CN212255627U

CN212255627U - LED lamp strip check out test set

Info

Publication number: CN212255627U
Application number: CN202020182029.7U
Authority: CN
Inventors: 黄亚
Original assignee: Shenzhen Zowee Technology Co Ltd
Current assignee: Shenzhen Zowee Technology Co Ltd
Priority date: 2020-02-18
Filing date: 2020-02-18
Publication date: 2020-12-29
Anticipated expiration: 2030-02-18

Abstract

An LED light bar detection device comprising: the device comprises a loading device, a translation device arranged on one side of the loading device and an identification device arranged on the translation device; the translation device comprises a Y-axis moving mechanism connected with the loading device and an X-axis moving mechanism arranged on the Y-axis moving mechanism; the Y-axis moving mechanism is used for driving the X-axis moving mechanism to move along the Y axis; the X-axis moving mechanism is used for driving the recognition device to move along the X axis; the recognition device comprises a Z-axis moving mechanism connected with the X-axis moving mechanism and an image detection mechanism connected with the Z-axis moving mechanism; the image detection mechanism is used for acquiring image information of the LED lamp bar; the translation device drives the Z-axis moving mechanism and the image detection mechanism to move along the extending direction of the LED lamp strip, and the Z-axis moving mechanism enables the image detection mechanism to be accurately focused with the LED lamp strip on the material carrying device, so that the image detection mechanism can acquire the light-emitting image information of each LED lamp bead on the LED lamp strip, and the normal light emission of each LED lamp bead on the LED lamp strip can be conveniently and automatically confirmed.

Description

LED lamp strip check out test set

Technical Field

The utility model relates to a photoelectric detection device especially relates to a LED lamp strip check out test set.

Background

In the field of LED manufacturing, it is necessary to perform batch production detection on manufactured LED light bars, and detect electrical properties, functional parameters, appearance, and the like of the LED light bars. For the LED lamp strip, besides the performance detection, the light-emitting performance of the LED lamp strip needs to be detected so as to confirm that each LED lamp bead on the LED lamp strip can normally emit light and ensure the outgoing quality. In the conventional art, generally, carry out luminous performance to LED lamp strip through the manual work and detect, operating personnel utilizes the visual observation, confirms that each LED lamp pearl on the LED lamp strip can normally produce light, however, produces fatigue easily when the visual observation LED lamp, and the long-time direct-view LED light can cause the harm to eyesight, is unfavorable for the high-efficient detection of LED lamp strip and ensures operating personnel's health.

SUMMERY OF THE UTILITY MODEL

Based on this, it is necessary to provide an LED light bar detection device that automatically collects the lighting status.

An LED light bar detection device comprising: the device comprises a loading device, a translation device arranged on one side of the loading device and an identification device arranged on the translation device; the translation device comprises a Y-axis moving mechanism connected with the loading device and an X-axis moving mechanism arranged on the Y-axis moving mechanism; the Y-axis moving mechanism is used for driving the X-axis moving mechanism to move along a Y axis; the X-axis moving mechanism is used for driving the recognition device to move along an X axis; the recognition device comprises a Z-axis moving mechanism connected with the X-axis moving mechanism and an image detection mechanism connected with the Z-axis moving mechanism; the image detection mechanism is used for acquiring image information of the LED lamp strip.

According to the LED lamp strip detection equipment, the translation device drives the Z-axis moving mechanism and the image detection mechanism to move along the extending direction of the LED lamp strip, the Z-axis moving mechanism enables the image detection mechanism to be accurately focused with the LED lamp strip on the material carrying device, so that the image detection mechanism can acquire the light-emitting image information of each LED lamp bead on the LED lamp strip, and the normal light emission of each LED lamp bead on the LED lamp strip can be conveniently and automatically confirmed.

