TW201411765A - Electronic components transfer unit and the applied test equipment thereof - Google Patents

Abstract

An electronic components transfer unit is disclosed. A first and second transposing mechanisms, and a pickup mechanism are provided on the frame. The first transposing mechanism is provided with a first power structure for driving at least a first bearing member to perform a first directional movement. The second transposing mechanism is provided with a second power structure for driving at least a second bearing member to perform a second directional movement. The driving source is configured at the machine rack of the pickup mechanism for connecting to at least two rows of transporting structure respectively. Each row of transporting structure is provided with a third directional actuator driven by driving source for performing a third directional movement. The third directional actuator is connected to retrieval machine. A linking-up machine is provided between the retrieval machine and the first bearing member so that the retrieval machine is driven by the first bearing member for adjusting the first directional distance. An adapter is provided between the third directional actuator of at least one row of transporting structure and the retrieval machine. The adapter is provided to perform a second directional displacement by the retrieval machine. The linking-up machine of the row of transporting structure is connected to the second bearing member so that the row of retrieval machine is driven by the second bearing member for adjusting the second directional distance; accordingly, the first and second retrieval machine can be positioned accurately along with distance adjustments in different directions for achieving practical effect of promoting component transporting usability.

Description

Electronic component moving unit and test equipment for its application

The invention provides a moving material unit capable of accurately positioning the pick-and-place electronic device and adjusting the spacing in different directions to improve the use efficiency of the material.

Nowadays, the transfer unit picks up and places electronic components on different types of containers (such as trays) with a plurality of rows of pick-and-place pickers. Since the spacing of the receiving slots of the containers is different, the pick-and-place units of the moving unit must Adjust the spacing and precise positioning in the first and second directions (such as X and Y directions) to facilitate the operation of pick-and-place electronic components; please refer to Figures 1 and 2, which are conventional transfer units, including transposition mechanism and plural The first and second pick-and-place devices are arranged, wherein the indexing mechanism is fixed to the left frame 11 to fix a plurality of first motors 12, and each of the first motors 12 is arranged in a third direction (such as the Z direction). The pulley set 13 is coupled to a first drive plate 14 having a first direction sliding slot 141. The first direction sliding slot 141 of each first drive plate 14 is slidable by the roller 151 of the first pick-and-placer 15 and the right side frame A plurality of second motors 17 are fixed on the second motor 17, and each of the second motors 17 is coupled to a second drive plate 19 having a first direction sliding slot 191 by a second pulley set 18 disposed in a third direction. The first direction chute 191 of 19 is slidable by the roller 201 of the second pick-and-placer 20, and is also on one side of the left frame 11 There is a third motor 21 for driving the third pulley set 22 disposed in the first direction, and the third pulley set 22 is coupled to the plurality of first sliding plates 23 arranged in the first direction, and the first sliding plate 23 side is The first sliding frame 231 and the left sliding rail 111 are matched with each other, and the other side of the first sliding plate 23 is connected with the second sliding plate 25 by the linking member 24, and the second sliding plate 25 and the right side The frame 16 is provided with a second sliding seat 251 and a right sliding rail 161. When the first direction spacing of the first and second pickers 15 and 20 is adjusted, the third motor 21 can be controlled to pass through the third pulley set. The first sliding plate 23 is displaced by the first sliding plate 23 along the left sliding rail 111, and the second sliding plate 25 is synchronously displaced by the linking member 24, and the second sliding plate is driven. 25, the second sliding seat 251 is displaced along the right sliding rail 161, so that the first and second pick-and-placers 15, 20 can be displaced in the first direction. Adjusting the spacing, when picking and placing electronic components, the first and second motors 12, 17 respectively drive the first and second transmission plates 14, 19 for the third direction displacement by the first and second pulley sets 13, 18, respectively, the first and second The driving plates 14 and 19 respectively drive the first and second pickers 15 and 20 to be displaced in the third direction via the first direction sliding grooves 141 and 191 and the rollers 151 and 201 to take and receive electronic components; however, the transposition mechanism does not have The first and second pick-and-placers 15 and 20 are designed to adjust the spacing of the second direction, so that the first and second pick-and-placers 15 and 20 can only adjust the spacing in the first direction, resulting in picking and loading efficiency. The lack of restrictions.

