CN113233188A

CN113233188A - Three-in-one chip automatic feeding system

Info

Publication number: CN113233188A
Application number: CN202110487420.7A
Authority: CN
Inventors: 叶珂
Original assignee: Dongguan Kepengda Electronic Technology Co ltd
Current assignee: Dongguan Kepengda Electronic Technology Co ltd
Priority date: 2021-05-06
Filing date: 2021-05-06
Publication date: 2021-08-10
Anticipated expiration: 2041-05-06
Also published as: CN113233188B

Abstract

The application relates to an automatic three-in-one chip feeding system which comprises a rack, wherein a conveying table and a feeding table are arranged on the rack, the feeding table is positioned on one side of a clamping end of a pin, the clamping end of the pin faces the feeding table, and a driving device for driving the feeding table to slide is arranged on the rack; the feeding table is provided with a guide groove for guiding the chip, the guide groove penetrates through one side, close to the conveying table, of the feeding table, a material pushing frame is arranged on the feeding table in a sliding mode, and a material pushing plate for pushing the chip on the guide groove to move towards the conveying table is arranged on the material pushing frame; the rack is provided with a pin separating device used for driving the clamping ends of the pins to open, the pin separating device is positioned between the feeding table and the conveying table, the rack is also provided with a chip arranging device used for arranging the chips, and a chip taking and placing device used for sucking the chips on the chip arranging device and placing the chips in the guide grooves. This application promotes the mode that the chip replaces artifical centre gripping chip through the machine and makes the assembly of chip and pin simpler.

Description

Three-in-one chip automatic feeding system

Technical Field

The invention relates to the field of thermistor production equipment, in particular to an automatic three-in-one chip feeding system.

Background

Thermistors are a class of sensitive elements, and are classified into positive temperature coefficient thermistors (PTC) and negative temperature coefficient thermistors (NTC) according to different temperature writing, and the positive temperature coefficient thermistors and the negative temperature coefficient thermistors belong to semiconductor devices.

The thermistor is mainly composed of two pins, a chip connected between the two pins, and a packaging material for packaging the chip. As shown in fig. 1, in the manufacturing process of the thermistor, at present, a conductive metal wire is generally bent into a ring-like pin, so that an open end of the pin forms a clamping end for clamping a chip, thereby clamping the chip, and then the chip is soldered to the clamping end. After the chip is welded on the clamping end, the closed end of the pin is cut off, so that two pins are formed.

However, in the related art, the chip is usually held by a tweezers, and then the chip is placed on the holding ends of the leads, and the chip is held by the holding ends. And because the volume of chip is less, the staff is difficult to with the chip centre gripping and place the exposed core of pin, and the operation is comparatively difficult.

Disclosure of Invention

In order to improve the phenomenon that the staff is difficult to with the chip centre gripping and place the exposed core of pin in the in-process of current thermistor in production, this application provides a trinity chip automatic feeding system.

The application provides a trinity chip automatic feeding system adopts following technical scheme:

a three-in-one chip automatic feeding system comprises a rack, wherein a conveying table for conveying pins is arranged on the rack, clamping ends of the pins protrude out of one side of the conveying table, a feeding table is arranged on the rack in a sliding mode and located on one side of the clamping ends of the pins, the clamping ends of the pins face the feeding table, and a driving device for driving the feeding table to slide towards the direction close to or far away from the conveying table is arranged on the rack; the feeding table is provided with a guide groove for guiding the chip, the guide groove penetrates through one side, close to the conveying table, of the feeding table, a material pushing frame is arranged on the feeding table in a sliding mode, and a material pushing plate for pushing the chip on the guide groove to move towards the conveying table is arranged on the material pushing frame; the automatic pin arranging machine is characterized in that a pin separating device used for driving the clamping ends of pins to open is arranged on the rack, the pin separating device is located between the feeding table and the conveying table, a chip arranging device used for arranging materials and a chip taking and placing device used for sucking chips on the chip arranging device and placing the chips in the guide grooves are further arranged on the rack.

By adopting the technical scheme, when the chip is clamped at the clamping ends of the pins, the pins are conveyed to the position opposite to the feeding table through the conveying table, so that the material guiding grooves on the feeding table are aligned with the clamping ends of the pins, then the feeding table is driven to move towards the conveying table through the driving device, the feeding table is gradually close to the clamping ends of the pins until the clamping ends of the pins and one side, facing the conveying table, of the feeding table are slightly contacted with the clamping ends of the pins, or the clamping ends of the pins and the feeding table have small gaps. And then the clamping ends of the pins are opened through the pin separating device so as to put the chip into the clamping ends. In the process that the pin separating device separates the clamping ends of the pins, the chip taking and placing device sucks the chips which are sorted by the sorting device, the chips are placed on the guide grooves of the feeding table, and then the pushing plate on the pushing frame pushes the chips to approach the clamping ends of the pins until the chips are pushed to the clamping ends of the pins. After the chip is pushed to the clamping ends of the pins, the pin separating device resets, the clamping ends of the pins reset under the action of self elastic force, so that the chip is clamped tightly, the step of clamping the chip by the pins is completed, the chip is not required to be manually clamped, and the chip is more simply assembled with the pins in a mode of pushing the chip to replace the manually clamped chip by a machine.

