1. An automatic feeding system for inductors, comprising a support (100), characterized in that: the inductor embedding device comprises two parallel conveying belts (110), a material distributing plate (120) is connected to a support (100) in a sliding mode in a direction perpendicular to the conveying belts (110), material distributing grooves (123) which are arranged in parallel and used for embedding inductors are formed in the material distributing plate (120), a material carrying plate (130) moves on the support (100) and is located below the material distributing plate (120) in a clearance mode, the material carrying plate (130) is used for taking out and transporting the inductors from the material distributing plate (120), and a bearing area (131) for bearing the inductors is formed in the material carrying plate (130);

when one of the distributing troughs (123) is aligned with one of the conveying belts (110), the other distributing trough (123) is aligned with the bearing area (131).

2. The automatic feeding system for inductors according to claim 1, wherein: the material loading plates (130) are located between the two supports (100), the material distributing grooves (123) penetrate through two ends of the material distributing plate (120), material blocking pieces (125) used for blocking the material distributing grooves (123) are arranged on one side, away from the conveying belt (110), of each support (100), material discharging gaps (126) are formed between the two material blocking pieces (125), and when one material distributing groove (123) is blocked by one material blocking piece (125), the other material distributing groove (123) is located in the material discharging gaps (126).

3. The automatic feeding system for inductors according to claim 1, wherein: magnets (150) for adsorbing the inductor are arranged on the material carrying plate (130) at intervals along the length direction of the material distributing groove (123).

4. The automatic feeding system for inductors according to claim 3, wherein: the material loading plate (130) is detachably connected with a material loading block (140) parallel to the material distributing groove (123), one side, close to the material distributing plate (120), of the material loading block (140) is the bearing area (131), and the magnet (150) is embedded in the bearing area (131).

5. The automatic feeding system for inductors according to claim 4, wherein: the inner walls of the two sides of the material distributing groove (123) are provided with limiting grooves (124) for embedding the inductance pins, and an accommodating area (141) for accommodating the inductance pins is arranged between the side edge of the material loading block (140) and the side edge of the material loading plate (130).

6. The automatic feeding system for inductors according to claim 3, wherein: the magnet (150) comprises a plurality of electromagnets (200) which are arranged along the length direction of the material carrying plate (130) and correspond to the inductors, the electromagnets (200) are connected in series, the electromagnets (200) are connected with a power supply body (155) through a lead, and the lead is provided with a notch (160);

the material carrying plate (130) is provided with a communicating component (170) used for communicating the gap (160), and when the bearing area (131) and the material distributing groove (123) are completely closed, the communicating component (170) communicates the gap (160).

7. The automatic feeding system for inductors according to claim 6, wherein: the connecting structure is characterized in that the wire is provided with a notch (160) to form two connecting sections (161), the communicating component (170) comprises an elastic sheet (171) which is arranged on the material carrying plate (130) and is positioned at the notch (160) and two inserting pins (172) which are arranged on the elastic sheet (171) and are respectively used for being connected with the two connecting sections (161), and the support (100) is provided with an abutting plate (180) which is used for abutting against the elastic sheet (171) and enabling the elastic sheet (171) to move towards one side of the material carrying plate (130).

8. The automatic feeding system for inductors according to claim 7, wherein: the material carrying plate (130) is provided with a containing groove (162) corresponding to the notch (160), the connecting section (161) is located in the containing groove (162), two ends of the elastic sheet (171) are inserted into the inner wall of the containing groove (162), and the middle part of the elastic sheet (171) is in an arc-shaped protrusion shape and is used for contacting with the lower side of the contact plate (180).

9. A feeding method for inductors is characterized in that: the method comprises the following steps:

s1: synchronous feeding and discharging, wherein one conveying belt (110) conveys the inductor to the corresponding distributing groove (123), and meanwhile, the material carrying plate (130) moves to the position below the material distributing plate (120) and conveys the inductor in the other distributing groove (123);

s2: the material changing port is used for sliding the material distributing plate (120), so that the material distributing groove (123) provided with the inductor is closed to the next material carrying plate (130), and the empty material distributing groove (123) is closed to the other conveying belt (110) for feeding;

thereby feeding the materials circularly.

10. The feeding method for the inductor according to claim 9, wherein: when the loading plate (130) moves to the receiving area (131) and is completely matched with the distributing groove (123), the magnet (150) has magnetism for absorbing inductance.