In one embodiment, the Y-axis moving mechanism includes a first Y-axis driving module provided with a first sliding table, and a second Y-axis driving module provided with a second sliding table; the X-axis moving mechanism comprises a cross beam arranged on the Y-axis moving mechanism, a first X-axis driving module arranged on one side of the cross beam and a second X-axis driving module arranged on the other side of the cross beam; two ends of the cross beam are respectively arranged on the first sliding table and the second sliding table; the Z-axis moving mechanism comprises a first Z-axis driving module connected with the first X-axis driving module and a second Z-axis driving module connected with the second X-axis driving module; a third sliding table is arranged on the first Z-axis driving module; a fourth sliding table is arranged on the second Z-axis driving module; the image detection mechanism comprises a first camera assembly connected with the third sliding table and a second camera assembly connected with the fourth sliding table; the first camera shooting assembly and the second camera shooting assembly face the loading device respectively; therefore, the LED lamp strip positioning device can adapt to the specification difference or the placing difference of the LED lamp strips, and can ensure that the lamp beads on the LED lamp strips can be accurately identified while the detection efficiency is improved.

In one embodiment, the Z-axis moving mechanism further comprises a Y-axis fine adjustment module connected to the third sliding table; the Y-axis fine adjustment module comprises an adjusting screw rod rotatably installed on one side of the third sliding table and a fifth sliding table in sliding connection with the third sliding table; the adjusting screw rod is arranged in parallel with the movement direction of the first Y-axis driving module; the fifth sliding table is in threaded connection with the adjusting screw; the first camera shooting assembly is arranged on the fifth sliding table; therefore, the image detection mechanism can be suitable for detecting the LED lamp strips with different specifications.

In one embodiment, the first camera assembly comprises a side frame connected with the Z-axis moving mechanism, a first camera installed in the side frame, and a distance sensor connected with the side frame; the induction port of the distance sensor faces the material loading device; therefore, the first camera and the LED lamp strip are focused accurately.

In one embodiment, the loading device comprises a material guiding mechanism and a belt transmission mechanism arranged on the material guiding mechanism; the material guide mechanism comprises a bottom plate, a first side rail arranged on the bottom plate and a second side rail arranged in parallel with the first side rail; a first guide groove with an opening facing the second side rail is formed in the inner side of the first side rail; a second guide groove with an opening facing the first side rail is formed in the inner side of the second side rail; the belt transmission mechanism comprises a first transmission belt passing through the first guide groove, a second transmission belt passing through the second guide groove and a material conveying driving assembly for driving the first transmission belt or the second transmission belt to run; therefore, the jig is automatically moved to the detection station corresponding to the identification device between the first side rail and the second side rail.

In one embodiment, the material loading device further comprises a power-on mechanism connected with the material guiding mechanism; the electrifying mechanism comprises a base plate connected with the material guide mechanism, a supporting plate connected with the base plate, a downward moving driver connected with the supporting plate and a probe fixing plate connected with the downward moving driver; the downward moving driver drives the probe fixing plate to move away from or close to the bottom plate; therefore, the electrifying process of the LED lamp strip can be automatically completed.

In one embodiment, the second side rail is slidably connected to the floor; the material guide mechanism further comprises a distance adjusting assembly for adjusting the distance between the second side rail and the first side rail; the base plate is connected with the first side rail or the second side rail in a sliding mode along the extending direction of the first side rail; thereby adapt to the tool of different specifications, improve the commonality of carrying the material device.

In one embodiment, the loading device further comprises a first lifting positioning mechanism arranged on the lower side of the electrifying mechanism; the first lifting positioning mechanism is provided with a first baffle capable of lifting and moving; thereby, the jig can be accurately stopped at the position corresponding to the probe fixing plate.

