OLED module test fixture

Abstract

The invention relates to the technical field of test fixtures, and discloses an OLED module test fixture, which comprises a fixture bottom plate and a plurality of first terminals arranged on the upper surface of the fixture bottom plate, and first groove bodies are formed in the upper surfaces of the plurality of first terminals; according to the invention, when the end faces of the plurality of top heads abut against the highest point of the outer surface of the metal conductive block, the plurality of top heads move close to the shell along the central axis direction of the top heads, and when the outer surface of the metal conductive block is worn to a certain value, the moving distance of the plurality of top heads is not enough; when the OLED module is detected, the distance of the two third block bodies far away from each other is small, so that the position limitation on the plate body cannot be relieved, the plate body cannot continue to move downwards, an operator can be reminded in time through the arrangement that the metal conductive block is seriously abraded and the first terminal needs to be replaced, and the problems that the electrical connection is unstable during OLED module detection and the detection efficiency is low are solved. And the accuracy of a detection result is ensured.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of test fixture, in particular to an OLED module test fixture. BACKGROUND

[0002] OLED, also known as organic light-emitting semiconductor, is a current type of organic light-emitting device. OLED display screen has the advantages of lightness, high brightness, low power consumption, fast response, high definition, good flexibility and high luminous efficiency, which can meet the new needs of consumers for display technology.

[0003] In order to improve the yield of products and reduce the failure rate of products in use, some reliability detection will be carried out in the terminal link of OLED production.

[0004] The existing OLED module test fixture needs to insert the wiring port on the OLED module to be detected into the test port on the fixture to realize the detection of the OLED module. The internal metal conductive block of the test port on the fixture is easy to wear out after long time plugging and unplugging, which causes the internal conductive sheet of the wiring port on the OLED module to be disconnected with the metal conductive block, and the electrical connection is unstable, so that the detection result is inaccurate. SUMMARY

[0005] The purpose of the present application is to solve the problems existing in the prior art and provide an OLED module test fixture.

[0006] In order to achieve the above purpose, the present application adopts the following technical scheme: An OLED module test fixture is used for the detection of OLED module, comprising: A fixture bottom plate; A plurality of first terminals are arranged on the upper surface of the fixture bottom plate, the upper surface of the plurality of first terminals is provided with a first groove body, and the inner wall of the first groove body is symmetrically provided with a plurality of metal conductive blocks; A plate body is arranged in the interior of the first groove body, the outer surfaces of the opposite sides of the plate body are provided with a plurality of openings, the upper surface of the plate body is provided with a through groove, and the metal conductive blocks are arranged in the interior of the openings; A shell is arranged in the interior of the through groove; A plurality of jacks are respectively arranged in the interiors of the plurality of openings, and the plurality of jacks are arranged to be capable of moving towards the shell along the central axis direction when one end thereof abuts against the outer surface of the metal conductive block; Two third blocks are arranged at two ends of the shell respectively, and are used for limiting the position of the plate body, the two third blocks are coupled with the plurality of punches, and when the plurality of punches move along the central axis direction of the punch and approach the shell, the two third blocks can be driven to move away from each other to release the position limitation of the plate body.

[0007] As a further scheme of the present application, the inside of the shell is provided with a cavity, two piston plates are symmetrically and slidingly arranged on the inner walls near the two ends, the outer surfaces of the two piston plates away from each other are fixedly connected with second rods, the other ends of the second rods penetrate the end faces of the shell, the end faces near the two ends of the plate body are provided with first vertical grooves, the other ends of the second rods penetrate the first vertical grooves and are slidingly arranged on the inner walls of the first vertical grooves, the other ends of the second rods are fixedly connected with third blocks, and the second rods and the third blocks are perpendicularly arranged in a T-shaped structure.

[0008] As a further scheme of the present application, the outer surfaces of the opposite sides of the shell are symmetrically provided with a plurality of through holes, the inner walls of the plurality of through holes are fixedly connected with sheets, the inside of the cavity between the two piston plates is filled with hydraulic oil, the two piston plates and the inner walls near the two ends of the shell form inner cavities respectively, the upper surfaces of the second rods are provided with air channels, the air channels are communicated with the inner cavities, and the other ends of the punches can abut against the outer surfaces of the sheets.

