Sausage processing sausage stuffer based on agricultural and sideline food production

Abstract

The invention relates to the technical field of sausage processing, and discloses a sausage processing sausage stuffer based on agricultural and sideline food production, which comprises a case, a shell arranged on the outer side of the case, a bearing plate arranged at the bottom of the shell, a discharge pipe arranged on one side, close to the shell, of the case, and an energy storage mechanism arranged on the outer side of the discharge pipe, the sleeving mechanism is arranged on one side, far away from the case, of the energy storage mechanism; the energy storage mechanism comprises a telescopic unit arranged on the outer side of the discharging pipe and an energy storage unit arranged on the outer side of the telescopic unit. The telescopic unit stretches out and draws back along with rotation of the discharging pipe in different directions, and the energy storage unit is used for collecting kinetic energy generated when the discharging pipe rotates in the different directions. The telescopic unit comprises a sliding assembly arranged on the side, close to the shell, of the discharging port, an annular groove formed in the middle of the discharging pipe, and a damping ring arranged in the annular groove in a sleeved mode. Through the arrangement, kinetic energy can be recycled and stored, and the energy collected by the energy storage mechanism is utilized to assist in completing the sleeving process of the sausage casings.

Description

Technical Field

[0001] The invention relates to the technical field of sausage processing, in particular to a sausage processing stuffer based on agricultural and sideline food production. Background Art

[0002] The sausage stuffer is an automated device specially used for making sausages. It is mainly used to stuff minced meat into casings to form uniform sausage products. The filling mechanism pushes the meat stuffing into the pre-set casings through pressure to form continuous sausage strips. Some equipment is also equipped with an automatic twisting function, which can automatically segment and twist the filled sausages according to the set length to improve production efficiency. Sausage stuffers are widely used in food processing plants, meat processing workshops and the catering industry. They can greatly improve the efficiency and quality of sausage production while ensuring hygiene and safety. It is simple to operate and easy to clean, and is an indispensable and important equipment in modern sausage production.

[0003] Traditional sausage stuffers are widely used in sausage processing, but due to the limitations of their structure and working principle, there are often some problems that cannot be ignored. Existing sausage stuffers have obvious efficiency bottlenecks in the casing setting process. During operation, workers need to manually put the casing on the discharge port. The purely manual operation method restricts production efficiency, especially in large-scale production scenarios. This problem is particularly prominent. In addition, during the operation of the sausage stuffer, the discharge port usually needs to rotate frequently to cooperate with the filling action, but the existing equipment does not recycle this part of the rotational kinetic energy. The energy generated during the rotation is dissipated in the form of heat energy or friction loss, resulting in energy waste. Summary of the invention

[0004] In view of the problems in the prior art that the purely manual casing operation is inefficient and the kinetic energy of the equipment cannot be recovered, a sausage processing and stuffing machine based on agricultural and sideline food production is proposed.

[0005] The purpose is to recover the kinetic energy of the sausages twisted by the equipment and to improve the efficiency of casing installation.

[0006] The technical solution of the present invention is a sausage processing and stuffing machine based on agricultural and sideline food production, comprising a chassis, a shell arranged outside the chassis, a load-bearing plate arranged at the bottom of the shell, a discharge pipe arranged on the side of the chassis close to the shell, an energy storage mechanism arranged outside the discharge pipe, and a set mechanism arranged on the side of the energy storage mechanism away from the chassis;

[0007] The energy storage mechanism includes a telescopic unit arranged outside the discharge pipe, and an energy storage unit arranged outside the telescopic unit;

[0008] The telescopic unit is telescopic as the discharge pipe rotates in different directions, and the energy storage unit is used to collect kinetic energy when the discharge pipe rotates in different directions;

[0009] The telescopic unit includes a sliding assembly arranged on the side of the discharge port close to the shell, an annular groove opened in the middle of the discharge pipe, a damping ring sleeved inside the annular groove, a slip ring sleeved on the outside of the damping ring, two sliding blocks symmetrically arranged on the outside of the slip ring, two guide grooves symmetrically opened on the discharge pipe away from the annular groove, a round tube arranged on the side of the discharge pipe away from the guide groove, and a through hole opened on the side of the shell away from the chassis.

[0010] Furthermore, the sliding assembly includes a sleeve sleeved on the outside of the discharge pipe, two guide rails symmetrically arranged on the outside of the sleeve, a driving wheel arranged on one end of the sleeve close to the circular tube, two protrusions symmetrically arranged on the inside of the driving wheel, and two sliding grooves symmetrically opened on the inside of the sleeve, and the outer sides of the two sliding blocks are slidably connected to the sliding grooves.

