CN216882551U - Automatic magnet assembling equipment for wireless earphone charging box - Google Patents
Automatic magnet assembling equipment for wireless earphone charging box Download PDFInfo
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- CN216882551U CN216882551U CN202122014487.7U CN202122014487U CN216882551U CN 216882551 U CN216882551 U CN 216882551U CN 202122014487 U CN202122014487 U CN 202122014487U CN 216882551 U CN216882551 U CN 216882551U
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Abstract
The utility model relates to automatic magnet assembling equipment for a wireless earphone charging box, which comprises a machine table, wherein a machine table base is arranged on the machine table, the machine base is provided with a streamline positioning unit, a magnet feeding unit and a carrying and assembling unit, the streamline positioning unit comprises a conveying streamline and a positioning component, the conveying streamline is used for conveying a carrier loaded with a product, the positioning assembly is used for ejecting the carrier out of the conveying streamline and fixing the carrier, the magnet feeding unit comprises a bin and a feeding assembly, the feeding assembly is used for taking the magnet out of the bin, the carrying and assembling unit comprises a driving module, an assembling module and a polarity detection component, the driving module conveys the assembling module to the feeding component, after the assembly module absorbs the magnets on the feeding assembly, the assembly module is conveyed to the polarity detection assembly by the driving module, and the magnets are detected by the polarity detection assembly. The utility model has high assembly efficiency and high product qualification rate.
Description
Technical Field
The utility model relates to assembling equipment, in particular to automatic assembling equipment for a magnet of a charging box of a wireless earphone.
Background
The wireless earphone is characterized in that a middle line is replaced by electric waves, the wireless earphone is connected to a transmitting end from an audio outlet of a computer, then the transmitting end transmits the electric waves to an earphone of a receiving end, and the receiving end is equivalent to a radio. The wireless earphone needs to be stored and charged by the wireless earphone charging box in the using process. However, the existing wireless earphone charging box adopts manual operation when assembling magnets, and has the following disadvantages: the labor resources are seriously relied on, thereby generating higher personnel cost; meanwhile, manual assembly causes great product uncertainty, such as the occurrence of bad conditions of reversed polarity and wrong installation of the magnet of the product.
SUMMERY OF THE UTILITY MODEL
In order to overcome the defects, the utility model provides the automatic assembling equipment for the magnet of the charging box of the wireless earphone, which can automatically complete the operation of assembling the magnet of the charging box and remove defective products, thereby greatly improving the working efficiency and the product yield of the working procedure.
The technical scheme adopted by the utility model for solving the technical problem is as follows:
an automatic magnet assembling device for a wireless earphone charging box comprises a machine table, wherein a machine table base is arranged on the machine table, a streamline positioning unit, a magnet feeding unit and a carrying and assembling unit are arranged on the machine table base, the streamline positioning unit comprises a conveying streamline and a positioning assembly, the conveying streamline is used for conveying a carrier for loading a product, the positioning assembly is used for ejecting the carrier out of the conveying streamline and fixing the carrier, the magnet feeding unit comprises a bin and a feeding assembly, the feeding assembly is used for taking a magnet out of the bin, the carrying and assembling unit comprises a driving module, an assembling module and a polarity detection assembly, the driving module conveys the assembling module to the feeding assembly, the assembling module conveys the assembling module to the polarity detection assembly after absorbing the magnet on the feeding assembly, and the polarity detection assembly detects the magnet, and magnets which are not qualified in detection are recovered by the polarity detection assembly, magnets which are qualified in detection are sent to the positioning assembly by the driving module, and the assembly module is used for installing the magnets on products in the carrier.
Preferably, the assembling equipment further comprises a defective product discharging unit, the defective product discharging unit comprises a product detecting component, a carrier pushing component and a defective product temporary storage frame, the product in the carrier is assembled with the magnet and then conveyed to the defective product discharging unit through a conveying flow line, the product detecting component detects the product in the carrier, if the product is qualified, the carrier is conveyed to the next procedure, and if the product is unqualified, the carrier is pushed to the defective product temporary storage frame by the carrier pushing component.
