Tooling detection platform for organic optoelectronic materials

Abstract

The utility model discloses a kind of tooling detection platforms of organic photoelectric material, including operation platform, the top of operation platform is fixedly connected with two air cylinders, the output end of two air cylinders is fixedly connected with fixed plate, two fixed plates are fixedly connected with bottom plate in the bottom end of mutually approaching side, fixed plate and bottom plate are slidably connected operation platform, the top of both ends of two bottom plates is fixedly connected with positioning pin, two positioning pin sleeves of being in same end are equipped with same mounting block, two mounting blocks are fixedly connected with clamping block in mutually approaching side, two mounting blocks are fixedly connected with two limit blocks in mutually far side, groove is set on fixed plate with two with limit block adaptation, two insertion slots are set on limit block, bolt is set in insertion slot. The utility model effectively reduces the difficulty of dismounting and assembling clamping block, reduces the time required for dismounting and assembling fixture, improves the work efficiency of laboratory, so that overall detection process is more smooth.

Description

Technical Field

[0001] This utility model relates to the field of organic optoelectronic material testing technology, and in particular to a tooling testing platform for organic optoelectronic materials. Background Technology

[0002] Organic optoelectronic materials are a class of materials that can be used for photoelectric conversion. They are usually composed of organic molecules or polymers. These materials have unique properties in light absorption, electron conduction and photoelectric conversion, and are widely used in some key optoelectronic applications, such as organic photodiodes, organic solar cells and organic optoelectronic sensors. In order to evaluate the characteristics and analyze the performance of organic optoelectronic materials, they need to be tested. Generally, a testing platform is used. However, most of the existing organic optoelectronic material testing platforms still have problems that need to be solved.

[0003] Most existing organic optoelectronic material testing platforms use fixtures to fix the organic optoelectronic materials before testing to ensure that the samples do not shift during the testing process and improve data stability. However, the models of the organic optoelectronic materials to be tested may be different, requiring the use of fixtures that are compatible with them. This necessitates replacement, but the fixtures of most existing organic optoelectronic material testing platforms are not easy to disassemble and assemble. If the sample model changes frequently, the disassembly and assembly process of traditional fixtures may lead to reduced testing efficiency, wasting a lot of time and human resources and affecting the overall work progress. Therefore, it is necessary to design a tooling testing platform for organic optoelectronic materials to solve the above problems. Utility Model Content

[0004] The purpose of this invention is to address the shortcomings of existing technologies by proposing a tooling testing platform for organic optoelectronic materials.

[0005] To achieve the above objectives, the present invention adopts the following technical solution: A tooling testing platform for organic optoelectronic materials includes an operating table. Two cylinders are fixedly connected to the top of the operating table. A fixed plate is fixedly connected to the output end of each cylinder. A base plate is fixedly connected to the bottom of each fixed plate on its adjacent side. The fixed plates and base plates are slidably connected to the operating table. Positioning pins are fixedly connected to the top of each end of the two base plates. The two positioning pins at the same end are fitted with the same mounting block. Clamping blocks are fixedly connected to the adjacent side of each mounting block. Two limiting blocks are fixedly connected to the opposite side of each mounting block. The fixed plate has slots that mate with the limiting blocks. Two slots are provided on each limiting block, and pins are installed in the slots. A moving block is fixedly connected to the same side of each pin at the same end. Trapezoidal blocks are fixedly connected to the top and bottom of the moving block. One side of the trapezoidal block is inclined, and a roller is provided on one inclined side of the trapezoidal block. A fixed seat is provided on the roller, and the roller is rotatably connected to the fixed seat. The two pins at the same end... The fixed base is fixedly connected to the same vertical plate, which is fixedly connected to the top of the operating table. Because it employs a technical means that the clamping block can be fixed when it moves closer to the sample and released when it moves away from the sample, when the clamping block moves closer to the sample, the pin can be inserted into the slot to fix the limiting block, thus securing the clamping block. When the clamping block moves away from the sample, the pin can be removed from the slot to release the limiting block, thus releasing the clamping block and allowing it to be removed. This facilitates the assembly and disassembly of the clamping block, effectively solving the problem mentioned in the background art that the fixtures of most existing organic optoelectronic material detection platforms are inconvenient to assemble and disassemble. If the sample model changes frequently, the assembly and disassembly process of traditional fixtures may lead to reduced testing efficiency, wasting a lot of time and human resources, and affecting the overall work progress. Therefore, it effectively reduces the difficulty of assembling and disassembling the clamping block, reduces the time required for fixture assembly and disassembly, improves the work efficiency of the laboratory, and makes the overall testing process smoother.

