A granule filling machine

Abstract

The utility model discloses a granule filling machine, including frame body, the both sides of the machine platform of frame body are all set up the support of vertical, the top between support is provided with the bin mechanism, the bottom of bin mechanism is provided with the ration discharge mechanism below, the position combination of support at ration discharge mechanism side installs the guardrail stop lever mechanism. Advantageous effect lies in: the utility model is provided with ration discharge mechanism, and then the ration filling of ration cup and outer sleeve constitutes the storage space of material and is filled corn kernel material and is through the mode of the top of the material shifting plate and is shifted flat, can realize ration filling to the storage space of ration cup and outer sleeve constitutes, and through the mode of the horizontal deflection of bottom sealing plate driven by connecting arm can make the ration filling in storage space fall to the can box below and complete ration filling, and the ration filling mode of corn kernel material to can box is simple and easy to realize, reduces the working strength of personnel.

Description

Technical Field

[0001] This utility model relates to the field of canned food production equipment, specifically to a granule filling machine. Background Technology

[0002] In the processing of canned corn, the original traditional technology was basically a production process that was done manually, from selecting corn silk, washing corn kernels, screening corn kernel grades, canning, adding broth, sealing, and finally inspecting the sealing line and packing the canned goods into sterilization baskets.

[0003] In practice, the difficulties and shortcomings of canning are a crucial lifeline for product exports. According to export standards, if an order specifies a net weight of 400g per can, the product weight cannot exceed ±5g. Therefore, traditional techniques use a balance scale to fix the net weight standard. While the balance scale solves the net weight problem, personnel must repeatedly add and subtract corn kernels to achieve the standard net weight. This repeated addition and subtraction directly impacts canned food production and hinders rapid economic development.

[0004] Moreover, in practice, this method of operation involves using stainless steel chutes to slide the cans down from a high place to a low place for inspection, and then loading them into sterilization baskets. This inertia from high to low causes continuous collisions and scratches to the cans, resulting in damage to their appearance. In severe cases, it can directly affect the sales and quality of the canned goods. At the same time, the 8-hour workday of loading baskets involves continuous getting up, picking up cans, bending over, and placing them down. This continuous cycle of actions directly affects the work efficiency of the staff and can cause back injuries or even, in more serious cases, lead to the loss of labor. Utility Model Content

[0005] The purpose of this invention is to provide a granule filling machine to solve the above-mentioned problems, as detailed below.

[0006] To achieve the above objectives, the present invention provides the following technical solution: The present invention provides a granule filling machine, including a frame body, on both sides of the machine base of the frame body, a support is erected, a hopper mechanism is provided between the tops of the support, and the outer side of the hopper mechanism is fixedly connected to the support through a mounting frame. A quantitative dispensing mechanism is provided below the bottom of the hopper mechanism. A guardrail mechanism is installed on the support next to the quantitative dispensing mechanism to perform quantitative filling of corn kernels into the can below through the cooperation of the quantitative dispensing mechanism and the quantitative dispensing mechanism. The frame body is equipped with a vertically arranged rotary adjustment mechanism. The upper part of the rotary adjustment mechanism is coaxially combined with an upper mounting plate mechanism and a drive plate mechanism for mounting the quantitative discharging mechanism, and a lower placement plate mechanism for limiting the placement of canned food boxes. The front part of the frame body is equipped with a conveyor belt mechanism for smoothly conveying cans through and out of the quantitative discharging mechanism, and the can inlet end of the conveyor belt mechanism is equipped with a spiral can inlet mechanism for conveying cans in a sequential arrangement. The conveyor belt mechanism is equipped with a central actuating plate mechanism on both sides near the lower tray. The central actuating plate mechanism on one side is used to sequentially send the pre-filled cans to the lower tray mechanism, while the central actuating plate mechanism on the other side is used to sequentially move the filled cans away from the lower tray mechanism and into the conveyor belt mechanism.

[0007] Preferably, the lower part of the silo mechanism is funnel-shaped.

[0008] Preferably, the conveyor belt mechanism is a plate conveyor belt.