Preferably, finished product detection subassembly includes third support frame, upper and lower cylinder, magnet polarity inductor, fourth support frame, carrier inductor and second and blocks the cylinder, the defective products is kept in frame, third support frame and fourth support frame and is installed in the board base, upper and lower cylinder is vertical install in the third support frame, magnet polarity inductor install in upper and lower cylinder, and this upper and lower cylinder can drive magnet polarity inductor and move from top to bottom, carrier inductor and second block the cylinder install in the fourth support frame, the subassembly is released to the carrier includes fifth support frame, sideslip cylinder and lift cylinder, the fifth support frame install in on the board base, sideslip cylinder and lift cylinder install in on the fifth support frame.
Preferably, carry the streamline and include section bar frame, conveyer belt and driving motor, the section bar frame is used for supporting the conveyer belt, driving motor is used for driving the conveyer belt operation, be equipped with the constant head tank that is used for installing the product on the carrier, locating component includes first cylinder, jacking cylinder and locating rack that blocks, the locating rack install in on the section bar frame, first cylinder and the jacking cylinder of blocking is installed on the board base between carrying the streamline, when the carrier moves to locating component department, first cylinder that blocks stretches out and blocks the carrier, the jacking cylinder rises and is ejecting with the carrier carry the streamline to fix a position the carrier through the locating rack.
Preferably, the feeding assembly comprises a transverse moving conveying frame, a material ejecting cylinder and a material pushing cylinder, the transverse moving conveying frame is installed on the machine base and located below the stock bin, the material ejecting cylinder is installed on the machine base on one side of the transverse moving conveying frame, the material pushing cylinder is vertically installed on the transverse moving conveying frame, a material pushing rod is connected to the material pushing cylinder, and the material pushing cylinder can drive the material pushing rod to push the magnet in the stock bin to the material ejecting cylinder.
Preferably, the drive module is the KK module, the KK module is installed on the board base and this KK module is located streamline positioning unit's top, the equipment module includes first support frame, equipment cylinder, step motor, pivot and inhales the material pole, first support frame install in on the KK module, equipment cylinder and step motor install in on the first support frame, step motor pass through the hold-in range connect in the pivot, inhale the material pole install in the pivot, the equipment cylinder connect in inhale the material pole.
Preferably, the polarity detection assembly comprises a detection sensor, a push cylinder, a collection box and a second support frame, the second support frame is installed on the machine base, the detection sensor, the push cylinder and the collection box are installed on the second support frame, the detection sensor is used for detecting the polarity of the magnet, and the push cylinder is used for pushing the unqualified magnet into the collection box.
The utility model has the beneficial effects that: the utility model comprises a streamline positioning unit, a magnet feeding unit, a carrying and assembling unit and a defective product discharging unit, wherein the streamline positioning unit is used for conveying and positioning a carrier, the magnet feeding unit is used for storing magnets and separating and feeding single magnets, the carrying and assembling unit is used for detecting magnets, discharging defective magnets and carrying and assembling qualified magnets, and the defective product discharging unit is used for detecting products after the magnets are assembled and discharging defective products, so that the whole operation process of assembling the magnets by the charging box is realized by the mutual cooperation among the streamline positioning unit, the magnet feeding unit, the carrying and assembling unit and the defective product discharging unit, the automation degree is high, and the carrying and assembling unit is used for removing unqualified magnets, thereby reducing the time for assembling unqualified products, improving the assembling efficiency, and discharging unqualified products after the magnets are assembled in time by the defective product discharging unit, and defective products are prevented from flowing into the next procedure, so that the qualification rate of products flowing out in the procedure reaches 100 percent.
