TW201838899A - Electronic component operating device and operation classification device applying the same capable of shortening overall operation time and effectively increase production efficiency - Google Patents

Abstract

The present invention provides an electronic component operating device, which is arranged with a first and a second workstations capable of performing a first and a second predetermined operations. A conveying mechanism is configured to carry electronic components to-be-operated with feeding platforms. Station transfer platforms and discharge platforms are located at lateral sides of the first and second workstations respectively. A first and a second transfer units of a first and a second transfer mechanisms are configured to transfer electronic components to-be-station-transferred and fully operated electronic components of the first and second workstations to the station transfer platform and the discharge platform. The feeding platform, the station transfer platform and the discharge platform are configured to be displaced synchronously, to allow the first and second transfer units to transfer the electronic components to-be-operated and the electronic components to-be-station-transferred between the feeding platform, the station transfer platform and the first and second workstations to continue performing the first and second predetermined operations, and to allow the discharge platform to carry out the fully operated electronic components, so as to perform outputting the fully operated electronic components when the first and second workstations are performing the predetermined operations, thereby achieving the practical benefits of shortening overall operation time and effectively increasing production efficiency.

Description

 Electronic component operating device and its operation classification device  

The present invention provides an electronic component operating device that can perform a preset operation at the first and second workstations and simultaneously output an electronic component for full operation, thereby shortening the overall operation time and effectively improving the production efficiency.

Nowadays, after the electronic components are manufactured, in order to ensure the quality of the electronic components, the manufacturer must perform the test operation and the appearance inspection operation on the electronic components by the detecting device to eliminate the defective products; refer to Figures 1 and 2, the detecting device A test device 12 having a test socket 121 is disposed on the machine 11 to perform a test operation on the electronic component, and first and second imagers 131 and 132 are respectively disposed on the first and second sides of the test device 12, first And the two image taking devices 131 and 132 respectively respectively set a CCD and a plurality of prisms in a box to take the bottom surface and the four sides of the tested electronic component to detect whether the appearance is damaged or lack of solder balls, etc. The first side of the image finder 131 is provided with two first loading stages 141 and a first receiving stage 142 for shifting in the first direction (such as the X direction) to respectively carry the electronic components to be tested and the measured The electronic component, the second side of the second imager 132 is also provided with two second loading stages 143 and a second receiving stage 144 for X-direction displacement to respectively carry the electronic components to be tested and the tested electronic components. The component can be displaced in the second and third directions (such as Y and Z directions). The first pick-and-placer 151 is configured to transfer the electronic component to be tested and the electronic component to be tested between the test stand 121, the first image capture device 131, and the first supply and receiving stages 141 and 142, and the other can be used as the YZ direction. The second pick-and-place 152 of the displacement transfers the electronic component to be tested and the electronic component to be tested between the test stand 121, the second image finder 132 and the second supply and receiving stage 143, 144; The first feeding stage 141 carries an electronic component 161 to be tested, and is displaced in the X direction in synchronization with the first receiving stage 142, and carries the electronic component 161 to be tested to the first side of the test socket 121. A pick-and-place device 151 is taken out in the YZ direction to take out the electronic component 161 to be tested on the first feeding stage 141, and is moved into the test seat 121 to perform a test operation. The second pick-and-placer 152 has been displaced in the YZ direction. The test stand 121 takes out the tested electronic component 162 and transfers it to the second image finder 132. The second pick-and-place 152 then shifts the Z direction downward to move the measured electronic component 162 into the second image finder 132. The second image taking device 132 performs the image capturing operation on the bottom and the four sides of the tested electronic component 162 to detect the detected electronic component 162. Whether the solder ball or the like is damaged or missing, after the detecting operation is completed, the second pick-and-placer 152 is further displaced in the Z direction to move the detected electronic component 162 that has been detected out of the second image capture unit 132, due to the second The receiving stage 144 has been waiting on the second side of the second image picker 132, and the second pick-and-placer 152 is further displaced in the YZ direction to move the detected electronic component 162 from the second imager 132. The second receiving stage 144 is placed on the second receiving stage 144, and after the electronic component 162 is carried, the electronic component 162 can be outputted in the X direction; however, due to the second image of the detecting device The device 132 is disposed between the test socket 121 and the second receiving platform 144. After the second pick-and-placer 152 takes out the tested electronic component 162 at the test socket 121, the first direction must be shifted in the Y direction. The electronic component 162 is transferred to the second image finder 132, and then moved in the Z direction to move the measured electronic component 162 into the second image finder 132 for five-sided detection operation. After the second image finder 132 detects the image, the second image finder 132 is detected. The second pick-and-placer 152 must again perform a Z-direction displacement to move the detected and detected electronic component 162 out of the second imager. 132, the Y-direction displacement can be further transferred to the second receiving stage 144, so that the second pick-and-placer 152 moves the measured electronic component 162 into and out of the first time. The second image capture unit 132 increases the working time. Further, the second receiving stage 144 is already located on the second side of the second image capture unit 132. However, the electronic component 162 must be used in the second image capture unit 122. The inspection operation is carried out, and the output cannot be immediately loaded, so that the overall operation time is increased, resulting in a lack of improvement in production efficiency.

