Packaging structure and capsule machine

Abstract

The utility model relates to a kind of packaging structure and capsule machine, belong to electrical appliances field.A kind of packaging structure, comprising: shell assembly, shell assembly is equipped with accommodating space;Supporting assembly, supporting assembly is set on shell assembly and is located in accommodating space;Packaging rotating element, packaging rotating element is set on supporting assembly;Packaging material roll, packaging material roll is set on packaging rotating element, packaging rotating element can drive packaging material roll rotation;Down-pressing component, down-pressing component is set on supporting assembly and with the part of packaging material roll is in abutment.Packaging rotating element can drive packaging material roll rotation, can accurately control the release speed and quantity of packaging material roll according to the packaging rhythm of capsule machine, realize the efficient cooperation with capsule machine packaging procedure.Because down-pressing component is set on supporting assembly and with the part of packaging material roll is in abutment when capsule reaches the below of down-pressing component, can ensure that packaging material is always transported to capsule and sealed with flat, regular state.

Description

Technical Field

[0001] This utility model relates to the field of electrical appliances, and in particular to a packaging structure and capsule machine. Background Technology

[0002] In existing technologies, the packaging structure of capsule machines is not designed properly, which makes it impossible for the packaging material to accurately wrap the capsules, resulting in sealing gaps. This prevents the capsules from being tightly fitted to form an effective seal, causing the capsules to lose their good sealing state. Consequently, the internal materials become damp, deteriorate, or become contaminated, affecting product quality. Utility Model Content

[0003] Therefore, it is necessary to address the problem of unreasonable packaging structure settings in capsule machines by providing a packaging structure and a capsule machine.

[0004] A packaging structure, characterized in that the packaging structure comprises: a shell assembly having a receiving space; a support assembly disposed on the shell assembly and located within the receiving space; a packaging rotating member disposed on the support assembly; a packaging material roll disposed on the packaging rotating member, the packaging rotating member being capable of driving the packaging material roll to rotate; and a pressing assembly disposed on the support assembly and partially abutting against the packaging material roll.

[0005] The above discloses a packaging structure for a capsule packaging machine. The housing assembly provides a stable and independent installation and working environment for the support assembly, packaging rotating component, packaging material roll, and pressing assembly, effectively isolating external dust, moisture, and impurities, preventing contamination of the packaging material roll, ensuring the cleanliness of the materials used for capsule packaging, and thus ensuring that the capsules remain hygienic throughout the packaging process. The support assembly stably supports the packaging rotating component within the housing space, providing a reliable support foundation for its rotation and preventing wobbling or deviation when driving the packaging material roll, ensuring the stability of the packaging material roll rotation process. The packaging rotating component can drive the packaging material roll to rotate and can precisely control the release speed and amount of the packaging material roll according to the packaging rhythm of the capsule machine, achieving efficient coordination with the capsule machine packaging process. It eliminates the need for manual pulling of packaging materials, significantly improving the automation level and work efficiency of capsule packaging and reducing manual labor intensity. The pressing component is located on the support component and abuts against the packaging material roll. It can apply appropriate pressure to the packaging material roll to prevent it from becoming loose or deviating due to inertia during the rotation and release process. When the capsule reaches the bottom of the pressing component, it can ensure that the packaging material is always delivered to the capsule in a flat and regular state and sealed, thus ensuring the sealing and appearance integrity of the capsule packaging.

[0006] In one embodiment, the support assembly includes a support main board and multiple support columns. These columns are spaced apart along the width of the support main board and abut against the housing assembly. The packaging rotating component and the pressing component are both mounted on the support main board. By providing the support main board, a flat and stable mounting surface is provided for the packaging rotating component and the pressing component, ensuring precise positioning and avoiding positional deviations caused by irregular mounting foundations. This ensures the synergy between the two key actions: the packaging rotating component driving the packaging material roll to rotate, and the pressing component abutting against the packaging material roll. This allows for efficient coordination between packaging material release and tension control. The multiple support columns, spaced apart along the width of the support main board and abutting against the housing assembly, evenly distribute the weight of the support main board and the components above it, preventing excessive local stress that could lead to support deformation. This improves overall support stability and prevents packaging accuracy from being affected by structural deformation after long-term use.