[0009] Preferably, the bottom of the frame body is equipped with a motor drive mechanism for driving the rotary adjustment mechanism, the upper mounting plate mechanism, the drive plate mechanism, the lower placement plate mechanism and the quantitative discharge mechanism to rotate together.

[0010] Preferably, the central dial mechanism on both sides rotates in opposite directions.

[0011] Preferably, the quantitative dispensing mechanism includes a dispensing tray, measuring cups, an outer sleeve, and a bottom sealing plate. The dispensing tray is coaxially mounted on the top of the upper mounting tray mechanism and located below the bottom of the hopper mechanism. Multiple vertically arranged measuring cups are evenly distributed around the bottom surface of the upper mounting tray mechanism. The measuring cups are open at both the top and bottom, and the top of the measuring cups is connected to the dispensing tray. An outer sleeve is coaxially slidably fitted around each measuring cup, and the bottom end of each outer sleeve is open. The bottom end of each outer sleeve is coaxially attached to and in contact with the bottom sealing plate for sealing. A connecting arm extends and is fixedly connected to the outside of each bottom sealing plate, and the connecting arm is rotatably connected to the outside of the outer sleeve, so as to seal or open the bottom end of the outer sleeve by driving the bottom sealing plate to rotate through the connecting arm.

[0012] Preferably, a material-pushing plate for smoothing the top of the measuring cup is suspended and placed in the material-distributing tray, and the material-pushing plate is fixedly connected to the bracket by a fixing frame.

[0013] Preferably, each of the connecting arms is equipped with an end cap, which is used to allow the connecting arm to rotate and open the bottom end of the outer sleeve by means of the end cap being blocked and limited by the guardrail barrier mechanism and then retracting inward.

[0014] Preferably, the rotary adjustment mechanism includes an outer sleeve and a main shaft. The outer sleeve is vertically fixed to the center of the top surface of the machine base, and the main shaft is coaxially mounted on the inner circumference of the outer sleeve through a bearing seat. The lower loading plate mechanism is coaxially fixed to the part of the main shaft that is higher than the outer sleeve, and the drive plate mechanism is fixedly connected to the top of the lower loading plate through tie bolts. Meanwhile, the outer sleeve is fixed to the top periphery of the upper drive plate mechanism. The upper part of the main shaft is coaxially fixed to a screw, and a threaded sleeve is coaxially engaged with the outer periphery of the screw. The upper mounting plate mechanism is coaxially fixed to the top of the threaded sleeve, and the drive plate mechanism is fitted onto the outer periphery of the threaded sleeve in a coaxial clearance fit manner, so as to adjust the capacity of the storage space formed by the measuring cup and the outer sleeve by the forward and reverse rotation of the screw and the threaded sleeve.

[0015] Preferably, the main shaft extending from the bottom of the machine tool is coaxially fixed with a handle for easy hand-held rotation.

[0016] Using the aforementioned granule filling machine, specifically in filling operations, the quantitative dispensing mechanism, through its dispensing disc, fills the storage space formed by the measuring cup and the outer sleeve with corn kernels. The material is then leveled from the top by the feeding plate, achieving quantitative filling of the storage space. Simultaneously, the connecting arm drives the bottom sealing plate to horizontally deflect, allowing the quantitative filler in the storage space to fall into the can below, completing the quantitative filling. This method of quantitatively filling corn kernels into cans is simple and easy to implement, reducing the workload of personnel. Furthermore, the presence of a conveyor belt mechanism and a spiral feeding mechanism enables the horizontal transport and filling of the cans, preventing damage due to the can's inertia during descent. The guardrail mechanism blocks and limits the movement of the connecting arm's end, causing it to retract inwards. This inward retraction after being blocked further facilitates the filling process. This allows the connecting arm to rotate and open the bottom sealing plate, opening the bottom of the storage space. Simultaneously, after the end passes the guardrail mechanism, the centrifugal force from the rotation of the lower placement tray mechanism causes the end and connecting arm to rotate and extend outward again. This rotation and extension of the end and connecting arm allows the bottom sealing plate to rotate and seal the bottom of the storage space. This repeated opening and sealing of the bottom of the storage space is simple and easy to implement, facilitating the repeated opening and lowering of filler material. This also facilitates timely sealing of the bottom after the filler has been discharged, allowing for the reuse of quantitative filler. Furthermore, the screw of the rotary adjustment mechanism engages with the threaded sleeve in both forward and reverse directions, enabling the outer sleeve to slide vertically along the measuring cup. This allows for adjustment of the storage space capacity formed by the measuring cup and the outer sleeve. The adjustment method is simple and easy to implement, facilitating adaptive adjustments to the storage space capacity according to actual usage needs, thus improving flexibility and applicability.

