Air bubble film inflating and separating integrated device

Abstract

The invention discloses an air bubble film inflating and separating integrated device which comprises a discharging module, a feeding module, a discharging module, a separating module, an air bubble film inflating module and an air bubble film separating module, and the discharging module comprises a discharging rod used for containing a consumable roll; the inflation module is used for inflating the opening of the consumable to form an air bubble film; the heating module is used for carrying out heat sealing on the opening of the air bubble film and driving the air bubble film to be conveyed towards the downstream direction; the separation module comprises a conveying belt assembly, and the conveying belt assembly is used for conveying the air bubble film to the outside of a discharging opening of the equipment; the discharging module, the inflation module, the heating module and the separation module are sequentially arranged on the equipment body. According to the device, the air bubble film inflation function and the air bubble film separation function are combined, linkage cooperation between the heating module and the separation module is adopted, the air bubble film inflation function and the air bubble film separation function are integrated in the whole device, and the production and assembly cost of the whole system can be effectively reduced; and potential safety hazards caused by the fact that an air bubble film inflator and air bubble film separation equipment need to be placed at high positions in an existing working mode can be avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of packaging material production equipment, and in particular to an integrated device for inflating and separating bubble films. Background Art

[0002] Currently, the bubble film separator and bubble film inflator are separate machines. During operation, due to debugging issues, the production speeds of the two machines are likely to become out of sync. Forced connection can cause the consumables to break due to the speed mismatch, necessitating the addition of an additional screen frame to buffer the material. Furthermore, to ensure continuous, automatic operation of the system, a high-low level sensor is required to detect whether the consumables in the screen frame are too low or too high, thereby controlling the operation and stopping of the bubble film machine.

[0003] This existing method increases the size of the machine due to the addition of the screen frame system. Furthermore, since the screen frame acts as a buffer for the material, it typically requires a large footprint, making the entire system difficult to fit into smaller spaces. Furthermore, due to the system's heavy weight, both the bubble film inflator and the bubble film separator need to be positioned high above the screen frame, which results in a high center of gravity for the entire system, leading to instability and potential safety hazards.

[0004] In addition, the additional screen frame system and detection sensors will increase the production and assembly costs of the entire system, resulting in insufficient overall competitiveness of the equipment. Summary of the Invention

[0005] To address the shortcomings of existing technologies, the present invention provides an integrated bubble film inflation and separation device. This device integrates both the bubble film inflation and separation functions, eliminating the need for an additional mesh frame system for material storage. This effectively reduces the production and assembly costs of the entire system and avoids the safety hazards associated with existing methods of operation, which require the bubble film inflator and bubble film separation equipment to be located at a high position.

[0006] According to a first aspect of the present invention, there is provided a bubble membrane inflation and separation integrated device, comprising: A discharge module, comprising a discharge rod, wherein the discharge rod is used to place the consumable material roll; An inflation module, used to inflate the opening of the consumable material to form a bubble film; The heating module is used to heat-seal the opening of the bubble film and drive the bubble film to be transported toward the downstream direction; A separation module, comprising a conveyor belt assembly, wherein the conveyor belt assembly is used to transport the bubble film toward the outside of the discharge port of the equipment; The discharge module, the inflation module, the heating module and the separation module are sequentially arranged on the equipment body.

[0007] The integrated device for inflating and separating bubble wrap of the present invention feeds materials through a feeding component, then inflates the consumables through an inflation module to form bubble wrap, and then uses a heating module to thermally seal the openings of the bubble wrap to form a complete continuous bubble wrap product. When the separation process of the device is started, such as being triggered by manually pressing a corresponding control button, the heating module will be controlled to stop at this time to clamp the bubble wrap, and the separation module will continue to operate and cooperate with the heating module to tear the bubble wrap. The separated bubble wrap after tearing can be conveyed to the discharge port as the separation module operates. Since the separation module is integrally arranged in the overall device, the conveying speed of the separation module can be consistent with the feeding speed and the bubble wrap production speed of the overall device, and thus there is no need to further add an additional mesh frame system for storing materials. The integrated device for inflating and separating bubble wrap of the present invention combines the bubble wrap inflation function and the separation function, and ingeniously adopts the linkage cooperation between the heating module and the separation module for conveying the bubble wrap, realizing the integration of the bubble wrap inflation function and the separation function in the overall device, thereby effectively reducing the production and assembly costs of the entire system, and at the same time avoiding the safety hazards brought by the need to place the bubble wrap inflator and the bubble wrap separation device at a relatively high position in the existing working mode.

[0008] In some possible embodiments, it further includes: A detection module for determining the position to be torn of the bubble wrap and controlling the operation of the overall device in a linked manner, and the detection module is arranged between the heating module and the separation module.

[0009] Thus, by setting like this, it can detect the end fracture of the bubble wrap through the detection module and determine the position to be torn of the bubble wrap product, so as to be linked with other modules of the device, automatically determine the position to be torn of the bubble wrap during operation, and automatically start the separation process to tear the bubble wrap.

[0010] In some possible embodiments, it further includes a clamping module, including a clamping member and a clamping driving member, and the clamping driving member is used to drive the clamping member to move to clamp the bubble wrap, and the clamping module is arranged on the upstream side of the separation module.

[0011] Thus, by setting like this, when clamping the bubble wrap, in addition to clamping the bubble wrap through the heating module, the clamping driving member of the clamping module can be controlled to drive the clamping member to move to clamp the bubble wrap at this time. In addition, since an additional clamping module is provided to clamp the bubble wrap, in other possible embodiments, the bubble wrap can be clamped only by the clamping module when clamping the bubble wrap, thereby avoiding continuously heating the bubble wrap when the heating module clamps the bubble wrap, resulting in damage to the bubble wrap and affecting the quality of the produced bubble wrap.

[0012] In some possible embodiments, the clamping member includes a pressing wheel. A platform for clamping the bubble film, which cooperates with the pressing wheel, is provided at the lower part of the device body. The platform is arranged on the feeding port side of the separation module. The pressing wheel is connected with a clamping connecting rod. One end of the clamping connecting rod is rotatably arranged on the device body through a rotating shaft, and the other side of the rotating shaft is connected with a clamping driving member.

[0013] Thus, by such an arrangement, the bubble film can be clamped by the platform provided at the lower part of the device body and the pressing wheel forming the clamping member. Since a platform is additionally provided at the lower part of the device body, in addition to being used to cooperate with the clamping member to clamp the bubble film, the platform can also serve as an auxiliary supporting structure for the bubble film before it enters the separation module, so that the overall bubble film can be flatter when entering the separation module, improving the product quality of the separated bubble film.