An object of the present invention is to provide an electronic component working device which is configured to execute first and second workstations of first and second preset operations, and the carrying mechanism carries the electronic components to be operated by the loading carrier, and The transfer station loading platform and the discharge loading platform are respectively located at the side of the first and second workstations, and the first and second transfer carriers of the first and second transfer mechanisms respectively respectively carry the electronic components of the first and second workstations to be transferred and The electronic components of the whole operation are moved into the transfer station and the discharge stage, and the loading stage, the transfer stage and the discharge stage are synchronously displaced, and the first and second transfer carriers are placed on the loading stage. Transferring the electronic components of the to-be-operated electronic components and the electronic components to be transferred between the transfer station and the first and second workstations, and performing the first and second preset operations, and allowing the discharge loading platform to carry out the entire operation electronic components, and then At the same time as the first and second workstations perform preset operations, and execute the output of all-operation electronic components, the practical benefits of shortening the overall operation time and effectively improving the production efficiency are achieved.

A second object of the present invention is to provide an operation classification device for applying an electronic component working device, which comprises a machine table, a feeding device, a receiving device, a working device, a conveying device and a central control device, wherein the feeding device is disposed in the machine And a feeding device for accommodating the electronic components to be operated, the receiving device is disposed on the machine table, and is provided with at least one receiving device for accommodating the full working electronic components, the operation The device is disposed on the machine platform, and is provided with first and second workstations and a carrying mechanism, a first transfer mechanism and a second transfer mechanism, and can perform preset operations on the electronic components at the first and second workstations. And executing the output full-operation electronic component, the conveying device is disposed on the machine table, and is provided with at least one pick-and-place device for transferring electronic components, wherein the central control device is used for controlling and integrating each device to perform automation Work, to achieve practical benefits of improving operational efficiency.

[study]

11‧‧‧ machine

12‧‧‧Testing device

121‧‧‧ test seat

131‧‧‧First imager

132‧‧‧Second imager

141‧‧‧First feeding platform

142‧‧‧First receiving platform

143‧‧‧Second feed stage

144‧‧‧Second receiving platform

151‧‧‧First pick and place

152‧‧‧Second pick and place

161, 162‧‧‧ electronic components

〔this invention〕

20‧‧‧Working device

21‧‧‧First workstation

211‧‧‧ circuit board

212‧‧‧ test seat

22‧‧‧Second workstation

221‧‧‧Detector

23‧‧‧ Carriers

231‧‧‧First feeding platform

232‧‧‧First transfer station

233‧‧‧First discharge stage

234‧‧‧First drive source

235‧‧‧Second feed stage

236‧‧‧Second transfer station

237‧‧‧Second discharge stage

238‧‧‧Second drive source

24‧‧‧First transfer mechanism

241‧‧‧First Transfer Vehicle

242‧‧‧ Third Transfer Vehicle

243‧‧‧ Third drive source

244‧‧‧fourth drive source

25‧‧‧Second transfer mechanism

251‧‧‧Second transfer vehicle

252‧‧‧4th transfer vehicle

253‧‧‧ fifth drive source

30‧‧‧ machine

41, 42, 43, 44, 45‧‧‧ Electronic components

50‧‧‧Feeding device

51‧‧‧Feeder

60‧‧‧ receiving device

61‧‧‧Receipt receiver

70‧‧‧Conveyor

71‧‧‧First pick and place

72‧‧‧Second pick and place

Figure 1: Schematic diagram of the use of a conventional electronic component detecting device (1).