[0006] As a further embodiment of this utility model, the mounting block has two positioning grooves that are adapted to the positioning pins.

[0007] As a further embodiment of this utility model, the movable block is fixedly connected to two limiting rods on the side away from the pin, and the two limiting rods at the same end are fitted with the same limiting plate. The limiting rods are slidably connected to the limiting plate, and the limiting plate is fixedly connected to the fixing plate.

[0008] As a further embodiment of this utility model, the limiting rod is fitted with a spring, and the spring is disposed between the moving block and the limiting plate.

[0009] As a further embodiment of this utility model, a placement platform is fixedly connected to the top of the operating table, and the placement platform is disposed between two clamping blocks.

[0010] As a further embodiment of this utility model, a spectrometer is provided on the top of the placement platform, and the mounting base of the spectrometer is fixedly connected to the operating platform.

[0011] As a further embodiment of this utility model, a PLC controller is fixedly connected to the top of the operating table, and the PLC controller is electrically connected to the spectrometer and the air supply system of the cylinder through wires.

[0012] The beneficial effects of this utility model are as follows: Because it employs a technique that allows the clamp to be fixed as it moves closer to the sample and released as it moves away from the sample, the clamp can be easily disassembled. When the clamp moves closer to the sample, the pin can be inserted into the slot to fix the limiting block, thus securing the clamp. When the clamp moves away from the sample, the pin can be removed from the slot to release the limiting block and thus release the clamp. This facilitates the assembly and disassembly of the clamp, effectively solving the problem mentioned in the background art where the clamps of most existing organic optoelectronic material testing platforms are difficult to assemble and disassemble. Furthermore, if the sample model changes frequently, the assembly and disassembly process of traditional clamps may lead to reduced testing efficiency, wasted time and manpower, and impact on the overall work progress. Therefore, this technique effectively reduces the difficulty of assembling and disassembling the clamp, reduces the time required for clamp assembly and disassembly, improves laboratory work efficiency, and makes the overall testing process smoother. Attached Figure Description

[0013] Figure 1 This is a three-dimensional structural diagram of a tooling testing platform for organic optoelectronic materials proposed in this utility model; Figure 2 This is a partial structural schematic diagram of a tooling testing platform for organic optoelectronic materials proposed in this utility model; Figure 3 This is a partial unfolded structural diagram of a tooling testing platform for organic optoelectronic materials proposed in this utility model; Figure 4 This is a schematic diagram of the unfolded structure of the mounting block of a tooling testing platform for organic optoelectronic materials proposed in this utility model.

[0014] In the diagram: 1. Control panel; 2. Cylinder; 3. Fixing plate; 4. Base plate; 5. Positioning pin; 6. Mounting block; 7. Clamping block; 8. Limiting block; 9. Slot; 10. Pin; 11. Moving block; 12. Trapezoidal block; 13. Roller; 14. Fixing seat; 15. Vertical plate; 16. Limiting rod; 17. Limiting plate; 18. Spring; 19. Placement platform; 20. Spectrometer; 21. PLC controller. Detailed Implementation

[0015] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.