In one embodiment, the loading device further comprises a fixing mechanism connected with the material guiding mechanism; the fixing mechanism comprises a side pressure assembly arranged on the second side rail and a supporting assembly arranged on the bottom plate; the lateral pressure assembly comprises a lateral pressing block which is arranged in the second guide groove in a penetrating mode and a lateral movement driver which is used for driving the lateral pressing block to move relative to the second lateral rail; the support assembly comprises a support plate arranged between the first side rail and the second side rail and a lifting driver used for driving the support plate to move up and down; thereby guarantee the circular telegram stability of the LED lamp strip in the tool.

In one embodiment, the material loading device further comprises a second lifting positioning mechanism arranged close to the feeding side of the material guide mechanism; the second lifting positioning mechanism is provided with a second baffle which can move in a lifting way; thereby improving the replacement efficiency of the jig.

Drawings

Fig. 1 is a schematic perspective view of an LED light bar detection device according to an embodiment of the present invention;

fig. 2 is a schematic perspective view of the LED light bar detection device shown in fig. 1 at another angle;

FIG. 3 is a perspective view of the translation device and the identification device shown in FIG. 1;

FIG. 4 is a partial schematic view of the identification appliance of FIG. 1;

FIG. 5 is a schematic perspective view of the loading device of FIG. 1;

FIG. 6 is a perspective view of the loading device shown in FIG. 5 after the supporting plate is hidden;

FIG. 7 is an exploded view of the loading device shown in FIG. 5;

FIG. 8 is an enlarged view of the loading device shown in FIG. 7 at A;

FIG. 9 is a perspective view of the energizing mechanism of FIG. 5;

fig. 10 is a perspective view of the energizing mechanism of fig. 5 at another angle.

The corresponding relation between each reference number and each meaning in the drawings is as follows:

100. LED light bar detection equipment; 20. a loading device; 21. a material guiding mechanism; 211. a base plate; 212. a first side rail; 212a, a first guide groove; 213. a second side rail; 213a, a second guide groove; 214. a scanner; 215. a distance adjusting component; 22. a belt drive mechanism; 221. a first drive belt; 222. a second drive belt; 223. a material conveying driving component; 23. a power-on mechanism; 231. a substrate; 232. a support plate; 233. a down-shift driver; 234. a probe fixing plate; 235. a horizontal fine adjustment module; 236. a first outer slide rail; 237. a second outer slide rail; 238. a transfer block; 24. a first elevation positioning mechanism; 241. a first baffle plate; 25. a fixing mechanism; 251. a lateral pressure component; 253. side pressing blocks; 254. a side-shifting drive; 252. a support assembly; 255. a support plate; 256. a lift drive; 26. a second lifting positioning mechanism; 261. a second baffle; 30. a translation device; 31. a Y-axis moving mechanism; 311. a first Y-axis driving module; 312. a first sliding table; 313. a second Y-axis driving module; 314. a second sliding table; 32. an X-axis moving mechanism; 321. a cross beam; 322. a first X-axis driving module; 323. a second X-axis driving module; 33. a pillar; 40. an identification device; 41. a Z-axis moving mechanism; 411. a first Z-axis driving module; 414. a third sliding table; 412. a second Z-axis driving module; 415. a fourth slide table; 413. a Y-axis fine adjustment module; 416. adjusting the screw rod; 417. a fifth slipway; 42. an image detection mechanism; 421. a first camera assembly; 423. a side frame; 424. a first camera; 425. a distance sensor; 426. a shading sheet; 422. and a second camera assembly.

Detailed Description

In order to facilitate understanding of the present invention, the present invention will be described more fully below. The invention may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete.

Unless defined otherwise, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention belongs. The terminology used in the description of the invention herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention.