[0014] In some possible embodiments, the heating module includes a heating wheel and a heat-sealing auxiliary wheel. The heat-sealing auxiliary wheel is set to rotate actively. The wheel surface of the heating wheel abuts against the wheel surface of the heat-sealing auxiliary wheel to heat-seal the opening of the bubble film and drive the bubble film to be conveyed in the downstream direction.

[0015] Thus, by such an arrangement, the opening of the inflated bubble film can be heat-sealed by the heating wheel and the heat-sealing auxiliary wheel. At the same time, the overall heating module can also serve as the main transmission structure for conveying the consumables during the operation of the device to drive the feeding of the consumables. Since heat-sealing is the last link in the starting inflation function part of the overall device, by such an arrangement, the output speed of the bubble film can be better controlled. In addition, compared with the bubble film inflator in the prior art, the large bubble film inflator in the prior art mainly uses a Teflon belt to indirectly transfer heat for heat-sealing. This way of using a heating belt will cause the production speed of the machine not to be too fast, and it is easy to cause premature wear and breakage of the heating belt, affecting the normal operation of the device. However, the present invention uses a heating wheel to replace the existing heating belt for heat-sealing, and its heat conduction efficiency is higher, so it can adapt to operation at high speed and improve the production speed of the overall device.

[0016] In some possible embodiments, a lifting driving member is arranged on the heating wheel. The lifting driving member is used to drive the heating wheel to move so that the wheel surface of the heating wheel is separated from the wheel surface of the heat-sealing auxiliary wheel.

[0017] Thus, by such an arrangement, it is possible to control the heating wheel to lift during the separation process, avoiding stopping the continuous feeding and pausing the operation of the bubble film inflation function part, and avoiding the continuous heating of the bubble film by the heating wheel from affecting the quality of the produced bubble film.

[0018] In some possible embodiments, a sealing module is further disposed between the inflation module and the heating module, and the sealing module is configured to clamp and seal the opening of the bubble wrap.

[0019] Thus, by such an arrangement, the opening of the inflated bubble wrap can be clamped and sealed by the sealing module and then conveyed to the heating module for heat sealing, thereby effectively alleviating the air leakage phenomenon that easily occurs before the inflated bubble wrap is conveyed to the heating module and improving the quality of the produced bubble wrap.

[0020] In some possible embodiments, the sealing module includes a row of first gear sets disposed on the first side of the bubble wrap and a row of second gear sets disposed on the second side of the bubble wrap. The first gear set includes at least one first gear disposed on the first side of the bubble wrap, and the second gear set includes at least one second gear disposed on the second side of the bubble wrap. The difference in the number of the first gear and the second gear is not more than 1. The first gears of the first gear set and the second gears of the second gear set are arranged at intervals, and adjacent first gears and second gears mesh with each other. The sealing module further includes a sealing driving member configured to drive at least one first gear or at least one second gear to rotate.

[0021] Thus, by such an arrangement, the opening of the bubble wrap can be clamped and sealed by the meshing transmission between the first gear set and the second gear set. Since both the first gear set and the second gear set can include multiple gears, and each gear meshes with the gears of the other adjacent set, the sealing stability during the conveyance in the entire sealing module can be effectively ensured. And through such a meshing and matching arrangement, only one sealing driving member needs to be provided to drive the multiple gears in the overall sealing module, and the rotation of other gears is realized through meshing transmission, that is, it can reduce the cost of setting the driving members and can also effectively ensure the sealing performance during transmission.

[0022] In some possible embodiments, the heating module includes a heating wheel and a heat-sealing auxiliary wheel. The heat-sealing auxiliary wheel is configured to rotate actively, and a lifting driving member is disposed on the heating wheel. The lifting driving member is configured to drive the heating wheel to move; Teeth are disposed on the heating wheel. The heating wheel meshes with the first gear set or the second gear set through a driving gear. The movement path of the heating wheel when being driven by the lifting driving member is set as an arc-shaped movement path with the rotation center of the driving gear as a reference. The sealing driving member is configured to drive the heating wheel to rotate by the heat-sealing auxiliary wheel, and then the heating wheel meshes with the driving gear to drive at least one first gear or at least one second gear to rotate.

[0023] Thus, by adopting such a configuration, the installation of a drive module when the sealing module is being driven can be directly eliminated, thereby effectively reducing the equipment cost, reducing the overall weight of the equipment, eliminating the equipment space required for installing the drive module, and reducing the overall volume of the equipment. At the same time, when the heating wheel is lifted, the sealing module can simultaneously stop operating, thereby exerting a certain clamping effect on the bubble film, further clamping and fixing the bubble film. In addition, the movement path of the heating wheel when lifted is set to an arc movement path formed with the rotation center of the drive gear as the reference. This can avoid collisions between the teeth of the heating wheel and the teeth of the drive gear when the heating wheel is reset after being lifted. This can ensure that the heating wheel always maintains meshing with the drive gear when lifted, avoiding safety hazards.

[0024] In some possible embodiments, a consumables quantity detection module is further provided upstream of the inflation module, and the consumables quantity detection module includes a paddle structure, one end of the paddle structure is hingedly provided on the device body, and the hinged rotation axis of the paddle structure is perpendicular to the consumables passing through the paddle structure, and the paddle structure has a first position and a second position. The consumables quantity detection module also includes a counting unit. When the paddle structure is in the first position, it will be toggled by the opening of the consumables transported downstream to rotate through the second position, and the counting unit is triggered when the paddle structure passes the second position. The consumables quantity detection module also includes a paddle reset drive for driving the paddle structure to reset to the first position.

[0025] Therefore, through such a setting, when the consumables pass through the consumable quantity detection module, it will drive the paddle structure to rotate, thereby driving the paddle structure to rotate through the second position, triggering the counting unit to count, and then the number of consumables used can be counted through the consumable quantity detection module, and combined with the production speed of the machine, the actual operating position of the consumables can be clearly understood.

[0026] In some possible implementations, an opening structure is further provided on the upstream side of the paddle structure, and the opening structure includes an opening rod and a blade provided on one side of the opening rod.

[0027] This arrangement allows the opening structure to be used to cut closed-end consumables, creating open films that can then be transported to the downstream inflation module for inflation to form bubble films. The opening structure is located upstream of the consumable quantity detection module, allowing the paddle structure to count the number of consumables immediately after the closed-end film is cut, thus integrating the two processes and simplifying the overall equipment structure.