[0009] As a further scheme of the present application, the upper surfaces near the two ends of the plate body are symmetrically provided with two sunk grooves, the inner walls of the two sunk grooves are slidingly arranged with first blocks, the outer surfaces of the first blocks away from each other are fixedly connected with first rods, one end of the first rod penetrates the outer surface of the plate body and is slidingly arranged thereon, the outer surface of the other side of the first block is fixedly connected with a spring, and the other end of the spring is fixedly connected with the inner wall of the sunk groove away from one end of the first rod.

[0010] As a further scheme of the present application, the lower surfaces of the two fourth blocks are symmetrically fixedly connected with two fourth blocks, the lower surfaces of the two fourth blocks are provided with fourth inclined surfaces, and the upper surfaces of the first blocks are provided with first inclined surfaces matched with the fourth inclined surfaces.

[0011] As a further scheme of the present application, the inner walls near the two ends of the two sunk grooves are slidingly inserted with an insertion plate, the outer surface of one side of the insertion plate is flush with the end face of the shell, the outer surface of the other side of the insertion plate is flush with the inner wall of the sunk groove, the outer surface of the insertion plate is provided with a second vertical groove, the second rod penetrates the second vertical groove and is slidingly arranged on the inner wall of the second vertical groove, and the top end of the insertion plate is higher than the upper surface of the shell.

[0012] As a further scheme of the present application, the upper surface of the second block is provided with a second inclined surface, the lower surface of the plug-in plate is provided with a third inclined surface matched with the second inclined surface, the upper surface of the first inclined surface close to the bottom is fixedly connected with a baffle, and the bottom end of the fourth block abuts against the top end of the baffle.

[0013] As a further scheme of the present application, the inner wall close to the two ends of the first groove is provided with a second groove, the upper surface close to the two ends of the first terminal is symmetrically provided with two third grooves, the second groove and the third groove are communicated, the width of the third groove is greater than that of the second groove, the depths of the second groove, the third groove and the first groove are the same, the width of the first rod is greater than that of the second groove, the third block and the third groove are matched, and the second rod and the second groove are matched.

[0014] As a further scheme of the present application, the lower surface of the OLED module is provided with a plurality of second terminals, the lower surface of each of the plurality of second terminals is provided with a fourth groove, the top wall of the fourth groove is fixedly connected with a polar plate, the polar plate is arranged in the first groove, the outer surfaces of the opposite sides of the polar plate are provided with a plurality of conductive sheets, the conductive sheets abut against the metal conductive block, the outer surfaces close to the two ends of the first terminal are respectively provided with notches, and the inner walls close to the two ends of the fourth groove are provided with protrusions matched with the notches.

[0015] As a further scheme of the present application, the lower surface close to the two ends of the plate is symmetrically fixedly installed with two slide columns, the bottom end of each of the two slide columns penetrates through the lower surface of the jig bottom plate and is sleeved with a tension spring, one end of the tension spring is fixedly connected with the lower surface of the jig bottom plate, and the other end of the tension spring is fixedly connected with the bottom end of the slide column.

[0016] When the end surfaces of the plurality of jacks abut against the highest points of the outer surfaces of the metal conductive block, the plurality of jacks are moved along the central axis direction to approach the shell, when the outer surfaces of the metal conductive block are worn to a certain value, because the moving distance of the plurality of jacks is not enough, the two third blocks are moved away from each other by a small distance, so that the position limitation of the plate cannot be removed, the plate cannot be further moved downward, the operator can be reminded in time through the setting, the metal conductive block is seriously worn, the first terminal needs to be replaced, the unstable electrical connection of the OLED module during detection is avoided, and the accuracy of the detection result is ensured. BRIEF DESCRIPTION OF DRAWINGS