[0016] Reference Figure 1-4A tooling testing platform for organic optoelectronic materials includes an operating table 1. Two cylinders 2 are fixedly connected to the top of the operating table 1. The two cylinders 2 are connected to the same air supply system. A fixing plate 3 is fixedly connected to the output end of each of the two cylinders 2. A base plate 4 is fixedly connected to the bottom end of each fixing plate 3 on its closest side. The fixing plate 3 and the base plate 4 are slidably connected to the operating table 1. Positioning pins 5 are fixedly connected to the top of both ends of the two base plates 4. The two positioning pins 5 at the same end are fitted with the same mounting block 6. The two mounting blocks 6 are fixedly connected to... The clamping block 7 and the two mounting blocks 6 are each fixedly connected to two limiting blocks 8 on their opposite sides. The fixing plate 3 has two slots that fit the limiting blocks 8. The limiting blocks 8 have two slots 9, and each slot 9 contains a pin 10. The same moving block 11 is fixedly connected to the same side of the two pins 10 at the same end. The top and bottom of the moving block 11 are both fixedly connected to trapezoidal blocks 12. One side of the trapezoidal block 12 is inclined, and a roller 13 is provided on one side of the inclined surface of the trapezoidal block 12. A fixing seat 14 is provided on the roller 13, and the roller 13 is rotatably connected to the fixing. The base 14, with two fixed bases 14 at the same end, is fixedly connected to the same vertical plate 15. The vertical plate 15 is fixedly connected to the top of the operating table 1. Because it employs a technical means that the clamping block can be fixed when it moves closer to the sample and released when it moves away from the sample, when the clamping block moves closer to the sample, the pin can be inserted into the slot to fix the limiting block, thus securing the clamping block. When the clamping block moves away from the sample, the pin can be removed from the slot to release the limiting block, thus releasing the clamping block and allowing it to be removed. This facilitates the assembly and disassembly of the clamping block, effectively solving the problem mentioned in the background art that most existing organic optoelectronic material detection platforms have fixtures that are inconvenient to assemble and disassemble. If the sample model changes frequently, the assembly and disassembly process of traditional fixtures may lead to reduced testing efficiency, wasting a lot of time and human resources, and affecting the overall work progress. Therefore, it effectively reduces the difficulty of assembling and disassembling the clamping block, reduces the time required for fixture assembly and disassembly, improves the work efficiency of the laboratory, and makes the overall testing process smoother.

[0017] In this embodiment, the mounting block 6 has two positioning grooves that are adapted to the positioning pins 5. The mounting block 6 is positioned by the cooperation of the positioning pins 5 and the positioning grooves, so as to ensure the accurate installation position of the clamping block 7.

[0018] In this embodiment, the movable block 11 is fixedly connected to two limiting rods 16 on the side away from the pin 10. The two limiting rods 16 at the same end are fitted with the same limiting plate 17. The limiting rods 16 are slidably connected to the limiting plate 17. The limiting plate 17 is fixedly connected to the fixing plate 3. When the movable block 11 moves, it will drive the limiting rods 16 to move along the limiting plate 17, ensuring the stability of the movable block 11 when it moves.

[0019] In this embodiment, the limiting rod 16 is fitted with a spring 18, which is disposed between the moving block 11 and the limiting plate 17. Through the elastic force of the spring 18, the pin 10 can be stably placed in the slot 9 when no external force is applied.

[0020] In this embodiment, a placement platform 19 is fixedly connected to the top of the operating table 1. The placement platform 19 is located between two clamping blocks 7. The organic optoelectronic material to be tested can be placed on the placement platform 19, and then the two clamping blocks 7 can be moved closer to the organic optoelectronic material to clamp and fix it.

[0021] In this embodiment, a spectrometer 20 is provided on the top of the placement platform 19, and the mounting base of the spectrometer 20 is fixedly connected to the operating platform 1.

[0022] In this embodiment, a PLC controller 21 is fixedly connected to the top of the operating table 1. The PLC controller 21 is electrically connected to the spectrometer 20 and the air supply system of the cylinder 2 via wires.

[0023] Working principle: When in use, an external power supply is used. The spectrometer 20 is started for preheating, the optical path is checked for cleanliness, nearby strong light is turned off, and baseline calibration is completed. The organic photoelectric material is placed on the placement stage 19. The air supply system of cylinder 2 is activated via the PLC controller 21, causing the output end of cylinder 2 to extend. The output end of cylinder 2 then moves the fixing plate 3, which in turn moves the base plate 4. The base plate 4 then moves the positioning pin 5, which in turn moves the mounting block 6. The mounting block 6 then moves the clamping block 7, allowing the two clamping blocks 7 to move together. When the organic optoelectronic material is clamped and fixed, the spectrometer 20 is activated to scan the sample. The detection data is processed and fed back to the PLC controller 21 and displayed on the PLC controller 21 screen. When other types of organic optoelectronic materials need to be detected, the clamping block 7 corresponding to that type needs to be used. The clamping block 7 needs to be replaced. When the output end of the cylinder 2 is retracted, the inclined surface of the trapezoidal block 12 will contact the roller 13. If the output end of the cylinder 2 is retracted further, the trapezoidal block 12 will move away from the limit block 8. The trapezoidal block 12 will then drive the moving block 11 to move. When the moving block 11 moves, it causes the pin 10 to move out of the slot 9, releasing the restriction on the limiting block 8. This allows the mounting block 6 to be removed from the positioning pin 5, and the clamping block 7 to be removed and replaced. As the moving block 11 moves, it causes the limiting rod 16 to move along the limiting plate 17. The moving block 11 compresses the spring 18, causing it to contract. When installing the clamping block 7, which is compatible with the organic optoelectronic material, the mounting block 6 on the clamping block 7 is positioned on the positioning pin 5. The mounting block 6, clamping block 7, and limiting block 8 are pre-fixed together during production, so no further adjustments are needed during assembly. 6. Connect the clamping block 7 and the limiting block 8. Place the mounting block 6 on the positioning pin 5, and the limiting block 8 will be in the groove on the fixing plate 3. This will cause the output end of the cylinder 2 to extend a certain distance, preventing the trapezoidal block 12 from contacting the roller 13. The contracted spring 18 will then extend, allowing the moving block 11 to move closer to the limiting block 8. This will allow the pin 10 to be inserted into the slot 9, thus limiting the position of the limiting block 8. Fixing the limiting block 8 will also fix the mounting block 6 and the clamping block 7, completing the assembly of the clamping block 7. The device can then be used for testing.