Drawings
FIG. 1 is a schematic structural view of the present invention;
FIG. 2 is a schematic structural diagram of a streamline positioning unit according to the present invention;
FIG. 3 is a schematic view of a magnet supply unit according to the present invention;
FIG. 4 is a schematic structural view of the carrying assembly unit of the present invention;
FIG. 5 is a schematic structural view of a defective product discharge unit according to the present invention;
in the figure: 100-machine station, 101-machine station base,
200-a streamline positioning unit, 210-a conveying streamline, 211-a section frame, 212-a conveying belt, 213-a driving motor, 220-a carrier, 221-a positioning groove, 230-a positioning component, 231-a first blocking cylinder, 232-a jacking cylinder and 233-a positioning frame;
300-a magnet feeding unit, 310-a storage bin, 320-a feeding component, 321-a transverse moving carrier, 322-a material ejecting cylinder, 323-a material pushing cylinder and 324-a material pushing rod;
400-carrying assembly unit, 410-KK module, 420-assembly module, 421-first support frame, 422-assembly cylinder, 423-stepping motor, 424-rotating shaft, 425-material sucking rod, 430-polarity detection component, 431-detection sensor, 432-pushing cylinder, 433-collection box, 434-second support frame;
500-defective product discharge unit, 510-finished product detection component, 511-third support frame, 512-upper and lower air cylinders, 513-magnet polarity inductor, 514-fourth support frame, 515-carrier inductor, 516-second blocking air cylinder, 520-carrier push-out component, 521-fifth support frame, 522-transverse moving air cylinder, 523-lifting air cylinder and 530-defective product temporary storage frame.
Detailed Description
The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the embodiments of the present invention, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.
It should be noted that the terms "first," "second," and the like in the description and claims of this application and in the drawings described above are used for distinguishing between similar elements and not necessarily for describing a particular sequential or chronological order. It is to be understood that the data so used may be interchanged under appropriate circumstances such that, for example, embodiments of the application described herein may be implemented in sequences other than those illustrated or described herein. Furthermore, the terms "comprises," "comprising," and "having," and any variations thereof, are intended to cover a non-exclusive inclusion, such that a process, method, system, article, or apparatus that comprises a list of steps or elements is not necessarily limited to those steps or elements expressly listed, but may include other steps or elements not expressly listed or inherent to such process, method, article, or apparatus.
Spatially relative terms, such as "above … …," "above … …," "above … … surface," "above," and the like, may be used herein for ease of description to describe one device or feature's spatial relationship to another device or feature as illustrated in the figures. It will be understood that the spatially relative terms are intended to encompass different orientations of the device in use or operation in addition to the orientation depicted in the figures. For example, if a device in the figures is turned over, devices described as "above" or "on" other devices or configurations would then be oriented "below" or "under" the other devices or configurations. Thus, the exemplary term "above … …" can include both an orientation of "above … …" and "below … …". The device may be otherwise variously oriented (rotated 90 degrees or at other orientations) and the spatially relative descriptors used herein interpreted accordingly.
Example (b): as shown in fig. 1-5, an automatic assembling apparatus for a magnet of a wireless earphone charging box comprises a machine 100, wherein a machine base 101 is disposed on the machine 100, a streamline positioning unit 200, a magnet feeding unit 300 and a carrying and assembling unit 400 are disposed on the machine base 101, the streamline positioning unit 200 comprises a conveying streamline 210 and a positioning component 230, the conveying streamline 210 is used for conveying a carrier 220 loaded with a product, the positioning component 230 is used for ejecting the carrier 220 out of the conveying streamline and fixing the carrier, the magnet feeding unit 300 comprises a bin 310 and a feeding component 320, the feeding component 320 is used for taking out the magnet from the bin 310, the carrying and assembling unit 400 comprises a driving module, an assembling module 420 and a polarity detecting component 430, the driving module conveys the assembling module 420 to the feeding component 320, after the assembling module 420 absorbs the magnet on the feeding component 320, the driving module further transports the assembly module 420 to the polarity detection assembly 430, the polarity detection assembly 430 detects the magnets, the magnets which are detected to be unqualified are recovered by the polarity detection assembly, the magnets which are detected to be qualified are sent to the positioning assembly 230 by the driving module, and the assembly module 420 installs the magnets on the products in the carrier 220.