Furthermore, please refer to Figures 3 and 4, which are the patent application No. 101111392 of Taiwan, the picking unit 30 comprising a first indexing mechanism 31, a second indexing mechanism 32 and a plurality of column moving modules 33, 34, The first transposition mechanism 31 is provided with at least one first transmission member 312 driven by the first power source 311. The two ends of the first transmission member 312 respectively drive a first actuator 313 to operate, and the first transmission 313 is driven by the first transmission 313. The first mounting member 314 is disposed with at least one first direction displacement, and the second transposition mechanism 32 is provided with at least one second transmission member 322 driven by the second power source 321 . A second actuator 323 is actuated, and the second actuator 323 is equipped with at least one second mounting member 324 that is displaced in the second direction, and the second mounting member 324 is interleaved with the first mounting member 314. The plurality of column moving modules 33 and 34 are respectively provided with receiving plates 331 and 341 capable of receiving motors 332 and 342, and each of the motors 332 and 342 drives the pick and place device via the pulley sets 333 and 343 and the interlocking rods 334 and 344. 335, 345 for the third direction displacement, for picking and placing electronic components, each moving module 33, 34 assembly a first mounting member 314 of the first indexing mechanism 31, and a first sliding member 346 and a second sliding member 347 are disposed on the bearing plate 341, and the first sliding member 346 is slidably disposed on the first mounting member 314, the second sliding member 347 is slidably disposed on the second mounting member 324, and is further driven by the first mounting member 314 of the first indexing mechanism 31 to adjust the first direction spacing of each of the column moving modules 33, 34. The second mounting member 324 of the second indexing mechanism 32 drives the second direction spacing between the adjustment and transport module 34 and the adjustment and transport module 33. However, the picking unit 30 can move the column moving modules 33. , 34 pick and place 335, 3 45 is displaced in the first, second and third directions. However, since the motors 332, 342 and the pulley sets 333, 343 and the like are respectively mounted on the bearing plates 331, 341 of the respective transfer modules 33, 34, the respective moving modules 33, The large volume and heavy weight of the 34, when the first and second mounting members 314, 324 drive the moving modules 33, 34 to be quickly displaced, a large inertial force is generated, so that the moving modules 33, 34 cannot be accurately Positioning, which in turn affects the accuracy and efficiency of the pick-and-place operation. Furthermore, due to the large size and heavy weight of the moving modules 33, 34, the first and second reversing mechanisms 31, 32 must be applied with a larger horsepower. The first and second power sources 311 and 321 can drive the first and second mounting members 314 and 324 to drive the displacement modules 33 and 34 to be displaced, resulting in high equipment cost and lack of motor configuration space requirements.

An object of the present invention is to provide an electronic component moving unit, which is provided with a first and second indexing mechanism and a picking mechanism on a frame, and the first and second transposition mechanisms are respectively provided as the first and second The first and second mounting members of the directional displacement are provided with a driving source on the frame to respectively connect at least two columns of transmission structures, and each of the series of transmission structures is provided with a third driving displacement driven by a driving source. a three-way actuator, a third-direction actuator coupled to the pick-and-placer, and a linkage between the pick-and-placer and the first mounting member, wherein the pick-and-placer is driven by the first mounting member to adjust the first direction spacing, An adapter is disposed between the actuator of the third direction of the at least one transmission structure and the pick-and-placer, the adapter is adapted to be displaced by the pick-and-placer in a second direction, and the linkage of the transmission structure is coupled to the second mounting member. The row of pickers is driven by the second mounting member to adjust the second direction spacing; thereby, the driving source of the picking mechanism is mounted on the frame, thereby not only reducing the weight of the first mounting load, but also reducing the pick and place The inertial force generated in the high-speed displacement stroke enables pick-and-place Fast and accurate positioning electronic components as, to enhance the utility efficiency of the use of performance-shift material.

A second object of the present invention is to provide an electronic component moving unit, wherein a driving source of the picking mechanism is mounted on a frame, and the pick and place device is displaced in a third direction via at least two rows of transmission structures, respectively. The column transmission structure is connected to the first and second mounting members of the first and second transposition mechanisms, and the first and second mounting members drive the pick and place device as the first The first and second directions are displaced; thereby, the picking mechanism not only enables each pick and place device to accurately position and take the electronic components, but also adjusts the position in different directions according to the need of the material moving operation, thereby achieving the practical benefit of improving the use efficiency of the material.

The third object of the present invention is to provide an electronic component moving unit, wherein the driving source of the picking mechanism is mounted on the frame to reduce the bearing load of the first and second mounting members, so that the first and second transpositions are performed. The mechanism does not need to use the horsepower motor to drive the first and second mounting members to drive the displacement of the pick and place device, thereby reducing the equipment cost and achieving the practical benefit of cost saving.

A fourth object of the present invention is to provide an electronic component moving unit, wherein the driving source of the picking mechanism is mounted on the outer side of the rack, which not only reduces the volume, but also facilitates the use of the internal space of the rack and is easy to repair. Improve the practical benefits of the use of transfer materials.