[0028] In some possible implementations, the discharge module further includes a discharge driving member for driving the discharge rod to rotate to actively discharge the material.

[0029] Therefore, by such an arrangement, the impact caused by the excessive weight of the consumable roll during material discharge, which may cause the consumables to break, can be effectively alleviated. In actual production, since the consumable roll is usually very large, the overall weight is also very large, which makes it difficult to be pulled and rotated. When the machine is operating, pulling the consumables to be transported will generate an impact force on the consumable roll, and this impact force can easily cause the consumables to break. This is a problem that only occurs in large-scale bubble film production equipment. The present invention adds an active material discharge and rotation function to the discharge rod, thereby giving the consumable roll an active rotation speed, thereby effectively avoiding the situation where the consumables are pulled apart when the machine is operating.

[0030] In some possible embodiments, the downstream of the discharge module also includes a film buffer module, the film buffer module includes a buffer roller, the consumables are transported downstream around the buffer roller, the buffer roller is configured to be able to move between a third position and a fourth position relative to the device body, the film buffer module also includes a detection unit, the detection unit is configured to detect that when the buffer roller moves to the fourth position, it controls the discharge drive to increase the discharge speed, and the film buffer module also includes a buffer reset drive for driving the buffer roller to reset to the third position.

[0031] Therefore, through such an arrangement, the consumables can be stored and buffered by the film buffer module after being discharged from the discharge module. It is understandable that, due to the very large weight and volume of the consumable roll as a whole, under the premise that the rotation speed of the discharge drive is certain, when the consumable roll is in use, the speed of the outermost layer of consumables will gradually slow down, thereby failing to match the bubble film conveying speed and bubble film production speed of the machine, thereby causing the consumables to be torn off. At this time, by adding a buffer roller of the film buffer module, after the consumables bypass the buffer roller, when the speed of the outermost layer of the consumable roll gradually slows down, it will squeeze the buffer roller to move toward the fourth position. When the buffer roller moves to the fourth position, it will trigger the detection unit to control the discharge drive to increase the discharge speed, thereby avoiding the consumables from being torn off. When the material discharging speed of the material discharging drive increases, the buffer roller will gradually return to the third position under the drive of the buffer reset drive, achieving material storage buffering, until the speed of the outermost layer of the consumables roll is again slower than the bubble film conveying speed and bubble film production speed of the machine, thereby repeatedly triggering material storage buffering. By further providing a film buffer module to achieve material storage buffering, the present invention can effectively prevent the consumables from tearing during machine operation, ensuring normal operation of the equipment.

[0032] In some possible implementations, the discharge module further includes a guide roller downstream, and the consumables are conveyed downstream in the direction required for conveying into the inflation module after passing around the guide roller.

[0033] Thus, by such an arrangement, the conveying direction of the consumable can be changed, enabling the consumable to better enter the inflation module, preventing the consumable from shifting and affecting the normal operation of the inflation module. Additionally, the arrangement of the deviation rectifying module can be eliminated, reducing the cost of the overall equipment.

[0034] In some possible implementation manners, the unwinding module is disposed at the upper part of the equipment main body, and the inflation module, the heating module, and the separation module are all disposed at the lower part of the equipment main body.

[0035] Thus, by such an arrangement, the layout of each part of the overall equipment can be made more reasonable, avoiding the situation of unstable center of gravity. At the same time, the vertical space can be utilized to reduce the length of the overall equipment and decrease the floor area occupied by the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0036] Figure 1 Schematic diagram of the overall structure of the bubble film inflation and separation integrated device with consumables according to an embodiment of the present invention; Figure 2 Schematic diagram of the overall structure of the bubble film inflation and separation integrated device according to an embodiment of the present invention; Figure 3 Front view structure diagram of the bubble film inflation and separation integrated device according to an embodiment of the present invention; Figure 4 Schematic diagram of the left front side structure of the bubble film inflation and separation integrated device according to an embodiment of the present invention; Figure 5 is Figure 4 Enlarged structure diagram of part A in Figure 6 Schematic diagram of the right front side structure of the bubble film inflation and separation integrated device according to an embodiment of the present invention; Figure 7 is Figure 6 Enlarged structure diagram of part B in Figure 8 Internal drive part structure diagram of the bubble film inflation and separation integrated device according to an embodiment of the present invention; Description of the reference numerals in the drawings: 1. Feeding module; 11. Feeding rod; 12. Feeding driving member; 2. Inflating module; 21. Blowing nozzle; 22. Blower module; 3. Sealing module; 31. First gear set; 32. Second gear set; 33. Driving gear; 4. Consumable quantity detection module; 41. Paddle structure; 411. Paddle body; 412. Clamping block; 413. Connecting member; 414. Hinge rotating shaft; 415. Counting unit; 42. First position; 43. Second position; 44. Opening structure; 441. Opening rod; 442. Blade; 5. Heating module; 51. Heating wheel; 511. Auxiliary slider; 512. Chute; 52. Heat-sealing auxiliary wheel; 53. Lifting driving member; 54. Heating module driving member; 61. Detection module; 62. Clamping module; 63. Clamping member; 631. Clamping link; 64. Clamping driving member; 7. Separation module; 71. Conveyor belt assembly; 72. Inlet; 73. Outlet; 8. Film buffer module; 81. Buffer roller; 811. Buffer link; 812. Baffle; 82. Third position; 83. Fourth position; 84. Detection unit; 85. Buffer reset driving member; 86. Guide roller; 9. Equipment main body; 91. Platform. Detailed implementation mode

[0037] In order to make the objectives, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are some, but not all, of the embodiments of the present invention. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0038] It should be noted that, without conflict, the embodiments in the present application and the features in the embodiments may be combined with each other.

[0039] Finally, it should also be noted that in this text, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or sequence between these entities or operations. Moreover, the terms "include" and "comprise", in addition to including those elements, also include other elements that are not explicitly listed, or also include elements inherent to this process, method, article or device. Without further limitation, the elements defined by the statement "include..." do not exclude the existence of additional identical elements in the process, method, article or device including the said elements.

[0040] The present invention will be further described in detail below with reference to the accompanying drawings.