[0017] The beneficial effects are as follows: 1. This utility model is equipped with a quantitative discharging mechanism, which fills the storage space formed by the vector cup and the outer sleeve of the discharging mechanism with corn kernels and flattens it from the top by the discharging plate. This enables quantitative filling in the storage space formed by the vector cup and the outer sleeve. At the same time, the quantitative filling in the storage space can fall into the can below by the horizontal deflection of the bottom sealing plate driven by the connecting arm to complete the quantitative filling. The quantitative filling of corn kernels in the can is simple and easy to implement, reducing the labor intensity of personnel. It is also equipped with a conveyor belt mechanism and a spiral feeding mechanism, which enables the horizontal conveying and filling of the can, avoiding damage to the can due to the inertia of falling. 2. The guardrail mechanism can block and limit the end of the connecting arm, causing it to retract inward. This inward retraction of the end allows the connecting arm to rotate and open the bottom sealing plate of the storage space. After the end passes the guardrail mechanism, the centrifugal force of the rotating lower tray mechanism causes the end and connecting arm to rotate and extend outward again. This rotation and extension of the end and connecting arm can then drive the bottom sealing plate to rotate and seal the bottom of the storage space. This method of repeatedly opening and sealing the bottom of the storage space is simple and easy to implement. It facilitates the repeated opening and sealing of the bottom of the storage space for filling material to be discharged, and also facilitates timely sealing of the bottom after the filling material is discharged for reuse of quantitative filling. 3. By rotating the screw of the adjustment mechanism and engaging the threaded sleeve in both forward and reverse directions, the outer sleeve can be vertically slid along the measuring cup, thereby adjusting the capacity of the storage space formed by the measuring cup and the outer sleeve. The adjustment of the storage space capacity is simple and easy to implement, and it is convenient to make adaptive adjustments to the storage space capacity according to actual use needs, thus improving the flexibility and applicability of use. Attached Figure Description

[0018] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0019] Figure 1 This is an overall isometric schematic diagram of this utility model.

[0020] The annotations in the attached figures are explained as follows: 1. Hopper mechanism; 101. Mounting frame; 2. Support; 3. Quantitative discharging mechanism; 301. Feeding plate; 302. Distributing tray; 303. Measuring cup; 304. Outer sleeve; 305. End; 306. Connecting arm; 307. Bottom sealing plate; 308. Fixing frame; 4. Guardrail mechanism; 5. Screw inlet mechanism; 6. Conveyor belt mechanism; 7. Frame body; 701. Machine base; 8. Upper mounting plate mechanism; 9. Drive plate mechanism; 10. Middle actuating plate mechanism; 11. Lower placement plate mechanism; 12. Rotation adjustment mechanism; 1201. Threaded sleeve; 1202. Screw section; 1203. Tie bolt component; 1204. Main shaft; 1205. Outer sleeve; 1206. Bearing seat; 1207. Handle lever; 13. Motor drive mechanism. Detailed Implementation

[0021] To make the objectives, technical solutions, and advantages of this utility model clearer, the technical solutions of this utility model will be described in detail below. Obviously, the described embodiments are only a part of the embodiments of this utility model, and not all of them. Based on the embodiments of this utility model, all other implementation methods obtained by those skilled in the art without creative effort are within the scope of protection of this utility model.