A fifth object of the present invention is to provide a test device for applying an electronic component moving unit, comprising a machine table, a feeding device, a receiving device, a testing device, a conveying device and a central control device, wherein the feeding device is arranged on the machine table. The receiving device is disposed on the machine for accommodating at least one electronic component to be tested, and the testing device is disposed on the machine and is provided with at least one test seat. a test circuit board for testing electronic components, the conveying device is disposed on the machine table, and is provided with at least one moving unit for picking up and transferring electronic components, and the central control device is for controlling and integrating the operations of the devices, Perform automated operations to achieve practical benefits in improving test productivity.

In order to make the reviewer further understand the present invention, a preferred embodiment is shown in conjunction with the drawings, as described in detail below: Please refer to Figures 5, 6, 7, and 8, and the transfer unit 40 of the present invention includes a machine. The frame 41, the first indexing mechanism 42, the second indexing mechanism 43, the pick-up mechanism 44, and the plurality of first and second pick-and-placers 451, 452, the frame 41 can be fixed or driven by a carrier mechanism In the present embodiment, the frame 41 is mounted on a carrier mechanism 46, and the carrier mechanism 46 drives the frame 41 to be displaced by a large stroke; the first indexing mechanism 42 is mounted on the frame. 4 And a first power structure is configured to drive the at least one first mounting member to be displaced in a first direction. In this embodiment, the first power structure is provided with a first power source that is the first power motor 421. And driving the at least one first transmission with the first power motor 421. Further, the first transmission is provided with a first pulley set 422 that is coupled to the first power motor 421, and the first pulley set 422 is configured to be in a second direction. The first transmission member 423 is configured to drive at least one end of a pulley set that is coupled to the first mounting member and disposed in a first direction. In this embodiment, the first transmission member 423 is attached to the two ends of the first transmission member 423. The second pulley set 424 and the third pulley set 425 are respectively coupled to drive, and the first plurality of first mounting members 426 disposed in the second direction are coupled between the second pulley set 424 and the third pulley set 425 for first direction displacement. Each of the first mounting members 426 can be a sliding rail or a guiding rod. In this embodiment, each of the first mounting members 426 is a sliding rail, and a first mounting member 426 is fixed to the frame 41. As a reference member for adjusting the first direction spacing; the second transposition mechanism 4 The 3 series is mounted on the frame 41 and is provided with a second power structure for driving the at least one second mounting member to be displaced in the second direction, and the second mounting member is staggered with the first mounting member 426. And in the embodiment, the second power structure is provided with a second power source that is the second power motor 431, and the second power motor 431 drives the at least one second actuator. Further, The second transmission is provided with a fourth pulley set 432 coupled to the second power motor 431. The fourth pulley set 432 drives a second transmission member 433 disposed in a first direction, and the second transmission member 433 is coupled to the at least one end to drive a connection. The pulley set of the second frame and disposed in the second direction is coupled to the fifth pulley set 434 and the sixth pulley set 435 at the two ends of the second transmission member 433, respectively, in the fifth embodiment. The second bearing member 436 disposed in the first direction is coupled to the second mounting member 436 for the second direction, and the second mounting member 436 is the sliding rail. The picking mechanism 44 is disposed on the frame 41. a drive source to connect at least two columns of assembly pickers In the embodiment, the first and second panels 411 and 412 of the frame 41 are respectively equipped with a plurality of first driving sources of the first column and a plurality of second driving sources of the second column, respectively. Each of the first driving sources of the column is provided with a first motor 441A for driving the first driving group 442A, and the first driving group 442A is a pulley set, and each second drive source of the second row is also provided with a second motor 441B for driving the second drive group 442B, and the second drive group 442B is a pulley set, and each of the first and second drive groups 442A, 442B Connecting each of the first transmission structure of the first column and each of the second transmission structures of the second column, and at least one of the transmission structures is provided with a third direction actuator driven by the driving source for the third direction displacement, The three-way actuator is coupled to the pick-and-place device. In the embodiment, the third-direction actuators of the first and second transmission structures respectively include first and second transmission members 443A and 443B and first and second moving members 444A. 444B, the first and second transmission members 443A, 443B and the first and second moving members 444A, 444B are provided with a first direction guiding groove and a roller, and further, the first and second transmission members 443A, 443B are respectively The first and second driving groups 442A and 442B are respectively connected, and the first and second driving groups 442A and 442B are respectively driven to be displaced in the third direction, and the first direction guiding grooves 4431A and 4431B are opened, and the first and second moving parts 444A are respectively opened. 444B is a slide rail and is placed at the first end to be placed on the first The rollers 4441A and 4441B of the guide slots 4431A and 4431B are further provided with an adapter on the third direction actuator of the at least one column of the transmission structure, and the adapter is further connected to the pick and place device to drive the pick and place device to be displaced in the third direction. And the first direction of the first moving member 444A of the first transmission structure is equipped with the first pick-and-place 451 of the first row, so that the first take-up is performed. The 451 is displaced in the third direction, and the other end of each of the second moving members 444B of the second transmission structure is provided with an adapter that connects the second pick-and-place 452 of the second row, and the adapter includes the second guide. The second movable member 445 is coupled to the second moving member 444B and has a second direction guiding groove 4451. The second movable member is a roller mounted on the second pick-and-placer 452. 4521, the roller 4521 is slidably disposed in the second direction guiding groove 4451 of the second guiding member 445, and the connecting device of each transmission structure and the first mounting member 426 are respectively provided with a linkage for each pick-and-place The device is driven by the first mounting member 426 to adjust the first direction spacing, and at least one of the other transmission structures is coupled by a linkage The second mounting member 436 is configured to drive the picker attached to the connector to be driven by the second mounting member 436 to adjust the second direction spacing; in this embodiment, each of the first transmissions A first connector 446 is disposed between the first pick-and-place 451 of the structure and the first mounting member 426, and the first connecting member 446 is provided with a sliding seat 4461 for sliding the first moving member 444A, and the second transmission structure A second connector 447 is disposed between the second pick-and-placer 452 and the first mounting member 426, and the second connector 447 is provided with a second direction sliding member 4471 that is slidably disposed on the first mounting member 426. And a first direction sliding member 4472 slidingly disposed on the second mounting member 436, and a third direction interlocking group between the second connecting member 447 and the second pick-and-placer 452, and the third direction interlocking group A third direction sliding rail and a sliding seat are disposed between the second coupling 447 and the second pick-and-place 452, so that the second connecting body 447 drives the second pick-and-placer 452 to move through the third direction interlocking group. And the second pick-and-placer 452 is displaced in the third direction. Further, the second pick-and-placer 452 is provided with the third direction slide rails 4522, and the second linker 447 is provided with the slideable third direction. The sliding seat 4472 of the sliding rail 4522, in addition, the picking mechanism 44 is provided with at least one auxiliary sliding structure for assisting the displacement of the pick and place device, and further, is attached to the machine A first auxiliary sliding structure is disposed between the first panel 411 and each of the first transmission structures 41, and a second auxiliary sliding structure is disposed between the second panel 412 of the frame 41 and each of the second transmission structures. In the embodiment, the first auxiliary sliding structure is disposed between the first panel 411 of the frame 41 and the first transmission member 443A, and the third direction auxiliary sliding rail 4111 and the auxiliary sliding seat 4432A are matched to assist the first taking. The first directional auxiliary rail 4112 and the auxiliary sliding seat 4462 are disposed between the first panel 411 and the first coupling 446 to assist the first pick-and-place 451. The first auxiliary sliding structure is disposed between the second panel 412 of the frame 41 and the second transmission member 443B, and the third direction auxiliary sliding rail 4121 and the auxiliary sliding seat 4432B are matched to assist the second taking. The occupant 452 is displaced in the third direction, and the bearing block 448 is fixed on the first mounting member 426. The first directional auxiliary sliding rail 4122 and the auxiliary sliding joint are arranged between the bearing block 448 and the second panel 412. The seat 4481 is provided with an auxiliary slide 4482 for the second moving member 444B to be slid.