Preferably, the chip arranging device comprises a vibrating disc arranged on the rack and an arranging table connected to the discharge end of the vibrating disc, the arranging table is provided with an arranging guide rail, the arranging guide rail is arranged in a downward inclined manner from the discharge end of the vibrating disc to the direction of the feeding table, the arranging guide rail is provided with an arranging groove for a single chip to pass through, the arranging groove is arranged along the length direction of the arranging guide rail and is communicated with the discharge end of the vibrating disc; a material taking groove communicated with the material arranging groove is formed in one side, close to the material loading table, of the material arranging table; and the rack is provided with a vibration motor for driving the material arranging table to vibrate.

Through adopting above-mentioned technical scheme for can arrange in order in proper order after the chip on the vibration dish is managed the material through reason silo, and the chip that passes behind the reason silo is carried to getting the silo, thereby is convenient for the chip to get the device absorption of putting.

Preferably, one side of the material arranging guide rail is provided with an opening penetrating through the material arranging groove, the opening is formed along the length direction of the material arranging guide rail, and the opening side of the material arranging groove is downwards inclined from the closed side.

Through adopting above-mentioned technical scheme, the reason silo is the downward sloping setting from the opening side direction closed side of reason silo to make the chip of reason silo in have the trend of the closed side slope of reason silo, thereby make the chip difficult opening side from the reason silo drop when passing the reason silo.

Preferably, the material arranging platform is further provided with an inclined excess material groove, and the excess material groove is located below the material arranging guide rail.

Through adopting above-mentioned technical scheme, the in-process that the chip passed reason silo, unnecessary chip receives the effect of vibrations power and drops from the opening side of reason silo to slide along the inclined plane of surplus silo, so that retrieve the chip.

Preferably, the lower side of the excess material groove is communicated with an excess material recovery groove, and one end of the excess material recovery groove is connected to the vibration disc.

Through adopting above-mentioned technical scheme, add the clout accumulator that communicates with the vibrations dish, be convenient for retrieve to the vibrations dish the chip that drops to the clout groove to manage the material once more to the chip.

Preferably, the chip is got and is put the device including set up in balladeur train in the frame, slide set up in sliding seat on the balladeur train, set up with liftable set up in getting on the sliding seat and putting the seat and set up in get the suction head on the seat, the suction head is connected with and is used for absorbing get the needle of breathing in of the chip of silo, be provided with in the frame communicate in the aspiration pump of suction head, still be provided with in the frame and be used for the drive the gliding sliding component of the relative balladeur train of sliding seat, and be used for the drive get the lifting unit that the seat goes up and down.

Through adopting above-mentioned technical scheme, by the relative balladeur train removal of slip subassembly drive sliding seat to get through the drive of lifting unit and put the seat and remove, thereby make the removal that suction head and suction needle can be nimble, so that will manage the material bench chip and absorb and place on the guiding groove of material loading platform, then promote the exposed core of pin to the chip on the guiding groove through the scraping wings again.

Preferably, the driving device comprises a transmission rod rotatably arranged on the rack and a hinged rod hinged to one end of the transmission rod, one end of the hinged rod is hinged to the feeding table, a driving assembly used for driving the transmission rod to turn is arranged on the rack, and the driving assembly is located at one end, far away from the hinged rod, of the transmission rod.

Through adopting above-mentioned technical scheme, when drive material loading platform was slided to the direction of being close to or keeping away from carrying too, kept away from the one end of articulated mast by drive assembly drive transfer line, changed the inclination of transfer line from this to drive the articulated mast and take place to remove, realize pulling or promote the material loading platform from this and slide.

Preferably, drive assembly including rotate set up in pivot in the frame and be used for the drive pivot pivoted driving motor, the cover is equipped with the cam in the pivot, the one end that the hinge bar was kept away from to the transfer line articulates there is the butt pole that is used for the cam, be provided with in the frame be used for to the butt pole provides tensile extension spring, the extension spring is located the below of butt pole, just the one end of extension spring connect in the butt pole, the other end connect in the frame.

Through adopting above-mentioned technical scheme, driving motor drive cam is rotated to the heart end when conflicting the head rod by nearly heart end conflict head rod, the relative transfer line of butt rod rotates, the angle between butt rod and the transfer line reduces gradually, when the butt rod rotate to with the transfer line between contained angle minimum, the butt rod transmits the butt power of cam to the transfer line, thereby promote the transfer line and keep away from the one end of hinge rod and take place the upset, make the transfer line be close to the one end of hinge rod and take place reverse upset from this, thereby promote the material loading platform and remove to the one end that is close to the transport platform, on the contrary, when motor drive cam is rotated to nearly heart end conflict head rod by heart end conflict head, the material loading platform removes to the direction of keeping away from the transport platform, rotate in succession through driving motor drive cam, thereby make the material loading platform circulate reciprocating motion.

Preferably, the pin separating device comprises an upper separating plate and a lower separating plate which are arranged on the rack in a liftable mode, the upper separating plate and the lower separating plate are arranged oppositely, an upper separating tooth used for abutting against one pin is arranged on the upper separating plate, a lower separating tooth used for abutting against the other pin is arranged on the lower separating plate, and a separating mechanism used for driving the upper separating plate and the lower separating plate to move towards the direction close to or away from each other is arranged on the rack.