[0022] See Figure 1 As shown, this utility model provides a granule filling machine, including a frame body 7. Supports 2 are vertically installed on both sides of the machine base 701 of the frame body 7. A hopper mechanism 1 is installed between the tops of the supports 2, and the outer side of the hopper mechanism 1 is fixedly connected to the supports 2 via a mounting bracket 101. Specifically, a quantitative dispensing mechanism 3 is installed below the bottom of the hopper mechanism 1. A guardrail mechanism 4 is assembled and installed on the support 2 beside the quantitative dispensing mechanism 3 to facilitate the flow of material through the quantitative dispensing mechanism 3 and the quantitative dispensing mechanism. Mechanism 3 works in conjunction with the canned goods below to quantitatively fill corn kernels. Specifically, the quantitative dispensing mechanism 3 includes a dispensing plate 302, a measuring cup 303, an outer sleeve 304, and a bottom sealing plate 307. The dispensing plate 302 is coaxially mounted on top of the upper mounting plate mechanism 8 and located below the bottom of the hopper mechanism 1. Multiple vertically arranged measuring cups 303 are evenly distributed around the bottom surface of the upper mounting plate mechanism 8. The measuring cups 303 are open at both the top and bottom, and their tops are connected to the dispensing plate 302. A jacket sleeve 304 is coaxially slidably fitted around the periphery of the cup 303, and the bottom end of each jacket sleeve 304 is open. The bottom end of each jacket sleeve 304 is coaxially attached to a bottom sealing plate 307 for sealing. A connecting arm 306 extends and is fixedly connected to the outside of each bottom sealing plate 307, and the connecting arm 306 is rotatably connected to the outside of the jacket sleeve 304. This allows the bottom sealing plate 307 to rotate horizontally via the connecting arm 306 to seal or open the bottom end of the jacket sleeve 304. This arrangement is designed to allow for the metering of... The material storage space formed by the material distribution plate 302, the vector cup 303, and the outer sleeve 304 of the material mechanism 3 is filled with corn kernels. The material is leveled from the top by the material pushing plate 301, which can realize the quantitative filling in the material storage space formed by the vector cup 303 and the outer sleeve 304. At the same time, the quantitative filling in the material storage space can fall into the can below by the horizontal deflection of the bottom sealing plate 307 driven by the connecting arm 306, so as to complete the quantitative filling. The quantitative filling of corn kernels into the can is simple and easy to implement.

[0023] See Figure 1As shown, the machine base 701 of the frame body 7 is equipped with a vertically arranged rotating adjustment mechanism 12. The upper part of the rotating adjustment mechanism 12, from top to bottom, is coaxially assembled with an upper mounting plate mechanism 8 and a drive plate mechanism 9 for mounting the quantitative discharging mechanism 3, and a lower placement plate mechanism 11 for limiting the placement of canned goods. The front part of the frame body 7 is equipped with a conveyor belt mechanism 6 for smoothly conveying canned goods through and away from the quantitative discharging mechanism 3. The can-feeding end of the conveyor belt mechanism 6 is equipped with a spiral can-feeding mechanism 5 for sequentially conveying the canned goods at intervals. The conveyor belt mechanism 6 is located near the lower placement plate on both sides. Each position is equipped with a central actuation plate mechanism 10, which is used to sequentially send the pre-filling cans to the lower placement tray mechanism 11 by rotating the central actuation plate mechanism 10 on one side. At the same time, the central actuation plate mechanism 10 on the other side is used to sequentially move the filled cans away from the lower placement tray mechanism 11 and into the conveyor belt mechanism 6. Specifically, the rotation adjustment mechanism 12 includes an outer sheath 1205 and a main shaft 1204. The outer sheath 1205 is vertically fixed in the middle of the top surface of the machine base 701, and the main shaft is coaxially mounted on the inner circumference of the outer sheath 1205 through the bearing seat 1206. 1204. The lower storage tray mechanism 11 is coaxially fixed to the part of the main shaft 1204 that is higher than the outer sleeve 1205. The drive disc mechanism 9 is fixedly assembled to the top of the lower storage tray by tie bolts 1203. Meanwhile, the outer sleeve 304 is fixed to the top periphery of the upper drive disc mechanism 9. The upper part of the main shaft 1204 is coaxially fixed to the screw part 1202, and the outer periphery of the screw part 1202 is coaxially engaged with the threaded sleeve 1201. The upper mounting disc mechanism 8 is coaxially fixed to the top of the threaded sleeve 1201, and the drive disc mechanism 9 is sleeved on the outer periphery of the threaded sleeve 1201 with a coaxial clearance fit. The storage space formed by the measuring cup 303 and the outer sleeve 304 is adjusted by rotating the screw part 1202 and the threaded sleeve 1201 in both forward and reverse directions. The purpose of this setting is that by rotating the screw part 1202 and the threaded sleeve 1201 in both forward and reverse directions, the outer sleeve 304 can be vertically slid along the measuring cup 303, thereby adjusting the storage space formed by the measuring cup 303 and the outer sleeve 304. The method of adjusting the storage space capacity is simple and easy to implement, and it is convenient to make adaptive adjustments to the storage space capacity according to actual use needs.