[0007] In one embodiment, the packaging rotating component includes a packaging drive component, a first packaging shaft, and a second packaging shaft. The packaging drive component passes through the support assembly. The first packaging shaft is disposed on the packaging drive component and is drively connected to the packaging drive component. The second packaging shaft is disposed on the support assembly and is adjacent to the first packaging shaft. The packaging material roll is disposed on the first packaging shaft and the second packaging shaft. By embedding the packaging drive component within the support assembly, a stable installation is achieved, preventing wobbling during operation. It also ensures precise connection to the first packaging shaft, guaranteeing stable and efficient power transmission, allowing the first packaging shaft to rotate at a uniform speed under the drive. The first packaging shaft is adjacent to the second packaging shaft mounted on the support assembly, both jointly supporting the packaging material roll. This dual-shaft support structure effectively distributes the weight of the packaging material roll, preventing force concentration that could lead to roll shifting or rotational jamming, as is common with single-shaft support. The adjacent dual shafts also limit the movement of the packaging material roll, preventing axial movement during rotation and release. Furthermore, the coordinated rotation of the dual shafts ensures a smooth conveying trajectory for the packaging material during release, preventing wrinkles or stretching deformation. This guarantees the flatness of the material in subsequent capsule packaging processes, supporting the sealing and appearance quality of the capsules, and further enhancing the stability and reliability of the capsule packaging process.

[0008] In one embodiment, the pressing assembly includes a pressing drive member, a pressing drive gear, a mounting bracket, and a pressing body. The pressing drive member passes through the support assembly, the pressing drive gear is disposed on the pressing drive member and is pulsatorically connected to the pressing drive member, the mounting bracket is disposed on the support assembly, and the pressing body is disposed on the mounting bracket and is pulsatorically connected to the pressing drive gear. By embedding the pressure drive component within the support assembly, a stable installation is achieved, preventing vibrations during operation from affecting power output stability. It also ensures precise connection with the pressure drive gear, guaranteeing efficient and accurate power transmission. This allows the pressure drive gear to rotate controllably under the drive component's influence. The mounting bracket, situated on the support assembly, provides a stable foundation for the pressure body, ensuring it remains in a position compatible with the packaging material roll. This prevents the pressure body from shifting due to an unstable mounting surface, which could affect the contact with the packaging material roll. Furthermore, the design of the pressure body's connection to the pressure drive gear allows for real-time response to changes in the capsule machine's packaging rhythm, dynamically adapting to the release speed of the packaging material. This ensures the packaging material is always delivered to the capsules in a flat, appropriately tensioned state for sealing, effectively reducing packaging wrinkles and leaks caused by improper material tension.

[0009] In one embodiment, the mounting bracket includes a mounting bracket body and guide members. The mounting bracket body is disposed on the support assembly, and multiple guide members are distributed circumferentially along the mounting bracket body and pass through a portion of the pressing body. By fixing the mounting bracket body to the support assembly, a stable mounting foundation is provided for the entire mounting bracket, ensuring accurate installation positions of the guide members and the pressing body. This prevents subsequent component positional shifts due to loosening of the mounting bracket body and ensures accurate alignment between the pressing assembly and the packaging material roll. The multiple guide members, distributed circumferentially along the mounting bracket body and passing through a portion of the pressing body, provide omnidirectional constraint on the movement trajectory of the pressing body, preventing tilting, offsetting, or jamming during pressure adjustment. This ensures smooth movement along a preset direction, guaranteeing uniform contact pressure between the pressing body and the packaging material roll, preventing excessive or insufficient local pressure from affecting the packaging material tension. This structure also helps improve the response speed of the pressing body's movement, allowing it to more quickly coordinate with the adjustment actions of the pressing drive gear.

[0010] In one embodiment, the pressing body includes a pressing rack, a guide base, and a pressing block. The pressing rack is mounted on and driven by the pressing drive gear. The guide base is mounted on the pressing rack, and multiple guide members pass through the guide base. The pressing block is mounted on the guide base and abuts against a portion of the packaging material roll. By drivingly connecting the pressing rack to the pressing drive gear, the rotational motion of the pressing drive gear can be smoothly converted into its own linear motion, achieving efficient power transmission. The guide base is mounted on the pressure rack and allows multiple guide components to pass through. The cooperation between the guide components and the guide base further constrains the movement trajectory of the pressure block, preventing deviation or wobbling during movement and ensuring the pressure block is always precisely aligned with the target contact position of the packaging material roll. The guide base also disperses the force transmitted by the pressure rack, avoiding uneven stress on the pressure block. The pressure block partially abuts against the packaging material roll, acting directly on it to evenly apply the adjusted pressure. This prevents damage to the packaging material due to concentrated pressure and effectively controls the tension of the material roll, preventing loosening and deviation. This ensures the packaging material is delivered to the capsule in a flat state for sealing, providing strong assurance for the sealing and appearance quality of the capsule packaging.