[0011] Furthermore, the energy storage unit includes two support plates arranged in a linear array on the top of the load-bearing plate, a bracket arranged on the side of the load-bearing plate close to the shell, a rotating shaft arranged together on the inner sides of the two support plates, a power storage component arranged on the side of the rotating shaft close to the shell, and a release component arranged on the top of the bracket;

[0012] The power storage component includes a driven wheel 1 arranged on the side of the rotating shaft close to the housing, a main ratchet arranged on the side of the driven wheel 1 close to the housing, and a brake assembly arranged at the bottom of the main ratchet.

[0013] Furthermore, the brake assembly includes a short pin arranged at the bottom of the main ratchet, a pin sleeve arranged at the bottom of the short pin, an ejection spring arranged inside the pin sleeve, the top and bottom of the ejection spring are respectively fixedly connected to the short pin and the pin sleeve, and a horizontal plate is arranged at the bottom of the brake assembly, and the side of the horizontal plate away from the brake assembly is fixedly connected to the support plate close to the outer shell.

[0014] Furthermore, the release assembly includes a rotating drum arranged at the top of the bracket, one end of the rotating drum close to the main ratchet is fixedly connected to the driven wheel one, a spring is arranged inside the rotating drum, both ends of the spring are respectively fixedly connected to the rotating drum and the rotating shaft, a driven wheel two is arranged at the rotating shaft near the top of the bracket, a secondary ratchet is arranged on the side of the driven wheel two away from the rotating drum, and a release assembly is arranged at the bottom of the bracket.

[0015] Furthermore, the release assembly includes a sleeve arranged at the bottom of the bracket, a round block arranged on the side of the sleeve close to the bracket, a return spring arranged inside the sleeve on the side away from the bracket, the two ends of the return spring are respectively fixedly connected to the sleeve and the round block, a handle is arranged at the bottom of the round block, and a support rod is arranged at the top of the round block, and the top of the support rod is fixedly connected to the bottom of the pin sleeve in another brake assembly.

[0016] Furthermore, the assembly mechanism includes a large bevel gear arranged on the side of the rotating shaft away from the outer shell, a vertical plate arranged on the side of the load-bearing plate close to the large bevel gear, two linear arrays of feed wheels arranged on the inner side of the vertical plate, a transmission wheel arranged on the side of the feed wheel close to the large bevel gear, a round belt jointly sleeved on the outer sides of the two transmission wheels, and a small bevel gear arranged at the bottom of the large bevel gear, and the side of the small bevel gear close to the vertical plate is fixedly connected to the transmission wheel close to the bottom of the vertical plate.

[0017] Furthermore, two circular holes are formed on one side of the vertical plate close to the large bevel gear and penetrate to the other side, and the inner walls of the circular holes match the outer shape of one end of the feeding wheel close to the vertical plate.

[0018] Compared with the prior art, the present invention has the following beneficial effects:

[0019] 1. Through the energy storage mechanism, during the operation of the sausage stuffer, a certain amount of kinetic energy will be generated when twisting sausages. By setting up the energy storage mechanism, this kinetic energy can be recovered and stored. When the sausage stuffer performs a twisting operation, the energy generated by the mechanical movement is captured and stored by the energy storage mechanism, rather than being dissipated in the form of heat or vibration. This design not only reduces energy waste, but the introduction of the energy storage mechanism optimizes energy utilization efficiency. By recycling and storing kinetic energy, the overall performance of the sausage stuffer is improved, the operation process is more efficient, and the consumption of external energy is reduced. This design provides support for the sustainable operation of the equipment and lays the foundation for subsequent functional expansion.

[0020] 2. Through the set-up mechanism, the energy collected by the energy storage mechanism can be used to assist in the casing fitting process, thereby improving work efficiency. The casing fitting mechanism uses the stored energy to assist the staff in quickly fitting the casing. This design simplifies the operating process, reduces the difficulty of operation, and makes casing fitting faster. At the same time, the power provided by the energy storage mechanism makes the fitting process more forceful and stable, reduces the risk of casing damage, and improves overall work efficiency through energy recovery and reuse.

