Hand bag production equipment

Abstract

The utility model provides hand bag production equipment which comprises a bag body manufacturing device, a bag opening processing device arranged on the downstream of the bag body manufacturing device and a bag body conveying device located between the bag body manufacturing device and the bag opening processing device. The bag body conveying device comprises a main conveying channel communicating with the bag body manufacturing device, a secondary conveying channel communicating with the bag opening processing device and a bag body transferring component arranged between the main conveying channel and the secondary conveying channel, and a main bag body temporary storage component capable of containing a plurality of bag bodies is arranged at the downstream end of the main conveying channel. And the bag body transferring part transfers a preset number of bag bodies in the main bag body temporary storage part to the secondary conveying channel. According to the hand bag production equipment, production of the hand bags can be independently completed, manual carrying among different equipment in the traditional process of the hand bags is eliminated, the production efficiency of the hand bags is improved, and the risk that the hand bags are damaged is also reduced.

Description

Technical Field

[0001] The utility model relates to the technical field of bag body production, and particularly relates to a production device for a handbag. Background Art

[0002] The handbag has become an essential and commonly used tool in modern society. Due to the high practicality and portability of the handbag, people have gradually put forward various different requirements for the manufacture of handbags. For example, some users hope that the handbag is as light and easy to fold as possible, while some users hope that the handbag can be as strong and not easily deformed as possible. Based on this, the handbag has been improved in terms of shape, material selection, etc.

[0003] Among them, the bag opening of the handbag is a very easily damaged part. And, the handle of the handbag is usually arranged at the bag opening, and is often fixed at the edge of the bag opening by means of bonding, or fixing parts, etc. In order to improve the strength of the bag opening and its connection strength with the handle, usually during the production of the handbag, the bag opening is processed.

[0004] However, the existing production equipment for handbags generally only processes the bag body of the handbag. For example, the patent document (publication number: CN106217946B) discloses a handbag integral forming system. This forming system sequentially completes the preliminary die forming of the square bottom of the non-woven fabric sheet material, side insertion forming, bottom insertion forming, ironing and bag removal, etc. After the handbag is manufactured, the handbag is manually carried to a device (such as a bag mouth closing machine) dedicated to processing the bag opening. That is to say, the production of the handbag needs to be carried out on two devices respectively, which not only affects the production efficiency of the handbag, but also easily damages the handbag during the manual handling of the handbag, reducing the yield rate of the handbag. Summary of the Utility Model

[0005] The purpose of the utility model is to solve the technical problem that the production of the handbag in the prior art needs to be carried out on two devices respectively, which not only affects the production efficiency of the handbag, but also easily damages the handbag during the manual handling of the handbag, reducing the yield rate of the handbag.

[0006] To solve the above technical problem, an embodiment of the utility model discloses a production device for a handbag, which includes a bag body manufacturing device, a bag opening processing device arranged downstream of the bag body manufacturing device, and a bag body conveying device located between the bag body manufacturing device and the bag opening processing device.

[0007] Among them, the bag body manufacturing device makes a bag body with an opening at one end from the sheet material from the upstream, and the bag opening processing device includes a bag opening processing component for processing the opening part of the bag body.

[0008] Moreover, the bag body conveying device includes a main conveying channel communicating with the bag body manufacturing device, a secondary conveying channel communicating with the bag mouth processing device, and a bag body transferring component disposed between the main conveying channel and the secondary conveying channel. A main bag body buffer component capable of accommodating a plurality of bag bodies is provided at the downstream end of the main conveying channel. The bag body transferring component transfers a predetermined number of bag bodies in the main bag body buffer component to the secondary conveying channel.

[0009] Adopting the above technical solution, this handbag production equipment includes a bag body manufacturing device, a bag body conveying device, and a bag mouth processing device. Among them, the bag body manufacturing device forms a bag body with an opening at one end from the upstream sheet material, and the bag body formed by the bag body manufacturing device is conveyed to the bag mouth processing device through the bag body conveying device. The bag mouth processing device processes the opening part of the bag body, and finally produces a handbag with a processed bag mouth. This handbag production equipment can complete the production of handbags alone, eliminating the manual handling between different devices in the traditional process of handbags, improving the production efficiency of handbags, and also reducing the risk of handbag damage.

[0010] Furthermore, the bag body conveying device includes a main conveying channel communicating with the bag body manufacturing device, a secondary conveying channel communicating with the bag mouth processing device, and a bag body transferring component disposed between the main conveying channel and the secondary conveying channel. The main bag body buffer component provided downstream of the main conveying channel can accommodate a plurality of bag bodies. The bag body transferring component transfers a predetermined number of bag bodies in the main bag body buffer component to the secondary conveying channel. Even when the bag mouth processing device has a short-term failure, the bag body manufacturing device can continue to operate; or when the upstream feeding speed of the bag body manufacturing device fluctuates, it will not affect the downstream bag mouth processing device, ensuring that the bag mouth processing device can operate stably and continuously. For example, when the rate of processing bag bodies by the bag body manufacturing device is greater than the rate of processing bag mouths by the bag mouth processing device, the main bag body buffer component can temporarily store bag bodies to avoid excessive bag bodies being conveyed to the bag mouth processing device, resulting in the bag mouth processing device being unable to process in time and causing a pile-up of bag bodies.