[0041] Figure 1And Figure 2 Schematically shows the overall structural diagram of the integrated device for inflating and separating bubble film according to an embodiment of the present invention. Refer to Figure 1 And Figure 2 As shown, the integrated device for inflating and separating bubble film of the present invention includes a feeding module 1, an inflating module 2, a heating module 5, and a separating module 7. Among them, the feeding module 1, the inflating module 2, the heating module 5, and the separating module 7 are arranged on the device main body 9 in sequence according to the order of execution of the process. Specifically, in order to make the layout of the overall device more reasonable and reduce the occupied area, the feeding module 1 can be arranged on the upper part of the device main body 9, while the inflating module 2, the heating module 5, and the separating module 7 are all arranged on the lower part of the device main body 9. Since the consumable roll usually has a very large volume and weight, placing the feeding module 1 in the upper part can save more floor space of the overall device. At the same time, arranging more modules on the lower part of the device main body 9 can also effectively improve the stability of the overall device when it is placed.

[0042] The feeding module 1 is arranged on the upper part of the device main body 9. Refer to Figure 3 And Figure 4 As shown, the feeding module 1 includes a feeding rod 11 extending outward from the device main body 9. One end of the feeding rod 11 is rotatably arranged on the device main body 9, and the consumable roll is wound with its center placed on the feeding rod 11, so that it can rotate with the rotation of the feeding rod 11 to realize the feeding of the consumable.

[0043] The inflating module 2 is arranged on the lower part of the device main body 9. Refer to Figure 4 And Figure 8 As shown, the inflating module 2 is arranged below the feeding module 1. The inflating module 2 includes a blowing nozzle 21 and a hair dryer module 22 connected to the blowing nozzle 21. The structure of the blowing nozzle 21 and the structure of the hair dryer module 22 can both be set with reference to the relevant structures and modules in the existing bubble film inflator, and the present invention does not limit this. Specifically, refer to Figure 5 As shown, the blowing nozzle 21 is set in an "L" shape with the end facing the downstream side. When the consumable is conveyed so that its opening passes through the blowing nozzle 21, the consumable is blown into gas to form a bubble film and continues to be conveyed downstream to enter the heating module.

[0044] In some possible embodiments, a sealing module 3 may be further disposed between the inflating module 2 and the heating module 5 to clamp and seal the opening of the inflated bubble film by using the sealing module 3, so as to prevent the gas in the bubble film from leaking during the process of the bubble film leaving the inflating module 2 and entering the heating module 5. Specifically, the sealing module 3 may include a row of first gear sets 31 disposed on the first side of the bubble film and a row of second gear sets 32 disposed on the second side of the bubble film, so as to realize the conveying and clamping seal of the bubble film through the meshing and transmission of the gears. Wherein, the first gear set 31 may include at least one first gear disposed on the first side of the bubble film, the second gear set 32 may include at least one second gear disposed on the second side of the bubble film, the number difference between the first gear and the second gear is not more than 1, and the first gear and the second gear are arranged at intervals and are meshed with each other. Refer to Figure 4 and Figure 5 As shown, exemplarily, in the embodiment shown in Figure 3 and Figure 4 the first gear is the gear disposed on the upper side of the bubble film, the second gear is the gear disposed on the lower side of the bubble film, 4 first gears are provided, 4 second gears are provided, the 4 first gears and the 4 second gears are arranged at intervals, and the adjacent first gear and the second gear are meshed with each other. The sealing module 3 further includes a sealing driving member for driving at least one first gear or at least one second gear to rotate. Specifically, in some possible embodiments, the sealing driving member may be directly connected to the first gear or the second gear to drive the first gear set 31 and the second gear set 32 to operate.

[0045] In some other possible embodiments, a consumables quantity detection module 4 may be provided upstream of the inflation module 2. The consumables quantity detection module 4 can count the amount of consumables used and, combined with the machine's production speed, clearly understand the actual operating position of the consumables. Specifically, the consumables quantity detection module 4 may include a paddle structure 41, wherein one end of the paddle structure 41 is hingedly mounted on the device body 9, and the hinged rotation axis 414 of the paddle structure 41 is perpendicular to the consumables passing through the paddle structure 41. The consumables quantity detection module 4 also includes a counting unit 415. The paddle structure 41 has a first position 42 and a second position 43. When the paddle structure 41 is in the first position 42, it is moved by the opening of the consumables being conveyed downstream to rotate through the second position 43. When the paddle structure 41 passes through the second position 43, the counting unit 415 is triggered. The consumables quantity detection module 4 also includes a paddle reset drive for driving the paddle structure 41 back to the first position 42. Specifically, the counting unit 415 can be set at the first position 42, so that the counting can be triggered when the paddle structure 41 is reset to the first position 42. The counting unit 415 can also be set at the second position 43, so that the counting can be triggered when the paddle structure 41 is moved past the second position 43. Figure 7 As shown, in Figure 7 In the illustrated embodiment, the paddle structure 41 includes a sheet-shaped paddle body 411 and a clamping block 412 connected to one side of the paddle body 411. The clamping block 412 is hingedly mounted on a connecting member 413 extending outward from the side of the device body 9 via a hinged rotation axis 414, allowing the paddle body 411 to remain parallel to the horizontal plane when moved by the opening of the consumables being fed. The counting unit 415 can be a commonly used unit module, such as a photoelectric sensor. A protrusion extends from one side of the clamping block 412, and the counting unit 415 is located at the position of the protrusion when the paddle structure 41 is in the first position 42. The reset driver can be a torsion spring mounted on the hinged rotation axis 414, so that the paddle structure 411 can be reset to the first position 42 under the torsion force of the torsion spring after being moved. The reset driver can also be a tension spring, so that after the paddle structure 41 is moved, the paddle structure 41 can be pulled back to the first position 42 under the tension of the tension spring. The reset driving member may also be other structures or modules that can drive the structure to rotate. This structure will not be described in detail here, and the present invention does not limit this.

[0046] Furthermore, in some possible implementations, the consumables may be a closed membrane structure, and then the closed structure needs to be cut open by a blade 442 so that the consumables form an open membrane before being transported to the inflation module 2 for inflation. Furthermore, in the consumables quantity detection module 4, an opening structure 44 may be further provided on the upstream side of the connector 413. Figure 7 As shown, inFigure 7 In the embodiment shown, the opening structure 44 includes an opening rod 441 and a blade 442 arranged on the side of the opening rod 441 facing the device body 9. When the consumables are conveyed through the opening structure 44, they will first be stretched open by the opening rod 441. Then, as the consumables are conveyed, the closed part of the consumables will be cut by the blade 442 to form an opening membrane, and then passed through the paddle structure 41 for counting, and finally conveyed to the inflation module 2 for inflation.

