TWM445574U - Conveyance carrying disc structure for electric components - Google Patents

Description

Handling carrier structure for electronic components

The present invention relates to a carrier structure, and more particularly to a carrier carrier structure for carrying the electronic component in an electronic component handling operation.

Generally, the handling of electronic components is mainly carried out by means of detecting, sorting, and packaging. For example, passive components or LEDs are detected, sorted, and packaged, and are mainly used to detect various physical characteristics of electronic components, and different physicalities after detection. The characteristic electronic components are separately collected through different paths and packaged separately; some devices are only used for testing and sorting according to customer requirements, and only for sorting and packaging.

Taking the conventional LED electronic component sorting device as an example, a carrier that is intermittently rotated is generally used as a carrier for transporting, and a majority of the entire circumference of the carrier is disposed on the circumference of the carrier. The LED electronic components to be tested are arranged from the vibrating machine to be placed on the carrier plate and rotated to the corresponding slot of the vibrating machine corresponding to the loading port of the carrier, and are executed by each workstation in the intermittent rotation path of the carrier. The predetermined operation, the operations performed by each workstation, for example, polarity detection, polarity reversal, physical data detection, and then the carrier will pass the detected LED electronic components through the different pipelines by gas blowing. LED electronic components with different detection values are respectively introduced into different pipelines for separate collection.

When the conventional LED electronic component is sorted, the carrier-carrying mode for intermittent rotation is caused by the intermittent displacement of the LED electronic component in the squeezing slot, and follows the circular path displacement, so during the displacement process The underside of the LED electronic components is not protected, but is displaced relative to other components in the lower part of the carrier-shaped vacant slot, and is also subject to friction and wear under the LED electronic components, which will be used for some electrical connections. The terminal design is not allowed in the lower LED electronic components, the friction loss of the terminal portion will affect the stability of the electrical connection.

Accordingly, it is an object of the present invention to provide a transfer carrier structure having an electronic component that protects an electronic component from being damaged by friction during transportation.

The carrier tray structure of the electronic component according to the present invention includes: a plurality of carrier grooves are arranged on the periphery of the carrier plate at a full circumference on the periphery of the carrier plate, and the carrier grooves are respectively in upper and lower levels, wherein the upper portion The hierarchy is a placement space for loading electronic components, and the lower hierarchy is a support component that prevents the electronic components from falling from the self-positioning space.

The carrier tray structure of the electronic component according to the present invention may further include: a plurality of carrier grooves are disposed on the periphery of the carrier plate at a full circumference on the periphery of the carrier plate, and the carrier groove is provided with a receiving space and a supporting member. The bottom member has a bearing surface that is completely disposed from the inner edge of the receiving space to the outer periphery of the carrier, and can completely carry the entire electronic component placed in the receiving space.

The design of the new embodiment is in use because the electronic component is stably fixed on the shoe during the handling process, and the lower terminals are supported without any contact or friction with any other structure under the carrier. The electronic component terminals can obtain the benefits of not being worn out under normal test, and the yield of the entire sorting device is greatly improved.

Referring to the first embodiment of the present invention, the present invention is applied to an LED electronic component sorting apparatus. The carrier 1 of the present invention is a circular disc body which is disposed on a plurality of detecting or sorting workstations 2 Below the stage 3, the LED electronic component 4 entering from the inlet 21 is successively received into the carrier 11 on the periphery of the carrier 1 in a batch rotation manner; the stage 3 is covered like a cover on the carrier. The periphery of each of the carrier grooves 11 is provided, but the section A not covered by the stage 3 is still provided for the purpose of feeding or other operations.

Referring to the second figure, the periphery of the carrier 1 of the present embodiment is disposed on the periphery of the carrier 1 at a full circumference with a plurality of carriers 11 , and the inlet 12 of each carrier 11 is designed to be radially outward. Designed in the direction of the center of the carrier 1 .