[0011] The embodiment of the present utility model also discloses a handbag production equipment. The bag mouth processing device includes a plurality of bag mouth processing components, and the bag body conveying device includes a plurality of secondary conveying channels corresponding to and communicating with the plurality of bag mouth processing components one by one.

[0012] Moreover, the main bag body buffer component has at least one main buffer space, and each main buffer space can accommodate a predetermined number of bag bodies.

[0013] The main conveying channel transports bag bodies to the main bag body buffer component until the number of bag bodies in one of the main buffer spaces reaches the predetermined number. The bag body transferring component transfers the bag bodies in one main buffer space to the corresponding secondary conveying channel.

[0014] With the above technical solution, multiple bag mouth processing components are provided corresponding to multiple secondary conveying channels one by one, forming multi-channel parallel processing, which can process different types of bag mouths simultaneously or improve the processing capacity. For example, different processing components may be responsible for different processes, such as installing handle reinforcement parts, bag mouth hemming, bag mouth opening, etc., or the same process is processed in parallel to improve the speed. For example, multiple bag mouth processing components operate synchronously, thereby improving the bag mouth processing efficiency of the shopping bag.

[0015] An embodiment of the present utility model also discloses a shopping bag production device. The main bag body buffer component is a receiving frame arranged at the downstream end of the main conveying channel. The internal space of the receiving frame forms a main buffer space. The bag body transfer component includes a grasping part capable of grasping the bag body and a grasping driving part for driving the grasping part to move between the main bag body buffer component and any one of the secondary conveying channels.

[0016] The grasping driving part drives the grasping part to grasp a predetermined number of bag bodies from the main buffer space, move and place them at the entrance end of a corresponding secondary conveying channel. A secondary conveying channel conveys the predetermined number of bag bodies to the corresponding bag mouth processing component one by one.

[0017] Among them, the range of the predetermined number of bag bodies is from 1 to 40.

[0018] With the above technical solution, the grasping driving part drives the grasping part to move between the main buffer space and the secondary conveying channel, thereby realizing the transfer of the bag body. The predetermined number of bag bodies grasped by the grasping part from the main buffer space is between 1 and 40, so as to stably and efficiently realize the transfer of the bag body. If the predetermined number of bag bodies grasped by the grasping part from the main buffer space is greater than 40, it is not conducive to the grasping of the grasping part, and multiple bag bodies may be loose during the movement, resulting in the bag bodies moved to the secondary conveying channel not being able to move well along the secondary conveying channel; in addition, when the predetermined number is greater than 40, it will also cause more bag bodies to accumulate in the main bag body buffer component, but they are not transferred to the bag mouth processing device in time for bag mouth processing, reducing the production efficiency of the shopping bag.

[0019] An embodiment of the present utility model also discloses a shopping bag production device. The main bag body buffer component is a receiving frame arranged at the downstream end of the main conveying channel. The internal space of the receiving frame includes a plurality of main buffer spaces arranged in series in sequence; among them, the plurality of main buffer spaces correspond to the plurality of secondary conveying channels one by one, and the entrance end of each secondary conveying channel is arranged beside a corresponding main buffer space.

[0020] The bag body transfer component includes a plurality of pushing parts corresponding to the entrance ends of the plurality of secondary conveying channels one by one. Each pushing part and the entrance end of the corresponding secondary conveying channel are arranged at opposite sides of a corresponding main buffer space at intervals.

[0021] The pushing member moves towards the corresponding main buffer space, and pushes a predetermined number of bags located in the main buffer space into the inlet end of the corresponding secondary conveying channel.

[0022] With the above technical solution, a predetermined number of bags can be pushed into the corresponding secondary conveying channel by the pushing member. Each secondary conveying channel corresponds to a pushing member, and multiple pushing members can operate simultaneously to distribute multiple bags into each conveying channel, improving the efficiency of distributing bags into multiple secondary conveying channels. Brief Description of the Drawings

[0023] Figure 1 A schematic structural diagram of a handbag production device provided by an embodiment of the present utility model (the bag body transfer member includes a grasping member);

[0024] Figure 2 A schematic structural diagram of a handbag production device provided by an embodiment of the present utility model (a bag body storage table is provided) (the bag body transfer member includes a grasping member);

[0025] Figure 3 Another schematic structural diagram of a handbag production device provided by an embodiment of the present utility model (the bag body transfer member includes a pushing member);

[0026] Figure 4 A schematic structural diagram of a handbag production device provided by an embodiment of the present utility model (one bag mouth processing component is provided) (the bag body transfer member includes a grasping member);

[0027] Figure 5 A schematic structural diagram of a handbag production device provided by an embodiment of the present utility model (one bag mouth processing component is provided) (the bag body transfer member includes a pushing member).