[0017] Figure 1 An overall structure schematic view of an OLED module test jig is provided in the present application. Figure 2A second terminal schematic view of an OLED module test fixture according to the present application; Figure 3 A first terminal schematic view of an OLED module test fixture according to the present application; Figure 4 A first terminal internal schematic view of an OLED module test fixture according to the present application; Figure 5 A first terminal top view schematic view of an OLED module test fixture according to the present application; Figure 6 A shell schematic view of an OLED module test fixture according to the present application; Figure 7 A block schematic view of an OLED module test fixture according to the present application; Figure 8 An exploded structure schematic view of an OLED module test fixture according to the present application; Figure 9 A Figure 8 A local enlarged view at C in FIG. 6; Figure 10 A plate body local cross-sectional view schematic view of an OLED module test fixture according to the present application; Figure 11 A first rod body schematic view of an OLED module test fixture according to the present application; Figure 12 A shell local cross-sectional view schematic view of an OLED module test fixture according to the present application; Figure 13 A sheet schematic view of an OLED module test fixture according to the present application; Figure 14 A Figure 3 A local enlarged view at A in FIG. 7; Figure 15 A Figure 4 A local enlarged view at B in FIG. 7; Figure 16 A structure schematic view of an OLED module test fixture according to the present application.

[0018] In the drawings: 100, fixture bottom plate; 200, OLED module; 300, first terminal; 310, notch; 320, first groove body; 330, metal conductive block; 340, second groove body; 350, third groove body; 400, second terminal; 410, protrusion; 420, pole plate; 500, plate body; 510, opening; 520, through groove; 530, sink groove; 600, shell; 610, cavity; 620, sheet; 700, slide post; 710, tension spring; 800, top head; 900, first rod body; 1000, second rod body; 1010, airway; 1100, plug-in board; 1110, third inclined surface; 1200, spring; 1300, first block; 1310, first inclined surface; 1400, second block; 1410, second inclined surface; 1500, piston plate; 1600, third block; 1700, baffle; 1800, fourth block; 1810, fourth inclined surface. DETAILED DESCRIPTION

[0019] In order to make the technical means, creative features, purposes and effects of the present application easy to understand, the present application is further described below in combination with specific embodiments.

[0020] In order to monitor whether the metal conductive blocks 330 of the test ports on the test fixture are seriously worn, as shown in Figure 1 The present application provides an OLED module test fixture for detecting an OLED module 200, which comprises a fixture bottom plate 100, a plurality of first terminals 300, a board body 500, a shell 600, a plurality of top heads 800 and two third blocks 1600. Specifically, as shown in Figure 3 The plurality of first terminals 300 are fixedly installed on the upper surface of the fixture bottom plate 100 by means of the conductive pins arranged at the bottom thereof, as shown in Figure 4 The upper surfaces of the two first terminals 300 are each provided with a first groove body 320, as shown in Figure 5 and Figure 6 The board body 500 is arranged inside the first groove body 320 and is slidably installed with the inner wall thereof, so that the board body 500 can move up and down along the first groove body 320, as shown in Figure 4 The inner wall of the first groove body 320 is symmetrically provided with a plurality of metal conductive blocks 330, in order to facilitate the up-and-down movement of the board body 500 along the first groove body 320, the outer surfaces of the opposite sides of the board body 500 are each provided with a plurality of openings 510, and the metal conductive blocks 330 are arranged inside the openings 510, so as not to interfere with the up-and-down movement of the board body 500. Because, as shown in Figure 8 The upper surface of the board body 500 is provided with a through groove 520, and the shell 600 is arranged inside the through groove 520 and is slidably installed with the inner wall thereof, so that the shell 600 can move up and down along the inner wall of the through groove 520, and because, as shown in Figure 7 The plurality of top heads 800 are respectively arranged inside the plurality of openings 510, and as shown in Figure 10As shown, the top head 800 is slidingly installed with the plate body 500 by penetrating the inner wall of the through slot 520 at one end of the shell 600, so when the one end of the top head 800 abuts against the outer surface of the metal conductive block 330, it can move along the central axis direction of the top head 800 to approach the shell 600. As shown, Figure 9 and Figure 10 As shown, two third blocks 1600 are arranged at two ends of the shell 600 respectively, and when the plate body 500 moves up and down, the position of the plate body 500 can be limited by the two third blocks 1600 so as not to move downward, and the two third blocks 1600 are coupled with the plurality of top heads 800, when the plurality of top heads 800 move along the central axis direction of the top head 800 to approach the shell 600, the two third blocks 1600 can be driven to move away from each other, thereby releasing the position limitation of the plate body 500 so as to move downward. Through the device, when the end surface of the plurality of top heads 800 abuts against the highest point of the outer surface of the metal conductive block 330, the plurality of top heads 800 can move along the central axis direction thereof to approach the shell 600, at this time, the two third blocks 1600 move away from each other so that the plate body 500 can continue to move downward. When the outer surface of the metal conductive block 330 is worn to a certain value, because the moving distance of the plurality of top heads 800 is not enough, the distance of the two third blocks 1600 moving away from each other is small, so that the position limitation of the plate body 500 cannot be released, and the plate body 500 cannot continue to move downward. Through the above arrangement, the operator can be reminded in time that the metal conductive block 330 is seriously worn and needs to be replaced with the first terminal 300, so as to avoid unstable electrical connection during detection of the OLED module 200, and ensure the accuracy of the detection result.