[0021] 3. Through the set release assembly, the energy stored in the energy storage mechanism can be released to provide the required power support for the casing mechanism. During the operation of the sausage enema machine, the energy storage mechanism will store the recovered energy. When the casing enema operation is required, the release assembly is started to release the stored energy. This process ensures that the casing enema mechanism obtains sufficient power to complete the casing enema. The design of the release assembly makes the energy release more accurate and controllable, avoiding energy waste or instability caused by sudden release. Through the cooperation of the release assembly and the energy storage mechanism, the dependence on manual operation is reduced, the overall work efficiency is improved, and the energy utilization of the equipment is optimized, making the operation of the sausage enema machine smoother. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1It is a schematic diagram of the overall three-dimensional structure of the present invention;

[0023] Figure 2 It is a schematic diagram of the connection between the energy storage mechanism and the set mechanism of the present invention;

[0024] Figure 3 It is a schematic diagram of the connection between the housing and the load-bearing plate of the present invention;

[0025] Figure 4 An exploded view of the telescopic unit of the present invention;

[0026] Figure 5 It is a schematic diagram of the connection between the discharge pipe and the sleeve of the present invention;

[0027] Figure 6 It is a schematic diagram of the overall structure of the sleeve of the present invention;

[0028] Figure 7 It is an enlarged schematic diagram of the driving wheel of the present invention;

[0029] Figure 8 It is a schematic diagram of the internal structure of the drum of the present invention;

[0030] Fig. 9 It is a schematic diagram of the connection between the short pin and the main ratchet wheel of the present invention;

[0031] Fig.10 It is a schematic diagram of the internal structure of the casing of the present invention;

[0032] Fig.11 It is a schematic diagram of the overall structure of the set mechanism of the present invention;

[0033] Fig.12 It is an enlarged view of the feeding wheel of the present invention.

[0034] In the figure:

[0035] 1. Chassis; 2. Shell; 3. Load-bearing plate; 4. Discharge pipe; 5. Energy storage mechanism; 6. Set mechanism; 51. Ring groove; 52. Damping ring; 53. Slip ring; 54. Slider; 55. Guide groove; 56. Round tube; 57. Through hole; 58. Sleeve; 59. Guide rail; 510. Driving wheel; 511. Bump; 512. Slide groove; 513. Support plate; 514. Bracket; 515. Rotating shaft; 516. Driven wheel 1; 51 7. Main ratchet; 518. Short pin; 519. Pin sleeve; 520. Ejector spring; 521. Horizontal plate; 522. Rotating drum; 523. Spring; 524. Second driven wheel; 525. Secondary ratchet; 526. Sleeve; 527. Round block; 528. Return spring; 529. Handle; 530. Support rod; 61. Large bevel gear; 62. Vertical plate; 63. Feed wheel; 64. Transmission wheel; 65. Round belt; 66. Small bevel gear. DETAILED DESCRIPTION

[0036] In order to make the above-mentioned objects, features and advantages of the present invention more obvious and easy to understand, the specific implementation methods of the present invention are described in detail below in conjunction with the accompanying drawings.

[0037] Example 1, reference Figure 1-Figure 12 , which is the first embodiment of the present invention, provides a sausage processing and stuffing machine based on agricultural and sideline food production, including a chassis 1, a shell 2 fixedly connected to the outside of the chassis 1, a bearing plate 3 fixedly connected to the bottom of the shell 2, a discharge pipe 4 rotatably connected to the side of the chassis 1 close to the shell 2, and also includes an energy storage mechanism 5 installed on the outside of the discharge pipe 4, and a set mechanism 6 installed on the side of the energy storage mechanism 5 away from the chassis 1; the energy storage mechanism 5 includes a telescopic unit assembled on the outside of the discharge pipe 4, and an energy storage unit assembled on the outside of the telescopic unit; the telescopic unit is extended and retracted as the discharge pipe 4 rotates in different directions The telescopic unit is used to collect the kinetic energy of the discharge pipe 4 when it rotates in different directions; the telescopic unit includes a sliding component assembled on the side of the discharge port close to the shell 2, an annular groove 51 opened in the middle of the discharge pipe 4, a damping ring 52 sleeved inside the annular groove 51, a slip ring 53 sleeved on the outside of the damping ring 52, two sliders 54 symmetrically fixedly connected to the outside of the slip ring 53, two guide grooves 55 symmetrically opened on the discharge pipe 4 away from the annular groove 51, a round tube 56 fixedly connected to the side of the discharge pipe 4 away from the guide groove 55, and a through hole 57 opened on the side of the shell 2 away from the chassis 1.