[0047] The heating module 5 is arranged at the lower part of the device body 9, referring to Figure 3 As shown, the heating module 5 is arranged on the right side of the inflation module 2 and is placed downstream of the inflation module 2. The heating module 5 includes a heating wheel 51 and a heat-sealing auxiliary wheel 52. The heat-sealing auxiliary wheel 52 is configured to rotate actively, and the wheel surface of the heating wheel 51 is against the wheel surface of the heat-sealing auxiliary wheel 52 to heat-seal the opening of the bubble film that is clamped and transported between the wheel surface of the heating wheel 51 and the wheel surface of the heat-sealing auxiliary wheel 52, and drive the bubble film to be transported toward the downstream direction. The surface of the heating wheel 51 is provided with a metal wire for heat-sealing the bubble film. The specific structure of the heating wheel 51 and the heat-sealing auxiliary wheel 52 can be set with reference to the relevant structure and module in the existing bubble film inflator, and the present invention is not limited to this. Specifically, the heat-sealing auxiliary wheel 52 is connected to a heating module driving member 54 for driving the heat-sealing auxiliary wheel 52 to rotate, so that the heat-sealing auxiliary wheel 52 can rotate actively, and then can serve as the main transmission structure for consumable material transportation during the operation of the overall equipment. Reference Figure 8 As shown, in Figure 8 In the illustrated embodiment, the heating module driver 54 is disposed within the device body 9 to drive the rotation of the heat-sealing auxiliary wheel 52. The heating module driver 54 can be configured to include a drive motor and two pulleys, the two pulleys rotating synchronously with the rotating shaft of the drive motor and the heat-sealing auxiliary wheel 52, respectively. The two pulleys are driven by a belt to drive the heat-sealing auxiliary wheel 52. The heating module driver 54 can also adopt other drive control methods, which are not limited by the present invention. Driven by the heating module 5, the consumables are continuously transported downstream, inflated by the inflation module 2, and then heat-sealed by the heating module 5.

[0048] The separation module 7 is arranged at the lower part of the device body 9, referring to Figure 3As shown, the separation module 7 is arranged on the right side of the detection module 61 and is placed downstream of the detection module 61. The separation module 7 includes a conveyor belt assembly 71, and the conveyor belt assembly 71 includes two conveyor belts arranged one above the other. A certain interval is set between the two conveyor belts so that the bubble film can be transported by the two conveyor belts to pass between the two conveyor belts. The separation module 7 has an inlet 72 and an outlet 73. The inlet 72 is set on one side of the right side of the detection module 61, and the other side is the outlet 73. When the equipment is operating, the separation module 7 continuously transports the bubble film from the inlet 72 to the outlet 73 at a speed equivalent to the conveying speed of the bubble film. When the separation process is started, the heating module 5 stops running to clamp the bubble film, and the separation module 7 continues to operate, cooperates with the heating module 5 to tear off the bubble film, and transports the torn bubble film to the outlet 73.

[0049] In some possible implementations, a detection module 61 may be further provided between the heating module 5 and the separation module 7. The detection module 61 is provided at the lower portion of the device body 9, as shown in FIG. Figure 1 As shown, the detection module 61 is arranged on the right side of the heating module 5 and is placed downstream of the heating module 5. The detection module 61 can adopt a commonly used unit module such as a photoelectric sensor. Specifically, as a possible implementation method, the detection module 61 can detect the position of the last torn fracture at the end of the passing bubble film. When the device receives the length of the bubble film to be separated, it determines how much time is required to control the operation of the heating module 5 and the separation module 7 according to the current conveying speed of the bubble film. After the separation process is executed, the length of the bubble film torn off is the required bubble film length. Then, when the detection module 61 detects the fracture at the end of the bubble film and a corresponding time has passed, the position of the bubble film to be torn off can be determined, and then the operation of the entire device is controlled to start the separation process, stop the operation of the heating module 5 to clamp the bubble film, and cooperate with the separation module 7 to realize the automatic tearing and separation of the bubble film. In addition, as another possible embodiment, when the overall device is also provided with a consumables quantity detection module 4, the detection module 61 and the consumables quantity detection module 4 can be combined to determine the length of the bubble film torn off after the separation process is currently executed. Specifically, since the consumables can be triggered when passing through the consumables quantity detection module 4 to count the number of consumables used, after the detection module 61 detects the break at the end of the bubble film, based on the number of uses detected by the consumables quantity detection module 4, when the number detected by the consumables quantity detection module 4 reaches a corresponding value, it is possible to determine the length of the bubble film torn off after the separation process is currently executed, determine the position of the bubble film to be torn off, and thus control the heating module 5 to stop clamping the bubble film, and cooperate with the separation module 7 to achieve automatic tearing and separation of the bubble film.

[0050] In some possible embodiments, a clamping module 62 may be further provided between the separating module 7 and the heating module 5. Refer to Figure 3 and Figure 4 . Specifically, the clamping module 62 is disposed at the lower part of the device main body 9. It can be disposed on the side of the discharge port 72 of the separating module 7 and above the detection module 61. The clamping module 62 includes a clamping member 63 and a clamping driving member 64. The clamping driving member 64 is used to drive the clamping member 63 to move, so as to control the clamping member 63 to clamp the bubble film and prevent the bubble film from moving back and forth. Specifically, the clamping member 63 can be set as a clip structure so that the clamping member 63 can clamp the bubble film alone. The clamping member 63 can also be set as a structure that cooperates with other structures on the device main body 9 to clamp the bubble film, such as a pressure rod, a pressure wheel, etc. Exemplarily, refer to Figure 3 and Figure 4 . As shown in Figure 3 and Figure 4 , in the embodiments shown, the clamping member 63 is set as a pressure wheel, and a platform 91 for clamping the bubble film in cooperation with the pressure wheel extends outward from the side surface of the device main body 9 at the lower part of the device main body 9. The platform 91 is disposed on the side of the feeding port 72 of the separating module 7. One end of the clamping member 63 is connected with a clamping connecting rod 631. One end of the clamping connecting rod 631 is rotatably disposed on the device main body 9 with the side surface of the device main body 9 through a rotating shaft. The other side of the rotating shaft is connected with the clamping driving member 64, so as to control the rotation of the rotating shaft, and further control the clamping member 63 to swing along with the clamping connecting rod 631 and abut against the platform 91 to clamp the bubble film. The clamping driving member 64 can be set as a crank structure driven by a linear motor, so as to be able to drive the rotating shaft to rotate. When the detection module 61 determines the position of the bubble film to be torn, the clamping module 62 will swing towards the platform 91 under the drive of the clamping driving member 64, so as to be able to cooperate with the platform 91 to clamp the bubble film, prevent the bubble film from moving back and forth, and cooperate with the separating module 7 to tear the bubble film to complete the separation process of the bubble film. In this embodiment, by adding the clamping module 62, the stability of clamping the bubble film can be improved in cooperation with the heating module 5.