Background

An inductor is a component that can convert electrical energy into magnetic energy for storage. The inductor is similar in structure to a transformer, but has only one winding. The inductor has an inductance that only impedes the change in current. Referring to fig. 1, the inductor is generally composed of a winding, an iron core, a case 10, etc., and pins 11 are further extended outside the case 10.

In a production line for manufacturing inductors, the inductors are transported by a conveyor belt, and are continuously conveyed to a carrier plate, and then the next step is performed.

For the above related technologies, the inventor thinks that in the actual production process, after needing to collect a plurality of inductances to the material-carrying plate, the inductances are transported to the next process, and at this time, the inductances need to wait until the material-carrying plate is unloaded, and then the inductances are transported next time, and the efficiency is low.

Disclosure of Invention

In order to improve the conveying efficiency of the inductor, the application provides an automatic feeding system and a feeding method for the inductor.

On the one hand, the application provides an autoloading system for inductance, adopts following technical scheme: an automatic feeding system for inductors comprises a support, wherein the support comprises two parallel conveying belts, a material distribution plate is connected to the support in a sliding mode in the direction perpendicular to the conveying belts, material distribution grooves which are arranged in parallel and used for embedding inductors are formed in the material distribution plate, a material carrying plate is arranged on the support and located below the material distribution plate in a clearance motion mode and used for taking out and transporting the inductors from the material distribution plate, and a bearing area for bearing the inductors is formed in the material carrying plate;

when one of the distributing troughs is matched with one of the conveying belts, the other distributing trough is matched with the bearing area.

Through adopting above-mentioned technical scheme, the conveyer belt of one side carries the inductance to the branch silo of branch flitch in, another branch silo will be just to carrying the accepting region of flitch simultaneously, it will take out the inductance with the inductance therefrom and carry parallelly to carry the flitch, and after the inductance in the branch silo of feeding earlier finishes, divide the flitch to switch the branch silo of accepting region butt joint after sliding and carry out the ejection of compact, can make to carry the flitch and can export the inductance always, at the clearance of a plurality of flitchs that carry of conversion, go in step and collect the inductance, utilize the time, improve the efficiency of whole production and processing.

Preferably, two supports are arranged in parallel, the material carrying plate is located between the two supports, the material distribution groove penetrates through two ends of the material distribution plate, a material blocking piece for blocking the material distribution groove is arranged on one side, away from the conveying belt, of each support, a material discharging gap is formed between the two material blocking pieces, and when one material distribution groove is blocked by one material blocking piece, the other material distribution groove is located in the material discharging gap.

Through adopting above-mentioned technical scheme, the inductance is when being collected to dividing the silo in, will be blockked by the putty piece, and then can be stored in dividing the silo, and after dividing the flitch to slide, divides the other end of silo to open, and when carrying the flitch this moment at the motion in-process, can take out the inductance wholly through the other end that divides the silo.

Preferably, magnets for adsorbing the inductor are arranged on the material carrying plate at intervals along the length direction of the material distributing groove.

Through adopting above-mentioned technical scheme, when the accepting region is fashionable with the branch silo downside, the magnet can adsorb the inside iron core of inductance, fixes a position the inductance, and when carrying the flitch when the motion, just can take out the inductance from the middle of the branch silo this moment.

Preferably, the material loading plate is detachably connected with a material loading block parallel to the material distributing groove, one side, close to the material distributing plate, of the material loading block is the bearing area, and the magnet is embedded in the bearing area.

Through adopting above-mentioned technical scheme, when needs bear different inductance, can change the loading piece according to the model, in transportation process, the magnet can adsorb the inductance and be convenient for transport in the accepting region.

Preferably, the inner walls of the two sides of the distributing groove are provided with limiting grooves for embedding the inductance pins, and a containing area for placing the inductance pins is arranged between the side edge of the material loading block and the side edge of the material loading plate.

By adopting the technical scheme, on one hand, when the inductor enters the distributing groove, the pins of the inductor synchronously enter the limiting groove, and the pins abut against the inner wall of the limiting groove under the action of gravity of the inductor to support the inductor; on the other hand, when the inductance is transported out of the distributing groove, the plug pins are located in the accommodating area in the vertical projection, and the possibility that other parts interfere with the plug pins is reduced in the accommodating area in the moving process.

Preferably, the magnet comprises a plurality of electromagnets corresponding to the inductors, the electromagnets are arranged along the length direction of the loading plate and connected in series, the electromagnets are connected with a power supply body through a lead, and the lead is provided with a notch;

and the material carrying plate is provided with a communicating component for communicating the notch, and the communicating component communicates the notch when the bearing area and the distributing groove are completely closed.