[0011] A second aspect of this application discloses a capsule machine, comprising: the aforementioned packaging structure; a feeding assembly disposed on the packaging structure; a feeding component disposed on the packaging structure, a portion of which is rotatable relative to the packaging structure; a capsule component disposed on the feeding assembly and located on the rotatable portion of the feeding assembly relative to the packaging structure; and a control component disposed on the packaging structure, electrically connected to the feeding assembly, the feeding assembly, the packaging rotating component, and the pressing component of the packaging structure.

[0012] The second aspect disclosed above discloses a capsule machine in which a feeding component and a delivery component work together to accurately deliver the material to be packaged to the capsule. The rotatable design of the delivery component allows for flexible adjustment of the capsule position, ensuring precise matching with the release rhythm of the packaging material in the packaging structure. The control component, as the core, is electrically connected to each component to achieve automated control. It can adjust the rotation frequency of the delivery component in real time according to the feeding speed, and can also precisely control the material release speed of the packaging rotating component and the contact force of the pressing component, avoiding human operation errors and ensuring synchronous and efficient operation of each process. This integrated design not only reduces the gap between the components and lowers the probability of failure, but also allows for rapid adjustment of production parameters through the control component, adapting to the packaging needs of capsules of different sizes, and greatly improving production flexibility and efficiency.

[0013] In one embodiment, the feeding assembly includes a feeding body and a transmission assembly. The feeding body is mounted on the housing assembly, and the transmission assembly is detachably mounted on the feeding body. The outlet of the transmission assembly is positioned opposite to the capsule. By fixing the feeding body to the housing assembly, a stable mounting support is provided for the transmission assembly, ensuring that the transmission assembly remains in a stable position during material conveying and preventing material spillage or conveying deviation due to an unstable mounting foundation. The detachable transmission assembly not only facilitates daily cleaning and maintenance but also allows for quick disassembly and replacement of suitable transmission assemblies when different types or specifications of materials need to be changed, reducing the difficulty of equipment adjustment. The fact that the outlet of the transmission assembly is positioned opposite to the capsule allows for precise delivery of materials into the capsule, preventing material scattering or deviation from the target position during conveying and reducing material waste.

[0014] In one embodiment, the feeding assembly includes a rotating assembly and a weighing assembly. The capsule is disposed on the rotating assembly, which is disposed on the housing assembly and is rotatable relative to the housing assembly. The weighing assembly is disposed on the housing assembly. When the rotating assembly rotates relative to the housing assembly, the capsule has at least a first position and a second position. When the capsule is in the first position, it is disposed opposite to the feeding assembly and abuts against the weighing assembly. When the capsule is in the second position, it is disposed opposite to the portion of the capsule that abuts against the pressing assembly and the packaging material roll. The rotating component, mounted on the housing assembly and capable of relative rotation, drives the capsule components to switch between a first and a second position in an orderly manner. In the first position, the capsule component precisely aligns with the feeding assembly, ensuring stable material delivery and preventing material waste caused by misalignment or leakage. It also directly contacts the weighing assembly, enabling simultaneous material filling and weight detection. Weight detection can be completed without additional capsule transfer, reducing time loss and contamination risks in intermediate steps. Furthermore, the direct contact between the capsule component and the weighing assembly improves the accuracy of weight detection, allowing for timely detection and adjustment of filling deviations, ensuring consistent capsule weight from the source. When the capsule component rotates to the second position, it precisely aligns with the pressing assembly and the packaging material roll, allowing qualified capsules to directly enter the packaging process. This achieves seamless integration of filling, weighing, and packaging, significantly shortening the production cycle and improving overall efficiency.