[0024] See Figure 1As shown, the following optimizations were made to this scheme. Specifically, the lower part of the hopper mechanism 1 is funnel-shaped to ensure that the hopper mechanism 1 has good and stable material discharge and anti-blocking capabilities. Optionally, the conveyor belt mechanism 6 is a plate conveyor belt to ensure that the conveyor belt mechanism 6 has a smooth horizontal conveying capability for canned goods. Further optionally, a motor drive mechanism 13 is installed at the bottom of the frame body 7 to drive the rotary adjustment mechanism 12, the upper mounting plate mechanism 8, the drive plate mechanism 9, the lower placement plate mechanism 11, and the quantitative discharge mechanism 3 to rotate together, so as to provide power for the rotation of the rotary adjustment mechanism 12, the upper mounting plate mechanism 8, the drive plate mechanism 9, the lower placement plate mechanism 11, and the quantitative discharge mechanism 3 by means of an electric drive mechanism. Furthermore, the two sides of the center actuation plate mechanism 10 rotate in opposite directions. This arrangement ensures that the cans before filling can be sequentially sent to the lower placement plate mechanism 11 by the rotation of the center actuation plate mechanism 10 on one side, while the cans after filling can be sequentially moved away from the lower placement plate mechanism 11 and into the conveyor belt mechanism 6 by the rotation of the center actuation plate mechanism 10 on the other side.

[0025] See Figure 1 As shown, a material-pushing plate 301 is suspended and placed inside the dispensing tray 302 to smooth the top of the measuring cup 303. The material-pushing plate 301 is fixed to the bracket 2 via a fixing frame 308, so that the top of the measuring cup 303 can be smoothed by the material-pushing plate 301, so that the granular material in the storage space is quantitatively determined. Optionally, the outer ends of the connecting arms 306 are all equipped with end heads 305, which are used to drive the bottom sealing plate 307 to rotate and open the bottom end of the outer sleeve 304 by the way that the end heads 305 are blocked and limited by the guardrail mechanism 4 and then retract inward. This arrangement has the effect that the cans before filling are sent to the lower placement tray mechanism 11 by the rotation of the middle actuating plate mechanism 10 on one side, and the cans after filling are moved to leave the lower placement tray mechanism 11 and enter the conveyor belt mechanism 6 by the rotation of the middle actuating plate mechanism 10 on the other side. Alternatively, the bottom end of the main shaft 1204 extending out of the machine base 701 is coaxially fixed with a handle 1207 for easy hand-held rotation. This arrangement facilitates the subsequent adjustment of the storage space by manually gripping the handle 1207 to engage the screw 1202 with the threaded sleeve 1201.