[0021] In order to realize the detection of the test fixture to the OLED module 200, as shown, Figure 2As shown, the lower surface of the OLED module 200 is provided with two second terminals 400, the lower surface of the two second terminals 400 is provided with a fourth groove, the top wall of the fourth groove is fixedly connected with a polar plate 420, the outer surfaces of the opposite sides of the polar plate 420 are provided with a plurality of conductive sheets, during detection, the operator manually inserts the polar plate 420 into the inside of the first groove 320, so that the conductive sheet abuts against the metal conductive block 330, thereby realizing electrical connection, and because the conductive pin and the circuit printed on the jig bottom plate 100 are in electrical connection, the plurality of metal conductive blocks 330 are in electrical connection with the corresponding conductive pins, and the metal conductive blocks 330 are powered by the power supply connected through the circuit printed on the jig bottom plate 100, after the conductive sheet abuts against the metal conductive block 330, the OLED module 200 displays the information of normal power-on, thereby determining whether the OLED module 200 is functional, and completing the function test of the OLED module 200. When the polar plate 420 is inserted into the inside of the first groove 320, it will contact the upper surfaces of the plate body 500 and the shell 600, thereby driving the plate body 500 and the shell 600 to move downward to the groove bottom of the first groove 320.

[0022] It should be noted that, in order to avoid the polar plate 420 being inserted into the first groove 320 of the first terminal 300 in the wrong direction, as shown in Figure 2 and Figure 4 As shown, the outer surfaces of the two ends of the first terminal 300 are respectively provided with a notch 310, and the inner walls of the two ends of the fourth groove are provided with a protrusion 410 matched with the notch 310, through the cooperation of the notch 310 and the protrusion 410, the polar plate 420 cannot be inserted into the first groove 320 in the wrong way.

[0023] In order to enable the plurality of jacks 800 to move along the central axis direction of the jack 800 to approach the shell 600, thereby driving the two third blocks 1600 to move away from each other, as shown in Figure 12 As shown, the inside of the shell 600 is provided with a cavity 610, the inner walls of the two ends of the cavity 610 are symmetrically slidably installed with two piston plates 1500, the outer surfaces of the sides away from each other of the two piston plates 1500 are fixedly connected with a second rod body 1000, through the movement of the two piston plates 1500 away from each other, the second rod body 1000 respectively drives the two third blocks 1600 to move away from each other. In order to enable the two piston plates 1500 to move away from each other, as shown in Figure 13 As shown, the outer surfaces of the opposite sides of the shell 600 are symmetrically provided with a plurality of through holes, the inner walls of the plurality of through holes are fixedly connected with a sheet 620, the sheet 620 has a certain flexibility and can be elastically deformed when stressed, and can restore to the original state when the stress is removed, because the inside of the cavity 610 between the two piston plates 1500 is filled with hydraulic oil, and as shown in Figure 10As shown, the other end of the top head 800 can abut against the outer surface of the sheet 620, and the one end of the top head 800 abuts against the metal conductive block 330, so that when the top head 800 moves close to the shell 600, the top head 800 will extrude the sheet 620, so that the hydraulic oil inside the cavity 610 is extruded, thereby pushing the two piston plates 1500 to move away from each other, and driving the third blocks 1600 to move away from each other through the second rod bodies 1000.