A circuit, an air path and a control assembly are arranged in the machine base 101, wherein the circuit and the air path are arranged according to the arrangement of mechanisms in each assembly, the control assembly adopts a conventional control assembly in the field, the control and the parameter arrangement of each mechanism are carried out by setting a programmed program in the control assembly by a programmer, and the software control part is not described in detail in the specific embodiment; the upper surface of the base of the machine station forms a working table surface, each unit in the equipment is arranged on the working table surface, the delivery flow line 210 is arranged along the length direction of the work table, the magnet supply unit 300 is positioned at one side of the delivery flow line, the carrying and assembling unit 400 is arranged along the width direction of the working platform and is positioned above the conveying streamline, the carrier assembly unit 400 can transfer the magnets at the magnet supply unit 300 to the carriers in the transfer line, the utility model realizes the automatic feeding of the magnets, the defective magnet product elimination, the magnet assembly in the product and the automatic elimination of the unqualified product by utilizing the mutual matching among the streamline positioning unit, the magnet feeding unit, the carrying and assembling unit and the defective product discharging unit.
As shown in fig. 5, the assembling apparatus further includes a defective product discharging unit 500, the defective product discharging unit 500 includes a product detecting component 510, a carrier pushing component 520, and a defective product temporary storage rack 530, the product in the carrier 220 is assembled with the magnet and then conveyed to the defective product discharging unit 500 by the conveying flow line 210, the product detecting component 510 detects the product in the carrier, if the product is qualified, the carrier 220 is conveyed to the next process, and if the product is unqualified, the carrier 220 is pushed to the defective product temporary storage rack 530 by the carrier pushing component 520.
The finished product detecting assembly 510 includes a third supporting frame 511, an upper and lower cylinder 512, a magnet polarity sensor 513, a fourth supporting frame 514, a carrier sensor 515 and a second blocking cylinder 516, the defective temporary storage rack 530, the third support rack 511 and the fourth support rack 514 are installed on the machine base 101, the up-down cylinder 512 is vertically installed at the third support frame 511, the magnet polarity sensor 513 is installed at the up-down cylinder 512, and the up-down cylinder 512 can drive the magnet polarity sensor 513 to move up and down, the vehicle sensor 515 and the second blocking cylinder 516 are installed on the fourth supporting frame 514, the carrier pushing assembly 520 comprises a fifth support frame 521, a traversing cylinder 522 and a lifting cylinder 523, the fifth support frame 521 is installed on the machine base 101, and the traverse cylinder 522 and the lifting cylinder 523 are installed on the fifth support frame 521.
In order to ensure that no defective product flows out of the machine 100%, a defective product discharge unit 500 is set, a finished product detection assembly 510 is located on a machine base at a discharge port of the conveying flow line 210, the defective product temporary storage frame 530 is arranged perpendicular to the conveying flow line 210, when a carrier 220 loaded with assembled products is conveyed to the defective product discharge unit 500, the carrier sensor 515 senses that the carrier is above, the second blocking cylinder 516 extends out to block the carrier 220, the magnet polarity sensor 513 runs to the product position of the carrier under the driving of the upper and lower cylinders 512 to detect the products, if the products are qualified, the second blocking cylinder 516 retracts to release the carrier, and the carrier 220 is conveyed to the next process by the conveying flow line 210; if the product is unqualified, the lifting cylinder 523 pushes the carrier out of the conveying flow line 210, and the traversing cylinder 522 carries the carrier to run to the defective product temporary storage rack 530 together.