[0028] Description of the Reference Numerals:

[0029] 10. Handbag production device;

[0030] 100. Bag body manufacturing device;

[0031] 110. Sheet material supply component; 120. Sheet material transportation component; 130. Bag body forming component; 140. Head card placement component; 150. Handle fixing component; 160. Bag folding component;

[0032] 200. Bag mouth processing device;

[0033] 210. Bag mouth processing component;

[0034] 300. Bag body conveying device;

[0035] 310, Main conveying channel; 311, Main bag body buffer component; 320, Secondary conveying channel; 330, Bag body transfer component; 331, Gripping member; 332, Gripping driving member; 333, Gripping guiding member; 334, Pushing member;

[0036] 400, Bag body storage table. Detailed implementation manner

[0037] As pointed out in the background art, the production of handbags in the prior art needs to be carried out on two devices respectively, which not only affects the production efficiency of handbags, but also easily damages the handbags during the manual handling process, reducing the yield rate of handbags. To this end, the present utility model provides a handbag production device, which includes a bag body manufacturing device, a bag mouth processing device arranged downstream of the bag body manufacturing device, and a bag body conveying device located between the bag body manufacturing device and the bag mouth processing device. The bag body conveying device includes a main conveying channel communicated with the bag body manufacturing device, a secondary conveying channel communicated with the bag mouth processing device, and a bag body transfer component arranged between the main conveying channel and the secondary conveying channel. A main bag body buffer component capable of accommodating a plurality of bag bodies is arranged at the downstream end of the main conveying channel. The bag body transfer component transfers a predetermined number of bag bodies in the main bag body buffer component to the secondary conveying channel. This handbag production device can complete the production of handbags alone, eliminating the manual handling between different devices in the traditional process of handbags, improving the production efficiency of handbags, and also reducing the risk of handbag damage.

[0038] In order to make the purpose, technical solution and advantages of the present utility model clearer, the following will further describe the implementation manner of the present utility model in detail with reference to the accompanying drawings.

[0039] As Figure 1 shown, an embodiment of the present utility model provides a handbag production device 10, which includes a bag body manufacturing device 100, a bag mouth processing device 200 and a bag body conveying device 300. The bag mouth processing device 200 is arranged at the downstream of the bag body manufacturing device 100, and the bag body conveying device 300 is located between the bag body manufacturing device 100 and the bag mouth processing device 200.

[0040] Among them, the bag body manufacturing device 100 makes a bag body with an opening at one end from the upstream sheet material. The bag mouth processing device 200 includes a bag mouth processing component 210 for processing the opening part of the bag body.

[0041] Moreover, the bag body conveying device 300 includes a main conveying channel 310 communicating with the bag body manufacturing device 100, a secondary conveying channel 320 communicating with the bag mouth processing device 200, and a bag body transfer member 330 disposed between the main conveying channel 310 and the secondary conveying channel 320. A main bag body buffer member 311 capable of accommodating a plurality of bag bodies is provided at the downstream end of the main conveying channel 310. The bag body transfer member 330 transfers a predetermined number of bag bodies in the main bag body buffer member 311 to the secondary conveying channel 320.

[0042] This handbag production equipment 10 includes a bag body manufacturing device 100, a bag body conveying device 300, and a bag mouth processing device 200. Among them, the bag body manufacturing device 100 forms a bag body with an opening at one end from the upstream sheet material, and the bag body formed by the bag body manufacturing device 100 is conveyed to the bag mouth processing device 200 through the bag body conveying device 300. The bag mouth processing device 200 processes the opening part of the bag body, and finally produces a handbag with the bag mouth processed. This handbag production equipment 10 can complete the production of handbags alone, eliminating the manual handling between different devices in the traditional process of handbags, improving the production efficiency of handbags, and reducing the risk of handbag damage.

[0043] Furthermore, the bag body conveying device 300 includes a main conveying channel 310 communicating with the bag body manufacturing device 100, a secondary conveying channel 320 communicating with the bag mouth processing device 200, and a bag body transfer member 330 disposed between the main conveying channel 310 and the secondary conveying channel 320. The main bag body buffer member 311 provided downstream of the main conveying channel 310 can accommodate a plurality of bag bodies. The bag body transfer member 330 transfers a predetermined number of bag bodies in the main bag body buffer member 311 to the secondary conveying channel 320. Even when the bag mouth processing device 200 has a short-term failure, the bag body manufacturing device 100 can continue to operate; or when the upstream feeding speed of the bag body manufacturing device 100 fluctuates, it will not affect the downstream bag mouth processing device 200, ensuring that the bag mouth processing device 200 can operate stably and continuously. For example, when the rate of processing bag bodies by the bag body manufacturing device 100 is greater than the rate of processing the bag mouths by the bag mouth processing device 200, the main bag body buffer member 311 can temporarily store the bag bodies to avoid excessive bag bodies being conveyed to the bag mouth processing device 200, resulting in the bag mouth processing device 200 not having enough time to process and causing the accumulation of bag bodies.

[0044] First, the bag making device 100 needs to be explained. The bag making device 100 is used to make a bag body with an opening at one end from a sheet material. Generally speaking, the sheet material can be a paper material or a non-woven fabric or other material commonly used in the art to make a handbag. The sheet material can be pre-cut into a predetermined shape (such as a rectangle) by a die-cutting machine, or it can be wound on a feed roller for feeding, and then the sheet material is conveyed to one side of the mold, and the sheet material is extruded into shape by the mold. Those skilled in the art can design it according to actual conditions and specific needs, and this embodiment does not make a sole limitation on this.

[0045] like Figure 1 As shown, in one embodiment, the bag making device 100 includes a sheet material supplying component 110, a frame (not shown in the figure), and a sheet material transporting component 120 and a bag body forming component 130 arranged on the frame.