[0051] In addition, since the clamping module 62 is additionally provided to clamp the bubble film, in other possible implementation manners, when clamping the bubble film, only the clamping module 62 can be used to clamp the bubble film, so as to avoid continuously heating the bubble film when the heating module 5 clamps the bubble film, resulting in damage to the bubble film and affecting the quality of the produced bubble film. It can be understood that when the detection module 61 controls the execution of the separation process in a linked manner, the overall device will stop operating to stop the continuous conveyance of the bubble film and the conveyance of the bubble film by the separation module 7, and control the clamping module 62 to clamp the bubble film, and then continue to drive the separation module 7 to operate alone to cooperate with the clamping module 62 to complete the separation of the bubble film. In this process, although the overall device will stop the conveyance of the bubble film, the heating module 5 cannot cool down immediately, and even if it can cool down immediately, it takes a certain amount of time to reheat to the working temperature. Therefore, the heating wheel 51 of the heating module 5 needs to continuously heat. When the overall device stops the conveyance of the bubble film, the heating wheel 51 will continuously heat the same position of the bubble film, which may damage the bubble film. Therefore, in some possible implementation manners, a lifting driving member 53 can be provided on the heating wheel 51 of the heating module 5, and the lifting driving member 53 is used to drive the heating wheel 51 to move so that the wheel surface of the heating wheel 51 is separated from the wheel surface of the heat-sealing auxiliary wheel 52, avoiding continuously heating the same position of the bubble film. At this time, when the detection module 61 determines the position of the bubble film to be torn, it also controls the lifting driving member 53 to move in a linked manner to drive the heating wheel 51 to lift. It can be understood that in this implementation manner, since the heating wheel 51 is lifted, it cannot cooperate with the heat-sealing auxiliary wheel 52 to convey the bubble film. Therefore, at this time, the heat-sealing auxiliary wheel 52 can stop running or not stop running. Exemplarily, referring to Figure 8 as shown in Figure 8 In the shown implementation manner, a lifting driving member 53 is connected to the rotating shaft of the heating wheel 51. The lifting driving member 53 can be set as a linear motor or a crank structure driven by a linear motor, so as to be able to drive the heating wheel 51 to lift.

[0052] Furthermore, in this implementation manner, the operation of the sealing module 3 can be set to be driven by the heating module 5 in a transmission manner. Specifically, referring to Figure 3 and Figure 4 as shown in Figure 3 and Figure 4In the illustrated embodiment, a driving gear 33 is disposed above the first gear of the sealing module 3. The driving gear 33 meshes with the first gear. At the same time, teeth are also provided on the heating wheel 51 to mesh with the driving gear 33. Thus, when the heating wheel 51 rotates, it can drive the driving gear 33 to rotate, thereby driving the entire sealing film group 3 to operate. When the heating wheel 51 is lifted, the entire sealing module 3 can also be immediately stopped from operating to clamp the bubble film. This design can eliminate the driving structure for driving the sealing module 3 to rotate itself. At the same time, since the heating wheel 51 needs to move during the process of separating the bubble film, if the heating wheel 51 disengages from the driving gear 33 after moving, gear collision is likely to occur after the heating wheel 51 is reset, thereby posing a safety hazard. Therefore, in this embodiment, the moving path of the heating wheel 51 can be set to form an arc-shaped moving path with the rotation center of the driving gear 33 as the reference, so that the heating wheel 51 moves in an arc around the rotation center of the driving gear 33 when lifted, enabling the heating wheel 51 and the driving gear 33 to continuously maintain a meshing state and avoiding the safety hazard of gear collision. Specifically, referring to Figure 4 and Figure 8 as shown, in addition to the rotation of the shaft of the heating wheel 51, the movement of the heating wheel 51 can also be additionally provided with an auxiliary slider 511 connected to the heating wheel 51. A chute 512 cooperating with the auxiliary slider 511 is also provided on the equipment main body 9. The chute 512 is also set to be arc-shaped to assist the movement of the heating wheel 51.

[0053] In actual production, since the consumable roll is usually very large, the overall weight is also very large and it is not easy to be pulled and rotated. When the machine operates, pulling the consumable for conveying will generate an impact force on the consumable roll, and this impact force is very likely to cause the consumable to break, which is a problem that only occurs in large bubble film production equipment. Therefore, in some possible embodiments, the feeding module 1 can further include a feeding driving member 12 for driving the feeding rod 11 to rotate for active feeding. The feeding driving member 12 can be set to include a driving motor and two belt pulleys. The two belt pulleys rotate synchronously with the rotating shaft of the driving motor and with the feeding rod 11 respectively, and the two belt pulleys are driven by a belt to drive the feeding rod 11. The feeding driving member 12 can also adopt other driving control methods, and the present invention does not limit this. The active feeding setting of the feeding rod 11 can give the consumable roll an active rotation speed, thereby effectively avoiding the situation of breaking the consumable when the machine operates.