Through adopting above-mentioned technical scheme, promote the chip to the front of the exposed core of pin, through the drive of separating mechanism separation plate and lower separation plate to the direction that is close to each other removal, two pin lines of exposed core are contradicted respectively to last separation tooth on the separation plate and the lower separation tooth on the separation plate down, thereby make two pin lines by the butt and take place the separation, from this open the exposed core of pin, so that push the exposed core of pin with the chip, thereby carry out the centre gripping to the chip through the exposed core.

Preferably, the separating mechanism includes two vertical settings in lifter in the frame, two the top of lifter connect respectively in go up the stripper plate and lower stripper plate, the cover is equipped with two cams, two in the pivot the cam dislocation set, and two the cam respectively one-to-one butt in two the bottom of lifter.

Through adopting above-mentioned technical scheme for the continuous pivoted in-process of first eccentric wheel can drive the lifter and take place to go up and down, thereby the direction that drives separation board and lower separation board and to being close to each other or keeping away from each other removes, so that the exposed core of drive pin closes.

In summary, the present application includes at least one of the following beneficial technical effects:

1. the assembly of the chip and the pins is simpler by pushing the chip by a machine instead of manually clamping the chip;

2. after the chips are sorted by the sorting device, the chips can be orderly arranged so as to be conveniently sucked by the chip picking and placing device;

3. reason silo is the downward sloping setting from the opening side direction closed side of reason silo to make the chip of reason silo in have the trend of the closed side slope of reason silo, thereby be convenient for manage the material to the chip, and the chip is difficult for dropping from the opening side of reason silo when passing reason silo.

Drawings

FIG. 1 is a schematic structural diagram of the assembled pin and chip in the present embodiment;

FIG. 2 is a schematic view of the overall structure of the present embodiment;

FIG. 3 is a schematic view illustrating a matching relationship between the conveying table and the loading table in the present embodiment;

FIG. 4 is an enlarged view of portion A of FIG. 3;

FIG. 5 is a schematic view illustrating the matching relationship between the separating device and the conveying table in the present embodiment;

FIG. 6 is a schematic structural view of a separating mechanism for embodying the separating apparatus in the present embodiment;

fig. 7 is a schematic view illustrating an assembly relationship between the loading frame and the pushing frame in the present embodiment;

FIG. 8 is a schematic structural view of a driving device in the present embodiment;

fig. 9 is a schematic view for showing a matching relationship between the chip arranging device and the chip pick-and-place device in the present embodiment;

FIG. 10 is a schematic structural diagram of a chip arranging device according to the present embodiment;

fig. 11 is an enlarged view of portion B of fig. 10;

fig. 12 is a schematic structural diagram of a chip pick-and-place device in this embodiment.

Description of reference numerals: 1. a pin; 2. a clamping end; 3. a chip; 4. a frame; 41. a work table; 5. a carriage; 51. hanging a lug; 6. a conveying table; 7. pressing a plate; 8. a screw; 9. a feeding frame; 91. a slide rail; 10. a feeding table; 101. a sliding sleeve; 102. a guide groove; 111. an upper separator plate; 112. a lower separator plate; 113. an upper separation tooth; 114. a lower separation tooth; 115. a lifting rod; 116. a first eccentric wheel; 12. a material pushing frame; 13. a material pushing plate; 141. a transmission rod; 142. a hinged lever; 143. a rotating shaft; 144. a drive motor; 145. a cam; 146. a butting rod; 147. a tension spring; 151. a vibrating pan; 152. a material arranging platform; 1521. a surplus tank; 1522. a material taking groove; 153. a material arranging guide rail; 1531. a material arranging groove; 154. a residual material recovery tank; 161. a carriage; 162. a sliding seat; 163. a lifting frame; 164. a taking and placing seat; 165. a suction head; 166. a suction needle; 171. a swing lever; 172. rotating the rod; 173. a balancing weight; 174. a connecting rod; 175. a second eccentric wheel; 181. a top rod; 182. a third eccentric wheel; 183. a push rod.

Detailed Description

The present application is described in further detail below with reference to figures 1-12.

A trinity chip automatic feeding system, refers to fig. 2, includes frame 4, is equipped with workstation 41 on the frame 4, and workstation 41 is the cuboid setting. A conveying frame 5 is fixedly mounted on the worktable 41, a conveying table 6 for conveying the pins 1 is arranged on the conveying frame 5, and the conveying table 6 is arranged along the length direction of the worktable 41.

Referring to fig. 3 and 4, the carriage 5 is further provided with a pressing plate 7, the pressing plate 7 is disposed along the length direction of the conveying table 6, and a gap through which the lead 1 passes is formed between the pressing plate 7 and the conveying table 6. In this embodiment, the distance between the pressing rod and the table 41 is adjustable.

Specifically, referring to fig. 2 and 3, vertical screw rods 8 are fixed at two ends of the pressing plate 7, each screw rod 8 is in threaded fit with two nuts, a hanging lug 51 is installed on the conveying frame 5, the screw rods 8 penetrate through the hanging lug 51, and the screw rods 8 are fixedly connected to the hanging lug 51 through the two nuts in a matched mode, so that the distance between the pressing plate 7 and the conveying table 6 can be conveniently adjusted.