Referring to the third figure, the loading slots 11 are respectively in upper and lower levels, wherein the upper layer is a receiving space 13 for the LED electronic component 4 to be loaded, and the lower layer is a LED electronic component. 4, the bottoming member 14 dropped from the receiving space 13; the supporting member 14 and the carrier 1 forming the carrier 11 are integrally formed, and the supporting member 14 is provided with a pair The four hollow test areas 141, 142, 143, 144 in the form of four rectangular corners arranged in the four corners 41 of the LED electronic component 4 in the receiving space 13 (please refer to the fourth figure), and a hollow suction suction hole 145; wherein the two test areas 141, 142 are located at an outer circumference of the bottom member 14 and are spaced apart from each other, and the two test areas 143, 144 are located at the center of the carrier 1 and are relatively arranged. 13 a side of the inner bottom edge; and the bottoming element 14 below the receiving space 13 has a bearing surface which is completely disposed from the inner edge of the receiving space 13 to the outer periphery of the carrier 1 and can be placed in the receiving space. The LED electronic component 4 is fully loaded, and the four terminals 41 on the LED electronic component 4 are suspended in four hollow test areas 141, 142, 143, and 144 which are arranged in four rectangular corners, and can be tested from bottom to top. Test with a probe.

Referring to the fourth figure, the hollow test zones 143, 144 are connected to the bottom of the carrier 1 and a negative pressure channel 15 radially toward the center of the carrier 1.

Referring to the fifth figure, the test areas 141, 142 on the outer periphery of the base member 14 are formed with notches 146, 147 facing the outer periphery, and the notches 146, 147 enable the carrier groove 11 to shorten the outer circumference of the carrier plate 1. The depth extending into the center increases the number of the loading grooves 11 at the periphery of the carrier 1; the receiving space 13 is located at the inlet 12 of the outer periphery of the carrier 1 to form a widened portion 121 inclined toward both sides, so that the inlet is opened. 12 has a wide and easy insertion condition; the receiving space 13 is located at the corners of the inner side of the center of the carrier 1 and is provided with recessed escape angles 131, 132, which facilitates placement The object is positioned deeper against the inner edge of the receiving space 13.

In the implementation of the new embodiment, when the LED electronic component 4 is moved into the receiving space 13 by the built-in inlet 12, the widening portion 121 is designed so that the moving in process is not jammed and smoothly moved in; and during the moving in, the loading The bottom of the disk 1 is radially negatively directed toward the negative pressure channel 15 at the center of the carrier disk 1 so that the negative pressure is attracted to the inner edge of the receiving space 13 before the LED electronic component 4 being moved in through the hollowing test zones 143, 144. Positioning; in addition, by applying a vacuum suction force under the negative pressure suction hole 145 opened in the hollow, the LED electronic component 4 is positioned in the receiving space 13 without being thrown during the handling process; The stages 3 of the detecting or sorting station 2 are covered like the cover plates over the respective loading grooves 11 on the periphery of each of the loading trays 1, so that the stage 3 itself has the LED electronic components 4 prevented from being placed in the receiving space 13. Since the conveyance process is thrown down, the operation of giving a vacuum suction force under the negative pressure suction hole 145 can be performed only in the section A which is not covered by the stage 3.

The number and position of the test areas 141, 142, 143, 144 on the base member 14 can be adjusted according to the detected number and position of the terminals 41 on the LED electronic component 4; and the bottom member 14 is directly connected to the carrier 1 In addition to the integral molding, the independent components may be fixed under the receiving space 13 of one of the loading slots 11, or may be fixed on the plurality of or all of the loading trays 11 under the receiving spaces 13 of the plurality of loading trays 11.

The carrier tray structure of the electronic component of the present invention is in use, Since the LED electronic component 4 is stably fixed on the shoe component 14 during transportation, the four terminals 41 under the LED electronic component 4 are supported without being in contact with or rubbed against any other structure below the carrier disk 1 In the normal test of the four terminals 41 of the LED electronic component 4, the benefits of not being worn out can be obtained, and the yield of the entire sorting device is greatly improved.

However, the above description is only a preferred embodiment of the present invention, and the scope of the present invention cannot be limited thereto, that is, the simple equivalent change and modification made by the novel patent application scope and the novel description content, All remain within the scope of this new patent.