Please refer to Figures 9 and 10 for the first and second adjustments in the first and second columns. The first power motor 421 of the first indexing mechanism 42 drives the first transmission member 423 to rotate by the first pulley group 422, and the two ends of the first transmission member 423 are synchronously driven. The second pulley set 424 and the third pulley set 425 are actuated to cause the second and third pulley sets 424, 425 to drive the plurality of first mounting members 426 to be synchronously displaced in the first direction, due to the first linkage 446, the bearing block 448, and the first The second direction sliding member 4471 of the two-connector 447 is coupled to the first mounting member 426, and the first mounting members 426 respectively drive the first and second connecting arms 446, 447 and the bearing block 448 to be displaced in the first direction. Further, the first connecting member 446 drives the first moving member 444A to be displaced by the sliding portion 4461. The roller 4441A of the first moving member 444A slides in the first direction guiding groove 4431A of the first transmitting member 443A to make the first moving member. The 444A drives the first pick-and-placer 451 to be displaced in the first direction, and the adjustment is equidistant from the first direction between the adjacent first pick-and-placers 451. The second actuator 447 utilizes the slide 4473 and the third direction slide. The 4522 drives the second pick-and-placer 452 to be displaced, and the first direction sliding member 4472 is along the first The mounting member 436 is displaced, and the auxiliary slider 4482 of the second pick-and-placer 452 and the bearing block 448 can drive the second moving member 444B to be displaced. The roller 4441B of the second moving member 444B is guided by the first direction of the second transmitting member 443B. Sliding in the slot 4431B, the second pick-and-placer 452 is displaced in the first direction to adjust the first direction between the second pick-and-place 452 adjacent to the same row, thereby adjusting the first column and the second column. The first direction spacing of the first and second pickers 451, 452.