Please refer to fig. 1 to 10, which are illustrations of an embodiment of the present invention of an LED light bar detection apparatus 100 for detecting the light emitting performance of each LED light bead on the LED light bar. The LED light bar detection equipment 100 comprises a loading device 20 for loading an LED light bar, a translation device 30 arranged on one side of the loading device 20, and an identification device 40 arranged on the translation device 30; the translation device 30 comprises a Y-axis moving mechanism 31 connected with the loading device 20 and an X-axis moving mechanism 32 arranged on the Y-axis moving mechanism 31; the Y-axis moving mechanism 31 is used for driving the X-axis moving mechanism 32 to move along the Y axis; the X-axis moving mechanism 32 is used for driving the recognition device 40 to move along the X axis; the recognition device 40 includes a Z-axis movement mechanism 41 connected to the X-axis movement mechanism 32, and an image detection mechanism 42 connected to the Z-axis movement mechanism 41; the image detection mechanism 42 is used for acquiring image information of the LED light bar.

The translation device 30 drives the Z-axis moving mechanism 41 and the image detection mechanism 42 to move along the extending direction of the LED light bar, and the Z-axis moving mechanism 41 enables the image detection mechanism 42 to be accurately focused with the LED light bar on the material carrying device 20, so that the image detection mechanism 42 can acquire the light-emitting image information of each LED light bead on the LED light bar, and can conveniently and automatically confirm that each LED light bead on the LED light bar normally emits light.

Specifically, the Y-axis direction and the X-axis direction are respectively disposed parallel to the plane of the loading device 20. In order to improve the detection efficiency of the light emitting performance of the LED light bars, in the detection process, the LED light bars are laid in the jig in parallel, the jig is placed in the material carrying device 20, the extending direction of the LED light bars in the jig is parallel to the X-axis direction, and the extending direction of the LED light bars in the jig is perpendicular to the Y-axis direction, so that the LED light bars can be sequentially detected.

Referring to fig. 6 and 7, the loading device 20 includes a material guiding mechanism 21 and a belt transmission mechanism 22 installed on the material guiding mechanism 21; the material guiding mechanism 21 comprises a bottom plate 211, a first side rail 212 mounted on the bottom plate 211, and a second side rail 213 arranged in parallel with the first side rail 212; the inner side of the first side rail 212 is provided with a first guide groove 212a opening toward the second side rail 213; the inner side of the second side rail 213 is provided with a second guide groove 213a opening toward the first side rail 212; the belt driving mechanism 22 includes a first driving belt 221 passing through the first guide groove 212a, a second driving belt 222 passing through the second guide groove 213a, and a feeding driving assembly 223 for driving the first driving belt 221 or the second driving belt 222 to run.

Specifically, after the feeding sensor detects that the edge of the LED light bar fixture enters the first guide groove 212a or the second guide groove 213a from the port, the edge of the fixture is respectively supported on the first transmission belt 221 or the second transmission belt 222, and the fixture is automatically moved to the detection station corresponding to the recognition device 40 between the first side rail 212 and the second side rail 213 by the operation of the first transmission belt 221 and the second transmission belt 222, and the distance between the first side rail 212 and the second side rail 213 is reasonably adjusted, so that the LED light bar is ensured to be parallel to the X-axis direction in the moving process. Furthermore, a scanner 214 is installed at one end of the first side rail 212 corresponding to the feed inlet to scan the two-dimensional code on the jig, so that the processing flow of the LED light bar can be conveniently followed; specifically, in order to realize the relative fixation between the translation device 30 and the loading device 20, the translation device 30 further includes a plurality of pillars 33, and the first Y-axis driving module 311 or the second Y-axis driving module 313 is connected to the bottom plate 211 through the pillars 33.

Please refer to fig. 6, 9 and 10, in which the loading device 20 further includes a power-on mechanism 23 connected to the material guiding mechanism 21; the electrifying mechanism 23 comprises a base plate 231 connected with the material guiding mechanism 21, a supporting plate 232 connected with the base plate 231, a downward moving driver 233 connected with the supporting plate 232, and a probe fixing plate 234 connected with the downward moving driver 233; the downward movement driver 233 moves the probe fixing plate 234 away from or close to the base plate 211.