[0015] In one embodiment, the control component includes a control circuit board, a control body, and external wiring. The control circuit board is mounted on the housing assembly and located within the receiving space. The control body is mounted on the housing assembly and located on its side wall. The external wiring passes through the housing assembly. By placing the control circuit board within the receiving space of the housing assembly, external dust and moisture can be isolated, preventing the control circuit board from malfunctioning due to environmental factors and ensuring the stable operation of the control core. The control body's location on the side wall of the housing assembly allows operators to easily check the equipment status and adjust parameters without disassembling the equipment, improving ease of use. The external wiring passing through the housing assembly facilitates connection to external power supplies and production line systems, enabling collaborative operation between the capsule machine and external equipment. The coordinated operation of these components allows the control component to precisely regulate processes such as feeding, delivery, and packaging while ensuring its own stable operation, providing reliable control support for the large-scale production of the capsule machine. Attached Figure Description

[0016] Figure 1 This is a first-dimensional view of a capsule machine; Figure 2 This is the first exploded view of the capsule machine; Figure 3 A three-dimensional diagram of the packaging structure; Figure 4 A 3D view of the rotating parts of the packaging; Figure 5 This is a first perspective view of the pressure-down component; Figure 6 This is a second perspective view of the pressing component; Figure 7 This is a second perspective view of the capsule machine; Figure 8 This is a third-dimensional view of the capsule machine; Figure 9 This is the fourth perspective view of the capsule machine; Figure 10 This is the fifth perspective view of the capsule machine; Figure 11 This is a cross-sectional view of the capsule machine; Figure 12 This is the second exploded view of the capsule machine; Figure 13 This is the sixth perspective view of the capsule machine.

[0017] The correspondence between the reference numerals and the component names is as follows: 1 housing assembly, 101 accommodating spaces; 2 supporting components, 21 supporting motherboard, 22 supporting column; 3 Packaging rotating component, 31 Packaging driving component, 32 First packaging shaft, 33 Second packaging shaft; 4. Packaging material rolls; 5. Pressing assembly, 51. Pressing drive component, 52. Pressing drive gear, 53. Mounting bracket, 531. Mounting bracket body, 532. Guide component, 54. Pressing body, 541. Pressing rack, 542. Guide base, 543. Pressing block; 6. Feeding assembly; 61. Feeding body; 62. Transmission assembly; 7. Feeding assembly; 71. Rotating assembly; 72. Weighing assembly; 8 capsules; 9. Control components, 91. Control circuit board, 92. Control unit body. Detailed Implementation

[0018] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0019] Many specific details are set forth in the following description in order to provide a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the scope of protection of the present invention is not limited to the specific embodiments disclosed below.

[0020] The packaging structure and capsule machine of some embodiments of this utility model are described below with reference to the accompanying drawings.

[0021] Example 1

[0022] like Figures 1 to 7 As shown, this embodiment discloses a packaging structure, including: a shell assembly 1, the shell assembly 1 having a receiving space 101; a support assembly 2, the support assembly 2 being disposed on the shell assembly 1 and located in the receiving space 101; a packaging rotating component 3, the packaging rotating component 3 being disposed on the support assembly 2; a packaging material roll 4, the packaging material roll 4 being disposed on the packaging rotating component 3, the packaging rotating component 3 being capable of driving the packaging material roll 4 to rotate; and a pressing component 5, the pressing component 5 being disposed on the support assembly 2 and partially abutting against the packaging material roll 4.

[0023] This application discloses a packaging structure for a capsule packaging machine. The housing assembly 1 provides a stable and independent installation and working environment for the support assembly 2, the packaging rotating component 3, the packaging material roll 4, and the pressing assembly 5, effectively isolating external dust, moisture, and impurities, preventing contamination of the packaging material roll, ensuring the cleanliness of the materials used for capsule packaging, and thus ensuring that the capsules remain hygienic throughout the packaging process. The support assembly 2 stably supports the packaging rotating component 3 within the housing space 101, providing a reliable support foundation for the rotation of the packaging rotating component 3, preventing it from shaking or shifting when driving the packaging material roll 4 to rotate, and ensuring the stability of the packaging material roll 4 during rotation. The packaging rotating component 3 can drive the packaging material roll 4 to rotate, and can precisely control the release speed and amount of the packaging material roll 4 according to the packaging rhythm of the capsule machine, achieving efficient coordination with the capsule machine packaging process. It eliminates the need for manual pulling of packaging materials, significantly improving the automation level and work efficiency of capsule packaging, and reducing the intensity of manual operation. The pressing component 5 is set on the support component 2 and abuts against the packaging material roll 4. It can exert appropriate pressure on the packaging material roll 4 to prevent the packaging material roll 4 from becoming loose or deviating due to inertia during the rotation and release process. When the capsule reaches the bottom of the pressing component 5, it can ensure that the packaging material is always delivered to the capsule in a flat and regular state and sealed, thus ensuring the sealing and appearance integrity of the capsule packaging.