[0046] Among them, the sheet material supply component 110 stores multiple sheets of materials, and can place the sheets one by one at the entrance end of the sheet material transport component 120. The sheet material transport component 120 transports the sheets to the bag forming component 130. It should be noted that multiple sheets can be stacked in the sheet material supply component 110, and the sheets can be fixed by clamps or suction cups and moved to the entrance end of the sheet material transport component 120. The sheet material transport component 120 can be a conveyor belt or a movable suction cup commonly used in the field.

[0047] Furthermore, the bag forming component 130 includes a mold, a mold driving assembly, and a bag sealing assembly. The mold driving assembly is transmission-connected to one end of the mold, and the bag sealing assembly is disposed on the peripheral side of the mold.

[0048] When the sheet is moved to one end of the mold (for example, the lower end), the mold driving assembly drives the mold to squeeze the sheet so that the sheet is bent toward the mold, and the bag sealing assembly makes the sheet fit on the outer surface of the mold, and the sheet is connected from the joint. The bag sealing assembly includes a plurality of plugs that make the sheet fit on the outer surface of the mold, and a sealing member that connects from the joint. When the sheet is a paper material, the sealing member can connect the sheet from the joint by spraying glue, and when the sheet is a non-woven fabric, the sealing member can connect the sheet from the joint by heat sealing. Regarding the specific structure of the plug that makes the sheet fit on the outer surface of the mold, this embodiment does not specifically limit this.

[0049] Further, in one embodiment, if Figure 1 As shown, the bag making device 100 further includes a header card placement component 140 , which is located beside the sheet material transport component 120 and on the upstream side of the bag forming component 130 .

[0050] Among them, the head card placement component 140 includes a head card pickup assembly and a head card feeding assembly. The head card feeding assembly is used to transport head cards one by one to the receiving position of the head card feeding assembly. The head card pickup assembly picks up the head card from the receiving position and transports and fixes the head card to the head card placement area on the sheet material.

[0051] Specifically, in one embodiment, the head card placement component 140 further includes a mounting seat disposed on the frame. The head card pickup assembly and the head card feeding assembly are respectively located on opposite sides of the mounting seat. Moreover, the mounting seat has a head card opening adapted to the head card, and the head card feeding assembly transports the head card into the opening area of the head card opening; the head card pickup assembly includes a pickup member capable of picking up the head card, a pickup driving member, and a pickup guiding member. The pickup driving member drives the pickup assembly to pick up the head card through the head card opening, then move along the pickup guiding member and place the head card at a preset position on the sheet material; the head card feeding assembly includes a main feeding member, a secondary feeding member, and a feeding guiding member. The main feeding member and the secondary feeding member are located in the accommodating space on one side of the mounting seat and alternately move along the feeding guiding member towards the mounting seat to feed the head cards in the accommodating space to the opening area. Of course, regarding the specific structure of the head card placement component 140, this embodiment does not make a unique limitation on this.

[0052] Furthermore, in one embodiment, as Figure 1 shown, this bag-making device 100 further includes a handle fixing component 150. The handle fixing component 150 is located beside the sheet material transporting component 120 and between the head card placement component 140 and the bag body forming component 130.

[0053] Among them, the handle fixing component 150 includes a handle supply assembly, a handle handling assembly, and a handle fixing assembly. The handle supply assembly is used to supply handles. The handle handling assembly grabs the handle from the handle supply assembly and moves it to the handle fixing part of the sheet material. The handle fixing assembly is used to fix both ends of the handle to the handle fixing part. It should be noted that the handle fixing component 150 can be set to any structure that can fix the handle on the sheet material, and this embodiment does not make a specific limitation on this.

[0054] It should be understood that the sheet material is pre-formed with a handle opening. The handle supply assembly can be a mechanism such as a linear slide rail or a pneumatic / electric push rod, etc., for precisely moving both ends of the handle (which can be a pre-formed metal ring, paper handle, plastic strip, or cloth strip, etc.) to directly below the handle opening of the sheet material placed. During use, the handles can be stored in the bin of the handle supply assembly and are pushed one by one to the designated position by a robotic arm or a push rod. The grasping end of the handle handling assembly reciprocally passes through the handle opening and moves the corresponding end of the handle from below to above. The area on the sheet material for fixing the handle is a region pre-coated with glue, so as to fix the end of the handle to the sheet material.

[0055] It should be noted that for the convenience of storage and transportation, folding lines are formed on the opposite sides of the side wall of the tote bag body, and the bag body can be folded along the folding lines. Therefore, as Figure 1 shown, in one embodiment, the tote bag production device 10 further includes a bag folding component 160 disposed downstream of the bag body forming component 130. The bag body made by the bag body manufacturing device 100 passes through the bag folding component 160, and the bag folding component 160 squeezes the bag body along the folding line so that the bag body is in a folded state.

[0056] Specifically, the structure of the bag folding device is not limited. For example, it may include folding plates, a driving mechanism (such as a cylinder, a motor, etc.), and a guiding mechanism. The folding plates are the main components that perform the folding action, and their shapes and quantities are designed according to the size and folding requirements of the bag body. The driving mechanism is responsible for providing the power required for the movement of the folding plates, and the guiding mechanism ensures that the folding plates move along a predetermined path. The folding plates move towards the folding line of the bag body in a predetermined order and angle until the required folded state is reached.