Referring to FIGS. 11 and 12, when adjusting the second direction spacing of the first and second pickers 451 and 452 of the first row and the second row, the second power motor 431 of the second indexing mechanism 43 is The four pulley sets 432 drive the second transmission member 433 to rotate, and the two ends of the second transmission member 433 synchronously drive the fifth pulley set 434 and the sixth pulley set 435 to move, so that the fifth and sixth pulley sets 434 and 435 drive the second mounting. The second member 447 is coupled to the second mounting member 436 by the first direction sliding member 4472, and the second mounting member 436 can drive the second connecting member 447 for the second direction. Displacement, the second actuator 447 is in the second direction of the sliding member 4471 along the first mounting The member 426 is displaced, and the second pick-and-placer 452 is displaced by the sliding seat 4473 and the third direction sliding rail 4522. The roller 4521 of the second pick-and-placer 452 is displaced along the second guiding channel 4451 of the second guiding member 445. The second pick-and-place 452 of the second row is displaced in the second direction to adjust the second direction spacing from the first pick-and-place 451 of the first column.

Referring to FIG. 13, when the electronic component is taken out, the loading unit 40 drives the frame 41 to move over the tray 50 with the electronic components 51, 52 by the carrier mechanism 46, and the loading unit 40 picks up. The first and second motors 441A, 441B of the mechanism 44 drive the first and second driving groups 442A, 442B, respectively, and the first and second driving groups 442A, 442B respectively drive the first and second transmission members 443A, 443B to be displaced in the third direction. The first transmission member 443A drives the first moving member 444A to be displaced in the third direction by using the first direction guiding groove 4431A and the roller 4441A, and the first moving member 444A is displaced along the sliding seat 4461 of the first connecting member 446. The first movable member 451 is driven to be displaced in the third direction, and the second transmitting member 443B drives the second moving member 444B to be displaced in the third direction by using the first direction guiding groove 4431B and the roller 4441B, and the second moving member 444B is carried along the bearing. The auxiliary slider 4482 of the block 448 is displaced, and the second guiding member 445 is displaced in the third direction. The second guiding member 445 drives the second pick-and-placer 452 to perform the third direction by using the second guiding slot 4451 and the roller 4521. Directional displacement, second picker 452 and sliding in the third direction The 4522 is displaced along the sliding seat 4473 of the second coupling 447, and the first and second pickers 451, 452 of the first row and the second row are displaced in the third direction to perform the take-out of the electronic components 51, 52 on the tray 50. operation.

Please refer to FIG. 14 , which is an embodiment of the mobile unit 40. The electronic component test and classification device includes a machine 60, a feeding device 70, a receiving device 80, a testing device 90, and a conveying device 100. The air supply device 110 and the central control device are disposed on the machine 60 for accommodating at least one electronic component to be tested. In this embodiment, the feeding device 70 is provided with at least one package to be tested. a tray 71 of the electronic component; the receiving device 80 is disposed on the machine 60 for accommodating at least one completed electronic component, in this embodiment The receiving device 80 is provided with at least one tray 81 for mounting electronic components. The testing device 90 is provided with at least one test circuit board 91 with test sockets 92 for testing electronic components and testing device 90. The test result is transmitted to a central control device (not shown) by a tester (not shown), and the central control device controls the operation of each device; the transport device 100 is provided with at least one removable material for transferring and transferring electronic components. The unit and the moving unit are the same as the above-mentioned moving unit 40. In the embodiment, the conveying device 100 is provided with one of the first loading station 101 and the first discharging station 102 for one of the testing devices 90, respectively. The electronic component to be tested/completed is carried, and the second loading stage 103 and the second discharging stage 104 are disposed on the other side of the testing device 90 for respectively carrying the electronic components to be tested/tested. Further, the transport device 100 is provided with a first transfer device 105 and a second transfer device 106. The first transfer device 105 is provided with a transfer unit 40 of the same transfer unit on a robot arm 1051 (please refer to Figures 5, 6, 7, and 8) to move the electronic components to be tested of the feeding device 70 To the first and second loading stages 101, 103, the second transfer device 106 is attached to a robot arm 1061 with the same moving unit 40 of the above-mentioned moving unit (please refer to the fifth, sixth, seventh, and eighth parts). FIG. 4 shows that the electronic components of the first and second discharge platforms 102 and 104 are transferred to the receiving device 80 for sorting, and the other conveying device 100 is respectively provided with first and second sides on the two sides of the testing device 90. The pick-and-place arms 107, 108, the first pick-and-place arm 107 is connected between the first loading and unloading stage 101, 102 and the testing device 90 to transfer the electronic components to be tested/tested, and the second pick-and-place arm 108 is tied to The electronic components to be tested/finished are transferred between the second inlet and outlet stages 103, 104 and the testing device 90, and the empty device 110 is used to receive the empty tray of the feeding device 70, and the empty material is The disc is replenished to the receiving device 80 for containing the electronic components that have been tested.