[0024] In order to make the two piston plates 1500 correctly move away from each other, the two piston plates 1500 completely seal the two ends of the cavity 610, and as shown, Figure 13 As shown, since the two piston plates 1500 are respectively formed with inner cavities with the inner walls of the shell 600 close to the two ends, in order to make the inner cavities circulate air, the upper surface of the second rod body 1000 is provided with an air channel 1010, the air channel 1010 is in communication with the inner cavities, and the air channel 1010 is in communication with the external environment, so that the air pressure inside the inner cavities is balanced.

[0025] In order to make the two third blocks 1600 limit the position of the plate body 500, as shown, Figure 9 and Figure 15As shown, the other end of the second rod body 1000 penetrates the end face of the shell 600, the other end of the second rod body 1000 is fixedly connected with the third block 1600, the second rod body 1000 and the third block 1600 are vertically arranged in a T-shaped structure, and the first groove body 320 is provided with a second groove body 340 close to the inner wall of the two ends, the first terminal 300 is provided with two third groove bodies 350 symmetrically on the upper surface close to the two ends, the second groove body 340 and the third groove body 350 are connected in communication, the width of the third groove body 350 is greater than that of the second groove body 340, the third block 1600 and the third groove body 350 are matched, and the second rod body 1000 and the second groove body 340 are matched. When the two third blocks 1600 move away from each other, the third block 1600 will move above the third groove body 350, and when the plate body 500 continues to move downward, the third block 1600 will continue to slide downward along the inner wall of the third groove body 350. When the two third blocks 1600 do not move away from each other or the distance of moving away from each other is not enough, the two third blocks 1600 cannot correctly enter the inside of the third groove body 350, thereby limiting the plate body 500 from continuing to move downward. It should be noted that because the metal conductive block 330 needs to have a certain wear range in actual use, a fixed gap is provided between the third groove body 350 and the third block 1600, and the size of the gap is the wear value of the metal conductive block 330. Within the wear value range, the third block 1600 can slide on the inner wall of the third groove body 350. In order for the plate body 500 to move downward to the bottom of the first groove body 320, the second groove body 340, the third groove body 350 and the first groove body 320 are arranged with the same depth.

[0026] It should be noted that when the OLED module 200 test fixture is used for a long time, the operator needs to regularly detect whether the metal conductive block 330 is in electrical communication with the circuit on the fixture bottom plate 100 through the surface probe of the multimeter. In order to avoid the operator from mistakenly touching the plate body 500 with the small probe when using, the upper surface of the shell 600 is higher than the upper surface of the plate body 500 in the initial state (i.e., when the pole plate 420 is not inserted into the first groove body 320). At this time, the sheet 620 installed on the side surface of the shell 600 is a distance higher than the top head 800, as shown in the figure. Figure 10 As shown, the end of the top head 800 close to the shell 600 abuts against the side surface of the shell 600, so that the top head 800 cannot extrude the sheet 620, thereby preventing the two third blocks 1600 from moving away from each other, so that the plate body 500 cannot continue to move downward, and the small probe cannot break the metal conductive block 330.

[0027] Because the upper surface of the shell 600 is higher than the upper surface of the plate body 500, when the polar plate 420 is ready to be inserted into the first groove 320, it will first contact the upper surface of the shell 600, and by the polar plate 420 pressing the shell 600 downward, the shell 600 moves downward along the through groove 520 until the upper surface of the shell 600 is flush with the upper surface of the plate body 500, at this time, the end of the top head 800 close to the shell 600 will be in contact with the surface of the sheet 620, in order to make the shell 600 move downward to the upper surface flush with the upper surface of the plate body 500, as shown in Figure 11 , the plate body 500 is provided with a first vertical groove near the two ends, and the other end of the second rod body 1000 penetrates the first vertical groove and is slidably installed on the inner wall of the first vertical groove, and the cooperation of the first vertical groove and the second rod body 1000 limits the distance of the shell 600 moving downward along the through groove 520.