Referring to fig. 3 and 4, when the lead 1 is conveyed, the lead 1 is laterally placed on the table 41, and the clamping end 2 of the lead 1 protrudes from one side of the conveying table 6. In this embodiment, to facilitate the feeding of the leads 1, the batch of leads 1 is first processed into a strip-shaped material strip arranged in sequence and formed before the leads 1 are assembled with the chip 3, so that the strip is easily pulled from one end to sequentially pass the leads 1 through the gap between the platen 7 and the feeding table 6.

Referring to fig. 3 and 4, a feeding frame 9 is installed on one side of the conveying table 6, a feeding table 10 is installed on the feeding frame 9 in a sliding manner, the feeding table 10 is located on one side of the clamping ends 2 of the pins 1, and the clamping ends 2 of the pins 1 face the feeding table 10.

In this embodiment, horizontal slide rails 91 are installed on both sides of the feeding frame 9, and the length direction of the slide rails 91 is perpendicular to the conveying direction of the pins 1. Sliding sleeves 101 are fixed at two ends of the feeding table 10, and the sliding sleeves 101 are connected with the sliding rails 91 in a sliding manner, so that the feeding table 10 can move in a direction close to or far away from the conveying table 6.

Referring to fig. 3 and 4, the top surface of the loading table 10 is provided with a guide groove 102 for guiding the chip 3, the guide groove 102 is provided along the sliding direction of the loading table 10, and the guide groove 102 penetrates through the loading table 10 on the side close to the conveying table 6. In this embodiment, the guiding groove 102 includes the macrostoma end and the osculum end, and the one end that guiding groove 102 is close to transport platform 6 is the osculum end, and the width of seting up of guiding groove 102 reduces from the macrostoma end to the osculum end gradually to be convenient for place chip 3 behind the macrostoma end of guiding groove 102, move through promoting chip 3 relative guiding groove 102, thereby can make chip 3 to the direction removal that is close to transport platform 6.

Referring to fig. 3 and 4, in the present embodiment, the number of the guide grooves 102 is multiple, a plurality of the guide grooves 102 are distributed on the loading platform 10 at equal intervals, and each guide groove 102 corresponds to the clamping end 2 of one group of the pins 1. That is, two pins 1 formed by the same wire form a group, and a clamping end 2 formed by matching the two pins 1 corresponds to one guide groove 102.

In addition, a negative pressure cavity (not shown) is further formed inside the feeding table 10, and the large opening end of the guide groove 102 is communicated with the negative pressure cavity. The negative pressure chamber is connected to an air pump (not shown in the figure) which pumps air from the negative pressure chamber, so that the chip 3 on the guide groove 102 can be adsorbed in the guide groove 102 and is not easy to displace.

When the chip 3 is assembled to the holding ends 2 of the leads 1, the leads 1 are first conveyed to a position corresponding to the loading table 10, and the chip 3 is placed at the large opening ends of the guide grooves 102, and one chip 3 is correspondingly placed in each guide groove 102. Then, the feeding table 10 is pushed to approach the pins 1, so that the clamping ends 2 of the pins 1 are aligned with the small end of the guide groove 102, and the clamping ends 2 of the pins 1 and the side of the feeding table 10 facing the conveying table 6 have a small gap. Then, the clamping end 2 of the pin 1 is opened, the chip 3 is pushed to slide to the clamping end 2 of the pin 1 along the guide groove 102, and the chip 3 is clamped by the clamping end 2 of the pin 1, so that the chip 3 is assembled with the pin 1.

Referring to fig. 5 and 6, a pin separating device is installed between the feeding table 10 and the conveying table 6, and the pin separating device is used for opening the clamping ends 2 of the pins 1, so that the chip 3 is pushed into the clamping ends 2 of the pins 1, and the clamping ends 2 of the pins 1 clamp the pins 1.

Specifically, referring to fig. 5 and 6, the lead separating device includes an upper separating plate 111 and a lower separating plate 112 which are liftably provided on the frame 4, and the upper separating plate 111 and the lower separating plate 112 are oppositely provided. The mutual facing sides of the upper separating plate 111 and the lower separating plate 112 are provided with separating teeth, wherein the upper separating teeth 113 are arranged on the upper separating plate 111, the lower separating teeth 114 are arranged on the lower separating plate 112, and the upper separating teeth 113 and the lower separating teeth 114 are matched and abutted against the same group of pins 1, so that the clamping ends 2 of the pins 1 are opened. In this embodiment, the upper separating teeth 113 and the lower separating teeth 114 are disposed in a staggered manner, the upper separating teeth 113 are used for abutting against one of the pins 1, and the lower separating teeth 114 are used for abutting against the other pin 1.

Referring to fig. 5 and 6, the frame 4 is further provided with a separating mechanism for driving the upper separating plate 111 and the lower separating plate 112 to move in a direction of approaching to or separating from each other. When the separating mechanism drives the upper separating plate 111 and the lower separating plate 112 to move toward the direction of approaching each other so that the upper separating teeth 113 and the lower separating teeth 114 respectively abut against the two leads 1 of the same group of leads 1, the two leads 1 are respectively subjected to the abutting force of the upper separating teeth 113 and the lower separating teeth 114 to be spread, thereby facilitating the chip 3 to be pushed into the holding terminal 2. In this embodiment, the lower separating tooth 114 can just rise to abut against one of the pins 1, the upper separating tooth 113 can fall to abut against the other of the pins to be pressed down, or the upper separating tooth 113 can just fall to abut against one of the pins 1, and the lower separating tooth 114 can rise to abut against the other of the pins to rise, that is, one of the two pins 1 is driven to be opened, so that the clamping end 2 is opened.