[0026] Using the above structure, specifically in filling applications, the quantitative dispensing mechanism 3 is installed. The corn kernels are filled into the storage space formed by the dispensing plate 302, vector cup 303, and outer sleeve 304 of the quantitative dispensing mechanism 3. The material is then leveled from the top by the material-pushing plate 301. This allows for quantitative filling within the storage space formed by the vector cup 303 and outer sleeve 304. Simultaneously, the connecting arm 306 drives the bottom sealing plate 307 to deflect horizontally, causing the quantitative filling material in the storage space to fall into the can below, completing the quantitative filling process. The method of quantitatively filling corn kernels into the can is simple and easy to implement, reducing the workload of personnel. It is equipped with a conveyor belt mechanism 6 and a spiral feeding mechanism 5, which enables the horizontal conveying and filling of the cans, preventing damage to the cans due to falling inertia. Furthermore, the guardrail mechanism 4 blocks and limits the end 305 of the connecting arm 306, causing it to retract inwards. This inward retraction of the end 305 after being blocked and limited ensures the smooth operation of the connecting arm 306. 6. The bottom sealing plate 307 rotates horizontally to open the bottom of the storage space. Simultaneously, after the end 305 passes the guardrail mechanism 4, the centrifugal force during the rotation of the lower placement plate mechanism 11 causes the end 305 and connecting arm 306 to rotate outward again. This horizontal rotation and extension of the end 305 and connecting arm 306 then causes the bottom sealing plate 307 to rotate and seal the bottom of the storage space. This method of repeatedly opening and sealing the bottom of the storage space is simple and easy to implement. It facilitates the repeated opening and sealing of the bottom of the storage space for the discharge of filler material, and also facilitates… After the filler is discharged, the bottom is sealed in time for reuse of quantitative filler. By rotating the screw part 1202 of the adjusting mechanism 12 and the threaded sleeve 1201 in both forward and reverse directions, the outer sleeve 304 can be vertically slid along the measuring cup 303, thereby adjusting the capacity of the storage space formed by the measuring cup 303 and the outer sleeve 304. The adjustment method of the storage space capacity is simple and easy to implement, and it is convenient to make adaptive adjustments to the capacity of the storage space according to actual use needs, thus improving the flexibility and applicability of use.

[0027] The above description is merely a specific embodiment of this utility model, but the protection scope of this utility model is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the technical scope disclosed in this utility model should be included within the protection scope of this utility model. Therefore, the protection scope of this utility model should be determined by the protection scope of the claims.

Claims

1. A granule filling machine, comprising a frame body (7), characterized in that: The machine frame body (7) has support brackets (2) erected on both sides of the machine base (701). A hopper mechanism (1) is provided between the tops of the support brackets (2), and the outer side of the hopper mechanism (1) is fixedly connected to the support bracket (2) through the mounting bracket (101). A quantitative discharging mechanism (3) is provided below the bottom of the silo mechanism (1). A guardrail mechanism (4) is installed on the side of the support (2) next to the quantitative discharging mechanism (3) to perform quantitative filling of corn kernels into the can below through the cooperation of the quantitative discharging mechanism (3). The machine base (701) of the frame body (7) is equipped with a vertically arranged rotary adjustment mechanism (12). The upper part of the rotary adjustment mechanism (12) is coaxially combined with an upper mounting plate mechanism (8) and a drive plate mechanism (9) for mounting the quantitative discharge mechanism (3) and a lower placement plate mechanism (11) for limiting the placement of canned food boxes. The front part of the frame body (7) is equipped with a conveyor belt mechanism (6) for smoothly conveying cans through and away from the quantitative discharge mechanism (3), and the can inlet end of the conveyor belt mechanism (6) is equipped with a spiral can inlet mechanism (5) for conveying cans in a sequential arrangement. The conveyor belt mechanism (6) is equipped with a middle actuation plate mechanism (10) on both sides near the lower tray. The middle actuation plate mechanism (10) on one side is used to sequentially send the pre-filled cans to the lower tray mechanism (11) by rotating the middle actuation plate mechanism (10) on one side. At the same time, the middle actuation plate mechanism (10) on the other side is used to sequentially move the filled cans away from the lower tray mechanism (11) and into the conveyor belt mechanism (6).

