Konjak blank discharging device
By designing a konjac embryo feeding device, the continuous and uniform feeding of konjac embryos is achieved by using a rotating roller and baffle structure, which solves the problem of uneven accumulation of konjac material and improves the operating efficiency and reliability of the equipment.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-03-14
- Publication Date
- 2026-03-06
AI Technical Summary
In existing technologies, konjac material tends to accumulate unevenly during the transfer to the receiving tray, resulting in low equipment operating efficiency and the need for frequent shutdowns to replace the receiving tray, which affects equipment reliability.
A konjac embryo feeding device was designed, including a first conveying mechanism, a first storage mechanism, and a second storage mechanism. The continuous and uniform feeding of konjac embryos is achieved through a rotating roller and a driving mechanism. The feeding process is controlled by a rotating roller and a baffle structure to ensure that the konjac embryos are evenly spread in the packaging container.
This technology enables continuous and uniform feeding of konjac embryos, improving feeding efficiency, reducing manual intervention, and enhancing the reliability and efficiency of equipment operation.
Smart Images
Figure CN223972816U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of food processing equipment technology, and in particular, to a konjac embryo feeding device. Background Technology
[0002] Konjac is a plant rich in glucomannan, which can be processed into a variety of foods. To process konjac into certain foods, it first needs to be cut into shreds or slices, then continuously conveyed to a receiving tray via a conveyor mechanism, and finally the receiving tray is conveyed to a manual sorting station for further processing.
[0003] Currently, in the process of conveying fibrous or sheet-like konjac to the receiving tray, it is often directly poured into the tray. Because the receiving tray, located below the conveying mechanism, has a limited capacity, once a batch is full, the conveying mechanism must be stopped until an empty tray is placed before it can be restarted, and this process is repeated. This not only reduces the reliability of the equipment, but the direct pouring method also results in uneven accumulation of konjac material in the receiving tray. For example, the area directly below the discharge port of the conveying mechanism has the largest accumulation of konjac material, requiring an additional step of uniform distribution during subsequent manual sorting, further reducing operational efficiency. Utility Model Content
[0004] This invention aims to solve at least one of the technical problems existing in the prior art. To this end, this invention proposes a konjac embryo feeding device, which aims to continuously feed konjac materials while maintaining a high degree of feeding uniformity during the feeding process.
[0005] To achieve the above objectives, the technical solution adopted by this utility model is as follows:
[0006] A konjac embryo feeding device includes a first conveying mechanism, a first storage mechanism, a second storage mechanism, and a dispensing container. The first conveying mechanism has a discharge end for conveying konjac embryos. The first storage mechanism is used to hold the konjac embryos discharged from the discharge end. The second storage mechanism is used to hold the konjac embryos discharged from the first storage mechanism. The second storage mechanism includes a first hopper, a first dispensing mechanism, and a second driving mechanism. The first hopper is sequentially connected from top to bottom to include a first inlet, a first receiving cavity, and a first discharge port. The second driving mechanism is connected to the first... A material hopper is driven to move the first material hopper back and forth along a first direction. The first discharge mechanism includes a first rotating roller and a first drive mechanism. The first rotating roller is located in the first receiving cavity and is rotatably connected to the first material hopper. The first drive mechanism is poweredly connected to the first rotating roller and is used to drive the first rotating roller to rotate so that the konjac embryos move from the side of the first rotating roller near the first feed port to the side of the first rotating roller near the first discharge port. The dispensing container is used to receive the konjac embryos discharged from the first discharge port. The first direction is parallel to the material spreading direction of the dispensing container.
[0007] Furthermore, there are two first rollers, which are arranged side by side with a gap and rotate in opposite directions.
[0008] Furthermore, the first hopper is equipped with multiple baffles, which match the edges of the two adjacent dispensing containers.
[0009] Furthermore, the first material storage mechanism includes a second hopper and a second material discharge mechanism. The second hopper is provided with a second inlet, a second receiving cavity and a second discharge port in sequence from top to bottom. The second inlet and the discharge end are positioned corresponding to each other. The second material discharge mechanism is used to open and close the connection between the second inlet and the second discharge port.
[0010] Furthermore, the second feeding mechanism includes a second rotating roller and a third driving mechanism. The second rotating roller is disposed in the second receiving cavity and rotatably connected to the second hopper. The third driving mechanism is poweredly connected to the second rotating roller and is used to drive the second rotating roller to rotate so that the konjac embryo moves from the side of the second rotating roller near the second feed port to the side of the second rotating roller near the second discharge port.