[0057] Of course, the bag body manufacturing device 100 not only includes the above-mentioned several components, but may also be provided with a die-changing component for replacing the die, a deviation-correcting component for correcting the position of the sheet material on the sheet material transportation component 120, a waste discharging component for removing waste products, etc. Those skilled in the art can design according to the actual situation and specific requirements, and this embodiment does not make specific limitations in this regard.

[0058] Next, the specific structure of the bag mouth processing device 200 will be described.

[0059] Each bag mouth processing component 210 of the bag mouth processing component 210 includes any one of a bag mouth hemming component, a reinforcement installation component, or a bag mouth opening component, or any two or three are arranged in series.

[0060] Among them, the bag mouth hemming component is used to bend the bag mouth at the opening part of the bag body inward and fit it on the inner wall surface of the bag body.

[0061] The bag mouth opening component is used to cut a notch on the side wall at the opening part, and the end of the handle passes through the notch and is connected to the inner surface of the side wall of the bag body. It should be noted that when the bag mouth processing component 210 includes the bag mouth opening component, the handle is not installed on the bag body in the bag body manufacturing device 100, but the handle is installed in the bag mouth processing device 200.

[0062] The reinforcement installation component is used to install the handle reinforcement on the handle fixing part of the bag body so that the handle reinforcement penetrates through the side wall of the bag body at the handle fixing part and the end of the handle.

[0063] That is to say, the bag mouth processing component 210 can be a bag mouth hemming component, a reinforcement installation component, or a bag mouth opening component. Of course, the bag mouth processing component 210 can also be a combination of at least two components. For example, the bag mouth processing component 210 can include a series-connected bag mouth hemming component and a reinforcement component. The bag mouth hemming component can be arranged upstream of the reinforcement installation component to first hem the bag mouth and then install the reinforcement. Of course, the reinforcement installation component can also be arranged upstream of the bag mouth hemming component to first install the reinforcement at the bag mouth and then hem the bag mouth. Those skilled in the art can design according to the actual situation and specific requirements, and this embodiment does not make specific limitations in this regard.

[0064] The structure and working principle of the bag body conveying device 300 will be described below.

[0065] The bag body conveying device 300 is arranged between the bag body manufacturing device 100 and the bag mouth processing device 200, and includes a main conveying channel 310 and a secondary conveying channel 320. The main conveying channel 310 is used to output the bag body in the bag body manufacturing device 100, while the secondary conveying channel 320 is used to transport the bag body to the bag mouth processing device 200. The main conveying channel 310 and the secondary conveying channel 320 can be composed of commonly used conveyor belts in the art. The bag body is transported between the main conveying channel 310 and the secondary conveying channel 320 through the bag body transfer component 330. The bag body transfer component 330 can be a clamp that can hold the bag body, an adsorption structure that uses a suction nozzle to adsorb the bag body, or a push plate that pushes the bag body to shift, etc. It should be noted that as Figure 1 shown, the conveying direction of the main conveying channel 310 can be perpendicular to the direction in which the sheet material transport component 120 transports the sheet material. The conveying direction of the main conveying channel 310 is parallel to the transport direction of the secondary conveying channel 320, so that the bag body manufacturing device 100, the bag body transport device 300, and the bag mouth processing device 200 are arranged in an L shape. Of course, as Figure 3 shown, the conveying direction of the main conveying channel 310 can also be perpendicular to the transport direction of the secondary conveying channel 320. Regarding the specific arrangement of the bag body manufacturing device 100, the bag body transport device 300, and the bag mouth processing device 200, those skilled in the art can design according to the actual situation and specific requirements, and this embodiment does not make specific limitations in this regard.

[0066] Furthermore, the rate at which the bag body manufacturing device 100 manufactures the bag body is different from the rate at which the bag mouth processing device 200 processes the bag mouth. For example, the rate at which the bag body manufacturing device 100 manufactures the bag body is greater than the rate at which the bag mouth processing device 200 processes the bag mouth, resulting in different speeds of transporting the bag body on the main transport channel 310 and the secondary transport channel 320. The bag bodies on the main transport channel 310 may accumulate. Therefore, a main bag body buffer component 311 is provided at the downstream end of the main transport channel 310, which can temporarily store the bag bodies that are too late to be transferred on the main transport channel 310.

[0067] When the rate at which the bag body manufacturing device 100 manufactures the bag body is much greater than the rate at which the bag mouth processing device 200 processes the bag mouth, for example, the rate at which the bag body manufacturing device 100 manufactures the bag body is twice as much as the rate at which the bag mouth processing device 200 processes the bag mouth, even though the main bag body buffer component 311 can temporarily store the bag bodies, the production efficiency of the handbag is affected because the rate at which the bag mouth processing device 200 processes the bag mouth is too slow. Therefore, as Figure 1 shown, in one embodiment, the bag mouth processing device 200 includes a plurality of bag mouth processing components 210, and the bag body transport device 300 includes a plurality of secondary transport channels 320 that correspond to and communicate with the plurality of bag mouth processing components 210 one by one. It should be noted that the number of the bag mouth processing components 210 can be two, three, four or other numbers.