[0024] like Figure 1 and Figure 3 As shown, in addition to the features of the above embodiments, this embodiment further defines: the support component 2 includes a support main board 21 and support columns 22. There are multiple support columns 22, spaced apart along the width direction of the support main board 21. The multiple support columns 22 abut against the housing component 1. The packaging rotating component 3 and the pressing component 5 are both mounted on the support main board 21. By setting the support main board 21, a flat and stable mounting carrier is provided for the packaging rotating component 3 and the pressing component 5, ensuring accurate positioning and installation, avoiding positional deviation due to irregular mounting foundations, and ensuring the synergy of the two key actions: the packaging rotating component 3 driving the packaging material roll 4 to rotate and the pressing component 5 abutting against the packaging material roll 4. This allows for efficient coordination between packaging material release and tension control. The multiple support columns 22, spaced apart along the width direction of the support main board 21 and abutting against the housing component 1, evenly distribute the weight of the support main board 21 and the components above it through the spaced support structure, avoiding excessive local stress that could cause support deformation, improving overall support stability, and preventing structural deformation from affecting packaging accuracy after long-term use.

[0025] like Figure 1 and Figure 4As shown, in addition to the features of the above embodiments, this embodiment further defines that: the packaging rotating component 3 includes a packaging driving component 31, a first packaging shaft 32 and a second packaging shaft 33, the packaging driving component 31 passes through the support component 2, the first packaging shaft 32 is disposed on the packaging driving component 31 and is connected to the packaging driving component 31 in a transmission manner, the second packaging shaft 33 is disposed on the support component 2 and is disposed adjacent to the first packaging shaft 32, and the packaging material roll 4 is disposed on the first packaging shaft 32 and the second packaging shaft 33. By inserting the packaging drive component 31 into the support assembly 2, a stable installation can be achieved with the help of the support assembly 2, preventing shaking during the drive process. It can also be precisely connected to the first packaging shaft 32, ensuring the stability and efficiency of power transmission, allowing the first packaging shaft 32 to maintain a uniform rotation speed under the drive component. The first packaging shaft 32 is adjacent to the second packaging shaft 33 set on the support assembly 2, and the two together carry the packaging material roll. This dual-shaft support structure can effectively distribute the weight of the packaging material roll 4, avoiding the material roll shifting or rotation jamming caused by force concentration when supported by a single shaft. At the same time, the adjacent dual shafts can limit the packaging material roll 4, preventing axial movement during rotation and release. In addition, the coordinated rotation of the dual shafts can also keep the packaging material on a stable conveying trajectory during release, avoiding wrinkles or stretching deformation of the material, ensuring the flatness of the material in the subsequent capsule packaging process, providing support for the sealing and appearance quality of the capsule packaging, and further improving the stability and reliability of the capsule machine packaging process.

[0026] like Figure 3 , Figure 4 and Figure 5As shown, in addition to the features of the above embodiments, this embodiment further defines that: the pressing component 5 includes a pressing drive member 51, a pressing drive gear 52, a mounting bracket 53 and a pressing body 54, the pressing drive member 51 passes through the support component 2, the pressing drive gear 52 is disposed on the pressing drive member 51 and is connected to the pressing drive member 51 in a transmission manner, the mounting bracket 53 is disposed on the support component 2, and the pressing body 54 is disposed on the mounting bracket 53 and is connected to the pressing drive gear 52 in a transmission manner. By inserting the pressure drive component 51 into the support assembly 2, a stable installation can be achieved by relying on the support assembly 2, avoiding the impact of shaking on the stability of power output during the drive process. It can also be precisely connected to the pressure drive gear 52 to ensure the efficiency and accuracy of power transmission, allowing the pressure drive gear 52 to achieve controllable rotation under the drive component. The mounting bracket 53 is set on the support assembly 2, providing a stable mounting base for the pressure body 54, ensuring that the pressure body 54 is always in a working position that matches the packaging material roll 4, and avoiding the pressure body 54 from shifting due to the instability of the mounting carrier, which would affect the contact effect with the packaging material roll 4. The design of the transmission connection between the pressure body 54 and the pressure drive gear 52 can respond to the changes in the capsule machine's packaging rhythm in real time, dynamically adapt to the release speed of the packaging material, and ensure that the packaging material is always delivered to the capsule 8 in a flat and moderately tensioned state for sealing, effectively reducing problems such as packaging wrinkles and leaks caused by improper material tension.

