying component 21, the position of the first energizing component 31 in the first disconnected state can be adjusted so that the position of the first energizing component 31 corresponds to the position of the conductive structure on the sample. When the position of the first energizing component 31 corresponds to the position of the conductive structure on the sample, the first energizing component 31 can be switched from the first disconnected state to the first energized state. At this time, the first energizing component 31 will energize the sample to achieve The sample is powered on and tested. When the sample is powered on, the second drive assembly 45 drives the first support assembly to move the first support assembly along the extension direction of the fourth guide rail assembly 44. When the first support assembly is aligned with the first conveying assembly 21, the second drive assembly 45 stops working. At this time, the first drive assembly drives the first conveying assembly 21 to make the position of the sample on the first conveying assembly 21 correspond to the position of the detection unit 40. When the position of the sample on the first conveying assembly 21 corresponds to the position of the detection unit 40, the sample can be tested for transmittance through the detection unit 40. When the transmittance test is completed, the fourth drive assembly drives the third conveying assembly 61 to move ... Component 61 moves along the extension direction of the sixth guide rail component 62. When the end of the third conveying component 61 close to the first conveying component 21 is docked with the end of the first conveying component 21 close to the third conveying component 61, the fourth driving component stops working and the first conveying component 21 starts working to convey the tested sample to the third conveying component 61. When the sample after detection is completely conveyed to the third conveying component 61, the third conveying component 61 can be driven by the fourth driving component to move the third conveying component 61 along the extension direction of the sixth guide rail component 62. After the third conveying component 61 moves to the preset position, the third conveying component 61 can be operated to convey the sample to the external environment.

[0079] In another embodiment, the second power-on component and the detection unit 40 provided in this embodiment are both arranged on the frame 10, and the position of the detection unit 40 provided in this embodiment corresponds to the position of the first conveying component 21. The sample located on the first conveying component 21 can be subjected to power-on detection and transmittance detection in sequence through the second power-on component and the detection unit 40, or can be subjected to power-on detection and transmittance detection simultaneously through the second power-on component and the detection unit 40.

[0080] In another embodiment, the second power-on component provided in this embodiment is movably mounted on the frame 10, and the second power-on component has a second power-on state for abutting against the sample and a second disconnection state for avoiding the sample. When the second power-on component is in the second power-on state, the second power-on component can power the sample.

[0081] In a specific embodiment, when the test device provided by the present embodiment is used to test a sample, the sample is first placed on the second conveying assembly 51 of the loading part 50. After the sample is placed, the third driving assembly 53 drives the second conveying assembly 51 to move the second conveying assembly 51 along the extension direction of the fifth guide rail assembly 52. ​​When the end of the second conveying assembly 51 close to the first conveying assembly 21 is docked with the end of the first conveying assembly 21 close to the second conveying assembly 51, the third driving assembly 53 stops working. When the third driving assembly 53 stops working completely, it can be controlled The second conveying component 51 is controlled to work, and the second conveying component 51 will convey the sample to the first conveying component 21. After the sample is completely conveyed to the first conveying component 21, the position of the second energizing component in the second disconnected state can be adjusted to make the position of the second energizing component correspond to the position of the sample. When the position of the second energizing component corresponds to the position of the sample, the second energizing component can be switched from the second disconnected state to the second energized state. At this time, the second energizing component will energize the sample to realize the energization detection of the sample. After the energization detection of the sample is completed, the second energizing component is switched from the second energized state to the second energized state. The state is switched to the second disconnected state, and the first conveying component 21 starts to work, so that the position of the sample on the first conveying component 21 corresponds to the position of the detection unit 40. When the position of the sample on the first conveying component 21 corresponds to the position of the detection unit 40, the detection unit 40 can perform transmittance detection on the sample to obtain the transmittance of the sample after power-on. When the transmittance detection is completed, the fourth driving component 63 drives the third conveying component 61 to move the third conveying component 61 along the extension direction of the sixth guide rail component 62. When the third conveying component 61 is close to the first conveying component 21, After the fourth driving component 63 is docked with the end of the first conveying component 21 close to the third conveying component 61, the fourth driving component 63 stops working and the first conveying component 21 starts working to convey the tested sample to the third conveying component 61. When the sample after the test is completed is completely conveyed to the third conveying component 61, the third conveying component 61 can be driven by the fourth driving component 63 to move the third conveying component 61 along the extension direction of the sixth guide rail component 62. After the third conveying component 61 moves to the preset position, the third conveying component 61 can be operated to convey the sample to the external environment.