Specifically, after the jig in the material guiding mechanism 21 moves to the detection station, the downward moving driver 233 drives the probe fixing plate 234 to move close to the bottom plate 211, so that the multiple groups of the energizing probes on the probe fixing plate 234 are respectively contacted with the electrical contacts or the gold fingers of the LED light bars, and the LED light bars are energized to emit light. Meanwhile, whether the electrical performance of the LED lamp strip has faults or not can be confirmed by detecting the voltage and the current of the electrified probe; after the detection of the LED light bar is completed, the downward moving driver 233 drives the probe fixing plate 234 to move away from the bottom plate 211, so that the jig can conveniently leave a detection station. Furthermore, the power-on mechanism 23 further includes a horizontal fine adjustment module 235 connected between the substrate 231 and the supporting plate 232, so that the position between the supporting plate 232 and the material guiding mechanism 21 can be adjusted, and the power-on probes can accurately correspond to the electrical contacts of the LED light bar; preferably, the down driver 233 is a cylinder.

Referring to fig. 7, the second side rail 213 is slidably connected to the bottom plate 211; the material guiding mechanism 21 further comprises a distance adjusting assembly 215 for adjusting the distance between the second side rail 213 and the first side rail 212; along the extending direction of the first side rail 212, the base plate 231 is slidably connected with the first side rail 212 or the second side rail 213 respectively; specifically, the energizing mechanism 23 further includes a first outer slide rail 236 connected to the outer side of the first side rail 212, a second outer slide rail 237 connected to the outer side of the second side rail 213, and a transfer block 238 mounted on the second outer slide rail 237; the base plate 231 is slidably connected to the first side rail 212 through the first outer slide rail 236; the transfer block 238 is slidably connected to the second side rail 213 via a second outer slide rail 237; in the Y-axis direction, the substrate 231 is slidably connected to the adapter block 238; the distance between the second side rail 213 and the first side rail 212 is adjusted, and the position of the probe fixing plate 234 relative to the detection station is adjusted by sliding, so that the device is suitable for jigs with different specifications, and the universality of the loading device 20 is improved. Specifically, the distance adjustment assembly 215 adjusts the position of the second side rail 213 relative to the first side rail 212 through screw transmission; when the probe fixing plate 234 is adjusted to a proper position, the base plate 231 and the material guiding mechanism 21 are relatively kept fixed by the locking member.

The loading device 20 further comprises a first lifting positioning mechanism 24 arranged on the lower side of the electrifying mechanism 23; the first lifting and positioning mechanism 24 is provided with a first baffle 241 capable of lifting and moving. Specifically, in the process that the belt transmission mechanism 22 drives the jig to move to the detection station on the material guide mechanism 21, the first baffle 241 in the first lifting and positioning mechanism 24 is lifted, so that the jig is accurately stopped at the position corresponding to the probe fixing plate 234, and accurate correspondence between the energizing probe and the electrical contact of the LED light bar is facilitated.

Referring to fig. 6 to 8, the loading device 20 further includes a fixing mechanism 25 connected to the material guiding mechanism 21; the fixing mechanism 25 includes a side pressing member 251 mounted on the second side rail 213, and a supporting member 252 mounted on the bottom plate 211; the side pressure assembly 251 comprises a side pressing block 253 arranged in the second guide groove 213a in a penetrating mode, and a side displacement driver 254 used for driving the side pressing block 253 to move relative to the second side rail 213; the support assembly 252 includes a support plate 255 disposed between the first side rail 212 and the second side rail 213, and a lifting driver 256 for driving the support plate 255 to move up and down.