[0011] Furthermore, the second rotating rollers are arranged with an even number of side-by-side gaps, and two adjacent second rotating rollers form a group and rotate in opposite directions.
[0012] Furthermore, the first conveying mechanism includes a first support frame and a conveyor belt, the conveyor belt being mounted on the first support frame, and one end of the conveyor belt forming an unloading end.
[0013] Furthermore, the second drive mechanism includes a second support frame, a first wheel transmission structure, and a first drive member. The second support frame is provided with a slide groove, and the second hopper is slidably disposed in the slide groove. The first wheel transmission structure is disposed on the second support frame and includes a first flexible transmission member and a first rotating wheel. The first rotating wheel is rotatably disposed on the second support frame. The first flexible transmission member cooperates with the first rotating wheel and is connected to the second hopper. The first drive member is drively connected to the first rotating wheel. When the first drive member drives the first rotating wheel to rotate, the first flexible transmission member rotates and drives the second hopper to slide in the slide groove.
[0014] Furthermore, the konjac embryo feeding device also includes a second conveying mechanism for conveying the packaging container. The second conveying mechanism includes a first conveying platform, a second wheel transmission structure, and a second driving component. The second wheel transmission structure is mounted on the first conveying platform and includes a second flexible transmission component and a second rotating wheel. The packaging container is mounted on the second flexible transmission component, and the second rotating wheel is rotatably mounted on the first conveying platform. The second flexible transmission component cooperates with the second rotating wheel, and the second driving component is connected to the second rotating wheel. When the second driving component drives the second rotating wheel to rotate, the second flexible transmission component rotates and drives the packaging container to move along the extension direction of the first conveying platform.
[0015] Furthermore, the second conveying mechanism also includes a second conveying platform, a roller conveyor, and a pushing assembly. The second conveying platform is arranged side by side with the first conveying platform and close to the second storage mechanism. The roller conveyor is mounted on the second conveying platform and its conveying direction is perpendicular to the first direction. The pushing assembly is used to push the dispensing container to move along the first direction. The pushing assembly includes a fixed shaft, a pusher head, and a fourth drive mechanism. The fixed shaft is mounted on the second conveying platform and its extension direction is parallel to the first direction. The pusher head is slidably mounted on the fixed shaft and is higher than the roller on the roller conveyor. The fourth drive mechanism is poweredly connected to the pusher head to push the pusher head to move on the fixed shaft.
[0016] The present invention has the following advantages: the first storage mechanism can temporarily store the konjac blanks, so that the konjac blanks will not fall off when the second storage mechanism moves and unloads the material. At the same time, the second storage mechanism releases the konjac blanks through the rotating roller, which can achieve uniform distribution of the material in the packaging container. Moreover, the entire feeding process does not require personnel intervention, which greatly improves the feeding efficiency.
[0017] In addition to the objectives, features, and advantages described above, this utility model has other objectives, features, and advantages. The present utility model will now be described in further detail with reference to the figures. Attached Figure Description
[0018] The accompanying drawings, which form part of this application, are used to provide a further understanding of the present invention. The illustrative embodiments of the present invention and their descriptions are used to explain the present invention and do not constitute an undue limitation of the present invention. In the drawings:
[0019] Figure 1 This is a structural schematic diagram from a first perspective of an embodiment of the present invention;
[0020] Figure 2 yes Figure 1 Enlarged view of point A in the middle;
[0021] Figure 3 yes Figure 1 A structural schematic diagram from the second perspective of the embodiment;
[0022] Figure 4 yes Figure 1 A structural schematic diagram from the third perspective of the embodiment;
[0023] Figure 5 yes Figure 4 Enlarged view of point B in the middle.
[0024] Legend:
[0025] First conveying mechanism 100, unloading end 110, first support frame 120, conveyor belt 130;
[0026] The system comprises a first storage mechanism 200, a second hopper 210, a second receiving cavity 211, a second inlet 212, a second outlet 213, a second discharge mechanism 220, a second rotating roller 221, and a third drive mechanism 222.