Specifically, referring to fig. 5 and 6, the separating mechanism includes two lifting rods 115 which are arranged on the frame 4 in a liftable manner, and a first eccentric wheel 116 for driving the two lifting rods 115 to lift, wherein the lifting rods 115 are vertically installed on the frame 4, and the top ends of the two lifting rods 115 are respectively connected with the upper separating plate 111 and the lower separating plate 112 in a one-to-one correspondence manner. In this embodiment, there are two first eccentric wheels 116, and the two first eccentric wheels 116 are disposed in a staggered manner, so that the two first eccentric wheels 116 drive the two lifting rods 115 to lift asynchronously. That is, when one of the first eccentrics 116 drives one of the lifting rods 115 to ascend, the other first eccentric 116 drives the other lifting rod 115 to descend.

Specifically, referring to fig. 5 and 6, the bottom end of the lifting rod 115 abuts against the edge of the first eccentric wheel 116, and when the first eccentric wheel 116 abuts against the lifting rod 115 from the proximal end to the distal end and rotates against the lifting rod 115, the lifting rod 115 gradually rises to push the corresponding separating plate to rise, and otherwise, the corresponding separating plate is pushed to fall. The two lifting rods 115 are driven to lift asynchronously, so that the upper separation plate 111 and the lower separation plate 112 can move in the directions approaching to or separating from each other, thereby opening and closing the clamping ends 2 of the pins 1.

Referring to fig. 7 and 8, in order to facilitate pushing the chip 3 to the clamping end 2 of the pin 1, a pushing frame 12 is further mounted on the feeding frame 9, the pushing frame 12 is slidably connected to the feeding frame 9, and the sliding direction of the pushing frame 12 is the same as the sliding direction of the feeding table 10. A material pushing plate 13 is mounted on the material pushing frame 12, the material pushing plate 13 is fixedly connected to the material pushing frame 12 through bolts, and one side of the material pushing plate 13 is erected on the material loading platform 10. One end of the material pushing plate 13, which is far away from the material pushing frame 12, is provided with a material pushing end, and the material pushing end is used for pushing the chip 3 in the guide groove 102 to move, so that the chip 3 on the guide groove 102 is conveniently pushed to the clamping end 2 of the pin 1.

In addition, referring to fig. 7 and 8, two sets of driving devices are disposed on the frame 4, and the two sets of driving devices are respectively used for driving the material pushing frame 12 and the material loading table 10 to slide. Specifically, the driving means includes a driving lever 141 rotatably installed on the frame 4 and a hinge lever 142 hinged to one end of the driving lever 141. In this embodiment, the hinge rods 142 of the two sets of driving devices are respectively hinged to the pushing frame 12 and the feeding table 10.

Referring to fig. 7 and 8, an opening (not shown) is formed in the working platform 41, the top end of the transmission rod 141 upwardly passes through the opening, and the hinge rod 142 is hinged to one end of the transmission rod 141, which passes through the opening. Therefore, when the bottom end of the transmission rod 141 is pushed to overturn the transmission rod 141, the pushing frame 12 and the feeding table 10 can be pushed to slide.

In addition, referring to fig. 7 and 8, a driving assembly for driving the driving rod 141 to turn is further disposed on the frame 4, and the driving assembly is located below the driving rod. Specifically, the driving assembly includes a rotating shaft 143 rotatably mounted on the frame 4 and a driving motor 144 for driving the rotating shaft 143 to rotate. The rotating shaft 143 is disposed along a length direction of the worktable 41, two cams 145 are sleeved on the rotating shaft 143, and the two cams 145 respectively drive the two driving rods 141. In this embodiment, the distal ends of the two cams 145 are disposed in a staggered manner, so as to drive the two transmission rods 141 to swing sequentially, thereby driving the feeding table 10 and the pushing frame 12 to slide sequentially.

Meanwhile, referring to fig. 7 and 8, the bottom end of the driving lever 141 is hinged with an abutment lever 146 for abutting against the cam 145, and an angle formed between the abutment lever 146 and the driving lever 141 is an acute angle. In this embodiment, the rotation angle of the abutment lever 146 relative to the transmission lever 141 is in the range of 30 ° to 80 °.

Referring to fig. 7 and 8, a tension spring 147 for providing a downward tension to the abutment rod 146 is further installed on the frame 4, the tension spring 147 is located below the abutment rod 146, and one end of the tension spring 147 is connected to the abutment rod 146 and the other end is connected to the frame 4, so that the tension spring 147 is reset.