[0068] Specifically, in this embodiment, taking the case where two bag mouth processing components 210 are provided as an example for description, the main bag body buffer component 311 has at least one main buffer space, and each main buffer space can accommodate a predetermined number of bag bodies. That is to say, the main bag body buffer component 311 has one, two, three or other numbers of main buffer spaces.

[0069] The main transport channel 310 transports the bag bodies to the main bag body buffer component 311 until the number of bag bodies in the main buffer space reaches the predetermined number. The bag body transfer component 330 transfers the bag bodies in the main buffer space to a corresponding secondary transport channel 320. For example, the bag body transfer component 330 first transfers the bag bodies in the main buffer space to a secondary transport channel 320, and the corresponding bag mouth processing component 210 performs bag mouth processing. The subsequent bag bodies stored in the main buffer space are then transferred by the bag body transfer component 330 to another secondary transport channel 320, and another bag mouth processing component 210 performs bag mouth processing. The two bag mouth processing components 210 simultaneously perform bag mouth processing on the bag bodies output by the bag body manufacturing device 100, thereby making up for the defect of slow bag body processing efficiency.

[0070] In this embodiment, a plurality of bag mouth processing components 210 are provided in one-to-one correspondence with a plurality of secondary conveying channels 320 to form multi-channel parallel processing, so that different types of bag mouths can be processed simultaneously or the processing capacity can be improved. For example, different processing components may be responsible for different processes, such as installing handle reinforcement pieces, hemming the bag mouth, opening the bag mouth, etc., or the same process is processed in parallel to improve the speed. For example, a plurality of bag mouth processing components 210 operate synchronously, thereby improving the bag mouth processing efficiency of the handbag.

[0071] It should be noted that the range of the predetermined number of bag bodies is from 1 to 40. For example, the bag body transfer component 330 transfers 1 bag body at a time, or the bag body transfer component 330 transfers 25 bag bodies at a time, or the bag body transfer component 330 moves 40 bag bodies at a time. Of course, the bag body transfer component 330 can also move any number of bag bodies within the above-mentioned quantity range at a time to ensure stable and efficient transfer of the bag bodies. If the predetermined number of bag bodies grabbed by the bag body transfer component 330 in its self-buffer space is greater than 40, it is not conducive to the transfer by the bag body transfer component 330, and the plurality of bag bodies may become loose during the movement, resulting in the bag bodies moved to the secondary conveying channel 320 not being able to move well along the secondary conveying channel 320; in addition, when the predetermined number is greater than 40, it will also cause a large number of bag bodies to accumulate in the main bag body buffer component 311, but they are not transferred to the bag mouth processing device 200 in time for bag mouth processing, reducing the production efficiency of the handbag.

[0072] For the convenience of storing the handbag, as Figure 2 shown, in one embodiment, the handbag production device 10 further includes a bag body storage table 400 provided downstream of the bag mouth processing device 200.

[0073] In this embodiment, the output end of each bag mouth processing component 210 is communicated with the bag body storage table 400 to transport the bag bodies after bag mouth processing to the bag body storage table 400, which is convenient for workers to sort and pack later.

[0074] Furthermore, in one embodiment, as Figure 2 shown, the main bag body buffer component 311 is a receiving frame provided at the downstream end of the main conveying channel 310, and the internal space of the receiving frame forms a main buffer space. The bag body transfer component 330 includes a gripping member 331 that can grip the bag body and a gripping driving member 332 that drives the gripping member 331 to move between the main bag body buffer component 311 and any one of the secondary conveying channels 320.

[0075] The gripping driving member 332 drives the gripping member 331 to grip a predetermined number of bag bodies from the self-buffer space, move and place them at the entrance end of a corresponding secondary conveying channel 320, and one secondary conveying channel 320 conveys the predetermined number of bag bodies to the corresponding bag mouth processing component 210 one by one.

[0076] Specifically, the bag body transfer component 330 further includes a grasping guide 333. The grasping driving member 332 drives the grasping member 331 to move between the main bag body buffer component 311 and any one of the secondary conveying channels 320. The grasping guide 333 can be a commonly used guide rail in the art.

[0077] In another alternative embodiment, as Figure 3 shown, the main bag body buffer component 311 is a receiving frame provided at the downstream end of the main conveying channel 310. The internal space of the receiving frame includes a plurality of main buffer spaces arranged in series in sequence; wherein, the plurality of main buffer spaces correspond to the plurality of secondary conveying channels 320 one by one, and the inlet end of each secondary conveying channel 320 is provided beside a corresponding one of the main buffer spaces.

[0078] Specifically, as Figure 3 shown, in this embodiment, the internal space of the receiving frame includes two main buffer spaces arranged in series in sequence. The inlet end of one of the secondary conveying channels 320 is provided on the left side of the corresponding main buffer space, and the inlet end of the other secondary conveying channel 320 is provided on the right side of the corresponding main buffer space. Of course, the internal space of the receiving frame may also include three, four or other numbers of main buffer spaces arranged in series in sequence.

[0079] The bag body transfer component 330 includes a plurality of pushing members 334 corresponding to the inlet ends of the plurality of secondary conveying channels 320 one by one. Each pushing member 334 and the inlet end of the corresponding secondary conveying channel 320 are spaced apart and arranged on opposite sides of a corresponding one of the main buffer spaces.