Referring to FIG. 15 (please refer to FIGS. 9-13), when performing the detecting operation, the first transfer device 105 transfers the moving unit 40 to the feeding device 70 by the robot arm 1051, and the moving unit 40 The first indexing mechanism 4 is utilized by the spacing of the electronic components 51, 52 on the tray 71 of the feeding device 70. 2. The second indexing mechanism 43 and the pick-up mechanism 44 adjust the first and second direction spacings of the first and second pick-and-place units 451, 452, and make the first and second pick-and-place units 451, 452 of the pick-up mechanism 44 The third direction of the small stroke is displaced, and the electronic components 51, 52 are taken out from the tray 71 of the feeding device 70; referring to Fig. 16, after the reclaiming, the first transfer device 105 is transferred by the robot arm 1051. The first and second pick-and-place units 451 and 452 are adjusted by the first and second spacings of the respective receiving slots of the first loading stage 101. The first and second direction spacings, and the third direction displacement of the small stroke, transfer the electronic components 51, 52 to be tested into the first loading stage 101; see Figure 17, in the loading unit 40 After leaving the first loading stage 101, the first loading stage 101 carries the electronic components 51, 52 to the side of the testing device 90, and the first pick-and-place arm 107 is taken out at the first loading stage 101. The electronic components 51, 52 are measured and transferred to the test socket 92 of the test device 90 to perform a test operation, and the test device 90 transmits the test results to the central control with the tester. Referring to FIG. 18, after the testing device 90 completes the testing operation, the first discharging stage 102 is displaced to the side of the testing device 90, and the first pick-and-place arm 107 takes out the measuring electronic component at the testing device 90. 51, 52, and transferred to the first discharge stage 102, the second loading stage 103 that has carried the next electronic component to be tested is displaced to the other side of the test device 90, and the second take-up arm 108, the next electronic component to be tested is taken out at the second loading stage 103, and transferred to the testing device 90 to perform the testing operation; referring to FIG. 19, the first discharging stage 102 will complete the electronic component 51. After the 52 is transferred out of the test device 90, the second transfer device 106 drives the transfer unit 40 to the first discharge stage 102 by the robot arm 1061, and the transfer unit 40 is taken out at the first discharge stage 102. The completed electronic components 51, 52 are transferred to the tray 81 of the receiving device 80 for sorting.

[study]