[0054] Further, since the overall weight of the consumable roll is very large and the volume will also be very large, when the rotation speed of the feeding driving member 12 is constant, during the use of the consumable roll, the speed of the outermost layer of the consumable will gradually slow down, thus unable to match the bubble film conveying speed and the bubble film production speed of the machine, and then causing the consumable to be torn. Thus, in some possible embodiments, a film buffer module 8 may further be included downstream of the feeding module 1. Refer to Figure 3 and Figure 4 As shown, the film buffer module 8 is arranged on the upper part of the equipment main body 9 and on the left side of the feeding module 1. The film buffer module 8 includes a buffer roller 81, and the consumable bypasses the buffer roller 81 and continues to be conveyed downstream. One end of the buffer roller 81 is arranged on the side of the equipment main body 9, and the buffer roller 81 is arranged to be able to move relative to the equipment main body 9 between a third position 82 and a fourth position 83. The film buffer module 8 further includes a detection unit 84, and the detection unit 84 is arranged to, when detecting that the buffer roller 81 moves to the fourth position 83, link the feeding driving member 12 to increase the feeding speed. The film buffer module 8 further includes a buffer reset driving member 85 for driving the buffer roller 81 to reset to the third position 82. Specifically, refer to Figure 3 and Figure 4 As shown, one end of the buffer roller 81 is connected with a buffer connecting rod 811, and one end of the buffer connecting rod 811 is rotatably arranged on the side of the equipment main body 9 through a rotating shaft, so that the buffer roller 81 can move relative to the equipment main body 9 around the rotating shaft, and the moving path is an arc. The upper end of the arc is the third position 82, and the lower end of the arc is the fourth position 83. A stop piece 812 is arranged on the buffer connecting rod 811, and the detection unit 84 is arranged at the position where it is blocked by the stop piece 812 when the buffer roller 81 on the side of the equipment main body 9 is in the third position 82. The detection unit 84 can be arranged as a commonly used unit module such as a photoelectric sensor. The buffer reset driving member 85 can be arranged as a tension spring with one end connected to the equipment main body 9 and the other end connected to the buffer roller 81 or the buffer connecting rod 811. During specific operation, when the speed of the outermost layer of the consumable roll gradually slows down, it will squeeze the buffer roller 81 to move towards the fourth position 83. When the buffer roller 81 moves to the fourth position 83, the detection unit 84 will be triggered to link and control the feeding driving member 12 to increase the feeding speed, thus avoiding the situation that the consumable is torn. After the feeding speed of the feeding driving member 12 increases, the buffer roller 81 will gradually reset to the third position 82 under the drive of the buffer reset driving member 85 to achieve storage buffering until the speed of the outermost layer of the consumable on the consumable roll is slower than the bubble film conveying speed and the bubble film production speed of the machine again, and repeat the trigger for storage buffering. The present invention further sets the film buffer module 8 for storage buffering, and thus can effectively avoid the situation that the consumable is torn during the operation of the machine and ensure the normal operation of the equipment.

[0055] In addition, in some possible embodiments, a guiding roller 86 is further included downstream of the feeding module 1. Specifically, as shown in Figure 4 , the guiding roller 86 is arranged below the film buffer module 8, and the consumable material bypasses the guiding roller 86 and continues to be conveyed downstream in the direction required when being conveyed into the inflation module 2. In the overall device, after being guided by the guiding roller 86, the output position of the guiding roller 86, the input position of the consumable material quantity detection module 4, the input position of the inflation module 2, the input position of the heating module 5, and the feeding port 72 of the separation module 7 are all in the same plane, so that the consumable material can operate more smoothly during the operation of the overall device, avoiding the deviation of the consumable material and affecting the normal operation of the subsequent modules, and also being able to eliminate the setting of the deviation correction module, reducing the cost of the overall device. It should be noted that the so-called being in the same plane here does not refer to an absolute plane, but can be approximately the same plane, as long as the consumable material can operate more smoothly during the operation of the overall device.

[0056] When the overall device is running, the heating wheel 51 of the heating module 5 drives the conveyance of the consumable material. The consumable material is released from the feeding rod 11 of the feeding assembly, enters the heating module 5 for thermal sealing after being inflated by the inflation module 2. Then it passes through the detection module 61 and enters the separation module 7, and continues to be conveyed to the discharge port 73. When the detection module 61 determines the position to be torn of the bubble film, it controls the overall device to stop operating in a linkage manner, controls the clamping module 62 to clamp the bubble film, and at the same time controls the separation module 7 to continue operating after a preset interval. At this time, the bubble film between the clamping module 62 and the separation module 7 will be torn under the pulling of the separation module 7, completing the separation process of the bubble film.

[0057] When the device further includes a feeding driving member 12, a lifting driving member 53, a sealing module 3, a consumable material quantity detection module 4, a film buffer module 8, and a guiding roller 86, when the overall device is running, the consumable material first bypasses the buffer roller 81 of the film buffer module 8, then bypasses the guiding roller 86, passes through the opening structure 44 of the consumable material quantity detection module 4, and then passes through the paddle structure 41, enters the inflation module 2, then passes through the sealing module 3 and enters the heating module 5, and finally passes through the detection module 61 and enters the separation module 7, and continues to be conveyed to the discharge port 73. When the detection module 61 and the consumable material quantity detection module 4 cooperate to determine the position to be torn of the bubble film, they control the overall device to stop operating in a linkage manner, control the lifting driving member 53 to lift the heating wheel 51, control the clamping module 62 to clamp the bubble film, and at the same time control the separation module 7 to continue operating after a preset interval. At this time, the bubble film between the clamping module 62 and the separation module 7 will be torn under the pulling of the separation module 7, completing the separation process of the bubble film.

[0058] The bubble film inflation and separation integrated device of the present invention feeds materials through the feeding component. Then, the consumables are inflated by the inflation module 2 to form a bubble film. Next, the heating module 5 is used to heat-seal the openings of the bubble film to form a complete and continuous bubble film product. The bubble film product continues to be conveyed to the separation module 7 until the position where the bubble film is to be torn is determined. At this time, the clamping drive 64 of the clamping module 62 is controlled to drive the clamping member 63 to move to clamp the bubble film. At the same time, the separation module 7 is controlled to stop first, and then continue to operate after the clamping module 62 clamps the bubble film, and cooperate with the clamping module 62 to tear the bubble film. The torn and separated bubble film can be conveyed to the discharge port 73 with the operation of the separation module 7. In addition, due to the setting of the film buffer module 8 and the feeding module 1 being set as active feeding, the situation of pulling the consumables apart during the production of the bubble film can be effectively avoided. Since the separation module 7 is integrally arranged in the overall device, the conveying speed of the separation module 7 can be consistent with the feeding speed of the overall device and the production speed of the bubble film. Therefore, there is no need to further add an additional mesh frame system for storing materials. The bubble film inflation and separation integrated device of the present invention combines the bubble film inflation function and the separation function, and cleverly adopts the interlocking cooperation among the detection module 61, the clamping module 62 and the separation module 7 to integrate the bubble film inflation function and the separation function into the overall device, thereby effectively reducing the production and assembly costs of the whole system. At the same time, it can also avoid the safety hazards brought by the need to place the bubble film inflator and the bubble film separation device at a relatively high position in the existing working mode.

[0059] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present application, and are not intended to limit them; although the present application has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that they can still modify the technical solutions recorded in the foregoing embodiments, or perform equivalent replacements on some of the technical features; and these modifications or replacements do not make the essence of the corresponding technical solutions deviate from the spirit and scope of the technical solutions of the various embodiments of the present application.