After the jig is transferred to the detection station between the first side rail 212 and the second side rail 213 by the belt transmission mechanism 22, the side shift driver 254 drives the side pressing block 253 to move in a direction close to the first side rail 212, and the side pressing block 253 pushes the edge of the jig in the second guide groove 213a, so that the first side rail 212 can be fixed on the bottom plate 211, the position of the jig on the material guide mechanism 21 can be fixed, and poor electrical contact of the LED light bar caused by movement of the jig in the power-on detection process can be avoided. After the jig reaches the detection station, the flexible supporting plate 255 of the lifting driver 256 is attached to the bottom surface of the jig, so that poor electrical contact of the LED lamp strip caused by concave deformation of the jig when the probe fixing plate 234 is pressed down is avoided; preferably, side-to-side actuator 254 and lift actuator 256 are pneumatic cylinders or linear motion modules.

Referring to fig. 6 and 7, the loading device 20 further includes a second lifting and positioning mechanism 26 disposed near the feeding side of the material guiding mechanism 21; the second lifting positioning mechanism 26 is provided with a second baffle 261 which can move up and down; after the fixture is fixed by the fixing mechanism 25, the supporting plate 255 simultaneously lifts the fixture to a small extent, so that the friction between the first driving belt 221 or the second driving belt 222 and the fixture is reduced, the first driving belt 221 or the second driving belt 222 can keep free running, and the next fixture is continuously received, and the second baffle 261 is lifted to stop the next fixture at a proper position. After the detection of the jig in the detection station is completed and the fixing mechanism 25 is released, the front and rear jigs move synchronously, so that the jig after the detection can be taken out from the material guiding mechanism 21 while the next jig enters the detection station.

Referring to fig. 2 and 3, the Y-axis moving mechanism 31 includes a first Y-axis driving module 311 having a first sliding table 312, and a second Y-axis driving module 313 having a second sliding table 314; the X-axis moving mechanism 32 comprises a beam 321 arranged on the Y-axis moving mechanism 31, a first X-axis driving module 322 arranged on one side of the beam 321, and a second X-axis driving module 323 arranged on the other side of the beam 321; both ends of the cross beam 321 are mounted on the first slide table 312 and the second slide table 314, respectively.

The Z-axis moving mechanism 41 includes a first Z-axis driving module 411 connected to the first X-axis driving module 322, and a second Z-axis driving module 412 connected to the second X-axis driving module 323; a third sliding table 414 is arranged on the first Z-axis driving module 411; a fourth sliding table 415 is arranged on the second Z-axis driving module 412; the image detection mechanism 42 comprises a first camera module 421 connected with the third sliding table 414 and a second camera module 422 connected with the fourth sliding table 415; the first camera 421 and the second camera 422 face the loading device 20 respectively.

Specifically, the first Y-axis driving module 311 and the second Y-axis driving module 313 drive the cross beam 321 to move along the Y-axis through the first sliding table 312 and the second sliding table 314, respectively, so that the recognition device 40 detects different LED light bars in the fixture. Because the first camera module 421 is controlled by the first X-axis driving module 322 in the X-axis movement, the second camera module 422 is controlled by the second X-axis driving module 323 in the X-axis movement, when the LED light bar detected by the first camera module 421 and the LED light bar detected by the second camera module 422 have different specifications or are not strictly aligned, through the asynchronous operation between the first X-axis driving module 322 and the second X-axis driving module 323, the first camera module 421 and the second camera module 422 can adapt to the specification difference or the placement difference of the LED light bars, and it is ensured that the first camera module 421 or the second camera module 422 can accurately correspond to the light beads on the LED light bars. In other embodiments, the number of the X-axis driving module, the Z-axis driving module and the camera module can be increased, the connection relationship between the X-axis driving module and the beam 321 can be adjusted, and the number of the LED light bars detected simultaneously can be further increased.

Referring to fig. 4, the Z-axis moving mechanism 41 further includes a Y-axis fine adjustment module 413 connected to the third sliding table 414; the Y-axis fine adjustment module 413 comprises an adjusting screw 416 rotatably mounted on one side of the third sliding table 414 and a fifth sliding table 417 slidably connected with the third sliding table 414; the adjusting screw 416 is arranged in parallel with the moving direction of the first Y-axis driving module 311; the fifth sliding table 417 is in threaded fit with the adjusting screw 416; the first camera module 421 is mounted on the fifth slide table 417.