For some precise inductors, the motion speed of the material carrying plate is slower, the material carrying plate is in place after the material distributing plate slides first, and if the magnet is always magnetic, the possibility that the material carrying plate drives the inductor to move ahead exists. Through adopting above-mentioned technical scheme, after carrying the flitch location, also exactly the accepting region is when the silo is totally right, and the intercommunication subassembly will communicate the breach, will form the route this moment, and the electromagnet just will have magnetism this moment, just can adsorb the inductance, can not form at the inductance and interfere, optimize the pay-off process.

Preferably, the wire has breach department and forms two linkage segments, the intercommunication subassembly is including setting up on carrying the flitch and being located the shell fragment of breach department, two settings are on the shell fragment and are used for the plug pin of being connected with two linkage segments respectively, be provided with on the support and be used for with the shell fragment is contradicted and is made the shell fragment towards carry the touch panel of flitch one side motion.

Through adopting above-mentioned technical scheme, when carrying the flitch when moving to the branch silo below, synchronous, conflict board will be with the shell fragment contact, the plug pin is connected with the linkage segment contact this moment, just can adsorb the inductance after forming the route, and when the conflict board no longer acts on to the shell fragment, the plug pin breaks away from the linkage segment to the open circuit, the inductance is no longer adsorbed to the magnet.

Preferably, the material carrying plate is provided with a containing groove corresponding to the notch, the connecting section is located in the containing groove, two ends of the elastic sheet are inserted into the inner wall of the containing groove, and the middle part of the elastic sheet is in an arc-shaped protrusion shape and is used for contacting with the lower side of the touch plate.

Through adopting above-mentioned technical scheme, conflict board will be contradicted on the arc jut, and then imbed into the storage tank after the atress in, the shell fragment drives the plug pin and is connected with the linkage segment, forms the return circuit.

On the other hand, the application also provides a feeding method for the inductor, which comprises the following steps:

s1: synchronous feeding and discharging, wherein one conveying belt conveys the inductor to a corresponding distributing groove, and meanwhile, the material carrying plate moves to the position below the material distributing plate and conveys the inductor in the other distributing groove;

s2: the material changing port slides the material distributing plate, so that the material distributing groove provided with the inductor is closed to the next material carrying plate, and the no-load material distributing groove is closed to the other conveying belt for feeding;

thereby feeding the materials circularly.

Through adopting above-mentioned technical scheme, when one side conveyer belt carries out the feeding, carry the flitch and can carry the inductance in another minute silo to in the middle of the next process, improved holistic production efficiency.

Preferably, when the loading plate moves to the receiving area and is completely matched with the distributing groove, the magnet has the magnetism of adsorbing the inductor.

Through adopting above-mentioned technical scheme, just can form when carrying the flitch and moving under to the silo of branch, have magnetic suction, just can exert the effort to the inductance to carry the flitch and drive when moving.

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

1. when one conveying belt feeds materials, the material loading plate can convey the filled inductor in the other distributing groove to the next working procedure, so that the overall production efficiency can be improved;

2. when carrying the flitch and moving to just being to the silo, the shell fragment pressurized back for plug pin and linkage segment are connected, thereby make the magnet have magnetism, carry the inductance this moment again, have reduced the possibility of disturbing.

Drawings

FIG. 1 is a schematic diagram of an inductor;

FIG. 2 is a schematic structural diagram of embodiment 1 of the present application;

FIG. 3 is a schematic partial explosion view of example 1 of the present application;

FIG. 4 is a schematic structural diagram of a material loading plate and a material loading block in embodiment 1 of the present application;

FIG. 5 is a schematic structural view of a material loading block with a baffle in another embodiment;

FIG. 6 is a partial structural view of embodiment 2 of the present application;

fig. 7 is a schematic structural view of the embodiment 2 of the present application after hiding a material loading plate, which is used for showing a first lead body and a second lead body;

fig. 8 is a schematic structural view of a communicating member in embodiment 2 of the present application.

Description of reference numerals: 100. a support; 110. a conveyor belt; 120. a material distributing plate; 121. a slide base; 122. a cylinder; 123. a material distributing groove; 124. a limiting groove; 125. plugging sheets; 126. a discharge gap; 130. a material carrying plate; 131. a carrying area; 132. a chain link; 140. a loading block; 141. an accommodating area; 142. a baffle plate; 150. a magnet; 151. a first mounting groove; 152. a second mounting groove; 153. a first lead body; 154. a second lead body; 155. a power supply body; 160. a notch; 161. a connecting section; 162. a containing groove; 170. a communicating component; 171. a spring plate; 172. a pin; 173. a slot; 180. a touch plate; 200. an electromagnet.