Figure 2: Schematic diagram of the use of the conventional electronic component detecting device (2).

Fig. 3 is a layout view of an electronic component working device of the present invention.

Fig. 4 is a schematic view showing the use of the electronic component working device of the present invention (1).

Fig. 5 is a schematic view showing the use of the electronic component working device of the present invention (2).

Fig. 6 is a schematic view showing the use of the electronic component working device of the present invention (3).

Figure 7 is a schematic view showing the use of the electronic component working device of the present invention (4).

Figure 8 is a schematic view showing the use of the electronic component working device of the present invention (5).

Figure 9 is a schematic view showing the use of the electronic component working device of the present invention (6).

Fig. 10 is a schematic view showing the use of the electronic component working device of the present invention (7).

Figure 11 is a schematic view showing the use of the electronic component working device of the present invention (8).

Fig. 12 is a schematic view showing the application of the working device of the present invention to a job sorting device.

In order to make the present invention further understand the present invention, a preferred embodiment and a drawing will be described in detail. As follows: Referring to FIG. 3, the electronic component working device 20 of the present invention includes a first workstation 21, The second workstation 22, the carrier mechanism 23, the first transfer mechanism 24, and the second transfer mechanism 25, and further, the working device 20 is disposed on the machine 30 in a first direction (such as the X direction) The first working area, the second working area and the discharging area, the first workstation 21 is provided with at least one first working device to perform a first preset operation on the electronic component, and further, the first working device can be a tester for performing a first predetermined operation on the electronic component, the tester having an electrically connected circuit board and a test stand, or an electrically connected circuit board and a test stand, the circuit The first workstation 21 is disposed in the first working area, and the first working device has an electrically connected circuit board 211 and a test socket 212 for the electronic components. Perform a test job; the second workstation 22 There is at least one second operator for performing a second preset operation on the electronic component, and further, the second operator can be a detector for performing a second preset that can be an appearance detection operation for the electronic component In the present embodiment, the detector may have at least one CCD, or a CCD and a plurality of prisms disposed in a box to perform at least one surface inspection operation or five-sided appearance detection operation on the electronic component. The second workstation 22 is disposed in the second working area, and the second working device is a detector 221 in which a CCD and a plurality of prisms are disposed in the casing to perform a five-sided image capturing operation on the electronic component; The carrier mechanism 23 is provided with at least one loading stage, at least one transfer station stage and at least one discharge stage for at least one direction displacement on at least one of the first and second workstations 21, 22 for respectively carrying In the present embodiment, the carrier mechanism 23 is provided with a first loading stage 231 on the first side of the first and second workstations 21, 22, and the electronic component to be transferred, and the electronic component to be transferred. a first transfer station 232 and a first discharge stage 233, The first loading stage 231, the first transfer station 232 and the first discharging stage 233 are arranged equidistantly, and are driven by the first driving source 234 to be synchronously displaced in the X direction, so as to be in the feeding area, An operation area, a second operation area and a discharge section carry electronic components, that is, the first loading stage 231 carries the electronic components to be operated in the feeding area and the first working section, and the first transfer station The 232 system carries the electronic components of the to-be-transferred station that have been the first preset operation in the first working area and the second working area, and the first discharging stage 233 is placed in the second working area and the discharging section has been first And the second working station electronic component, the second loading station 235 and the second transfer station 236 are also disposed on the second side of the first and second workstations 21 and 22; The second discharge stage 237, the second loading stage 235, the second transfer stage 236 and the second discharge stage 237 are arranged equidistantly and driven by the second driving source 238 for X-direction synchronization. Displacement, for carrying the electronic component in the feeding zone, the first working zone, the second working zone and the discharging zone, that is, the second feeding platform 235 is in the feeding zone and the The working area carries the electronic components to be operated, and the second transfer station 236 carries the electronic components to be transferred which have been the first preset operation in the first working area and the second working area, and the second discharging stage 237 Attaching to the second working area and the discharging section, carrying all the working electronic components that have been used for the first and second preset operations; the first transferring mechanism 24 is configured with at least one first moving carrier that is displaced in at least one direction 241, in order to transfer the electronic components to be operated and the electronic components to be transferred between the first workstation 21, the loading carrier and the transfer station, in the embodiment, the first transfer mechanism 24 is in the first operation. The first transfer carrier 241 and the third transfer carrier 242 are disposed in the second and third directions (such as Y and Z directions), and the first transfer carrier 241 is driven by the third driving source 243 as YZ. The directional displacement is used to transfer the electronic component to be operated and the electronic component to be transferred between the test socket 212 of the first workstation 21, the first loading carrier 231 and the first transfer station 232, and the third transfer carrier 242 The fourth driving source 244 is driven to be displaced in the YZ direction, so as to be the test socket 212 of the first workstation 21 and the second loading station 235. The second transfer station 236 transfers the electronic component to be operated and the electronic component to be transferred; the second transfer mechanism 25 is configured with at least one second transfer carrier 251 for at least one direction displacement, for the second The electronic component and the electronic component of the standby station are transferred between the workstation 22, the transfer station, and the discharge carrier. In this embodiment, the second transfer mechanism 25 is disposed in the second working area. The second transfer carrier 251 and the fourth transfer carrier 252 are displaced in the second and third directions (such as the Y and Z directions), and the second transfer carrier 251 and the fourth transfer carrier 252 are driven by the fifth driving source 253. The displacement in the YZ direction causes the second transfer carrier 251 to transfer the electronic components to be transferred and the electronic components to be transferred between the second workstation 22, the first transfer station 232 and the first discharge stage 233, and the fourth The transfer carrier 252 transfers the electronic components to be transferred and the full-working electronic components between the second workstation 22, the second transfer station 236 and the second discharge stage 236.