[0027] like Figure 5 and Figure 6 As shown, in addition to the features of the above embodiments, this embodiment further defines that: the mounting bracket 53 includes a mounting bracket body 531 and guide members 532. The mounting bracket body 531 is disposed on the support assembly 2. There are multiple guide members 532, which are distributed circumferentially along the mounting bracket body 531. The multiple guide members 532 pass through the pressing body 54. By fixing the mounting bracket body 53 to the support component 2, a stable mounting foundation is provided for the entire mounting bracket 53, ensuring the precise installation position of the guide component 532 and the pressing body 54. This prevents subsequent component misalignment due to loose mounting bracket body 53 and ensures the accurate alignment of the pressing component 54 with the packaging material roll 4. Multiple guide components 532 are distributed circumferentially along the mounting bracket body 531 and pass through part of the pressing body 54. Through the circumferentially distributed guide structure, the movement trajectory of the pressing body 54 is constrained in all directions, preventing tilting, deviation, or jamming when the pressing body 54 moves up and down to adjust the pressure. This ensures that it always moves smoothly in the preset direction, thereby ensuring uniform contact pressure between the pressing body 54 and the packaging material roll 4, avoiding excessive or insufficient local pressure that could affect the tension of the packaging material. At the same time, this structure can also help improve the response speed of the pressing body 54, allowing it to more quickly cooperate with the adjustment action of the pressing drive gear 52.

[0028] like Figure 5 and Figure 7 As shown, in addition to the features of the above embodiments, this embodiment further defines: the pressing body 54 includes a pressing rack 541, a guide base 542, and a pressing block 543. The pressing rack 541 is disposed on and driven by the pressing drive gear 52. The guide base 542 is disposed on the pressing rack 541. Multiple guide members 532 pass through the guide base 542. The pressing block 543 is disposed on the guide base 542 and abuts against a portion of the packaging material roll 4. By drivingly connecting the pressing rack to the pressing drive gear, the rotational motion of the pressing drive gear can be smoothly converted into its own linear motion, achieving efficient power transmission. The guide base 542 is mounted on the pressing rack 541 and allows multiple guide members 532 to pass through. The guide members 532, in cooperation with the guide base 542, further constrain the movement trajectory of the pressing body 54, preventing deviation or wobbling during movement and ensuring that the pressing block 543 is always precisely aligned with the target contact position of the packaging material roll 4. The guide base 542 also disperses the force transmitted by the pressing rack 541, preventing uneven force distribution on the pressing block 543. The pressing block 543 partially abuts against the packaging material roll 4, acting directly on it. This allows for the even application of adjusted pressure to the roll, preventing damage to the packaging material due to concentrated pressure and effectively controlling the tension of the roll, preventing material loosening and deviation. This ensures the packaging material is delivered to the capsule 8 in a flat state for sealing, providing strong assurance for the sealing and appearance quality of the capsule packaging.

[0029] Example 2

[0030] like Figures 1 to 13 As shown, this embodiment discloses a capsule machine, including: the packaging structure described above; a feeding assembly 6, which is disposed on the packaging structure; a feeding assembly 7, which is disposed on the packaging structure and a portion of the feeding assembly 7 is rotatable relative to the packaging structure; a capsule 8, which is disposed on the feeding assembly 7 and located on the portion of the feeding assembly 7 that rotates relative to the packaging structure; and a control assembly 9, which is disposed on the packaging structure and electrically connected to the feeding assembly 6, the feeding assembly 7, the packaging rotating component 3 of the packaging structure, and the pressing assembly 5.

[0031] The second aspect of this application discloses a capsule machine in which a feeding component 6 and a conveying component 7 work together to accurately convey the material to be packaged to the capsule 8. The rotatable design of the conveying component 7 allows for flexible adjustment of the position of the capsule 8, ensuring precise matching with the release rhythm of the packaging material in the packaging structure. The control component 9, as the core, is electrically connected to each component to achieve automated control. It can adjust the rotation frequency of the conveying component in real time according to the feeding speed, and can also precisely control the material release speed of the packaging rotating component and the contact force of the pressing component 5, avoiding human operation errors and ensuring synchronous and efficient operation of each process. This integrated design not only reduces the gap between the components and lowers the probability of failure, but also allows for rapid adjustment of production parameters through the control component 9, adapting to the packaging needs of capsules of different sizes, and greatly improving production flexibility and efficiency.