[0082] In another embodiment, when the test device provided by the present embodiment is used to test a sample, the sample is first placed on the second conveying assembly 51 of the loading part 50. After the sample is placed, the third driving assembly 53 drives the second conveying assembly 51 to move the second conveying assembly 51 along the extension direction of the fifth guide rail assembly 52. ​​When the end of the second conveying assembly 51 close to the first conveying assembly 21 is docked with the end of the first conveying assembly 21 close to the second conveying assembly 51, the third driving assembly 53 stops working. When the third driving assembly 53 stops working completely, the third driving assembly 53 can be controlled. When the second conveying component 51 works, the second conveying component 51 will convey the sample to the first conveying component 21. When the sample is completely conveyed to the first conveying component 21, the first conveying component 21 can start to work, so that the position of the sample on the first conveying component 21 corresponds to the position of the detection part 40. When the position of the sample on the first conveying component 21 corresponds to the position of the detection part 40, the position of the second energized component in the second disconnected state can be adjusted to make the position of the second energized component correspond to the position of the sample. When the position of the second energized component corresponds to the position of the sample, the first energized component can be adjusted. The second energizing component switches from the second disconnected state to the second energizing state, and the second energizing component will energize the sample to realize the energizing detection of the sample. At the same time, the detection unit 40 will also perform transmittance detection on the sample in the energizing detection, so as to obtain the real-time transmittance of the sample during the energizing process. When the energizing detection is completed, the second energizing component switches from the second energizing state to the second disconnected state, and the fourth driving component 63 drives the third conveying component 61 to move the third conveying component 61 along the extension direction of the sixth guide rail component 62. When the end of the third conveying component 61 close to the first conveying component 21 After docking with the end of the first conveying component 21 close to the third conveying component 61, the fourth driving component 63 stops working and the first conveying component 21 starts working to convey the tested sample to the third conveying component 61. When the sample after testing is completely conveyed to the third conveying component 61, the third conveying component 61 can be driven by the fourth driving component 63 to move the third conveying component 61 along the extension direction of the sixth guide rail component 62. After the third conveying component 61 moves to the preset position, the third conveying component 61 can be operated to convey the sample to the external environment.

[0083] In another embodiment, the second power-on components and the detection units 40 provided in this embodiment are multiple, and the multiple second power-on components are arranged on the frame 10 at intervals along the second direction. The multiple detection units 40 correspond one-to-one to the multiple second power-on components. When there are multiple samples on the first conveying component 21, the multiple samples can be tested for power-on and transmittance in sequence through adjacent second power-on components and detection units 40, or can be tested for power-on and transmittance at the same time through adjacent second power-on components and detection units 40.

[0084] In an optional embodiment, a plurality of detection stations are disposed on the frame 10 provided in this embodiment, and each detection station is provided with at least one second energized component and at least one detection portion 40 .

[0085] In an optional embodiment, two inspection stations are arranged on the frame 10 provided in this embodiment, and the two inspection stations are respectively a first inspection station and a second inspection station.