Referring to FIG. 4, since the first loading stage 231 and the second loading stage 235 of the carrying mechanism 23 are located in the feeding area of the machine table 30, when the first loading stage 231 carries the electrons to be operated After the component 41, the first driving source 234 drives the first loading stage 231, the first transfer station 232 and the first discharging stage 233 to be synchronously displaced in the X direction, so as to carry the electronic component 41 to be operated. A loading stage 231 is displaced from the feeding zone to the first working area and is located on the first side of the first workstation 21, and the first transfer station 232 is displaced from the first working area to the second working area and is located On the first side of the second workstation 22, the first discharge carrier 233 is displaced from the second working area to the discharge area, and the third driving source 243 of the first transfer mechanism 24 drives the first transfer carrier 241 The YZ direction is displaced, so that the first loading stage 231 takes out the electronic component 41 to be operated, and transfers to the test socket 212 of the first workstation 21 to perform a test operation, and the fourth driving source 244 drives the third transfer carrier 242. Displacement in the Y direction above the second transfer station 236, the second loading stage 235 of the carrying mechanism 23 is carried in the loading area Electronic components 42 of the job.

Referring to FIGS. 5 and 6, when the test piece 212 of the first workstation 21 performs the test operation of the electronic component 41, the first driving source 234 of the carrier mechanism 23 drives the first loading carrier 231 and the first turn. The station stage 232 and the first discharge stage 233 are synchronously displaced in the X direction, so that the empty first loading stage 231, the first transfer stage 232 and the first discharging stage 233 are respectively located in the feeding area. The first working area and the second working area, and the second driving source 238 drives the second loading stage 235, the second transfer stage 236 and the second discharging stage 237 for synchronous displacement in the X direction, so as to be carried under The second loading stage 235, the second transfer station 236 and the second discharging stage 237 of the standby electronic component 42 are respectively located in the first working area, the second working area and the discharging area, and the first shift The fourth driving source 244 of the carrier mechanism 24 drives the third transfer carrier 242 to be displaced in the Z direction to take out the next electronic component 42 to be operated on the second loading stage 235; then the first of the carrier mechanism 23 The loading stage 231 is connected to the loading area to carry another electronic component 43 to be operated, since the first transfer station 232 is already located on the first side of the first workstation 21 After the test socket 212 of the first workstation 21 completes the testing operation of the electronic component 41, the third driving source 243 of the first transfer mechanism 24 drives the first transfer carrier 241 to be displaced in the YZ direction, and the test socket 212 is The electronic component 41 to be transferred and moved to the first transfer station 232, and the fourth drive source 244 of the first transfer mechanism 24 drives the third transfer carrier 242 to shift in the YZ direction, and the next work to be performed The electronic component 42 is transferred to the test socket 212 to continue the test operation.