2. The granule filling machine according to claim 1, characterized in that: The lower part of the silo mechanism (1) is funnel-shaped.

3. The granule filling machine according to claim 2, characterized in that: The conveyor belt mechanism (6) is a plate conveyor belt.

4. The granule filling machine according to claim 3, characterized in that: The bottom of the frame body (7) is equipped with a motor drive mechanism (13) for driving the rotary adjustment mechanism (12), the upper mounting plate mechanism (8), the drive plate mechanism (9), the lower placement plate mechanism (11) and the quantitative discharge mechanism (3) to rotate together.

5. The granule filling machine according to claim 4, characterized in that: The central dial mechanism (10) on both sides rotates in opposite directions.

6. A granule filling machine according to any one of claims 2-5, characterized in that: The quantitative dispensing mechanism (3) includes a dispensing tray (302), a measuring cup (303), an outer sleeve (304), and a bottom sealing plate (307). The dispensing tray (302) is coaxially mounted on the top of the upper mounting tray mechanism (8) and located below the bottom of the hopper mechanism (1). Multiple vertically arranged measuring cups (303) are evenly distributed around the bottom surface of the upper mounting tray mechanism (8). The measuring cups (303) are open at both the top and bottom, and the top of the measuring cups (303) is connected to the dispensing tray (302). The outer sleeve (304) is coaxially slidably sleeved on the periphery of the outer sleeve (304), and the bottom end of the outer sleeve (304) is open. The bottom end of the outer sleeve (304) is coaxially attached to the bottom sealing plate (307) for sealing. The bottom sealing plate (307) is extended and fixedly connected to the outside of the outer sleeve (304), and the connecting arm (306) is rotatably connected to the outside of the outer sleeve (304) for sealing or opening the bottom end of the outer sleeve (304) by driving the bottom sealing plate (307) to rotate through the connecting arm (306).

7. The granule filling machine according to claim 6, characterized in that: The material distribution tray (302) has a material-scraping plate (301) suspended in the air to smooth the top of the measuring cup (303), and the material-scraping plate (301) is fixedly connected to the bracket (2) by a fixing frame (308).

8. The granule filling machine according to claim 7, characterized in that: Each of the connecting arms (306) has an end cap (305) installed on its outer end. The end cap (305) is blocked and limited by the guardrail barrier mechanism (4) and then retracts inward, so that the connecting arm (306) drives the bottom sealing plate (307) to rotate and open the bottom end of the outer sleeve (304).

9. A granule filling machine according to claim 7 or 8, characterized in that: The rotating adjustment mechanism (12) includes an outer sheath (1205) and a main shaft (1204). The outer sheath (1205) is vertically fixed in the middle of the top surface of the machine base (701), and the main shaft (1204) is coaxially mounted on the inner circumference of the outer sheath (1205) through a bearing seat (1206). The lower tray mechanism (11) is coaxially fixed to the part of the main shaft (1204) that is higher than the outer sheath (1205), and the drive disc mechanism (9) is fixedly assembled above the top of the lower tray by tie bolts (1203). At the same time, the outer sleeve (304) is fixed to the upper drive disc mechanism. The top periphery of the structure (9) is coaxially fixed with a screw part (1202) on the upper part of the main shaft (1204), and a threaded sleeve (1201) is coaxially engaged with the outer periphery of the screw part (1202). The upper mounting plate mechanism (8) is coaxially fixed to the top of the threaded sleeve (1201), and the drive plate mechanism (9) is sleeved on the outer periphery of the threaded sleeve (1201) in a coaxial clearance fit, so as to adjust the capacity of the storage space formed by the measuring cup (303) and the outer sleeve (304) by the forward and reverse rotation of the screw part (1202) and the threaded sleeve (1201).

10. A granule filling machine according to claim 9, characterized in that: The main shaft (1204) extending out of the bottom of the machine base (701) is coaxially fixed with a handle (1207) for easy hand-held force application and rotation.

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