As shown in fig. 2, the conveying flow line 210 includes a profile frame 211, a conveying belt 212, and a driving motor 213, the profile frame 211 is configured to support the conveying belt 212, the driving motor 213 is configured to drive the conveying belt 212 to operate, a positioning groove 221 for installing a product is disposed on the carrier 220, the positioning assembly 230 includes a first blocking cylinder 231, a jacking cylinder 232, and a positioning frame 233, the positioning frame 233 is mounted on the profile frame 211, the first blocking cylinder 231 and the jacking cylinder 232 are mounted on the machine base 101 between the conveying flow line 210, when the carrier 220 operates to the positioning assembly 230, the first blocking cylinder 231 extends out to block the carrier 220, the jacking cylinder 232 rises to eject the carrier 220 out of the conveying flow line 210, and the carrier 220 is positioned by the positioning frame 233. The conveying streamline 210 is a device commonly used in the art and will not be described in detail herein, and is used to complete the transportation and positioning of the carrier, after the carrier 220 is placed on the conveyor belt 212, the driving motor 213 drives the conveyor belt 212 to move the carrier to the positioning assembly 230, the first blocking cylinder 231 extends out in time to block the carrier, and the lifting cylinder 232 moves upward to push the carrier out of the conveyor belt 212, and pushes the carrier tightly against the positioning frame 233 to fix the carrier.
As shown in fig. 3, the feeding assembly 320 includes a traverse moving frame 321, an ejecting cylinder 322, and a pushing cylinder 323, the traverse moving frame 321 is installed on the machine base 101 and located below the bin 310, the ejecting cylinder 322 is installed on the machine base 101 on one side of the traverse moving frame 321, the pushing cylinder 323 is vertically installed on the traverse moving frame 321, a pushing rod 324 is connected to the pushing cylinder 323, and the pushing cylinder 323 can drive the pushing rod 324 to push the magnet in the bin 310 to the ejecting cylinder 322.
The traverse transport frame 321 is arranged in parallel with the transport stream line, the pusher cylinder 323 is arranged vertically to the traverse transport frame 321 and horizontally installed below the traverse transport frame 321, the material pushing rod 324 is connected to the piston rod of the material pushing cylinder 323, the material pushing cylinder 322 and the material pushing rod 324 are respectively located at two sides of the traverse conveying frame 321, the bin 310 is installed on the machine base 101 and is used for storing incoming materials, the incoming materials are put into the storage trough of the bin by an operator, under the action of gravity, the magnet in the storage tank is always positioned at the lowest part of the storage tank, during operation, the material pushing cylinder 323 retracts to drive the material pushing rod 324 to move towards the direction of the storage bin, the lowest magnet in the storage tank is pushed out to complete the separation of the magnets, and the situation that the material pushing rod cannot use ferromagnetic metal is required to be noticed, otherwise the magnets are attracted to the material pushing rod under the action of magnetic force and cannot distribute materials; the magnet is pushed by the pusher rod 324 onto the ejector cylinder 322, which extends out and the ejector cylinder 322 ejects the magnet upward, so that a magnet supply is ready to be completed, waiting for the assembly unit 400 to be carried.
As shown in fig. 4, the driving module is a KK module 410, the KK module 410 is installed on the machine base 101 and the KK module is located above the streamline positioning unit 200, the assembly module 420 includes a first support frame 421, an assembly cylinder 422, a stepping motor 423, a rotating shaft 424 and a material sucking rod 425, the first support frame 421 is installed on the KK module 410, the assembly cylinder 422 and the stepping motor 423 are installed on the first support frame 421, the stepping motor 423 is connected to the rotating shaft 424 through a synchronous belt, the material sucking rod 425 is installed on the rotating shaft 424, and the assembly cylinder 422 is connected to the material sucking rod 425.