1‧‧‧Package

11‧‧‧ slot

12‧‧‧Settings

121‧‧‧ Widening Department

13‧‧‧Withheld space

131‧‧‧Escape

132‧‧‧Escape

14‧‧‧Bottom components

141‧‧‧Test area

142‧‧‧Test area

143‧‧‧Test area

144‧‧‧Test area

145‧‧ ‧ suction hole

146‧‧ ‧ gap

147‧‧ ‧ gap

15‧‧‧ channel

2‧‧‧Workbench

21‧‧‧Inlet

3‧‧‧ stage

4‧‧‧Electronic components

41‧‧‧terminal

Section A‧‧‧

The first figure shows a three-dimensional schematic view of the configuration of the carrier tray of the present invention in the sorting device.

The second figure is a perspective view showing the structure of the carrier tray of the novel embodiment.

The third figure is a perspective view showing a part of the structure of the carrier tray of the novel embodiment.

The fourth figure shows a perspective view of the back side of the carrier tray portion of the present embodiment.

The fifth figure shows an enlarged perspective view of the carrier structure in the carrier tray of the present invention.

1‧‧‧Package

11‧‧‧ slot

13‧‧‧Withheld space

14‧‧‧Bottom components

141‧‧‧Test area

142‧‧‧Test area

143‧‧‧Test area

144‧‧‧Test area

145‧‧ ‧ suction hole

4‧‧‧Electronic components

41‧‧‧terminal

Claims (15)

The utility model relates to a carrier tray structure for an electronic component, which comprises: a plurality of carrier grooves are arranged on the periphery of the carrier plate at a full circumference on a circumference of the carrier plate, wherein the carrier grooves are in two upper and lower levels, wherein the upper layer is one The receiving space for loading the electronic component, and the lower layer is a supporting component that prevents the electronic component from falling from the self-positioning space. The carrier tray structure of the electronic component comprises: a plurality of carrier grooves are arranged on the periphery of the carrier plate at a full circumference on the periphery of the carrier plate, wherein the carrier groove is provided with a receiving space and a supporting member, the supporting member has a self The bearing surface of the inner edge of the receiving space to the outer periphery of the carrier plate can completely carry the entire electronic components placed in the receiving space. The carrier tray structure of the electronic component according to claim 1 or 2, wherein each of the carrier grooves is provided with an inlet which is designed to be radially outward from the circumference toward the center of the carrier. The carrier tray structure of the electronic component according to the first or second aspect of the invention, wherein the carrier element and the carrier plate forming the carrier are integrally formed. The carrier tray structure of the electronic component of claim 1 or 2, wherein the base member is provided with a test zone corresponding to the terminal disposed on the electronic component in the receiving space. The carrier tray structure of the electronic component of claim 5, wherein the test zone is hollow. The carrier tray structure of the electronic component according to claim 5, wherein the test zone is provided with four rectangular shape and four corners on the base member. The carrier tray configuration of the electronic component of claim 7, wherein the test zone is provided with two outer edges adjacent to the bottom member. The carrier tray structure of the electronic component of claim 8, wherein the two test zones are spaced apart from each other and formed with a notch toward the outer periphery. The carrier tray structure of the electronic component according to claim 7, wherein the test zone is provided with two sides located at the center of the carrier and opposite to the inner bottom edge of the receiving space. The carrier tray configuration of the electronic component of claim 10, wherein the two test zones connect the bottom of the carrier to a negative pressure channel radially toward the center of the carrier. The carrier tray structure of the electronic component according to claim 1 or 2, wherein the base member is provided with a negative pressure suction hole. The carrier tray structure of the electronic component according to the first or second aspect of the invention, wherein the receiving space is located at a receiving inlet of the outer periphery of the carrier to form a widened portion that is inclined toward both sides. Handling of electronic components as described in claim 1 or 2 The carrier structure, wherein the receiving space is located at an opposite corner of the inner side of the center of the carrier, and each has a concave escape angle. The carrier tray structure for an electronic component according to claim 1 or 2, wherein the chassis member is fixed to a lower portion of the carrier receiving space by a separate component.