[0086] In a specific embodiment, when the test device provided in this embodiment is used to test two samples, the two samples are first placed on the second conveying component 51 of the loading part 50 with an interval. After the samples are placed, the third driving component 53 drives the second conveying component 51 to move the second conveying component 51 along the extension direction of the fifth guide rail component 52. When the end of the second conveying component 51 close to the first conveying component 21 is docked with the end of the first conveying component 21 close to the second conveying component 51, the third driving component 53 stops working. When the third driving component 53 completely stops working, the second conveying component 51 can be controlled to work, and the second conveying component 51 will convey the samples to the first conveying component 21. When the two After the samples are completely transported to the first transport component 21, the positions of the two samples can be adjusted so that the two samples are located at the first detection station and the second detection station respectively. When the position adjustment of the samples is completed, the position of the second energized component in the first detection station that is in the second disconnected state can be adjusted so that the position of the second energized component in the first detection station corresponds to the position of the sample in the first detection station. The position of the second energized component in the second disconnected state in the second detection station can be adjusted so that the position of the second energized component in the second detection station corresponds to the position of the sample in the second detection station. When the positions of the two second energized components correspond to the positions of the two samples respectively, the second energized component can be switched from the second disconnected state to the second disconnected state. The first detection station is switched to the second power-on state, at which time the second power-on component will energize the sample to realize the power-on detection of the sample. When the power-on detection of the sample is completed, the second power-on component switches from the second power-on state to the second disconnected state, and at the same time the first conveying component 21 starts to work, so that the position of the sample in the first detection station corresponds to the position of the detection unit 40 in the first detection station, and the position of the sample in the second detection station corresponds to the position of the detection unit 40 in the second detection station. When the positions of the two samples on the first conveying component 21 correspond to the positions of the two detection units 40 respectively, the transmittance detection of the sample can be performed through the detection unit 40 to obtain the transmittance of the sample after power-on. When the transmittance detection is completed, the fourth driving component 63 will The third conveying assembly 61 is driven to move the third conveying assembly 61 along the extension direction of the sixth guide rail assembly 62. When the end of the third conveying assembly 61 close to the first conveying assembly 21 is docked with the end of the first conveying assembly 21 close to the third conveying assembly 61, the fourth driving assembly 63 stops working, and the first conveying assembly 21 starts working to convey the two tested samples to the third conveying assembly 61. When the samples after the test are completely conveyed to the third conveying assembly 61, the third conveying assembly 61 can be driven by the fourth driving assembly 63 to move the third conveying assembly 61 along the extension direction of the sixth guide rail assembly 62. When the third conveying assembly 61 moves to the preset position, the third conveying assembly 61 can be operated.Thus the sample is transported to the external environment.

[0087] In another embodiment, when the test device provided by the present embodiment is used to test the sample, firstly, two samples are placed on the second conveying assembly 51 of the loading part 50 at intervals. After the samples are placed, the third driving assembly 53 drives the second conveying assembly 51 to move the second conveying assembly 51 along the extension direction of the fifth guide rail assembly 52. ​​When the end of the second conveying assembly 51 close to the first conveying assembly 21 is docked with the end of the first conveying assembly 21 close to the second conveying assembly 51, the third driving assembly 53 stops working. When the third driving assembly 53 stops working completely, The second conveying component 51 is controlled to work, and the second conveying component 51 will convey the sample to the first conveying component 21. When the two samples are completely conveyed to the first conveying component 21, the first conveying component 21 can start to work, so that the position of the sample on the first conveying component 21 corresponds to the position of the detection part 40. When the position of the sample on the first conveying component 21 corresponds to the position of the detection part 40, the position of the second energized component in the second disconnected state can be adjusted to make the position of the second energized component correspond to the position of the sample. When the position of the second energized component corresponds to the position of the sample, The second energizing component can be switched from the second disconnected state to the second energizing state. The second energizing component will energize the sample to realize the energizing detection of the sample. At the same time, the detection unit 40 will also perform transmittance detection on the sample in the energizing detection, so as to obtain the real-time transmittance of the sample during the energizing process. When the energizing detection is completed, the second energizing component is switched from the second energizing state to the second disconnected state. The fourth driving component 63 will drive the third conveying component 61 to move the third conveying component 61 along the extension direction of the sixth guide rail component 62. When the third conveying component 61 is close to the first conveying component 21, After one end is docked with the end of the first conveying component 21 close to the third conveying component 61, the fourth driving component 63 stops working and the first conveying component 21 starts working to convey the tested sample to the third conveying component 61. When the sample after the test is completed is completely conveyed to the third conveying component 61, the third conveying component 61 can be driven by the fourth driving component 63 to move the third conveying component 61 along the extension direction of the sixth guide rail component 62. After the third conveying component 61 moves to the preset position, the third conveying component 61 can be operated to convey the sample to the external environment.