[0028] In order to further ensure that the shell 600 can only move downward when the upper surface is flush with the upper surface of the plate body 500, as shown in Figure 9 , the upper surface of the plate body 500 is symmetrically provided with two sink grooves 530, as shown in Figure 11 , the inner wall of the two sink grooves 530 is slidably installed with a first block 1300, the outer surface of the side of the first block 1300 away from each other is fixedly connected with a first rod body 900, one end of the first rod body 900 penetrates the outer surface of the plate body 500 and is slidably installed thereon, the outer surface of the other side of the first block 1300 is fixedly connected with a spring 1200, the other end of the spring 1200 is fixedly connected with the inner wall of the sink groove 530 away from one end of the first rod body 900, and the elastic force of the spring 1200 makes the first block 1300 drive the first rod body 900 to extend out of the inside of the sink groove 530 and be located outside the end surface of the plate body 500, and because the width of the first rod body 900 is greater than that of the second groove 340, when the upper surface of the shell 600 is not moved downward to be flush with the upper surface of the plate body 500, the first rod body 900 will be blocked at the top of the second groove 340, so that the plate body 500 cannot continue to move downward, and through this arrangement, the top head 800 is prevented from being in contact with the metal conductive block 330 when it does not move to the position of the sheet 620, because the top head 800 is blocked by the shell 600 at this time, so it cannot move, which ensures that the top head 800 will not damage the surface of the metal conductive block 330 and cause it to deform and collapse.

[0029] In order to make the first rod body 900 retract into the sink groove 530 when the shell 600 moves downward along the through groove 520 until the upper surface is flush with the upper surface of the plate body 500, and to ensure that the plate body 500 can normally move downward later, as shown in Figure 12As shown, the lower surface of the shell 600 is symmetrically fixedly connected with two fourth blocks 1800, the lower surface of each of the two fourth blocks 1800 is provided with a fourth inclined surface 1810, the upper surface of the first block 1300 is provided with a first inclined surface 1310 matched with the fourth inclined surface 1810, by moving the shell 600 downward, the fourth inclined surface 1810 of the lower surface of the fourth block 1800 abuts against the first inclined surface 1310 of the upper surface of the first block 1300, thereby driving the two first blocks 1300 to move close to each other, and further driving the two first blocks 1300 to retract the first rod 900 into the sink groove 530.

[0030] As shown, the lower surface of the shell 600 is symmetrically fixedly connected with two fourth blocks 1800, the lower surface of each of the two fourth blocks 1800 is provided with a fourth inclined surface 1810, the upper surface of the first block 1300 is provided with a first inclined surface 1310 matched with the fourth inclined surface 1810, by moving the shell 600 downward, the fourth inclined surface 1810 of the lower surface of the fourth block 1800 abuts against the first inclined surface 1310 of the upper surface of the first block 1300, thereby driving the two first blocks 1300 to move close to each other, and further driving the two first blocks 1300 to retract the first rod 900 into the sink groove 530. Figure 12 and Figure 16 As shown, the inner walls of the two sink grooves 530 near the two ends are slidably provided with the insertion plates 1100, one side of the outer surface of the insertion plate 1100 is flush with the end surface of the shell 600, the other side of the outer surface of the insertion plate 1100 is flush with the inner wall of the sink groove 530, and the top end of the insertion plate 1100 is higher than the upper surface of the shell 600, when the polar plate 420 is ready to be inserted into the first groove 320, it will first contact the top end of the insertion plate 1100, thereby driving the insertion plate 1100 to move downward. Since the upper surface of the first inclined surface 1310 near the bottom is fixedly connected with the baffle 1700, and the bottom end of the fourth block 1800 abuts against the top end of the baffle 1700, when the bottom end of the fourth block 1800 is still at the position of the top end of the baffle 1700, at this time, the shell 600 cannot be moved downward to the position where the upper surface thereof is flush with the upper surface of the plate body 500, in order to drive the fourth block 1800 to move away from the baffle 1700 by the downward movement of the insertion plate 1100, the upper surfaces of the two sink grooves 530 are fixedly connected with the second blocks 1400, the upper surface of the second block 1400 is provided with a second inclined surface 1410, and the lower surface of the insertion plate 1100 is provided with a third inclined surface 1110 matched with the second inclined surface 1410, the downward movement of the insertion plate 1100 drives the two first rods 900 to move close to each other by a distance through the third inclined surface 1110 and the second inclined surface 1410, and this distance makes the bottom of the fourth block 1800 move away from the top of the baffle 1700, at this time, the fourth inclined surface 1810 falls into the upper surface of the baffle 1700, thereby enabling the first rod 900 to continue to retract into the sink groove 530 when the shell 600 is moved downward, if the polar plate 420 is inserted obliquely towards one end, one of the two insertion plates 1100 cannot be pressed by the polar plate 420, thereby avoiding the first rod 900 from further retracting into the sink groove 530, and preventing the plate body 500 from continuing to move downward, thereby avoiding the polar plate 420 from breaking the metal conductive block 330, in order to enable the insertion plate 1100 to move downward correctly, as shown in Figure 12As shown, the outer surface of the plug-in plate 1100 is provided with a second vertical groove, and the second rod body 1000 is slidably installed in the second vertical groove.