Claims

1. An integrated device for inflating and separating bubble wrap, characterized in that: include A discharge module (1) comprises a discharge rod (11), wherein the discharge rod (11) is used for placing a consumable material roll; An inflation module (2) is used to inflate the opening of the consumable material to form an air bubble membrane; A heating module (5) is used to heat-seal the opening of the bubble film and drive the bubble film to be transported in a downstream direction; A separation module (7) includes a conveyor belt assembly (71), wherein the conveyor belt assembly (71) is used to transport the bubble film toward the outside of the discharge port (73) of the device; The discharge module (1), the inflation module (2), the heating module (5) and the separation module (7) are sequentially arranged on the equipment body (9).

2. The integrated device for inflating and separating bubble wrap according to claim 1, wherein: Also includes: The detection module (61) is used to determine the position of the bubble film to be torn and to control the operation of the entire device in a linked manner. The detection module (61) is arranged between the heating module (5) and the separation module (7).

3. The integrated device for inflating and separating bubble wrap according to claim 1, characterized in that: It also includes a clamping module (62), including a clamping member (63) and a clamping driving member (64), wherein the clamping driving member (64) is used to drive the clamping member (63) to move so as to clamp the bubble film, and the clamping module (62) is arranged on the upstream side of the separation module (7).

4. The integrated device for inflating and separating bubble wrap according to claim 3, wherein: The clamping member (63) includes a pressure wheel, and a platform (91) for clamping the bubble film that cooperates with the pressure wheel is provided at the lower part of the equipment body (9), and the platform (91) is provided on the side of the feed port (72) of the separation module (7). The pressure wheel is connected to a clamping connecting rod (631), and one end of the clamping connecting rod (631) is rotatably provided on the equipment body (9) through a rotating shaft, and the other side of the rotating shaft is connected to the clamping driving member (64).

5. The bubble film inflation and separation integrated device according to claim 3, characterized in that: The heating module (5) comprises a heating wheel (51) and a heat-sealing auxiliary wheel (52); the heat-sealing auxiliary wheel (52) is configured to rotate actively; the wheel surface of the heating wheel (51) and the wheel surface of the heat-sealing auxiliary wheel (52) abut against each other to heat-seal the opening of the bubble film.

6. The integrated device for inflating and separating bubble wrap according to claim 5, wherein: The heating wheel (51) is provided with a lifting driving member (53), and the lifting driving member (53) is used to drive the heating wheel (51) to move so that the wheel surface of the heating wheel (51) and the wheel surface of the heat sealing auxiliary wheel (52) are separated.

7. The integrated device for inflating and separating bubble wrap according to claim 1, wherein: A sealing module (3) is also provided between the inflation module (2) and the heating module (5), and the sealing module (3) is used for clamping the opening of the sealed bubble film.

8. The integrated device for inflating and separating bubble wrap according to claim 7, wherein: The sealing module (3) includes a row of first gear groups (31) arranged on the first side of the bubble membrane and a row of second gear groups (32) arranged on the second side of the bubble membrane, the first gear group (31) includes at least one first gear arranged on the first side of the bubble membrane, the second gear group (32) includes at least one second gear arranged on the second side of the bubble membrane, the number difference between the first gear and the second gear is no more than 1, the first gear of the first gear group (31) and the second gear of the second gear group (32) are arranged at intervals, and adjacent first gears and second gears are meshed with each other, and the sealing module (3) also includes a sealing drive component for driving at least one first gear or at least one second gear to rotate.

9. The integrated device for inflating and separating bubble wrap according to claim 8, characterized in that: The heating module (5) comprises a heating wheel (51) and a heat-sealing auxiliary wheel (52), wherein the heat-sealing auxiliary wheel (52) is configured to rotate actively, and a lifting driving member (53) is provided on the heating wheel (51), wherein the lifting driving member (53) is used to drive the heating wheel (51) to move; The heating wheel (51) is provided with gear teeth, and the heating wheel (51) is meshed with the first gear group (31) or the second gear group (32) through the driving gear (33). The moving path of the heating wheel (51) when driven to move by the lifting driving member (53) is set to be an arc-shaped moving path formed with the rotation center of the driving gear (33) as a reference. The sealing driving member is set to drive the heating wheel (51) to rotate by the heat sealing auxiliary wheel (52), and the heating wheel (51) is then meshed with the driving gear (33) to drive at least one first gear or at least one second gear to rotate.

10. The integrated device for inflating and separating bubble wrap according to claim 1, characterized in that: A consumables quantity detection module (4) is also provided upstream of the inflation module (2). The consumables quantity detection module (4) includes a paddle structure (41). One end of the paddle structure (41) is hingedly provided on the device body (9). The hinged rotation axis (414) of the paddle structure (41) is perpendicular to the consumables passing through the paddle structure (41). The paddle structure (41) has a first position (42) and a second position (43). The consumables quantity detection module (4) also includes a counting unit (415). When the paddle structure (41) is in the first position (42), it is moved by the opening of the consumables transported downstream to rotate through the second position (43). When the paddle structure (41) passes through the second position (43), the counting unit (415) is triggered. The consumables quantity detection module (4) also includes a paddle reset driving member for driving the paddle structure (41) to reset to the first position (42).

11. The integrated device for inflating and separating bubble wrap according to claim 10, wherein: An opening structure (44) is also provided on the upstream side of the paddle structure (41), and the opening structure (44) includes an opening rod (441) and a blade (442) provided on one side of the opening rod (441).

12. The bubble film inflation and separation integrated device according to claim 1, characterized in that: The discharge module (1) further comprises a discharge driving member (12) for driving the discharge rod (11) to rotate to actively discharge the material.

13. The integrated device for inflating and separating bubble wrap according to claim 12, wherein: The downstream of the discharge module (1) also includes a film buffer module (8), the film buffer module (8) includes a buffer roller (81), the consumable material is transported downstream around the buffer roller (81), the buffer roller (81) is configured to be able to move between a third position (82) and a fourth position (83) relative to the device body (9), the film buffer module (8) also includes a detection unit (84), the detection unit (84) is configured to control the discharge drive member (12) to increase the discharge speed when detecting that the buffer roller (81) moves to the fourth position (83), and the film buffer module (8) also includes a buffer reset drive member (85) for driving the buffer roller (81) to reset to the third position (82).

14. The integrated device for bubble film inflation and separation according to claim 1, characterized in that: Downstream of the material feeding module (1), there is also a guiding roller (86), and the consumable material is fed downstream in the direction required when it is fed into the inflation module (2) after bypassing the guiding roller (86).

15. The integrated device for inflating and separating bubble wrap according to any one of claims 1 to 14, characterized in that: The material feeding module (1) is arranged at the upper part of the equipment main body (9), and the inflation module (2), the heating module (5) and the separation module (7) are all arranged at the lower part of the equipment main body (9).

Images