[0027] Second storage mechanism 300, first hopper 310, first receiving cavity 311, sub-receiving cavity 3111, first feed inlet 312, first discharge port 313, baffle 314, first discharge mechanism 320, first rotating roller 321, first drive mechanism 322, second drive mechanism 330, second support frame 331, chute 3311, first gear transmission structure 332, first flexible transmission component 3321, first rotating wheel 3322, first drive component 333;
[0028] 400 repackaging containers;
[0029] The components include: a second conveying mechanism 500, a first conveying platform 510, a second wheel transmission structure 520, a second flexible transmission component 521, a second rotating wheel 522, a second driving component 530, a second conveying platform 540, a roller conveyor 550, a pushing assembly 560, a fixed shaft 561, a pusher head 562, a fourth driving mechanism 563, a connecting plate 5631, a lead screw 5632, and a motor 5633. Detailed Implementation
[0030] It should be understood that the specific embodiments described herein are merely illustrative of the present invention and are not intended to limit the present invention.
[0031] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.
[0032] It should be noted that all directional indicators (such as up, down, left, right, front, back, etc.) in this utility model embodiment are only used to explain the relative positional relationship and movement of each component in a certain specific posture (as shown in the figure). If the specific posture changes, the directional indicator will also change accordingly.
[0033] Furthermore, the use of terms such as "first" and "second" in this utility model is for descriptive purposes only and should not be construed as indicating or implying their relative importance or implicitly specifying the number of technical features indicated. Therefore, a feature defined as "first" or "second" may explicitly or implicitly include at least one of that feature. Additionally, the technical solutions of the various embodiments can be combined with each other, but only on the basis of being achievable by those skilled in the art. When the combination of technical solutions is contradictory or impossible to implement, such a combination of technical solutions should be considered non-existent and not within the scope of protection claimed by this utility model.
[0034] refer to Figures 1 to 5 This invention relates to a konjac embryo feeding device, comprising a first conveying mechanism 100, a first storage mechanism 200, a second storage mechanism 300, and a dispensing container 400. The first conveying mechanism 100 has a discharge end 110, which is used to transport konjac embryos and discharge them from the discharge end 110. The first storage mechanism 200 is used to hold the konjac embryos discharged from the discharge end 110.
[0035] Specifically, the second storage mechanism 300 includes a first hopper 310, a first discharge mechanism 320, and a second drive mechanism 330. The first hopper 310 is located below the first conveying mechanism 100 and has a first receiving cavity 311, a first inlet 312, and a first discharge port 313. The first inlet 312 communicates with the first receiving cavity 311, and the first discharge port 313 also communicates with the first receiving cavity 311. To facilitate the discharge of konjac embryos, the first hopper 310 can be designed in a bucket shape. The first inlet 312 is located above the first receiving cavity 311. When the second storage mechanism 300 is in the receiving state, the first inlet 312 corresponds to the discharge end of the first storage mechanism 200, so as to completely catch the konjac embryos discharged from the first storage mechanism 200. The first discharge port 313 is located below the first receiving cavity 311 to discharge the konjac embryos stored in the first receiving cavity 311. The dispensing container 400 is used to receive the konjac embryos discharged from the second storage mechanism 300. The second conveying mechanism is used to transport the dispensing container 400, so that the full dispensing container 400 is moved to the next processing station.
[0036] The first feeding mechanism 320 is used to open and close the connection between the first feed port 312 and the first discharge port 313. The second drive mechanism 330 is connected to the first hopper 310. When the first feeding mechanism 320 is activated, the second drive mechanism 330 drives the first hopper 310 to move back and forth along the first direction from the position when receiving material. In order to make the discharged konjac embryos evenly spread in the dispensing container 400, the first direction is parallel to the spreading direction of the dispensing container 400. For example, the spreading direction of the dispensing container 400 is parallel to the width direction of the dispensing container 400. At the same time, the konjac embryos that enter the second receiving cavity 311 from the second feed port 312 are discharged from the second discharge port 313 at a certain speed, so that the dispensing container 400 is evenly filled with konjac embryos. When the dispensing container 400 is full, the first feeding mechanism 320 stops working. At this time, the second drive mechanism 330 drives the first hopper 310 back to the position when receiving material.