The polarity detection assembly 430 comprises a detection sensor 431, a push cylinder 432, a collection box 433 and a second support frame 434, the second support frame 434 is installed on the machine base 101, the detection sensor 431, the push cylinder 432 and the collection box 433 are installed on the second support frame 434, the detection sensor 431 is used for detecting the polarity of a magnet, and the push cylinder 432 is used for pushing an unqualified magnet into the collection box 433.
The KK module 410 can drive the assembly module 420 to move between the magnet feeding unit 300 and the streamline positioning unit 200, the assembly module 420 is vertically installed on the KK module 410, the material sucking rod 425 is circumferentially fixed and axially movably installed on the rotating shaft 424, therefore, when the rotating shaft 424 rotates, the material sucking rod 425 synchronously rotates, the assembly cylinder 422 can drive the material sucking rod 425 to move up and down along the rotating shaft, during operation, the KK module 410 drives the assembly module 420 to linearly move, the material sucking rod 425 is fed above the separated magnet on the material ejecting cylinder 322, the assembly cylinder 422 drives the material sucking rod 425 to move down to contact the magnet, the assembly cylinder retracts after the magnet is sucked, the KK module 410 conveys the material sucking rod 425 sucking the magnet to the polarity detection assembly 430, and the detection sensor 431 detects the polarity of the magnet, if NG occurs, the magnet is discarded, i.e., the push cylinder 432 is extended to push the NG magnet into the collection box 433; if magnetism detects OK, then magnet is carried to the carrier 220 top of being fixed a position by KK module 410, before the magnet is packed into the magnet mounted position that the product corresponds, step motor 423 drives pivot 424 through the hold-in range and rotates, and the angle of the magnet that is in the material suction rod head portion of adjusting makes it and the magnet mounted position phase-match on the product, then pushes away cylinder 432 and stretches out and pack the magnet into the product.
The operation process of the utility model is as follows: the method comprises the following steps:
the method comprises the following steps: placing a carrier 220 on the conveyor belt 212, driving the conveyor belt 212 by the driving motor 213 to move the carrier to the positioning assembly 230, extending the first blocking cylinder 231 out of the conveyor belt in time to block the carrier, and simultaneously, moving the jacking cylinder 232 upwards to push the carrier out of the conveyor belt 212, and tightly pushing the carrier on the positioning frame 233 to fix the carrier;
step two: an operator puts magnets into a storage trough of a storage bin, the magnets in the storage trough are always positioned at the lowest position in the storage trough under the action of gravity, during operation, a material pushing cylinder 323 retracts to drive a material pushing rod 324 to move towards the direction of the storage bin and push out the magnet at the lowest position in the storage trough, separation of the magnets is completed, the magnets are pushed to a material ejecting cylinder 322 by the material pushing rod 324, the material pushing cylinder extends out, the magnet is ejected upwards by the material ejecting cylinder 322, and therefore a magnet is ready to be fed and conveyed by the conveying and assembling unit 400 to convey materials;
step three: the KK module 410 drives the assembly module 420 to perform linear motion, the material sucking rod 425 is fed above the separated magnet on the material ejecting cylinder 322, the assembly cylinder 422 drives the material sucking rod 425 to move downwards to enable the material sucking rod to contact the magnet, the assembly cylinder retracts after the magnet is sucked, and the KK module 410 conveys the material sucking rod 425 which sucks the magnet to the polarity detection assembly 430;
step four: the detection sensor 431 detects the polarity of the magnet, and if NG occurs, the magnet is discarded, namely the pushing cylinder 432 extends to push the NG magnet into the collection box 433; if the magnetism is detected OK, the magnet is conveyed to the position above the carrier 220 by the KK module 410, before the magnet is loaded into the magnet mounting position corresponding to the product, the stepping motor 423 drives the rotating shaft 424 to rotate through the synchronous belt, so as to adjust the angle of the magnet at the head of the material suction rod to be matched with the magnet mounting position on the product, and then the air cylinder 432 is pushed to extend out to load the magnet into the product;
step five: after the product is assembled, the jacking cylinder 232 moves downwards to enable the carrier to return to the conveying belt 212, and the conveying streamline 210 continues to drive the carrier 220 to move forwards until the carrier moves to the defective product discharge unit 500 at the discharge position;
step six: when the carrier sensor 515 senses that a carrier is arranged above, the second blocking cylinder 516 extends to block the carrier 220, the magnet polarity sensor 513 runs to the product position of the carrier under the driving of the upper and lower cylinders 512 to detect the product, if the product is qualified, the second blocking cylinder 516 retracts to release the carrier, and the carrier 220 is conveyed to the next process by the conveying flow line 210; if the product is unqualified, the lifting cylinder 523 pushes the carrier out of the conveying flow line 210, and the traversing cylinder 522 carries the carrier to run to the defective product temporary storage rack 530 together.