Because the LED light bars with different width specifications may be discharged from the jig, the gap between the two LED light bars detected by the first camera module 421 and the second camera module 422 may be different, and the fifth sliding table 417 drives the first camera module 421 to move away from or close to the second camera module 422 in the Y-axis direction by rotating the adjusting screw 416; the distance between the first camera module 421 and the second camera module 422 corresponds to the gap between the two detected LED light bars, so that the image detection mechanism 42 can be applied to the detection of the LED light bars with different specifications.

The first imaging unit 421 includes a side frame 423 connected to the Z-axis moving mechanism 41, a first camera 424 mounted on the side frame 423, and a distance sensor 425 connected to the side frame 423; the sensing port of the distance sensor 425 faces the loading device 20; optionally, the side frame 423 may be connected to the fifth sliding table 417 or directly connected to the third sliding table 414; after the jig enters the detection station, an initial distance between the LED light bar and the first camera 424 is automatically measured through the distance sensor 425, and the first Z-axis driving module 411 enables the first camera 424 to ascend or descend by a preset height according to a measurement result of the distance sensor 425, so that the first camera 424 and the LED light bar are focused accurately; alternatively, the distance sensor 425 measures distance using infrared rays. Further, the first camera assembly 421 further includes a light shielding sheet 426 connected to the side frame 423, and the detection port of the first camera 424 faces the light shielding sheet 426, so that the light obtained by the first camera 424 is more uniform, the image effect is improved, and the detection accuracy is ensured; further, the image analysis device may be used to process image information obtained by the first camera module 421 or the second camera module 422, and automatically analyze whether each LED lamp bead on the LED lamp strip is normally lit or whether the generated light color brightness is normal; optionally, the image analysis device is a computer or a workstation with a corresponding program installed.

In this embodiment, the translation device drives the Z-axis moving mechanism and the image detection mechanism to move along the extending direction of the LED light bar, and the Z-axis moving mechanism enables the image detection mechanism to accurately focus the LED light bar on the material carrying device, so that the image detection mechanism can acquire the light-emitting image information of each LED light bead on the LED light bar, and it is convenient to automatically confirm that each LED light bead on the LED light bar normally emits light.

The technical features of the embodiments described above may be arbitrarily combined, and for the sake of brevity, all possible combinations of the technical features in the embodiments described above are not described, but should be considered as being within the scope of the present specification as long as there is no contradiction between the combinations of the technical features.

The above-mentioned embodiments only represent some embodiments of the present invention, and the description thereof is specific and detailed, but not to be construed as limiting the scope of the present invention. It should be noted that, for those skilled in the art, without departing from the spirit of the present invention, several variations and modifications can be made, which are within the scope of the present invention. Therefore, the protection scope of the present invention should be subject to the appended claims.

Claims

1. The utility model provides a LED lamp strip check out test set which characterized in that includes: the device comprises a loading device, a translation device arranged on one side of the loading device and an identification device arranged on the translation device; the translation device comprises a Y-axis moving mechanism connected with the loading device and an X-axis moving mechanism arranged on the Y-axis moving mechanism; the Y-axis moving mechanism is used for driving the X-axis moving mechanism to move along a Y axis; the X-axis moving mechanism is used for driving the recognition device to move along an X axis; the recognition device comprises a Z-axis moving mechanism connected with the X-axis moving mechanism and an image detection mechanism connected with the Z-axis moving mechanism; the image detection mechanism is used for acquiring image information of the LED lamp strip.