[0037] The first discharge mechanism 320 includes a first rotating roller 321 and a first driving mechanism 322. The first rotating roller 321 is disposed in the first receiving cavity 311. Exemplarily, the first rotating roller 321 is close to the first discharge port 313. The first rotating roller 321 is rotatably connected to the first hopper 310, that is, the first rotating roller 321 can rotate within the first receiving cavity 311. The first driving mechanism 322 is poweredly connected to the first rotating roller 321 and is used to drive the first rotating roller 321 to rotate. When the first rotating roller 321 is not rotating, the first rotating roller 321 prevents the konjac embryos in the first receiving cavity 311 from being discharged from the first discharge port 313. When the first rotating roller 321 rotates, the rotating outer peripheral wall of the first rotating roller 321 drives the konjac embryos to move from above the first rotating roller 321 to below the first rotating roller 321, and finally discharges them from the first discharge port 313 under the action of gravity. In addition, to prevent the moist konjac embryo from sticking to the outer circumferential surface of the first roller 321 and being unable to fall off, protrusions can be provided at intervals on the outer circumferential surface of the first roller 321. For example, the protrusions can be straight protrusions arranged along the axial direction of the first roller 321, or spiral protrusions extending along the axial direction of the first roller 321.
[0038] In some embodiments, such as Figure 2 As shown, there are two first rollers 321, which are arranged side by side and rotate in opposite directions. There is a gap between the two first rollers 321 to avoid obstructing the rotation of the first rollers 321. At the same time, it is necessary to avoid the gap being too small, which would crush the konjac embryos that fall into the gap, and to avoid the gap being too large, which would cause some konjac embryos to fall out of the gap. Driven by the outer peripheral walls of the rotating two adjacent first rollers 321, the konjac embryos pass through the gap and move to the bottom of the first rollers 321, and are finally discharged from the first discharge port 313 under the action of gravity.
[0039] In some embodiments, such as Figure 2As shown, the first hopper 310 is provided with multiple baffles 314, which divide the first receiving cavity 311 into multiple sub-receiving cavities 3111. The width of the sub-receiving cavities 3111 at both ends of the first hopper 310 matches the width of the filling surface of the corresponding dispensing container 400. At the same time, the thickness of the baffle 314 cannot be less than the width of the edge where two adjacent dispensing containers 400 are in contact, so as to ensure that the konjac blanks in the adjacent sub-receiving cavities 3111 do not mix together, and that the konjac blanks falling from each sub-receiving cavity 3111 do not fall on the edge of the dispensing container 400.
[0040] In some embodiments, such as Figure 2 As shown, the first storage mechanism 200 includes a second hopper 210 and a second discharge mechanism 220. The second hopper 210 is provided with a second receiving cavity 211, a second inlet 212, and a second discharge port 213. The second inlet 212 communicates with the second receiving cavity 211, and the second discharge port 213 also communicates with the second receiving cavity 211. The second inlet 212 is located above the second receiving cavity 211 and corresponds to the position of the discharge end 110, so as to be able to completely catch the konjac embryos discharged from the discharge end 110. The second discharge port 213 is located below the second receiving cavity 211 to discharge the konjac embryos stored in the second receiving cavity 211. The second discharge mechanism 220 is used to open and close the communication between the second inlet 212 and the second discharge port 213. When the second discharge mechanism 220 is activated, the konjac embryos that enter the second receiving cavity 211 from the second inlet 212 are discharged from the second discharge port 213 at a certain speed. To facilitate the discharge of konjac embryos, the second hopper 210 can be designed in the shape of a bucket.
[0041] In some embodiments, such as Figure 2 As shown, the second discharge mechanism 220 includes a second rotating roller 221 and a third drive mechanism 222. The second rotating roller 221 is disposed in the second receiving cavity 211. Exemplarily, the second rotating roller 221 is close to the second discharge port 213. The second rotating roller 221 is rotatably connected to the second hopper 210, that is, the second rotating roller 221 can rotate within the second receiving cavity 211. The third drive mechanism 222 is poweredly connected to the second rotating roller 221 and is used to drive the second rotating roller 221 to rotate. When the second rotating roller 221 is not rotating, the second rotating roller 221 prevents the konjac embryos in the second receiving cavity 211 from being discharged from the second discharge port 213. When the second rotating roller 221 rotates, the rotating outer peripheral wall of the second rotating roller 221 drives the konjac embryos to move from above the second rotating roller 221 to below the second rotating roller 221, and finally discharges them from the second discharge port 213 under the action of gravity. In addition, to prevent the moist konjac embryo from sticking to the outer circumferential surface of the second roller 221 and being unable to fall off, protrusions can be provided at intervals on the outer circumferential surface of the second roller 221. For example, the protrusions can be straight protrusions arranged along the axial direction of the second roller 221, or spiral protrusions extending along the axial direction of the second roller 221.