It can be understood that, when the cam 145 rotates from the proximal end abutting against the abutting rod 146 to the distal end abutting against the distal end, the abutting rod 146 rotates relative to the transmission rod 141, until the abutting rod 146 cannot rotate relative to the transmission rod 141, the abutting rod 146 receives the abutting force of the cam 145, and acts on the bottom end of the transmission rod 141 to push the transmission rod 141 to turn over, thereby driving the feeding table 10 and the pushing frame 12 to slide in the direction close to the conveying table 6, so as to push the chip 3 to the clamping end 2 of the lead 1, and at this time, the tension spring 147 is in a tension state. When the cam 145 rotates from the distal end abutting against the abutting rod 146 to the proximal end abutting against, the abutting force of the cam 145 on the abutting rod 146 gradually decreases, and at this time, the tension spring 147 provides a pulling force to the abutting rod 146 so as to reset the transmission rod 141, thereby driving the feeding table 10 and the pushing frame 12 to slide in the direction away from the conveying table 6, thereby completing the feeding operation of the chip 3.

Referring to fig. 9, the table 41 is further provided with a chip arranging device for arranging the chips 3 in order and a chip pick-and-place device for transferring the chips 3 on the chip arranging device to the guide grooves 102 of the loading table 10.

Specifically, referring to fig. 9 and 10, the chip arranging device includes a vibrating tray 151 disposed on the table 41 and an arranging platform 152 connected to a discharge end of the vibrating tray 151, an inclined excess material groove 1521 is formed in a top surface of the arranging platform 152, and the excess material groove 1521 penetrates through one side of the arranging platform 152. The lower side of the surplus tank 1521 is connected with a surplus material recovery tank 154, and one end of the surplus material recovery tank 154 is communicated with the vibration disk 151.

Referring to fig. 10 and 11, a material arranging guide rail 153 is further fixed on the material arranging table 152, the material arranging guide rail 153 spans the surplus tank 1521, and the material arranging guide rail 153 is arranged to be inclined downwards from one end of the vibration disc 151 to one end far away from the vibration disc 151. In this embodiment, the material arranging guide rails 153 are multiple, the number of the material arranging guide rails 153 is the same as the number of the guide grooves 102, and the distance between two adjacent material arranging guide rails 153 is equal to the distance between two adjacent guide grooves 102.

Referring to fig. 10 and 11, each material arranging guide rail 153 is provided with a material arranging groove 1531 for a single chip 3 to pass through, the material arranging groove 1531 is formed along the length direction of the material arranging guide rail 153, the material arranging groove 1531 penetrates through two ends of the material arranging guide rail 153, and one end of the material arranging groove 1531 is communicated with the discharge end of the vibrating plate 151. One side of the material arranging guide rail 153 is further opened with an opening penetrating the material arranging groove 1531, so that the material arranging groove 1531 has an opening side and a closed side. In this embodiment, the material arranging groove 1531 is inclined downward from the opening side to the closing side, so that the chip 3 passing through the material arranging groove 1531 is not easily separated from the material arranging groove 1531.

Referring to fig. 10 and 11, a vibration motor for driving the material arranging table 152 to vibrate is mounted on the material arranging table 152, and the material arranging table 152 is driven to vibrate by the vibration motor, so that the chip 3 can be conveyed to the material arranging table 10 along the guide rail. A material taking groove 1522 used for accommodating a single chip 3 is further formed in one side, close to the feeding table 10, of the material arranging table 152, and the material taking groove 1522 is communicated with one end, far away from the vibration disc 151, of the material arranging groove 1531. After the chips 3 are sorted by the sorting groove 1531, the chips 3 are conveyed to the picking groove 1522, and the chips 3 in the picking groove 1522 are transferred to the guide grooves 102 of the feeding table 10 by the chip picking and placing device.

Specifically, referring to fig. 12, the chip picking and placing device includes a carriage 161 fixed on the table 41, a sliding base 162 slidably mounted on the carriage 161, a lifting frame 163 fixed on the sliding base 162, and a picking and placing base 164 liftably mounted on the lifting frame 163. In this embodiment, the sliding seat 162 can move back and forth between the feeding table 10 and the material arranging table 152 relative to the sliding frame 161; the pick-and-place holder 164 is vertically movable relative to the crane 163. With reference to fig. 9, it can be understood that the sliding seat 162 slides back and forth between the loading platform 10 and the material arranging platform 152, and drives the lifting frame 163 to slide, so as to drive the pick-and-place seat 164 to slide back and forth, and meanwhile, the pick-and-place seat 164 can also lift relative to the lifting frame 163 during the sliding process.

Referring to fig. 12, a suction head 165 is installed on the pick-and-place base 164, and a vertical suction needle 166 is connected to the suction head 165, and the suction needle 166 is used for sucking the chip 3 on the material arranging table 152 and transferring to the material loading table 10. A suction pump (not shown) is further installed on the table 41, and an air inlet of the suction pump is communicated with the suction head 165, so that the chip 3 on the material arranging table 152 is sucked by suction.

Referring to fig. 12, when picking and placing the chip 3, after the chip 3 passing through the material arrangement groove 1531 reaches the material taking groove 1522, the sliding seat 162 is driven to slide to the position of the material arrangement table 152 relative to the carriage 161, so that the picking and placing seat 164 is located above the material arrangement table 152, and then the picking and placing seat 164 is driven to descend relative to the lifting frame 163 until the suction needle 166 sucks the chip 3 on the material taking groove 1522. Referring to fig. 9, after the suction pins 166 suck the chips 3, the pick-and-place base 164 is driven to ascend, the sliding base 162 is driven to slide to the position of the loading table 10, so that the pick-and-place base 164 is located above the loading table 10, and then the pick-and-place base 164 is driven to descend, so that the chips 3 sucked on the suction pins 166 are placed in the guide grooves 102 of the loading table 10, thereby completing the pick-and-place and transfer of the chips 3.