[0031] In order to enable the plate body 500 to be located above the metal conductive block 330 when the test fixture is not used, as shown in Figure 3 and Figure 14 As shown, the plate body 500 is symmetrically fixedly installed with two slide columns 700 at the lower surfaces near the two ends, the bottom ends of the two slide columns 700 are sleeved with a tension spring 710 penetrating the lower surface of the fixture bottom plate 100, one end of the tension spring 710 is fixedly connected with the lower surface of the fixture bottom plate 100, and the other end of the tension spring 710 is fixedly connected with the bottom end of the slide column 700. Through the elastic force of the tension spring 710, the slide column 700 drives the plate body 500 to be located above the metal conductive block 330, so as to protect the metal conductive block 330 from being accidentally touched and damaged, and meanwhile, through the tension spring 710, the upper surface of the plate body 500 can always abut against the bottom end of the polar plate 420 when being pressed by the polar plate 420.

[0032] In the embodiment, as shown in Figure 10 In order to limit the top head 800 from sliding out of the plate body 500, the diameter of the top head 800 near one end of the shell 600 is greater than that of the other end.

[0033] The basic principles and main features of the present application and the advantages of the present application are shown and described above. It should be understood by those skilled in the art that the present application is not limited by the above-mentioned embodiments, and the above-mentioned embodiments and descriptions in the specification are only to illustrate the principles of the present application. Without departing from the spirit and scope of the present application, various changes and improvements can be made to the present application, and these changes and improvements all fall within the scope of the present application.

Claims

1. An OLED module test fixture for detecting an OLED module (200), characterized in that, Include: Jig bottom plate (100); A plurality of first terminals (300) are arranged on the upper surface of the jig bottom plate (100), the upper surface of the plurality of first terminals (300) is provided with a first slot (320), and the inner wall of the first slot (320) is symmetrically provided with a plurality of metal conductive blocks (330); The plate body (500) is arranged in the first slot (320), the outer surfaces of the opposite sides of the plate body (500) are provided with a plurality of openings (510), the upper surface of the plate body (500) is provided with a through slot (520), and the metal conductive block (330) is arranged in the opening (510). The shell (600) is arranged in the through slot (520); A plurality of top heads (800) are arranged in the plurality of openings (510), respectively, and the plurality of top heads (800) are arranged such that when one end thereof abuts against the outer surface of the metal conductive block (330), the plurality of top heads (800) can move towards the shell (600) along the central axis direction thereof; Two third blocks (1600) are arranged at two ends of the shell (600) respectively, for limiting the position of the plate body (500), the two third blocks (1600) are coupled with the plurality of top heads (800), and the two third blocks (1600) are arranged such that when the plurality of top heads (800) move towards the shell (600) along the central axis direction of the top head (800), the two third blocks (1600) can be driven to move away from each other, thereby releasing the position limitation of the plate body (500). 2.The OLED module test fixture of claim 1, wherein, The inside of the shell (600) is provided with a cavity (610), two piston plates (1500) are symmetrically and slidingly installed on the inner walls near the two ends of the cavity (610), the outer surfaces of the two piston plates (1500) away from each other are fixedly connected with second rod bodies (1000), the other ends of the second rod bodies (1000) penetrate the end faces of the shell (600), the end faces near the two ends of the plate body (500) are provided with first vertical slots, the other ends of the second rod bodies (1000) penetrate the first vertical slots and are slidingly installed on the inner walls of the first vertical slots, the other ends of the second rod bodies (1000) are fixedly connected with the third blocks (1600), and the second rod bodies (1000) and the third blocks (1600) are arranged in a T-shaped structure. 3.The OLED module test fixture of claim 2, wherein, The outer surfaces of the opposite sides of the shell (600) are symmetrically provided with a plurality of through holes, the inner walls of the plurality of through holes are fixedly connected with lamellas (620), the cavity (610) between the two piston plates (1500) is filled with hydraulic oil, the two piston plates (1500) and the inner walls near the two ends of the shell (600) form cavities, respectively, the upper surfaces of the second rod bodies (1000) are provided with air channels (1010), the air channels (1010) are in communication with the cavities, and the other ends of the top heads (800) can abut against the outer surfaces of the lamellas (620). 4.The OLED module test fixture of claim 3, wherein, The upper surface of the plate body (500) is symmetrically provided with two grooves (530) near both ends, the inner wall of the two grooves (530) is slidably provided with a first block (1300), the outer surface of the side away from each other of the first block (1300) is fixedly connected with a first rod (900), one end of the first rod (900) penetrates through the outer surface of the plate body (500) and is slidably connected therewith, the outer surface of the other side of the first block (1300) is fixedly connected with a spring (1200), the other end of the spring (1200) is fixedly connected with the inner wall of the groove (530) away from one end of the first rod (900).