[0042] In some embodiments, in order to improve the efficiency of the second feeding mechanism 220 in discharging konjac embryos, an even number of second rotating rollers 221 are arranged side by side, and a gap is provided between each second rotating roller 221 to prevent obstruction of the rotation of the second rotating roller 221. At the same time, it is necessary to avoid the gap being too small and crushing the konjac embryos falling into the gap, and to avoid the gap being too large and causing some konjac embryos to fall out of the gap. Two adjacent second rotating rollers 221 form a group and rotate in opposite directions. Thus, driven by the outer peripheral wall of the rotating two adjacent second rotating rollers 221, the konjac embryos pass through the gap and move to the bottom of the second rotating roller 221, and are finally discharged from the second discharge port 213 under the action of gravity.
[0043] In some embodiments, such as Figure 1 As shown, the first conveying mechanism 100 includes a first support frame 120 and a conveyor belt 130. The conveyor belt 130 is disposed on the first support frame 120, and one end of the conveyor belt 130 forms an unloading end 110.
[0044] In some embodiments, such as Figure 3 As shown, the second drive mechanism 330 includes a second support frame 331, a first wheel transmission structure 332, and a first drive component 333.
[0045] The second support frame 331 is provided with a sliding groove 3311, and the first hopper 310 is slidably disposed in the sliding groove 3311, that is, the first hopper 310 can move relative to the second support frame 331.
[0046] The first gear transmission structure 332 is mounted on the second support frame 331. The first gear transmission structure 332 includes a first flexible transmission member 3321 and a first rotating wheel 3322. The first rotating wheel 3321 is rotatably mounted on the second support frame 331, meaning that the first rotating wheel 3321 can rotate on the second support frame 331. The first flexible transmission member 3321 cooperates with the first rotating wheel 3321. When the first rotating wheel 3321 rotates, it can drive the first flexible transmission member 3321 to move. The first flexible transmission member 3321 is connected to the first hopper 310. Thus, when the first flexible transmission member 3321 moves, it drives the first hopper 310 to slide within the chute 3311.
[0047] The first driving member 333 is connected to the first rotating wheel 3321. When the first driving member 333 drives the first rotating wheel 3321 to rotate, the first flexible transmission member 3321 rotates, causing the first hopper 310 to slide within the slide groove 3311. The first driving member 333 can be a rotary cylinder, a rotary motor, or other similar device. Simultaneously, to improve the stability of the first hopper 310 sliding within the slide groove 3311, first wheel transmission structures 332 are simultaneously provided on opposite sides of the first hopper 310. In this case, the first driving member 333 can also synchronously drive the first rotating wheels 3322 on both sides to rotate via a synchronous shaft.
[0048] In this embodiment, the second support frame 331 can be provided independently or as an extension of the first support frame 120. The first gear transmission structure 332 can be either a belt drive structure or a sprocket drive structure. Simultaneously, to improve the stability of the first hopper 310 sliding within the groove 3311, the first gear transmission structure 332 is provided on both opposite sides of the first hopper 310. In this case, the first drive member 333 can also synchronously drive the first rotating wheels 3322 on both sides to rotate via a synchronous shaft.
[0049] In some embodiments, such as Figure 1 , Figure 4 As shown, the konjac embryo feeding device also includes a second conveying mechanism 500, which is used to transport the dispensing container 400. Specifically, the second conveying mechanism 500 includes a first conveying platform 510, a second wheel transmission structure 520, and a second driving member 530. The second wheel transmission structure 520 is mounted on the first conveying platform 510 and includes a second flexible transmission member 521 and a second rotating wheel 522.
[0050] The dispensing container 400 is mounted on the second flexible transmission member 521, and the second rotating wheel 522 is rotatably mounted on the first conveyor frame 510. That is, the second rotating wheel 522 can rotate on the first conveyor frame 510. The second flexible transmission member 521 cooperates with the second rotating wheel 522, so that when the second rotating wheel 522 rotates, it can drive the second flexible transmission member 521 to move.
[0051] The second driving member 530 is connected to the second rotating wheel 522 for transmission. When the second driving member 530 drives the second rotating wheel 522 to rotate, the second flexible transmission member 521 rotates, causing the dispensing container 400 to move along the extension direction of the first conveyor frame 510. The second driving member 530 can be a rotary cylinder, rotary motor, or other device. At the same time, in order to improve the stability of the movement of the dispensing container 400, second wheel transmission structures 520 are set on opposite sides of the first conveyor frame 510. In this case, the second driving member 530 can also synchronously drive the second rotating wheels 522 on both sides to rotate via a synchronous shaft.