[0080] In this embodiment, the bag body transfer component 330 includes two pushing members 334. One of the pushing members 334 is provided on the right side of the corresponding main buffer space, and the other pushing member 334 is provided on the left side of the corresponding main buffer space. The push plate member can move towards the corresponding main buffer space and can be a push plate driven by a cylinder.

[0081] Specifically, the pushing member 334 moves towards the corresponding main buffer space and pushes a predetermined number of bags located in the main buffer space into the inlet end of the corresponding secondary conveying channel 320.

[0082] In this embodiment, a predetermined number of bags can be pushed into the corresponding secondary conveying channel 320 through the pushing member 334. Each secondary conveying channel 320 corresponds to a pushing member 334, and the plurality of pushing members 334 can operate simultaneously to distribute a plurality of bags into each conveying channel, improving the efficiency of distributing the bags into the plurality of secondary conveying channels 320.

[0083] Of course, when the rate at which the bag body manufacturing device 100 manufactures the bag body is slightly greater than the rate at which the bag mouth processing device 200 processes the bag mouth, setting two bag mouth processing components 210 for bag mouth processing will cause the bag bodies output by the bag body manufacturing device 100 to be insufficiently supplied. Therefore, as Figure 4 shown, in one embodiment, the bag mouth processing device 200 is provided with one bag mouth processing component 210. The bag body transfer component 330 includes a gripping member 331 capable of gripping the bag body and a gripping driving member 332. The gripping driving member 332 drives the gripping member 331 to move along the gripping guide member 333 between the main bag body buffer component 311 and the secondary conveying channel 320, so as to transfer the bag body in the main buffer space to the secondary conveying channel 320.

[0084] As Figure 5 shown, in another embodiment, the bag mouth processing device 200 is also provided with one bag mouth processing component 210. However, the bag body transfer component 330 is set as a pushing member 334 located on both sides of the main buffer space opposite to the secondary conveying channel 320. The pushing member 334 can push a predetermined number of bag bodies into the secondary conveying channel 320, so as to realize the transfer of the bag body between the main conveying channel 310 and the secondary conveying channel 320.

[0085] Of course, regarding the specific structure of the bag body transfer component 330, it is not limited to the above two structures only. It can also be set as a mechanism capable of lifting and moving the bag body. Those skilled in the art can design it according to the actual situation and specific requirements. This embodiment does not make a unique limitation on this.

[0086] It should be noted that in addition to the implementation manners of the present utility model described in the above specific embodiments, those skilled in the art can easily understand other advantages and effects of the present utility model from the content disclosed in this specification. Although the description of the present utility model is introduced in combination with the preferred embodiments, this does not mean that the features of this utility model are limited to this implementation manner. On the contrary, the purpose of introducing the utility model in combination with the implementation manner is to cover other alternatives or modifications that may be extended based on the claims of the present utility model. In order to provide a deep understanding of the present utility model, many specific details are included in the above description. The present utility model can also be implemented without using these details. In addition, in order to avoid confusing or obscuring the key points of the present utility model, some specific details will be omitted in the description. It should be noted that, without conflict, the embodiments and features in the embodiments of the present utility model can be combined with each other.

[0087] It should be noted that in this specification, similar reference numerals and letters indicate similar items in the following drawings. Therefore, once an item is defined in one drawing, it does not need to be further defined and explained in subsequent drawings.

[0088] In the description of this embodiment, it should be noted that the orientation or positional relationship indicated by the terms "upper", "lower", "inner", "bottom", etc. is based on the orientation or positional relationship shown in the drawings, or the orientation or positional relationship in which the utility model product is usually placed during use. It is only for the convenience of describing the present utility model and simplifying the description, rather than indicating or implying that the referred components or elements must have a specific orientation, be constructed and operated in a specific orientation. Therefore, it should not be construed as a limitation to the present utility model.

[0089] The terms "first", "second", etc. are only used for distinguishing descriptions and cannot be understood as indicating or implying relative importance.

[0090] In the description of this embodiment, it should also be noted that unless otherwise clearly specified and limited, the terms "set", "connected", "connected to" should be understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be directly connected or indirectly connected through an intermediate medium, and it can be the communication inside two elements. For those of ordinary skill in the art, the specific meanings of the above terms in this embodiment can be understood according to specific situations.

[0091] Although the present utility model has been illustrated and described by referring to some preferred embodiments of the present utility model, those of ordinary skill in the art should understand that the above content is a further detailed description of the present utility model in combination with specific embodiments, and it cannot be determined that the specific implementation of the present utility model is only limited to these descriptions. Those skilled in the art can make various changes in form and details, including making several simple deductions or substitutions, without departing from the spirit and scope of the present utility model.

Claims

1. A handbag production equipment, characterized in that: It comprises a bag making device, a bag mouth processing device arranged downstream of the bag making device, and a bag conveying device located between the bag making device and the bag mouth processing device; wherein, The bag making device makes a bag having an opening at one end from a sheet material from upstream, and the bag opening processing device includes a bag opening processing component for processing the opening portion of the bag; and The bag conveying device includes a main conveying channel connected to the bag making device, a secondary conveying channel connected to the bag mouth processing device, and a bag transfer component arranged between the main conveying channel and the secondary conveying channel. A main bag cache component that can accommodate a plurality of the bag bodies is arranged at the downstream end of the main conveying channel, and the bag transfer component transfers a predetermined number of the bag bodies in the main bag cache component to the secondary conveying channel.