[0088] According to another aspect of the present application, a testing device is provided. The testing device includes a testing apparatus, and the testing apparatus is the testing apparatus described above.

[0089] In summary, the implementation of the test device and test equipment provided in this embodiment has at least the following beneficial technical effects: the test device provided in this embodiment is provided with a support part on the frame, so that the test device provided in this embodiment can be supported by the support part. At the same time, by providing a power-on part and a detection part on the frame, and the power-on part is set to be able to perform power-on detection on the sample on the support part, and the detection part is set to be able to perform transmittance detection on the sample on the support part, the test device provided in this embodiment can continuously perform power-on detection and transmittance detection on the sample through the power-on part and the detection part, without the need for transportation, thereby effectively improving production efficiency.

[0090] The above are only preferred embodiments of the present application and are not intended to limit the present application. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present application should be included in the protection scope of the present application.

Claims

1. A testing device, characterized in that: The testing device comprises: frame; A supporting part, which is mounted on the frame and is used to support the sample; A power supply unit, which is mounted on the frame and is used to perform power supply detection on the sample disposed on the support unit; A detection unit is installed on the frame and is used to perform transmittance detection on the sample arranged on the support unit.

2. The testing device according to claim 1, characterized in that: The supporting part includes a first conveying component, and the first conveying component is used to convey the sample so that the position of the sample corresponds to the position of the energizing part or the position of the detecting part.

3. The testing device according to claim 2, characterized in that: The first conveying component is movably mounted on the bracket, and the energizing portion includes a first energizing component, which is mounted on the first conveying component. The first energizing component can be electrically connected to the sample for energizing the sample.

4. The testing device according to claim 2, characterized in that: The energizing unit includes a second energizing component, which is disposed on the rack and can be electrically connected to the sample for energizing the sample.

5. The testing device according to claim 3, characterized in that: The first power-on component is movably mounted on the first conveying component, and has a first power-on state in contact with the sample and a first disconnection state for avoiding the sample. When the first power-on component is in the first power-on state, the first power-on component can energize the sample.

6. The testing device according to claim 1, characterized in that: There are a plurality of the supporting parts and the power-carrying parts, and the plurality of the supporting parts are arranged on the frame at intervals along the first direction, and the plurality of the power-carrying parts correspond to the plurality of the supporting parts one by one.

7. The testing device according to claim 2, characterized in that: The detection unit includes a light emitting component and a light receiving component. Both the light emitting component and the light receiving component are arranged on the rack. The position of the light emitting component corresponds to the position of the light receiving component. The light receiving component can receive the light emitted by the light emitting component.

8. The testing device according to claim 7, characterized in that: The detection unit further comprises a first supporting assembly, which is movably mounted on the frame along a first direction, and the light emitting assembly and the light receiving assembly are both mounted on the first supporting assembly.

9. The testing device according to claim 7, characterized in that: A clearance gap is provided on the first conveying component. When the position of the first conveying component corresponds to the position of the detection unit, the position of the clearance gap can correspond to the position of the light emitting component, and is used to make way for the light emitted by the light emitting component so that the light receiving component can receive the light emitted by the light emitting component.

10. The testing device according to claim 6, characterized in that: The detection part is movably mounted on the frame along a first direction, and the position of the detection part can correspond to the position of any one of the plurality of the energizing parts.

11. The testing device according to any one of claims 1 to 10, characterized in that: The testing device further comprises a loading part, which is movably mounted on the frame, and the position of the loading part can correspond to the position of the supporting part, so as to transport the sample to the supporting part.

12. The testing device according to any one of claims 1 to 10, characterized in that: The testing device further comprises a material discharge part, which is movably mounted on the frame, and the position of the material discharge part can correspond to the position of the supporting part, so as to transport the tested sample to an external environment.

13. A testing device, characterized in that: The testing equipment comprises a testing device, and the testing device is the testing device according to any one of claims 1 to 12.

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