[0052] In this embodiment, the second gear transmission structure 520 can be either a belt drive structure or a sprocket drive structure.
[0053] Furthermore, in order to convey the dispensing container 400, which has changed from a loaded state to an empty state, to the second discharge port 313, the second conveying mechanism 500 is provided with two sets, and two first conveying platforms 510 are arranged side by side, and the two second wheel transmission structures 520 convey in opposite directions.
[0054] In some embodiments, such as Figure 1 , Figure 4 As shown, in order to transfer the dispensing container 400 conveyed on the outer first conveyor frame 510 to the inner first conveyor frame 510, a second conveyor frame 540, a roller conveyor 550, and a pushing assembly 560 are provided on one side of the two conveyor frames 510. Specifically, the second conveyor frame 540 is arranged side by side with the two first conveyor frames 510 and close to the second storage mechanism 300. The roller conveyor 550 is mounted on the second conveyor frame 540 and its conveying direction is perpendicular to the first direction. The pushing assembly 560 is used to push the dispensing container 400 to move along the first direction. The pushing assembly 560 includes a fixed shaft 561, a pusher head 562, and a fourth drive mechanism 563. The fixed shaft 561 is mounted on the second conveyor frame 540 and its extension direction is parallel to the first direction. The pusher head 562 is slidably mounted on the fixed shaft 561 and its height is higher than the roller on the roller conveyor 550. The fourth drive mechanism 563 is poweredly connected to the pusher head 562 to push the pusher head 562 to move on the fixed shaft 561.
[0055] In some embodiments, such as Figure 5 As shown, the fourth drive mechanism 563 includes a connecting plate 5631, a lead screw 5632, and a motor 5633. The connecting plate 5631 is connected to each pusher 562, and the motor 5633 is connected to the lead screw 5632 for transmission. When the motor 5633 drives the lead screw 5632 to rotate forward and backward, each pusher 562 moves synchronously on its corresponding fixed shaft 561, thereby achieving the purpose of pushing the dispensing container 400.
[0056] In this embodiment, when the first feeding mechanism 320 is activated, the second driving mechanism 330 drives the first hopper 310 to reciprocate along the first direction from its receiving position, so that the released konjac embryos are evenly spread on the packaging container 400. When the packaging container 400 is full, the first feeding mechanism 320 stops operating. At this time, the second driving mechanism 330 drives the first hopper 310 back to its receiving position. Simultaneously, the fourth driving mechanism 563 is activated, pushing the pusher head 562 to slide on the fixed shaft 561, thereby pushing the packaging container 400 to slide on the rollers of the roller conveyor 550 until it slides to a position where the roller conveyor 550 is flush with the outer first conveyor frame 510. Then, the fourth driving mechanism 563 pushes the pusher head 562 in the opposite direction, so that the pusher head 562 returns to the edge of the position where the roller conveyor 550 is flush with the inner first conveyor frame 510.
[0057] The above are merely preferred embodiments of this utility model and are not intended to limit the scope of this utility model. Various modifications and variations can be made to this utility model by those skilled in the art. Any modifications, equivalent substitutions, or improvements made within the spirit and principles of this utility model should be included within the protection scope of this utility model.
Claims
1. A konjac embryo discharging device, characterized in that, The konjac embryo discharging device comprises: A first conveying mechanism (100) having a discharging end (110) for conveying konjac embryos; A first storage mechanism (200) for containing the konjac embryos discharged from the discharging end (110); A second storage mechanism (300) for containing the konjac embryos discharged from the first storage mechanism (200), the second storage mechanism (300) comprising: A first hopper (310) sequentially connected from top to bottom with a first feeding port (312), a first containing cavity (311), and a first discharging port (313); A first discharging mechanism (320) comprising: A first rotating roller (321) arranged in the first containing cavity (311) and rotationally connected to the first hopper (310); A first driving mechanism (322) power-connected to the first rotating roller (321) for driving the first rotating roller (321) to rotate so that the konjac embryos move from one side of the first rotating roller (321) close to the first feeding port (312) to the other side of the first rotating roller (321) close to the first discharging port (313); A second driving mechanism (330) drivingly connected to the first hopper (310) for driving the first hopper (310) to reciprocally move in a first direction; A sub-packaging container (400) for receiving the konjac embryos discharged from the first discharging port (313); The first direction is parallel to the laying direction of the sub-packaging container (400).