[0038] Specifically, when the discharge pipe 4 rotates, the driving wheel 510 will be driven to rotate through the protrusion 511. The protrusion 511 cooperates with the guide groove 55 to enable the driving wheel 510 to move horizontally while rotating. The discharge pipe 4 drives the slip ring 53 to rotate through the damping ring 52 while rotating. The damping ring 52 fixes the slip ring 53 through friction. When the force acting on the slip ring 53 is greater than the friction between the damping ring 52, the slip ring 53 will rotate with the damping ring 52 as the center. While the slip ring 53 rotates, the slider 54 squeezes the slide groove 512 to move the sleeve 58. Since the sleeve 58 is constrained by the guide rail 59, it can only move in the horizontal direction. While moving, the sleeve 58 drives the driving wheel 510 to move synchronously. The driving wheel 510 switches with the slave through reciprocating movement. The meshing between the driving wheel 1 516 and the driven wheel 2 524, and the sleeve 58 will stop the rotation of the slip ring 53 after moving to the maximum stroke, and the damping ring 52 will continue to rotate under the drive of the discharge pipe 4. In this way, the rotation amplitude of the discharge pipe 4 is prevented from being constrained by the stroke of the sleeve 58. During the operation of the sausage enema machine, a certain amount of kinetic energy will be generated when the sausage is twisted. By setting up the energy storage mechanism 5, this kinetic energy can be recovered and stored. When the sausage enema machine performs a twisting operation, the energy generated by the mechanical movement is captured and stored by the energy storage mechanism 5, instead of being lost in the form of heat or vibration. This design not only reduces energy waste, but the introduction of the energy storage mechanism 5 optimizes energy utilization efficiency. By recovering and storing kinetic energy, the overall performance of the sausage enema machine is improved, the operation process is more efficient, and the consumption of external energy is reduced. This design provides support for the sustainable operation of the equipment and lays the foundation for subsequent functional expansion.

[0039] Reference Figure 4-Figure 7 The sliding assembly includes a sleeve 58 sleeved on the outside of the discharge pipe 4, two guide rails 59 symmetrically fixedly connected to the outside of the sleeve 58, a driving wheel 510 rotatably connected to one end of the sleeve 58 close to the circular tube 56, two protrusions 511 symmetrically fixedly connected to the inner side of the driving wheel 510, and two sliding grooves 512 symmetrically opened on the inner side of the sleeve 58, and the outer sides of the two sliders 54 are slidably connected to the sliding grooves 512.

[0040] Specifically, the sleeve 58 in the sliding assembly drives the driving wheel 510 to move, so that the driving wheel 510 can switch the meshing between the driven wheel 1 516 and the driven wheel 2 524, so that the driving wheel 510 can transmit power to the driven wheel 1 516 and the driven wheel 2 524.

[0041] Reference Figure 8-Figure 10The energy storage unit includes two linear array support plates 513 fixedly connected to the top of the load-bearing plate 3, a bracket 514 fixedly connected to the side of the load-bearing plate 3 close to the outer shell 2, a rotating shaft 515 connected to the inner sides of the two support plates 513 for joint rotation, a power storage component assembled on the side of the rotating shaft 515 close to the outer shell 2, and a release component assembled on the top of the bracket 514; the power storage component includes a driven wheel 516 rotatably connected to the side of the rotating shaft 515 close to the outer shell 2, a main ratchet 517 fixedly connected to the driven wheel 516 close to the side of the outer shell 2, and a brake assembly assembled at the bottom of the main ratchet 517.

[0042] Specifically, the driving wheel 510 can drive the driven wheel 1 516 to rotate while rotating, and the driven wheel 1 516 can drive the main ratchet 517 to rotate while rotating, and the driven wheel 1 516 can store power through the rotating drum 522 while rotating.

[0043] Reference Fig. 9 The brake assembly includes a short pin 518 abutting against the bottom of the main ratchet 517, a pin sleeve 519 sleeved on the bottom of the short pin 518, an ejection spring 520 fixedly connected to the inside of the pin sleeve 519, the top and bottom of the ejection spring 520 are respectively fixedly connected to the short pin 518 and the pin sleeve 519, and a cross plate 521 fixedly connected to the bottom of the brake assembly, and the side of the cross plate 521 away from the brake assembly is fixedly connected to the support plate 513 close to the housing 2.

[0044] Specifically, when the short pin 518 in the brake assembly is squeezed by the inclined surface of the gear teeth of the main ratchet 517 or the auxiliary ratchet 525, it will move downward and squeeze the ejection spring 520 to accumulate force while moving.

[0045] Reference Figure 8-Figure 10 The release assembly includes a rotating drum 522 rotatably connected to the top of the bracket 514, one end of the rotating drum 522 close to the main ratchet 517 is fixedly connected to the driven wheel 1 516, a spring 523 fixedly connected to the inside of the rotating drum 522, the two ends of the spring 523 are respectively fixedly connected to the rotating drum 522 and the rotating shaft 515, a driven wheel 2 524 fixedly connected to the rotating shaft 515 near the top of the bracket 514, a secondary ratchet 525 fixedly connected to the side of the driven wheel 2 524 away from the rotating drum 522, and a release assembly assembled at the bottom of the bracket 514.