Detailed Description

The present application is described in further detail below with reference to the attached drawings.

The application discloses an automatic feeding system for an inductor.

Example 1:

an automatic feeding system for inductors, referring to fig. 2, includes two supports 100, in this embodiment, two supports 100 are provided at intervals, and correspondingly, a conveyor 110 is provided on each support 100, and the extending direction of the conveyor 110 is perpendicular to the extending direction of the supports 100.

Referring to fig. 2 and 3, the support 100 is connected with a material distributing plate 120 in a sliding manner along a direction perpendicular to the conveying belt 110, two ends of the material distributing plate 120 are provided with sliding bases 121, the sliding bases 121 are connected to the support 100 in a sliding manner, an air cylinder 122 is fixedly mounted on one of the supports 100, and the end of a piston rod of the air cylinder is fixedly connected to the corresponding sliding base 121, so that the sliding base 121 can drive the material distributing plate 120 to slide on the support 100.

Referring to fig. 3, the distributing plate 120 is provided with distributing grooves 123 arranged in parallel, the distributing grooves 123 are used for embedding inductors, the opening direction of the distributing grooves 123 is parallel to the conveying belt 110, and two ends of the distributing grooves 123 penetrate through two end faces of the distributing plate 120. In order to facilitate the placement of the inductor, the inner walls of the two sides of the distributing groove 123 are provided with limiting grooves 124 for embedding the inductor pins.

A material blocking sheet 125 for blocking the material distributing groove 123 is fixed on each bracket 100 through bolts, and the material blocking sheet 125 is positioned on one side of the bracket 100 far away from the conveying belt 110. The two simultaneous plugging pieces 125 have a discharge gap 126 therebetween, and when one of the distributing grooves 123 is plugged by one of the plugging pieces 125, the other distributing groove 123 is located at the discharge gap 126.

A material carrying plate 130 moves on the bracket 100 and under the material distributing plate 120 in a clearance manner, the material carrying plate 130 is used for taking out and transporting the inductor from the material distributing plate 120, and the material carrying plate 130 is provided with a receiving area 131 for receiving the inductor. In the embodiment, a plurality of material carrying plates 130 are arranged between the two brackets 100 at regular intervals, the structure for driving the material carrying plates 130 to move is that the chain links 132 transmit, one chain link 132 is fixed on the lower side of each material carrying plate 130, and then the whole chain link 132 moves to drive the material carrying plates 130 to move, and in other embodiments, other conveying components can be adopted.

During the whole movement, when one of the distributing troughs 123 is aligned with one of the conveyor belts 110, the other distributing trough 123 is aligned with the receiving area 131.

Referring to fig. 3 and 4, the material loading plate 130 is fixedly connected to the material loading block 140 at the middle portion thereof by bolts, and the length direction of the material loading block 140 is parallel to the conveyor belt 110. The side of the loading block 140 close to the distributing plate 120 is the receiving area 131, and a plurality of magnets 150 are embedded on the receiving area 131 along the extending direction thereof, and the magnets 150 can absorb the inductance, so that the inductance can be taken away when the loading block 130 moves to the lower side of the distributing groove 123. When the inductor is placed on the receiving area 131, the pins on both sides of the inductor extend out of both sides of the material loading block 140, and at this time, in order to reduce the possibility of damage to the pins in the subsequent process, a receiving area 141 for placing the inductor pins is provided between the side edge of the material loading block 140 and the side edge of the material loading plate 130.

Referring to fig. 5, in other embodiments, the two ends of the material loading block 140 may be integrally provided with a baffle 142 extending into the material distribution groove 123, when the material loading plate 130 and the material distribution groove 123 are closed, the material distribution plate 120 moves, and after another material distribution groove 123 filled with the inductor moves to the upper side of the material loading plate 130, the inductor is taken out from the material distribution groove 123 by the interference of the baffle 142.

The implementation principle of an automatic feeding system for inductors in embodiment 1 of the present application is as follows: the inductor is conveyed to the distributing groove 123 by the conveying belt 110, due to the existence of the blocking pieces 125, after the quantity of the distributing groove 123 is limited, the distributing plate 120 slides, the lower side of the distributing groove 123 is right opposite to the bearing area 131, the inductors can be adsorbed by the magnets 150 in a one-to-one correspondence mode, then the carrying plate 130 moves, the batch of inductors are taken out of the distributing groove 123, meanwhile, the other distributing groove 123 feeds under the action of the other conveying belt 110, and the efficiency of overall feeding is improved alternately.