2. The konjac embryo discharging device according to claim 1, characterized in that, The first rotating roller (321) is provided with two first rotating rollers (321) arranged side by side with a gap and rotating towards each other.
3. The konjac embryo discharging device according to claim 1 or 2, characterized in that, A plurality of baffles (314) are arranged in the first hopper (310), and the baffles (314) are matched with the edges of the adjacent two sub-packaging containers (400).
4. The konjac embryo discharging device according to claim 1 or 2, characterized in that, The first storage mechanism (200) comprises: A second hopper (210) sequentially connected from top to bottom with a second feeding port (212), a second containing cavity (211), and a second discharging port (213), and the second feeding port (212) is positionally corresponding to the discharging end (110); A second discharging mechanism (220) for opening and closing the communication between the second feeding port (212) and the second discharging port (213).
5. The konjac embryo dispensing device according to claim 4, characterized in that, The second discharging mechanism (220) comprises: A second rotating roller (221) arranged in the second containing cavity (211) and rotationally connected to the second hopper (210); A third driving mechanism (222) power-connected to the second rotating roller (221) for driving the second rotating roller (221) to rotate so that the konjac embryos move from one side of the second rotating roller (221) close to the second feeding port (212) to the other side of the second rotating roller (221) close to the second discharging port (213).
6. The konjac embryo dispensing device according to claim 5, characterized in that, The second rotating roller (221) is provided with an even number of second rotating rollers (221) arranged side by side with a gap, and two adjacent second rotating rollers (221) form a group and rotate towards each other.
7. The konjac embryo dispensing device according to claim 1 or 2, characterized in that, The first conveying mechanism (100) comprises: A first support frame (120); A conveying belt (130) is arranged on the first support frame (120), and one end of the conveying belt (130) forms the discharging end (110).
8. The konjac embryo discharging apparatus according to claim 1 or 2, characterized in that, The second driving mechanism (330) comprises: A second support frame (331) is provided with a chute (3311), and the first hopper (310) is slidingly arranged in the chute (3311); A first wheel train transmission structure (332) is arranged on the second support frame (331), and the first wheel train transmission structure (332) comprises: A first flexible transmission member (3321); A first rotating wheel (3322) is rotatably arranged on the second support frame (331), and the first flexible transmission member (3321) cooperates with the first rotating wheel (3322) and is connected with the first hopper (310); A first driving member (333) is in transmission connection with the first rotating wheel (3322), and when the first driving member (333) drives the first rotating wheel (3322) to rotate, the first flexible transmission member (3321) rotates to drive the first hopper (310) to slide in the chute (3311).
9. The konjac embryo dispensing device according to claim 1, characterized in that, The konjac embryo discharging device further comprises a second conveying mechanism (500) for conveying the sub-packaging container (400), and the second conveying mechanism (500) comprises: A first conveying rack (510); A second wheel train transmission structure (520) is arranged on the first conveying rack (510), and the second wheel train transmission structure (520) comprises: A second flexible transmission member (521) is arranged on the second flexible transmission member (521); A second rotating wheel (522) is rotatably arranged on the first conveying rack (510), and the second flexible transmission member (521) cooperates with the second rotating wheel (522); A second driving member (530) is in transmission connection with the second rotating wheel (522), and when the second driving member (530) drives the second rotating wheel (522) to rotate, the second flexible transmission member (521) rotates to drive the sub-packaging container (400) to move along the extension direction of the first conveying rack (510).
10. The konjac embryo dispensing device according to claim 9, characterized in that, The second conveying mechanism (500) further comprises: A second conveying rack (540) is arranged side by side with the first conveying rack (510) and close to the second storage mechanism (300); A roller conveyor (550) is arranged on the second conveying rack (540) and has a conveying direction perpendicular to the first direction; A pushing assembly (560) is arranged on the second conveying rack (540) and has a conveying direction perpendicular to the first direction; A fixed shaft (561) is arranged on the second conveying rack (540) and has an extension direction parallel to the first direction; A push head (562) is slidingly arranged on the fixed shaft (561) and is higher than the rollers on the roller conveyor (550); A fourth driving mechanism (563) is in power connection with the push head (562) to push the push head (562) to move on the fixed shaft (561).