It should be noted that, for a person skilled in the art, several variations and modifications can be made without departing from the inventive concept, which falls within the scope of the present invention. Therefore, the protection scope of the present patent should be subject to the appended claims.
Claims (7)
1. The utility model provides an automatic equipment of wireless earphone box magnet that charges which characterized in that: the machine comprises a machine table (100), a machine table base (101) is arranged on the machine table (100), a streamline positioning unit (200), a magnet feeding unit (300) and a carrying assembly unit (400) are arranged on the machine table base (101), the streamline positioning unit (200) comprises a conveying streamline (210) and a positioning component (230), the conveying streamline (210) is used for conveying a carrier (220) for loading a product, the positioning component (230) is used for ejecting the carrier (220) out of the conveying streamline and fixing the carrier, the magnet feeding unit (300) comprises a storage bin (310) and a feeding component (320), the feeding component (320) is used for taking out a magnet from the storage bin (310), the carrying assembly unit (400) comprises a driving module, an assembly module (420) and a polarity detection component (430), the driving module conveys the assembly module (420) to the feeding component (320), after the assembly module (420) absorbs the magnets on the feeding assembly (320), the drive module conveys the assembly module (420) to the polarity detection assembly (430), the polarity detection assembly (430) detects the magnets, the magnets which are detected to be unqualified are recovered by the polarity detection assembly, the magnets which are detected to be qualified are conveyed to the positioning assembly (230) by the drive module, and the assembly module (420) installs the magnets on the products in the carrier (220).
2. The wireless headset charging box magnet automatic assembly device of claim 1, wherein: still include defective products discharge unit (500), defective products discharge unit (500) is including product detection subassembly (510), carrier ejecting subassembly (520) and defective products temporary storage frame (530), being carried to defective products discharge unit (500) by conveying streamline (210) after the product in carrier (220) is assembled magnet, product detection subassembly (510) detect the product in the carrier, if the product is qualified then carrier (220) are carried to next process, if the product is unqualified then carrier (220) are pushed out subassembly (520) by the carrier and are pushed to defective products temporary storage frame (530).
3. The wireless headset charging box magnet automatic assembly device of claim 2, wherein: the product detection assembly (510) comprises a third support frame (511), an upper air cylinder and a lower air cylinder (512), a magnet polarity inductor (513), a fourth support frame (514), a carrier inductor (515) and a second blocking air cylinder (516), the defective product temporary storage frame (530), the third support frame (511) and the fourth support frame (514) are installed on the machine base (101), the upper air cylinder and the lower air cylinder (512) are vertically installed on the third support frame (511), the magnet polarity inductor (513) is installed on the upper air cylinder and the lower air cylinder (512), the upper air cylinder and the lower air cylinder (512) can drive the magnet polarity inductor (513) to move up and down, the carrier inductor (515) and the second blocking air cylinder (516) are installed on the fourth support frame (514), and the carrier push-out assembly (520) comprises a fifth support frame (521), a transverse moving air cylinder (522) and a lifting air cylinder (523), the fifth support frame (521) is installed on the machine table base (101), and the transverse moving cylinder (522) and the lifting cylinder (523) are installed on the fifth support frame (521).