Example 2:

the difference from embodiment 1 is that, referring to fig. 6, the magnet 150 includes a plurality of electromagnets 200 corresponding to the inductance and arranged along the length direction of the loading plate 130, the plurality of electromagnets 200 are connected in series, the loading block 140 is provided with a plurality of first mounting grooves 151 into which the iron cores of the electromagnets 200 are inserted, and the loading block 140 is provided with second mounting grooves 152 into which the coils of the electromagnets 200 are inserted and located outside the first mounting grooves 151, and the second mounting grooves 152 are communicated with each other for connecting the coils of the electromagnets 200 in series.

Referring to fig. 6 and 7, the plurality of electromagnets 200 are connected to a power supply body 155 through a wire, the wire is divided into a first wire body 153 and a second wire body 154, the first wire body 153 is connected to both ends of the plurality of electromagnets 200, and the first wire body 153 is embedded in the carrier block 140 and extends out of the bottom end thereof. The second wire body 154 is embedded on the material loading plate 130, the power source body 155 is installed on the second wire body 154, two ends of the second wire body 154 are located under the material loading block 140, and when the material loading block 140 is fixedly installed on the material loading plate 130, the first wire body 153 is abutted against and fixed to the second wire body 154, so as to be communicated with each other.

Referring to fig. 7 and 8, the second wire body 154 has a gap 160 to form two connecting segments 161, the material loading plate 130 is provided with a communicating component 170 for communicating with the gap 160, when the receiving area 131 is completely aligned with the material distributing groove 123, the communicating component 170 communicates with the gap 160, and at this time, the magnet 150 will have magnetism, so as to prevent the possibility of influencing the position of the inductor during the movement of the material loading plate 130.

The communicating component 170 includes an elastic sheet 171 disposed on the material carrying plate 130 and located at the notch 160, two inserting pins 172 disposed on the elastic sheet 171 and respectively used for connecting with the two connecting sections 161, the material carrying plate 130 is provided with a containing groove 162 corresponding to the notch 160, the connecting sections 161 are located in the containing groove 162, two ends of the elastic sheet 171 are inserted into the inner wall of the containing groove 162, the inserting pins 172 are integrally disposed on the lower side of the elastic sheet 171, and the inserting grooves 173 for embedding the connecting sections 161 are disposed on the inserting pins 172, and the middle portion of the elastic sheet 171 is arc-shaped.

Referring to fig. 6 and 7, the support 100 is provided with an abutting plate 180, the abutting plate 180 extends along the length direction of the conveyor belt 110, and the abutting plate 180 is located above the material carrying plate 130 in the horizontal height. And the receiving groove 162 is located on the end of the material-carrying plate 130 close to the conveying belt 110 in vertical projection.

The implementation principle of an automatic feeding system for inductors in embodiment 2 of the present application is as follows: carry flitch 130 in the in-process of moving, the arc jut will contact with conflict board 180 downside, and along with the continuation motion, conflict board 180 will make the arc jut move down, and plug pin 172 will be conflicted on linkage segment 161 this moment, forms the return circuit, and carry flitch 130 this moment and just move to dividing trough 123 under, and magnet 150 has magnetism to adsorb the inductance, and in the process that shell fragment 171 keeps and conflict board 180 contact, magnet 150 will keep magnetism all the time, until shell fragment 171 breaks away from and conflicts board 180.

Based on embodiment 2, the present application further provides a feeding method for an inductor, including the following steps:

s1: synchronous feeding and discharging, wherein one conveying belt 110 conveys the inductor to the corresponding distributing groove 123, and meanwhile, the material carrying plate 130 moves to the position below the material distributing plate 120 and conveys the inductor in the other distributing groove 123 away;

s2: a material changing port, wherein the material distributing plate 120 slides, so that the material distributing groove 123 with the inductor is closed to the next material carrying plate 130, and the empty material distributing groove 123 is closed to the other conveying belt 110 for feeding;

in this process, when the loading plate 130 moves to the receiving area 131 and the distributing trough 123, the magnet 150 has magnetic property of attracting inductance.

The embodiments of the present invention are preferred embodiments of the present application, and the scope of protection of the present application is not limited by the 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.