In addition, a sliding assembly for driving the sliding seat 162 to slide back and forth between the feeding table 10 and the material arranging table 152 is arranged on the machine frame 4, and a lifting assembly for driving the taking and placing seat 164 to lift is also arranged on the machine frame 4.

Specifically, referring to fig. 12, the sliding assembly includes a swing lever 171 rotatably mounted on the frame 4 and a rotating lever 172 rotatably connected to a tip end of the swing lever 171. In this embodiment, the table 41 is provided with a through hole (not shown) through which the top end of the swing rod 171 passes, and the through hole has a gap for the swing rod 171 to swing. The bottom end of the swing rod 171 is connected with a connecting rod 174, a counterweight 173 is hinged below the workbench 41, and the free end of the counterweight 173 is hinged with the connecting rod 174.

Referring to fig. 12, a protrusion (not shown) is fixed at a free end of the weight block 173, the rotating shaft 143 is sleeved with a second eccentric wheel 175 for abutting against the protrusion, when the second eccentric wheel 175 rotates from the near-center abutting protrusion to the far-center abutting protrusion, the weight block 173 is forced to rotate, so as to push the connecting rod 174 to move, thereby pushing a bottom end of the swing rod 171 to swing, thereby driving a top end of the swing rod 171 to swing, and thus pushing the sliding seat 162 to slide relative to the sliding frame 161.

Specifically, referring to fig. 12, the lifting assembly includes a top rod 181 movably mounted on the frame 4 and a third eccentric wheel 182 for driving the top rod 181 to lift. In this embodiment, the worktable 41 is provided with a through hole (not shown), and the top end of the top rod 181 penetrates through the through hole and is rotatably connected with the pick-and-place seat 164. The bottom end of the top rod 181 is hinged with a push rod 183 used for abutting against the third eccentric wheel 182, and the other end of the push rod 183 is hinged with the frame 4.

Referring to fig. 12, when the rotating shaft 143 drives the third eccentric wheel 182 to rotate from the proximal end abutting against the push rod 183 to the distal end abutting against the push rod 183, the end of the push rod 183 close to the push rod 181 is pushed by the third eccentric wheel 182 to move upwards, thereby pushing the push rod 181 to move upwards, and pushing the pick-and-place holder 164 to move upwards; on the contrary, when the third eccentric wheel 182 rotates from the far end to the near end abutting against the push rod 183, the end of the push rod 183 close to the push rod 181 gradually descends due to the gravity, so that the push rod 181 descends therewith, and the pick-and-place seat 164 is driven to descend, thereby completing the ascending and descending of the pick-and-place seat 164.

The implementation principle of the application is as follows: when the chip 3 is clamped at the clamping end 2 of the pin 1, the pin 1 is conveyed to a position opposite to the feeding table 10 through the conveying table 6, so that the material guiding groove on the feeding table 10 is aligned with the clamping end 2 of the pin 1, then the cam 145 is driven to rotate through the driving motor 144, so that the feeding table 10 moves towards the conveying table 6, the feeding table 10 is further gradually close to the clamping end 2 of the pin 1 until the side, facing the conveying table 6, of the clamping end 2 of the pin 1 and the feeding table 10 slightly contacts with the clamping end 2 of the pin 1, or the clamping end 2 of the pin 1 and the feeding table 10 have a small gap. Then, the two lifting rods 115 are driven to lift asynchronously by the first eccentric wheel 116, so that the upper separation plate 111 and the lower separation plate 112 move towards each other until the upper separation teeth 113 and the lower separation teeth 114 respectively abut against the two pin 1 lines of the clamping terminal 2, thereby spreading the clamping terminal 2 of the pin 1 to facilitate placing the chip 3 into the clamping terminal 2. In the process that the pin separating device separates the clamping ends 2 of the pins 1, the chip pick-and-place device sucks the chip 3 on the pick-and-place groove 1522 of the material arranging table 152, places the chip 3 on the guide groove 102 of the material loading table 10, and then pushes the chip 3 to approach the clamping ends 2 of the pins 1 by the material pushing plate 13 on the material pushing frame 12 until the chip 3 is pushed to the clamping ends 2 of the pins 1. After the chip 3 is pushed to the holding end 2 of the pin 1, the upper separation plate 111 and the lower separation plate 112 move in the direction away from each other, and the holding end 2 of the pin 1 resets under the action of its own elastic force, so that the chip 3 is clamped, thereby completing the step of holding the chip 3 by the pin 1.

The above embodiments are preferred embodiments of the present application, and the protection scope of the present application is not limited by the above embodiments, so: all equivalent changes made according to the structure, shape and principle of the present application shall be covered by the protection scope of the present application.