2. The handbag production equipment according to claim 1, characterized in that: in, The bag opening processing device includes a plurality of bag opening processing components, and the bag body conveying device includes a plurality of secondary conveying channels corresponding to and communicating with the plurality of bag opening processing components one by one; and, The main bag body cache component has at least one main cache space, each of which can accommodate the predetermined number of bags; wherein, The main conveying channel transports the bags to the main bag cache component until the number of bags in one of the main cache spaces reaches the predetermined number, and the bag transfer component transfers the bags in the one main cache space to a corresponding secondary conveying channel.

3. The handbag production equipment according to claim 2, characterized in that: The main bag body buffer component is a receiving frame arranged at the downstream end of the main conveying channel, and the internal space of the receiving frame forms a main buffer space. The bag body transfer component includes a grabbing member that can grab the bag body, and a grabbing driving member that drives the grabbing member to move between the main bag body buffer component and any one of the secondary conveying channels; wherein, The grab driving member drives the grab member to grab the predetermined number of bags from the primary buffer space, move and place them at the inlet end of a corresponding secondary conveying channel, and a secondary conveying channel conveys the predetermined number of bags one by one to the corresponding bag opening processing component; wherein, The predetermined number of the bags ranges from 1 to 40.

4. The handbag production equipment according to claim 2, characterized in that: The main bag body cache component is a receiving frame arranged at the downstream end of the main conveying channel, and the internal space of the receiving frame includes a plurality of the main cache spaces arranged in series; wherein the plurality of the main cache spaces correspond one-to-one to the plurality of the secondary conveying channels, and the entrance end of each of the secondary conveying channels is arranged beside a corresponding one of the main cache spaces; wherein, The bag transfer component includes a plurality of pushers corresponding to the inlet ends of the plurality of secondary conveying channels one by one, and each of the pushers is spaced apart from the inlet end of the corresponding secondary conveying channel at opposite sides of a corresponding primary buffer space; wherein, The pushing member moves toward the corresponding primary buffer space to push the predetermined number of bags in the primary buffer space into the corresponding inlet end of the secondary conveying channel.

5. The handbag production equipment according to any one of claims 1 to 4, characterized in that: Each of the bag opening processing components includes any one of the bag opening folding component, the reinforcement component installation component or the bag opening component, or any two or three of them are arranged in series; wherein, The bag opening folding component is used to bend the bag opening of the bag body inward at the opening part and fit it on the inner wall surface of the bag body; The bag opening component is used to cut a cutout on the side wall of the opening portion, and the cutout allows the end of the handle to pass through and connect to the inner surface of the side wall of the bag body; and The reinforcement installation component is used to install the handle reinforcement on the handle fixing portion of the bag body, so that the handle reinforcement passes through the side wall of the bag body located at the handle fixing portion and the end of the handle.

6. The handbag production equipment according to any one of claims 1 to 4, characterized in that: The handbag production equipment also includes a bag body storage station arranged downstream of the bag opening processing device; wherein, The output end of each bag opening processing component is communicated with the bag body storage platform, and the bag body after the bag opening processing is transported to the bag body storage platform.

7. The handbag production equipment according to any one of claims 1 to 4, characterized in that: The bag making device comprises a sheet material supply component, a frame, and a sheet material transport component and a bag body forming component arranged on the frame, wherein: The sheet material supply component stores a plurality of sheets of material and can place the sheets one by one at the inlet end of the sheet material transport component, and the sheet material transport component transports the sheets to the bag body forming component; The bag forming component includes a mold, a mold driving assembly, and a bag sealing assembly, wherein the mold driving assembly is transmission-connected to one end of the mold, and the bag sealing assembly is arranged on the peripheral side of the mold; The die driving assembly drives the die to squeeze the sheet material so that the sheet material is bent toward the die, and the bag sealing assembly makes the sheet material adhere to the outer surface of the die, and the sheet material is connected at the joint.

8. The handbag production equipment according to claim 7, characterized in that: The bag making device further comprises a head card placing component, which is located beside the sheet material transport component and upstream of the bag forming component; wherein, The head card placement component includes a head card picking component and a head card feeding component. The head card feeding component is used to transport the head cards one by one to the receiving position of the head card feeding component. The head card picking component grabs the head card from the receiving position and transports and fixes the head card to the head card placement area on the sheet.

9. The handbag production equipment according to claim 8, characterized in that: The bag making device further comprises a handle fixing component, which is located beside the sheet transport component and between the head card placement component and the bag forming component; wherein, The handle fixing component includes a handle supply assembly, a handle transport assembly and a handle fixing assembly. The handle supply assembly is used to supply the handle. The handle transport assembly grabs the handle from the handle supply assembly and moves it to the handle fixing portion of the sheet material. The handle fixing assembly is used to fix both ends of the handle to the handle fixing portion.

10. The handbag production equipment according to claim 9, characterized in that: The side walls of the bag body are formed with folding lines on opposite sides, and the bag body can be folded along the folding lines; The handbag production equipment also includes a bag folding component arranged downstream of the bag body forming component. The bag body made by the bag body making device passes through the bag folding component, and the bag folding component squeezes the bag body along the folding line to make the bag body in a folded state.

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