[0032] like Figure 8 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the feeding assembly 6 includes a feeding body 61 and a transmission assembly 62. The feeding body 61 is disposed on the housing assembly 1, and the transmission assembly 62 is detachably disposed on the feeding body 61. The outlet of the transmission assembly 62 can be arranged opposite to the capsule 8. By fixing the feeding body 61 to the housing assembly 1, a stable installation support can be provided for the transmission assembly 62, ensuring that the transmission assembly 62 maintains a stable position during material conveying and avoiding material spillage or conveying deviation due to unstable installation foundation. The detachable transmission assembly 62 is not only convenient for daily cleaning and maintenance, but also allows for quick disassembly and replacement of suitable transmission assemblies when different types or specifications of materials need to be changed, reducing the difficulty of equipment adjustment. The fact that the outlet of the transmission assembly 62 can be arranged opposite to the capsule 8 allows for precise delivery of materials into the capsule 8, preventing material from scattering or deviating from the target position during conveying and reducing material waste.

[0033] like Figure 8 and Figure 9As shown, in addition to the features of the above embodiments, this embodiment further defines that: the feeding assembly 7 includes a rotating assembly 71 and a weighing assembly 72, the capsule 8 is disposed on the rotating assembly 71, the rotating assembly 71 is disposed on the housing assembly 1 and can rotate relative to the housing assembly 1, the weighing assembly 72 is disposed on the housing assembly 1, when the rotating assembly 71 rotates relative to the housing assembly 1, the capsule 8 has at least a first position and a second position, when the capsule 8 is in the first position, the capsule 8 is disposed opposite to the feeding assembly 6 and abuts against the weighing assembly 72, when the capsule 8 is in the second position, the capsule 8 is disposed opposite to the portion abutting against the pressing assembly 5 and the packaging material roll 4. The rotating component 71, mounted on the housing component 1 and capable of relative rotation, drives the capsule component 8 to switch between a first position and a second position in an orderly manner. When the capsule component 8 is in the first position, it can precisely align with the feeding component 6, ensuring that the material falls stably into the capsule component 8 and avoiding material waste caused by misalignment and leakage. It can also directly contact the weighing component 72, achieving synchronous connection between material filling and weight detection. Weight detection can be completed without additional transfer of the capsule component 8, reducing time loss and contamination risks in intermediate steps. At the same time, the direct contact between the capsule component 8 and the weighing component 72 can improve the accuracy of weight detection, promptly detect filling deviations and make adjustments, ensuring capsule weight consistency from the source. When the capsule component 8 rotates to the second position, it can precisely align with the pressing component 5 and the contact portion of the packaging material roll 4, allowing the qualified capsule component 8 to directly enter the packaging process, achieving seamless connection between filling, weighing, and packaging, significantly shortening the production cycle and improving overall efficiency.

[0034] like Figure 10 and Figure 11 As shown, in addition to the features of the above embodiments, this embodiment further defines the following: the control component 9 includes a control circuit board 91, a control body 92, and external wires. The control circuit board 91 is disposed on the housing component 1 and located in the receiving space 101. The control body 92 is disposed on the housing component 1 and located on the side wall of the housing component 1. The external wires pass through the housing component 1. By placing the control circuit board 91 within the receiving space 101 of the housing component 1, the receiving space 101 can isolate it from external dust and moisture, preventing the control circuit board 91 from malfunctioning due to environmental influences and ensuring the stable operation of the control core. The control body 92 is located on the side wall of the housing component 1, allowing operators to easily check the equipment status and adjust parameters at any time without disassembling the equipment, thus improving ease of use. The external wires pass through the housing component 1, facilitating connection with external power supplies and production line systems, enabling collaborative operation between the capsule machine and external equipment. The cooperation of each component allows the control component to accurately control processes such as feeding, delivery, and packaging, while ensuring its own stable operation, providing reliable control support for the large-scale production of the capsule machine.

[0035] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0036] The embodiments described above are merely illustrative of several implementations of this utility model, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and these all fall within the protection scope of this utility model. Therefore, the protection scope of this utility model patent should be determined by the appended claims.

Claims

1. A packaging structure, characterized in that, The packaging structure includes: A housing assembly (1) having a receiving space (101); A support assembly (2) is disposed on the housing assembly (1) and located in the receiving space (101); Packaging rotating component (3), said packaging rotating component (3) is disposed on the support assembly (2); A packaging material roll (4) is disposed on the packaging rotating component (3), and the packaging rotating component (3) is capable of driving the packaging material roll (4) to rotate; A pressing component (5) is disposed on the support component (2) and abuts against a portion of the packaging material roll (4).