[0024] The above description is only a preferred embodiment of the present utility model, but the protection scope of the present utility model is not limited thereto. Any equivalent substitutions or changes made by those skilled in the art within the technical scope disclosed in the present utility model, based on the technical solution and the inventive concept of the present utility model, should be included within the protection scope of the present utility model.

Claims

1. A tooling testing platform for organic optoelectronic materials, comprising an operating table (1), characterized in that, Two cylinders (2) are fixedly connected to the top of the operating table (1). The output ends of the two cylinders (2) are fixedly connected to a fixing plate (3). The bottom ends of the two fixing plates (3) on the side closest to each other are fixedly connected to a base plate (4). The fixing plate (3) and the base plate (4) are slidably connected to the operating table (1). The top ends of the two base plates (4) are fixedly connected to positioning pins (5). The two positioning pins (5) at the same end are fitted with the same mounting block (6). The two mounting blocks (6) on the side closest to each other are fixedly connected to clamping blocks (7). The two mounting blocks (6) on the side far apart from each other are fixedly connected to two limiting blocks (8). The fixing plate (3) is provided with two limiting blocks. (8) A matching slot, the limiting block (8) has two slots (9), the slots (9) are provided with pins (10), the two pins (10) at the same end are fixedly connected to the same side of the same moving block (11), the top and bottom of the moving block (11) are fixedly connected to trapezoidal blocks (12), one side of the trapezoidal block (12) is an inclined surface, a roller (13) is provided on one side of the inclined surface of the trapezoidal block (12), a fixed seat (14) is provided on the roller (13), the roller (13) is rotatably connected to the fixed seat (14), the two fixed seats (14) at the same end are fixedly connected to the same vertical plate (15), the vertical plate (15) is fixedly connected to the top of the operating table (1).

2. The tooling testing platform for organic optoelectronic materials according to claim 1, characterized in that, The mounting block (6) has two positioning slots that are compatible with the positioning pins (5).

3. The tooling testing platform for organic optoelectronic materials according to claim 1, characterized in that, The movable block (11) has two limiting rods (16) fixedly connected on the side away from the pin (10). The two limiting rods (16) at the same end are fitted with the same limiting plate (17). The limiting rods (16) are slidably connected to the limiting plate (17). The limiting plate (17) is fixedly connected to the fixing plate (3).

4. The tooling testing platform for organic optoelectronic materials according to claim 3, characterized in that, The limiting rod (16) is fitted with a spring (18), which is disposed between the moving block (11) and the limiting plate (17).

5. The tooling testing platform for organic optoelectronic materials according to claim 1, characterized in that, The top of the operating table (1) is fixedly connected to a placement platform (19), which is located between two clamping blocks (7).

6. The tooling testing platform for organic optoelectronic materials according to claim 5, characterized in that, A spectrometer (20) is mounted on the top of the placement platform (19), and the mounting base of the spectrometer (20) is fixedly connected to the operating table (1).

7. The tooling testing platform for organic optoelectronic materials according to claim 6, characterized in that, A PLC controller (21) is fixedly connected to the top of the operating table (1). The PLC controller (21) is electrically connected to the spectrometer (20) and the air supply system of the cylinder (2) via wires.

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