11‧‧‧ left frame

111‧‧‧left rail

12‧‧‧First motor

13‧‧‧First pulley set

14‧‧‧First drive plate

141‧‧‧Y direction chute

15‧‧‧First pick and place

151‧‧‧Roller

16‧‧‧Right rack

161‧‧‧ right side rail

17‧‧‧second motor

18‧‧‧Second pulley set

19‧‧‧Second drive plate

191‧‧‧Y direction chute

20‧‧‧Second pick and place

201‧‧‧Roller

21‧‧‧ Third motor

22‧‧‧ Third pulley set

23‧‧‧First sliding plate

231‧‧‧First slide

24‧‧‧ linkages

25‧‧‧Second sliding plate

251‧‧‧Second slide

30‧‧‧ picking unit

31‧‧‧First Transposition Mechanism

311‧‧‧First power source

312‧‧‧First transmission

313‧‧‧First actuator

314‧‧‧First set

32‧‧‧Second transposition mechanism

321‧‧‧second power source

322‧‧‧second transmission parts

323‧‧‧Second actuator

324‧‧‧Second installation

33‧‧‧Transfer module

331‧‧‧ board

332‧‧‧Motor

333‧‧‧ Pulley set

334‧‧‧ linkage rod

335‧‧‧ picker

34‧‧‧Transfer module

341‧‧‧ board

342‧‧‧Motor

343‧‧‧ Pulley set

344‧‧‧ linkage rod

345‧‧‧ picker

346‧‧‧First slipper

347‧‧‧Second slipper

〔this invention〕

40‧‧‧Transfer unit

41‧‧‧Rack

411‧‧‧ first panel

4111‧‧‧ Third direction auxiliary slide

4112‧‧‧First direction auxiliary slide

412‧‧‧ second panel

4121‧‧‧3rd direction auxiliary slide rail

4122‧‧‧First direction auxiliary rail

42‧‧‧First Transposition Mechanism

421‧‧‧First power motor

422‧‧‧First pulley set

423‧‧‧First transmission

424‧‧‧Second pulley set

425‧‧‧3rd pulley set

426‧‧‧First set

43‧‧‧Second transposition mechanism

431‧‧‧Second power motor

432‧‧‧Fourth pulley set

433‧‧‧second transmission parts

434‧‧‧ fifth pulley set

435‧‧‧6th pulley set

436‧‧‧Second shelf

44‧‧‧ picking institutions

441A‧‧‧First motor

441B‧‧‧second motor

442A‧‧‧First Drive Group

442B‧‧‧Second drive group

443A‧‧‧First transmission

4431A‧‧‧First direction guide

4432A‧‧‧Auxiliary slide

443B‧‧‧second transmission parts

4431B‧‧‧First direction guide

4432B‧‧‧Auxiliary slide

444A‧‧‧First moving parts

4441A‧‧‧Roller

444B‧‧‧Second moving parts

4441B‧‧‧Roller

445‧‧‧Second guide

4451‧‧‧Second direction guide

446‧‧‧First linkage

4461‧‧‧Slide

4462‧‧‧Auxiliary slide

447‧‧‧Secondary actuator

4471‧‧‧Second direction sliding joint

4472‧‧‧First direction sliding joint

4473‧‧‧Slide

448‧‧‧ 承

4481‧‧‧Auxiliary slide

4482‧‧‧Auxiliary slide

451‧‧‧First pick and place

452‧‧‧Second pick and place

4521‧‧‧Roller

4522‧‧‧Three-direction slide rail

46‧‧‧Cargo agencies

50‧‧‧Tray

51, 52‧‧‧ Electronic components

60‧‧‧ machine

70‧‧‧Feeding device

71‧‧‧Tray

80‧‧‧ receiving device

81‧‧‧Tray

90‧‧‧Testing device

91‧‧‧Test circuit board

92‧‧‧ test seat

100‧‧‧Conveyor

101‧‧‧First feeding platform

102‧‧‧First discharge stage

103‧‧‧Second feed stage

104‧‧‧Second discharge platform

105‧‧‧First transfer device

1051‧‧‧ Robotic arm

106‧‧‧Second transfer device

1061‧‧‧ Robotic arm

107‧‧‧First take-off arm

108‧‧‧Second access arm

110‧‧‧Air equipment

Figure 1: A top view of a conventional transfer unit.

Figure 2: Side view of a conventional transfer unit.

Fig. 3: Appearance diagram of the transfer unit of the Japanese invention No. 101111392.

Fig. 4 is a plan view showing the transfer unit of the Japanese invention No. 101111392.

Figure 5: Appearance of the transfer unit of the present invention.

Figure 6: Top view of the transfer unit of the present invention.

Figure 7: Side view of the transfer unit of the present invention.

Figure 8: Front view of the transfer unit of the present invention.

Figure 9: Top view of the shifting unit adjusting the spacing of the first direction of each column of pick and place devices.

Figure 10: Front view of the shifting unit adjusting the spacing of the first direction of each column of pick and place.

Figure 11: Top view of the shifting unit adjusting the spacing of the second direction of each column of pick and place devices.

Figure 12: Side view of the transfer unit adjusting the spacing of the second direction of each column of pick and place.

Figure 13: Side view of the pick-up unit for each of the pick-and-place units for third-direction displacement of the electronic components.

Figure 14: Test classification equipment for the application of the transfer unit.

Figure 15: Schematic diagram of the use of test classification equipment (1).

Figure 16: Schematic diagram of the use of test classification equipment (2).

Figure 17: Schematic diagram of the use of test classification equipment (3).

Figure 18: Schematic diagram of the use of test classification equipment (4).

Figure 19: Schematic diagram of the use of test classification equipment (5).