2. The packaging structure according to claim 1, characterized in that, The support assembly (2) includes a support main board (21) and support columns (22). There are multiple support columns (22), which are spaced apart along the width direction of the support main board (21). The multiple support columns (22) abut against the housing assembly (1). The packaging rotating component (3) and the pressing component (5) are both disposed on the support main board (21).

3. The packaging structure according to claim 1, characterized in that, The packaging rotating component (3) includes a packaging drive component (31), a first packaging shaft (32), and a second packaging shaft (33). The packaging drive component (31) passes through the support component (2). The first packaging shaft (32) is disposed on the packaging drive component (31) and is connected to the packaging drive component (31) in a transmission manner. The second packaging shaft (33) is disposed on the support component (2) and is disposed adjacent to the first packaging shaft (32). The packaging material roll (4) is disposed on the first packaging shaft (32) and the second packaging shaft (33).

4. The packaging structure according to claim 1, characterized in that, The pressing assembly (5) includes a pressing drive (51), a pressing drive gear (52), a mounting bracket (53), and a pressing body (54). The pressing drive (51) passes through the support assembly (2). The pressing drive gear (52) is disposed on the pressing drive (51) and is connected to the pressing drive (51) in a driving manner. The mounting bracket (53) is disposed on the support assembly (2). The pressing body (54) is disposed on the mounting bracket (53) and is connected to the pressing drive gear (52) in a driving manner.

5. The packaging structure according to claim 4, characterized in that, The mounting bracket (53) includes a mounting bracket body (531) and guide members (532). The mounting bracket body (531) is disposed on the support assembly (2). There are multiple guide members (532), which are distributed circumferentially along the mounting bracket body (531) and pass through a portion of the pressing body (54).

6. The packaging structure according to claim 5, characterized in that, The pressing body (54) includes a pressing rack (541), a guide base (542), and a pressing block (543). The pressing rack (541) meshes with and is connected to the pressing drive gear (52). The guide base (542) is disposed on the pressing rack (541). A plurality of guide members (532) pass through the guide base (542). The pressing block (543) is disposed on the guide base (542) and abuts against a portion of the packaging material roll (4).

7. A capsule machine, characterized in that, The capsule machine includes: The packaging structure according to any one of claims 1 to 6; Feeding assembly (6), said feeding assembly (6) is disposed on said packaging structure; A feeding assembly (7) is disposed on the packaging structure, and a portion of the feeding assembly (7) is rotatable relative to the packaging structure; Capsule (8), said capsule (8) is disposed on said feeding assembly (7) and located on the portion of said feeding assembly (7) that rotates relative to said packaging structure; A control component (9) is disposed on the packaging structure and is electrically connected to the feeding component (6), the feeding component (7), the packaging rotating component (3), and the pressing component (5) of the packaging structure.

8. The capsule machine according to claim 7, characterized in that, The feeding assembly (6) includes a feeding body (61) and a transmission assembly (62). The feeding body (61) is disposed on the housing assembly (1). The transmission assembly (62) is detachable from the feeding body (61). The outlet of the transmission assembly (62) is disposed opposite to the capsule (8).

9. The capsule machine according to claim 7, characterized in that, The feeding assembly (7) includes a rotating assembly (71) and a weighing assembly (72). The capsule (8) is disposed on the rotating assembly (71). The rotating assembly (71) is disposed on the housing assembly (1) and can rotate relative to the housing assembly (1). The weighing assembly (72) is disposed on the housing assembly (1). When the rotating assembly (71) rotates relative to the housing assembly (1), the capsule (8) has at least a first position and a second position. When the capsule (8) is in the first position, the capsule (8) is disposed opposite to the outlet of the feeding assembly (6) and abuts against the weighing assembly (72). When the capsule (8) is in the second position, the portion of the capsule (8) that abuts against the pressing assembly (5) and the packaging material roll (4) is disposed opposite to the pressing assembly (5).

10. The capsule machine according to claim 7, characterized in that, The control component (9) includes a control circuit board (91), a control body (92), and an external wire. The control circuit board (91) is disposed on the housing assembly (1) and located in the receiving space (101). The control body (92) is disposed on the housing assembly (1) and located on the side wall of the housing assembly (1). The external wire passes through the housing assembly (1).

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