4. The wireless headset charging box magnet automatic assembly device of claim 1, wherein: the conveying streamline (210) comprises a section bar frame (211), a conveying belt (212) and a driving motor (213), the section bar frame (211) is used for supporting the conveying belt (212), the driving motor (213) is used for driving the conveying belt (212) to operate, a positioning groove (221) used for installing a product is arranged on the carrier (220), the positioning assembly (230) comprises a first blocking cylinder (231), a jacking cylinder (232) and a positioning frame (233), the positioning frame (233) is installed on the section bar frame (211), the first blocking cylinder (231) and the jacking cylinder (232) are installed on a machine table base (101) between the conveying streamline (210), when the carrier (220) operates to the positioning assembly (230), the first blocking cylinder (231) extends out to push the carrier (220), the jacking cylinder (232) rises to push the carrier (220) out of the conveying streamline (210), and the carrier (220) is positioned by the positioning frame (233).
5. The wireless headset charging box magnet automatic assembly device of claim 1, wherein: the feeding assembly (320) comprises a transverse moving conveying frame (321), a material ejecting cylinder (322) and a material pushing cylinder (323), the transverse moving conveying frame (321) is installed on the machine base (101) and is located below the stock bin (310), the material ejecting cylinder (322) is installed on the machine base (101) on one side of the transverse moving conveying frame (321), the material pushing cylinder (323) is vertically installed on the transverse moving conveying frame (321), a material pushing rod (324) is connected to the material pushing cylinder (323), and the material pushing cylinder (323) can drive the material pushing rod (324) to push magnets in the stock bin (310) to the material ejecting cylinder (322).
6. The wireless headset charging box magnet automatic assembly device of claim 1, wherein: the drive module is KK module (410), KK module (410) is installed on board base (101) and this KK module is located the top of streamline positioning unit (200), equipment module (420) include first support frame (421), equipment cylinder (422), step motor (423), pivot (424) and inhale material pole (425), first support frame (421) install in on KK module (410), equipment cylinder (422) and step motor (423) install in on first support frame (421), step motor (423) through the hold-in range connect in pivot (424), inhale material pole (425) install in on pivot (424), equipment cylinder (422) connect in inhale material pole (425).
7. The wireless headset charging box magnet automatic assembly device of claim 6, wherein: polarity determine module (430) is including detecting sensor (431), push cylinder (432), collection box (433) and second support frame (434), second support frame (434) install in on board base (101), detecting sensor (431), push cylinder (432) and collection box (433) install in second support frame (434), detecting sensor (431) are used for detecting the polarity of magnet, push cylinder (432) are used for pushing into collection box (433) unqualified magnet.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202122014487.7U CN216882551U (en) | 2021-08-25 | 2021-08-25 | Automatic magnet assembling equipment for wireless earphone charging box |
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| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202122014487.7U CN216882551U (en) | 2021-08-25 | 2021-08-25 | Automatic magnet assembling equipment for wireless earphone charging box |
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| Publication Number | Publication Date |
|---|---|
| CN216882551U true CN216882551U (en) | 2022-07-05 |
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| Application Number | Title | Priority Date | Filing Date |
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| CN202122014487.7U Active CN216882551U (en) | 2021-08-25 | 2021-08-25 | Automatic magnet assembling equipment for wireless earphone charging box |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN116053172A (en) * | 2023-03-01 | 2023-05-02 | 珠海市申科谱工业科技有限公司 | Magnet laminating equipment |
-
2021
- 2021-08-25 CN CN202122014487.7U patent/CN216882551U/en active Active
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN116053172A (en) * | 2023-03-01 | 2023-05-02 | 珠海市申科谱工业科技有限公司 | Magnet laminating equipment |
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