40‧‧‧Transfer unit

41‧‧‧Rack

411‧‧‧ first panel

4111‧‧‧ Third direction auxiliary slide

4112‧‧‧First direction auxiliary slide

412‧‧‧ second panel

4121‧‧‧3rd direction auxiliary slide rail

4122‧‧‧First direction auxiliary rail

42‧‧‧First Transposition Mechanism

424‧‧‧Second pulley set

425‧‧‧3rd pulley set

426‧‧‧First set

436‧‧‧Second shelf

44‧‧‧ picking institutions

441A‧‧‧First motor

441B‧‧‧second motor

442A‧‧‧First Drive Group

442B‧‧‧Second drive group

443A‧‧‧First transmission

4431A‧‧‧First direction guide

4432A‧‧‧Auxiliary slide

443B‧‧‧second transmission parts

4431B‧‧‧First direction guide

4432B‧‧‧Auxiliary slide

444A‧‧‧First moving parts

4441A‧‧‧Roller

444B‧‧‧Second moving parts

4441B‧‧‧Roller

445‧‧‧Second guide

4451‧‧‧Second direction guide

446‧‧‧First linkage

4461‧‧‧Slide

4462‧‧‧Auxiliary slide

447‧‧‧Secondary actuator

4471‧‧‧Second direction sliding joint

4472‧‧‧First direction sliding joint

4473‧‧‧Slide

448‧‧‧ 承

4481‧‧‧Auxiliary slide

4482‧‧‧Auxiliary slide

451‧‧‧First pick and place

452‧‧‧Second pick and place

4521‧‧‧Roller

4522‧‧‧Three-direction slide rail

46‧‧‧Cargo agencies

Claims (10)

An electronic component moving unit comprises: a frame; a first transposition mechanism: the frame is disposed on the frame, and is provided with a first power structure for driving at least one first mounting member for displacement in a first direction; The transposition mechanism is disposed on the frame and is provided with a second power structure for driving at least one second mounting member that is displaced in the second direction, and the second mounting member is first with the first transposition mechanism The mounting member is staggered; the picking mechanism is provided with a driving source in the frame to respectively connect at least two rows of transmission structures, and at least one of the transmission structures of each column is provided with a third direction that is driven by the driving source to be displaced in the third direction. An actuator, the third direction actuator is coupled to the pick-and-place device, and a linkage is arranged between each of the pick-and-placer and the first frame member, so that the pick-and-place device is driven by the first frame member to adjust the first direction spacing. In addition, at least one of the transmission structures is coupled to the second mounting member by a linkage, such that the picker attached to the linkage is driven by the second mounting member to adjust the second direction spacing. The electronic component moving unit according to claim 1, wherein the first power structure of the first transposition mechanism is provided with a first power source that can drive the first actuator, and is driven by the first actuator. The at least one first mounting member disposed in the second direction is displaced in a first direction, and the second power structure of the second transposition mechanism is provided with a second power source that can drive the second actuator, and the second actuator is The second mounting member disposed in the first direction is driven to be displaced in the second direction. The electronic component moving unit according to the first aspect of the invention, wherein the driving source of the picking mechanism is provided with a driving group in which the motor is driven in a third direction, and is actuated in a third direction in which the driving group is coupled to the transmission structure. Device. The electronic component moving unit according to claim 1, wherein the third direction actuator of the picking mechanism comprises a transmission member and a moving member, and the driving source is coupled to the driving source, and the transmission member and the moving member are connected. Have the first cooperation Direction guides and rollers. The electronic component moving unit according to claim 1 or 4, further comprising an adapter disposed on the third direction actuator of the at least one column of the picking mechanism, the adapter being connected to the pick and place device , to drive the pick and place device for the third direction of displacement, and for the pick and place device for the second direction of displacement. The electronic component moving unit according to claim 5, wherein the adapter of the picking mechanism comprises a guiding member and a movable member, and the moving member of the third direction actuator is coupled by the guiding member. The electronic component moving unit according to claim 1, wherein the at least one train of the transmission structure is fixed to the first mounting member and coupled to the third direction actuator, and the third direction actuator Assemble the pick and place. The electronic component moving unit according to claim 1, wherein the at least one train of the transmission structure is provided with a second direction sliding member slidably disposed on the first mounting member, and The first direction sliding member is slidably disposed on the second mounting member, and a third direction interlocking group is disposed between the connecting member and the pick-and-placer. The electronic component moving unit according to claim 1, wherein the picking mechanism is provided with at least one column of auxiliary sliding structures for assisting the displacement of the pick and place. A testing device for applying an electronic component moving unit comprises: a machine; a feeding device: is disposed on the machine for receiving the electronic component to be tested; and the receiving device is disposed on the machine for The electronic component is tested; the test device is set on the machine for performing the test operation on the electronic component to be tested; the conveying device is set on the machine and is provided with at least one patent application scope. The electronic component moving unit described in the item is used for transferring electronic components; and the central control device is used for controlling and integrating the actuation of each device to perform an automated operation.