Referring to FIGS. 7 and 8, when the test block 212 of the first workstation 21 performs the test operation of the electronic component 42, the first drive source 234 of the carrier mechanism 23 drives the first feed carrier 231 and the first turn. The station 232 and the first discharge stage 233 are synchronously displaced in the X direction, so that the first loading stage 231 of the electronic component 43 to be operated, the first transfer station 232 of the electronic component 41 to be transferred, and The empty first discharge platforms 233 are respectively located in the first working area, the second working area and the discharging area, and the third driving source 243 of the first transfer mechanism 24 drives the first moving carrier 241 to shift in the Z direction. The first loading stage 231 takes out the electronic component 43 to be operated, and the fifth driving source 253 of the second transfer mechanism 25 drives the second transfer carrier 251 to shift in the YZ direction to be carried in the first transfer station. The stage 232 takes out the measured electronic component 41, and the second driving source 238 of the carrier mechanism 23 drives the second loading stage 235, the second transfer station stage 236 and the second discharge stage 237 for synchronous displacement in the X direction. And respectively located in the feeding area, the first working area and the second working area, so that the second feeding stage 235 carries a power to be operated in the feeding area After the test operation of the electronic component 42 is completed by the test socket 212 of the first workstation 21, since the empty second transfer station 236 is located on the second side of the first workstation 21, the first transfer mechanism 24 The fourth driving source 244 drives the third transfer carrier 242 to shift in the YZ direction, and transfers the measured electronic component 42 of the test socket 212 to be transferred to the second transfer station 236, and the first transfer The third driving source 243 of the mechanism 24 drives the first transfer carrier 241 to shift in the YZ direction, and transfers the next electronic component 43 to be operated to the test socket 212 to continue the test operation. At this time, the second transfer mechanism The fifth driving source 253 of 25 drives the second transfer carrier 251 to shift in the YZ direction, and moves the measured electronic component 41 to the detector 221 of the second workstation 22 to perform a five-sided appearance detecting operation. While the first workstation 21 and the second workstation 22 perform testing or detecting operations on the different electronic components 41, 43 respectively, the second loading carrier 235 has carried the electronic component 44 to be operated, and the second relay station carries The stage 236 has carried the measured electronic component 42, thereby avoiding time-consuming In order to effectively reduce the overall operating time.

Referring to FIG. 9 , when the first workstation 21 and the second workstation 22 perform testing or detecting operations on different electronic components 41 and 43 respectively, the carrier mechanism 23 drives the first loading carrier with the first driving source 234. The stage 231, the first transfer station stage 232 and the first discharge stage 233 are synchronously displaced in the X direction, and are respectively located in the feeding area, the first working area and the second working area, and the first loading stage 231 is arranged. The electronic component 45 to be operated is carried in the feeding area, and the second driving source 238 of the carrying mechanism 23 drives the second loading stage 235, the second transfer station 236 and the second discharging stage 237. The X-direction synchronous displacement is respectively located in the first working area, the second working area and the discharging area, and the fourth driving source 244 of the first transfer mechanism 24 drives the third transfer carrier 242 to be displaced in the Z direction. The second loading stage 235 takes out the electronic component 44 to be operated, and the fifth driving source 253 of the second transfer mechanism 25 drives the fourth transfer carrier 252 to be displaced in the YZ direction to be taken out by the second transfer station 236. Electronic component 42 that has been measured.