5. The OLED module test fixture of claim 4, wherein, The lower surface of the shell (600) is fixedly connected with two fourth blocks (1800), the lower surface of the two fourth blocks (1800) is provided with a fourth inclined surface (1810), and the upper surface of the first block (1300) is provided with a first inclined surface (1310) matched with the fourth inclined surface (1810). 6.The OLED module test fixture of claim 5, wherein, The inner wall of the two grooves (530) near both ends is slidably provided with an insertion plate (1100), the outer surface of one side of the insertion plate (1100) is flush with the end surface of the shell (600), the outer surface of the other side of the insertion plate (1100) is flush with the inner wall of the groove (530), and a second vertical groove is formed in the outer surface of the insertion plate (1100), the second rod (1000) penetrates through the second vertical groove and is slidably connected with the inner wall thereof, and the top end of the insertion plate (1100) is higher than the upper surface of the shell (600).

7. The OLED module test fixture of claim 6, wherein, The upper surface of the first rod (900) located on the upper surface of the two grooves (530) is fixedly connected with a second block (1400), the upper surface of the second block (1400) is provided with a second inclined surface (1410), the lower surface of the insertion plate (1100) is provided with a third inclined surface (1110) matched with the second inclined surface (1410), the upper surface of the first inclined surface (1310) near the bottom is fixedly connected with a baffle (1700), and the bottom end of the fourth block (1800) is abutted with the top end of the baffle (1700). 8.The OLED module test fixture of claim 4, wherein, The inner wall of the first groove (320) near both ends is provided with a second groove (340), the upper surface of the first terminal (300) near both ends is symmetrically provided with two third grooves (350), the second groove (340) and the third groove (350) are connected, the width of the third groove (350) is greater than that of the second groove (340), the depths of the second groove (340), the third groove (350) and the first groove (320) are the same, the width of the first rod (900) is greater than that of the second groove (340), the third block (1600) and the third groove (350) are matched, and the second rod (1000) and the second groove (340) are matched. 9.The OLED module test fixture of claim 1, wherein, The lower surface of the OLED module (200) is provided with a plurality of second terminals (400), the lower surface of each of the plurality of second terminals (400) is provided with a fourth groove, the top wall of the fourth groove is fixedly connected with a polar plate (420), the polar plate (420) is arranged in the first groove (320), the outer surfaces of the opposite sides of the polar plate (420) are each provided with a plurality of conductive sheets, the conductive sheets abut against the metal conductive blocks (330), the outer surfaces of the two ends of the first terminal (300) are each provided with a notch (310), and the inner walls of the two ends of the fourth groove are each provided with a protrusion (410) matched with the notch (310). 10.The OLED module test fixture of claim 1, wherein, The lower surfaces of the two ends of the plate body (500) are symmetrically fixedly installed with two slide columns (700), the bottom ends of the two slide columns (700) are each penetrated through the lower surface of the jig bottom plate (100) and are sleeved with a tension spring (710), one end of the tension spring (710) is fixedly connected with the lower surface of the jig bottom plate (100), and the other end of the tension spring (710) is fixedly connected with the bottom end of the slide column (700).

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