2. The LED lamp strip detection device according to claim 1, wherein the Y-axis moving mechanism comprises a first Y-axis driving module provided with a first sliding table and a second Y-axis driving module provided with a second sliding table; the X-axis moving mechanism comprises a cross beam arranged on the Y-axis moving mechanism, a first X-axis driving module arranged on one side of the cross beam and a second X-axis driving module arranged on the other side of the cross beam; two ends of the cross beam are respectively arranged on the first sliding table and the second sliding table; the Z-axis moving mechanism comprises a first Z-axis driving module connected with the first X-axis driving module and a second Z-axis driving module connected with the second X-axis driving module; a third sliding table is arranged on the first Z-axis driving module; a fourth sliding table is arranged on the second Z-axis driving module; the image detection mechanism comprises a first camera assembly connected with the third sliding table and a second camera assembly connected with the fourth sliding table; the first camera shooting assembly and the second camera shooting assembly face the loading device respectively.

3. The LED light bar detection device of claim 2, wherein the Z-axis moving mechanism further comprises a Y-axis fine adjustment module connected with the third sliding table; the Y-axis fine adjustment module comprises an adjusting screw rod rotatably installed on one side of the third sliding table and a fifth sliding table in sliding connection with the third sliding table; the adjusting screw rod is arranged in parallel with the movement direction of the first Y-axis driving module; the fifth sliding table is in threaded connection with the adjusting screw; the first camera shooting assembly is installed on the fifth sliding table.

4. The LED light bar detection device of claim 2, wherein the first camera assembly comprises a side frame connected to the Z-axis movement mechanism, a first camera mounted in the side frame, and a distance sensor connected to the side frame; and the induction port of the distance sensor faces the material loading device.

5. The LED light bar detection device of claim 1, wherein the material loading device comprises a material guiding mechanism and a belt transmission mechanism installed on the material guiding mechanism; the material guide mechanism comprises a bottom plate, a first side rail arranged on the bottom plate and a second side rail arranged in parallel with the first side rail; a first guide groove with an opening facing the second side rail is formed in the inner side of the first side rail; a second guide groove with an opening facing the first side rail is formed in the inner side of the second side rail; the belt transmission mechanism comprises a first transmission belt passing through the first guide groove, a second transmission belt passing through the second guide groove and a material conveying driving assembly used for driving the first transmission belt or the second transmission belt to run.

6. The LED light bar detection device of claim 5, wherein the loading device further comprises a power-on mechanism connected to the material guiding mechanism; the electrifying mechanism comprises a base plate connected with the material guide mechanism, a supporting plate connected with the base plate, a downward moving driver connected with the supporting plate and a probe fixing plate connected with the downward moving driver; the downward moving driver drives the probe fixing plate to move away from or close to the bottom plate.

7. The LED light bar detection apparatus of claim 6, wherein the second side rail is slidably connected to the base plate; the material guide mechanism further comprises a distance adjusting assembly for adjusting the distance between the second side rail and the first side rail; along the extending direction of the first side rail, the base plate is connected with the first side rail or the second side rail in a sliding mode.

8. The LED light bar detection device of claim 6, wherein the loading device further comprises a first lifting and positioning mechanism disposed on the lower side of the energizing mechanism; the first lifting positioning mechanism is provided with a first baffle capable of lifting and moving.

9. The LED light bar detection device of claim 6, wherein the loading device further comprises a fixing mechanism connected with the material guiding mechanism; the fixing mechanism comprises a side pressure assembly arranged on the second side rail and a supporting assembly arranged on the bottom plate; the lateral pressure assembly comprises a lateral pressing block which is arranged in the second guide groove in a penetrating mode and a lateral movement driver which is used for driving the lateral pressing block to move relative to the second lateral rail; the supporting assembly comprises a supporting plate arranged between the first side rail and the second side rail and a lifting driver used for driving the supporting plate to move up and down.

10. The LED light bar detection device of claim 9, wherein the material loading device further comprises a second lifting and positioning mechanism disposed near a feeding side of the material guiding mechanism; and the second lifting positioning mechanism is provided with a second baffle capable of lifting and moving.