Referring to FIGS. 10 and 11, the first transfer station 232 of the carrier mechanism 23 is located on the first side of the first workstation 21, and the first discharge stage 233 is located on the first side of the second workstation 22. After the electronic component 43 completes the test operation, and the electronic component 41 completes the test and the detection operation, the third driving source 243 of the first transfer mechanism 24 drives the first transfer carrier 241 to shift in the YZ direction, and the detected electronic device The component 43 is moved into the first transfer station 232, and the fifth drive source 253 of the second transfer mechanism 25 drives the second transfer carrier 251 to be displaced in the YZ direction, and the measured and detected full-working electronic components 41 are detected. Moving into the first discharge stage 233, the fourth driving source 244 of the first transfer mechanism 24 drives the third transfer carrier 242 to shift in the YZ direction, and moves the electronic component 44 to be operated into the test socket of the first workstation 21. 212, and then performing the test operation, the fifth driving source 253 of the second transfer mechanism 25 drives the fourth transfer carrier 252 to shift in the YZ direction, and moves the measured electronic component 42 to the detector 221 of the second workstation 22. And then carry out the five-sided appearance detection operation; then the test on the first workstation 21 When the detector 221 of the second workstation 22 performs the test operation of the electronic component 44 and the detection operation of the electronic component 42, the carrier mechanism 23 drives the first loading stage 231 with the first driving source 234, The first transfer station 232 and the first discharge stage 233 are synchronously displaced in the X direction, and are respectively located in the first working area, the second working area and the discharging area, so that the first discharging stage 233 is carried out. Detecting and detecting the entire operation electronic component 41; therefore, each stage of the carrier mechanism 23 of the working device 20 of the present invention can be reciprocally displaced in the feeding zone, the first working zone, the second working zone, and the discharging section. And carrying the electronic component to be operated, the electronic component to be transferred, or the electronic component of the whole operation, and performing the preset operation (such as a test operation or a detection operation) at the first workstation 21 and the second workstation 22, respectively, and outputting the output The electronic components are all operated to avoid the time-consuming space of the carrier of the carrier mechanism 23, and the material cannot be quickly discharged, thereby achieving the practical benefit of shortening the overall operation time and effectively improving the production efficiency.

Please refer to FIGS. 3 and 12, which are schematic diagrams of the working device 20 of the present invention applied to a work sorting device including a machine table 30, a feeding device 50, a receiving device 60, a working device 20, a conveying device 70, and a center. a control device (not shown), the feeding device 50 is mounted on the machine table 30, and is provided with at least one feeding device 51 for accommodating at least one electronic component to be operated; the receiving device 60 is assembled The machine 30 is provided with at least one receiving device 61 for accommodating at least one full working electronic component. The working device 20 is mounted on the machine 30 and is provided with a first workstation 21 and a second workstation 22 . a carrier mechanism 23, a first transfer mechanism 24, and a second transfer mechanism 25, the first workstation 21 is provided with at least one first operator for performing a first preset job on the electronic component, the second workstation The 22 series is provided with at least one second operator for performing a second preset operation on the electronic component. In the embodiment, the first workstation 21 performs a test operation on the electronic component, and the second workstation 22 is a pair of electronic components. Performing an appearance inspection operation, the carrier mechanism 23 At least one side of the first and second workstations 21, 22 is provided with at least one loading stage, at least one transfer station, and at least one discharge stage for at least one direction to respectively carry the electronic components to be operated, In the present embodiment, the first and second loading stations 231 and 235 of the carrying mechanism 23 carry the electronic components to be operated, and the first and second transfer stations are loaded. The 232 and 236 series carry the electronic components to be transferred, and the first and second discharge stages 233 and 237 carry the full-operation electronic components, and the first transfer mechanism 24 is configured to have at least one displacement in at least one direction. Transfer the carrier 241 to transfer the electronic components to be operated and the electronic components to be transferred between the first workstation 21, the loading carrier and the transfer station. In this embodiment, the first transfer mechanism 24 The transfer carrier 2 41 is connected to the first workstation 21, the first loading carrier 231 and the first transfer station 232 to transfer the electronic components to be operated and the electronic components to be transferred, and the third transfer carrier 242 is The first workstation 21, the second loading station 235 and the second transfer station 236 transfer the electronic components to be operated and are to be transferred An electronic component, the second transfer mechanism 25 is configured with at least one second transfer carrier 251 that is displaced in at least one direction to transfer the to-be-transferred between the second workstation 22, the transfer station, and the discharge carrier. In the present embodiment, the second transfer carrier 251 of the second transfer mechanism 25 is attached to the second workstation 22, the first transfer station 232, and the first discharge stage 233. Transferring the electronic components to be transferred and the electronic components of the whole operation, the fourth transfer carrier 252 is used to transfer the electronic components to be transferred between the second workstation 22, the second transfer station 236 and the second discharge carrier 237. And the whole operation electronic component; the conveying device 70 is disposed on the machine table 30, and is provided with at least one pick-and-place device for transferring electronic components. In the embodiment, the conveying device 70 is provided with a first pick-and-place device. 71 and a second pick-and-placer 72 for transferring the electronic components to be operated between the feeding device 50 and the working device 20, the second pick-and-placer 72 being attached to the working device 20 and the receiving device 60 transfer of all-operation electronic components, and according to the test results, the whole operation of electronic components is classified and placed, the central control device The system is used to control and integrate the various devices and units to perform automated operations to achieve practical benefits of improving operational efficiency.