Claims

1. The utility model provides a trinity chip automatic feeding system, includes frame (4), its characterized in that: the automatic pin feeding machine is characterized in that a conveying table (6) used for conveying pins (1) is arranged on the rack (4), clamping ends (2) of the pins (1) protrude out of one side of the conveying table (6), a feeding table (10) is arranged on the rack (4) in a sliding mode, the feeding table (10) is located on one side of the clamping ends (2) of the pins (1), the clamping ends (2) of the pins (1) face the feeding table (10), and a driving device used for driving the feeding table (10) to slide towards a direction close to or far away from the conveying table (6) is arranged on the rack (4);

a guide groove (102) for guiding the chip (3) is formed in the feeding table (10), the guide groove (102) penetrates through one side, close to the conveying table (6), of the feeding table (10), a material pushing frame (12) is arranged on the feeding table (10) in a sliding mode, and a material pushing plate (13) for pushing the chip (3) on the guide groove (102) to move towards the conveying table (6) is arranged on the material pushing frame (12);

the pin separating device is arranged on the rack (4) and used for driving the clamping ends (2) of the pins (1) to open, the pin separating device is located between the feeding table (10) and the conveying table (6), the rack (4) is further provided with a chip arranging device used for arranging the chips, and a chip taking and placing device used for sucking the chips (3) on the chip arranging device and placing the chips in the guide grooves (102).

2. The three-in-one chip automatic feeding system according to claim 1, characterized in that: the chip arranging device comprises a vibrating disk (151) arranged on the rack (4) and an arranging table (152) connected to the discharging end of the vibrating disk (151), wherein an arranging guide rail (153) is arranged on the arranging table (152), the arranging guide rail (153) is arranged in a manner of inclining downwards from the discharging end of the vibrating disk (151) to the direction of the feeding table (10), an arranging groove (1531) for a single chip (3) to pass through is formed in the arranging guide rail (153), the arranging groove (1531) is arranged along the length direction of the arranging guide rail (153), and the arranging groove (1531) is communicated with the discharging end of the vibrating disk (151); a material taking groove (1522) communicated with the material arranging groove (1531) is formed in one side, close to the material loading table (10), of the material arranging table (152); and a vibration motor for driving the material arranging platform (152) to vibrate is arranged on the rack (4).

3. The three-in-one chip automatic feeding system according to claim 2, characterized in that: an opening penetrating through the material arranging groove (1531) is formed in one side of the material arranging guide rail (153), the opening is formed in the length direction of the material arranging guide rail (153), and the material arranging groove (1531) is arranged in a mode that the opening side of the material arranging groove (1531) inclines downwards to the closed side.

4. The three-in-one chip automatic feeding system according to claim 3, characterized in that: an inclined surplus trough (1521) is further formed in the material arranging platform (152), and the surplus trough (1521) is located below the material arranging guide rail (153).

5. The three-in-one chip automatic feeding system according to claim 4, characterized in that: the low-order side intercommunication of surplus material groove (1521) has surplus material accumulator (154), the one end of surplus material accumulator (154) connect in vibration dish (151).

6. The three-in-one chip automatic feeding system according to claim 2, characterized in that: chip is got and is put device including set up in carriage (161), the slip set up in on frame (4) sliding seat (162), liftable set up in get on carriage (161) put seat (164) and set up in get suction head (165) on putting seat (164), suction head (165) are connected with and are used for absorbing get suction needle (166) of chip (3) of silo (1522), be provided with on frame (4) communicate in the aspiration pump of suction head (165), still be provided with on frame (4) and be used for the drive the gliding sliding component of relative carriage (161) of sliding seat (162), and be used for the drive get the lifting unit that seat (164) goes up and down.

7. The three-in-one chip automatic feeding system according to claim 1, characterized in that: the driving device comprises a driving rod (141) rotatably arranged on the rack (4) and a hinged rod (142) hinged to one end of the driving rod (141), one end of the hinged rod (142) is hinged to the feeding table (10), a driving assembly used for driving the driving rod (141) to overturn is arranged on the rack (4), and the driving assembly is located at one end, far away from the hinged rod (142), of the driving rod (141).

8. The three-in-one chip automatic feeding system according to claim 7, characterized in that: drive assembly including rotate set up in pivot (143) on frame (4) and be used for the drive pivot (143) pivoted driving motor (144), the cover is equipped with cam (145) on pivot (143), the one end that articulated rod (142) were kept away from in transfer line (141) articulates there is the butt pole (146) that is used for the butt cam (145), be provided with on frame (4) be used for to butt pole (146) provide tensile extension spring (147), extension spring (147) are located the below of butt pole (146), just the one end of extension spring (147) connect in butt pole (146), the other end connect in frame (4).

9. The three-in-one chip automatic feeding system according to claim 8, characterized in that: pin separator including set up liftable in last separator plate (111) and lower separator plate (112) on frame (4), go up separator plate (111) and lower separator plate (112) and set up relatively, upward be provided with on separator plate (111) and be used for butt last separation tooth (113) of one of them pin (1), be provided with down separation tooth (114) that are used for another pin (1) of butt down on separator plate (112), be provided with on frame (4) and be used for the drive go up separator plate (111) and lower separator plate (112) to the direction removal that is close to each other or keeps away from each other.

10. The three-in-one chip automatic feeding system according to claim 9, characterized in that: separating mechanism includes two vertical settings in lifter (115) on frame (4), two the top of lifter (115) connect respectively in go up stripper (111) and lower stripper (112), the cover is equipped with two cams (145) on pivot (143), two cam (145) dislocation set, and two cam (145) one-to-one butt respectively in two the bottom of lifter (115).