Claims (10)

 An electronic component working device comprising: a first workstation: at least one first operator for performing a first preset operation on the working electronic component; and a second workstation: at least one performing the second electronic component to be executed a second operator for preset operation; a carrier mechanism: at least one loading stage, at least one transfer station stage, and at least one discharge device disposed on at least one side of the first and second workstations for at least one direction displacement a loading stage for respectively carrying the electronic component to be operated, the electronic component to be transferred, and the electronic component of the whole operation; the first transfer mechanism: at least one first transfer carrier configured to be displaced in at least one direction, Transferring the electronic component to be operated and the electronic component to be transferred between the first workstation, the loading platform and the transfer station; and the second transfer mechanism is configured to perform at least one second displacement in at least one direction Transfer the carrier to transfer the electronic component to be transferred and the full-working electronic component between the second workstation, the transfer station, and the discharge carrier.    The electronic component working device according to claim 1, wherein the working device is configured to set a feeding direction, a first working area, a second working area and a discharging area in a first direction, and the first workstation system is configured In the first work area, the second workstation is disposed in the second work area.    The electronic component working device according to claim 2, wherein the loading stage of the carrying mechanism, the transfer station, and the discharge stage are arranged equidistantly.    The electronic component working device according to claim 2, wherein the carrier mechanism is provided with a first driving source for driving the loading carrier, the transfer station, and the discharge carrier. Synchronous displacement in one direction.    The electronic component working device according to claim 2, wherein the loading stage of the carrying mechanism carries the electronic component to be operated in the feeding zone and the first working zone, and the transfer station carries The station carries the electronic component to be transferred in the first working area and the second working area, and the discharging stage carries the full working electronic component in the second working area and the discharging section.    The electronic component working device according to claim 2, wherein the first transfer mechanism is configured with the first transfer carrier in the first work area, and the third drive source is provided to drive the first The transfer device is displaced in the second and third directions.    The electronic component working device according to claim 2, wherein the second transfer mechanism is configured with the second transfer carrier in the second working area, and at least one fifth driving source is provided to drive the The second transfer carrier is displaced in the second and third directions.    The electronic component operating device according to claim 1, wherein the first operating device of the first workstation is a tester, and the tester is provided with an electrically connected circuit board and a test stand, or The circuit board and the test socket are electrically connected, and the circuit board is electrically connected to a test machine to perform a test operation on the electronic component.    The electronic component working device according to claim 1, wherein the second working device of the second workstation is a detector, the detector is provided with at least one CCD, or is disposed in a box. The CCD and at least one prism are used to detect electronic components.    An operation classification device for applying an electronic component working device, comprising: a machine table; a feeding device: the device is disposed on the machine table, and is provided with at least one feeding device for accommodating electronic components to be operated; and a receiving device: The device is disposed on the machine and is provided with at least one receiving device for accommodating the full-working electronic components; at least one of the electronic component working devices according to claim 1 is disposed on the machine And a first workstation, a second workstation, a carrier mechanism, a first transfer mechanism and a second transfer mechanism; and a transport device disposed on the machine and provided with at least one transfer electronic component The pick-and-place device; the central control device: is used to control and integrate the operation of each device to perform automated operations.