[0046] Specifically, after the driven wheel 510 drives the second driven wheel 524, it will drive the mainspring 523 to store power through the rotating shaft 515, and drive the auxiliary ratchet wheel 525 to rotate while rotating.

[0047] Reference Figure 8 and Fig.10The release assembly includes a sleeve 526 fixedly connected to the bottom of the bracket 514, a round block 527 slidably connected to the sleeve 526 on the side close to the bracket 514, a return spring 528 fixedly connected to the inside of the sleeve 526 away from the bracket 514, the two ends of the return spring 528 are respectively fixedly connected to the sleeve 526 and the round block 527, a handle 529 fixedly connected to the bottom of the round block 527, and a support rod 530 fixedly connected to the top of the round block 527, and the top of the support rod 530 is fixedly connected to the bottom of the pin sleeve 519 in another brake assembly.

[0048] Specifically, the handle 529 can drive the round block 527 to move, and the round block 527 drives the support rod 530 to move together. The movement of the support rod 530 drives the brake assembly connected to the secondary ratchet 525 to move, so that the short pin 518 of the brake assembly is released from the connection with the secondary ratchet 525, and the secondary ratchet 525 is no longer constrained. After the constraint is released, the spring 523 releases energy to drive the rotating shaft 515 and the driven wheel 2 524 to rotate.

[0049] Example 2, reference Fig.11 and Fig.12 , which is the second embodiment of the present invention. This embodiment is different from the first embodiment in that: the set mechanism 6 includes a large bevel gear 61 fixedly connected to the side of the rotating shaft 515 away from the housing 2, a vertical plate 62 fixedly connected to the side of the load-bearing plate 3 close to the large bevel gear 61, two linear arrays of feed wheels 63 rotatably connected to the inner side of the vertical plate 62, a transmission wheel 64 fixedly connected to the side of the feed wheel 63 close to the large bevel gear 61, a round belt 65 jointly sleeved on the outer side of the two transmission wheels 64, and a small bevel gear 66 meshingly connected to the bottom of the large bevel gear 61, and the side of the small bevel gear 66 close to the vertical plate 62 is fixedly connected to the transmission wheel 64 close to the bottom of the vertical plate 62.

[0050] Specifically, the rotating shaft 515 can drive the large bevel gear 61 to rotate while rotating, the large bevel gear 61 drives the small bevel gear 66 to rotate, the small bevel gear 66 drives the transmission wheel 64 connected thereto to rotate, the transmission wheel 64 drives another transmission wheel 64 to rotate together through the round belt 65, and the transmission wheel 64 drives the feeding wheel 63 to rotate while rotating, and the two feeding wheels 63 will drive the casing to move in the direction close to the outer shell 2 while rotating.

[0051] Reference Fig.11 Two circular holes are formed on one side of the vertical plate 62 close to the large bevel gear 61 and extend to the other side. The inner walls of the circular holes match the outer shape of one end of the feeding wheel 63 close to the vertical plate 62 .

[0052] Specifically, the vertical plate 62 constrains the two feeding wheels 63 through the circular holes so that they can only rotate in the original position. The rest of the structure is the same as that of the first embodiment.

[0053] In summary, the working principle of the present invention is as follows: the head end of the casing is put on the end of the round tube 56 away from the discharge tube 4, and the casing is moved to the position of the feeding wheel 63, and then the round block 527 and the support rod 530 are moved by the handle 529. The support rod 530 drives the brake assembly connected thereto while moving, thereby releasing the constraint on the secondary ratchet 525. At this time, the spring 523 releases energy to drive the rotating shaft 515, the driven wheel 2 524 and the secondary ratchet 525 to rotate. The rotating shaft 515 drives the large bevel gear 61 to rotate while the rotating shaft 515 drives the small bevel gear 66 to rotate, and the small bevel gear 66 drives the transmission wheel 64 connected thereto to rotate. The transmission wheel 64 drives the other transmission wheel 64 to rotate together through the round belt 65, and the rotation direction of the two transmission wheels 64 is the same. In the opposite direction, the two transmission wheels 64 drive the two feeding wheels 63 to rotate. While rotating, the feeding wheels 63 drive the casings to move along the circular tube 56 toward the direction close to the outer shell 2, so that the casings are quickly sleeved on the outside of the circular tube 56. The thorny edge of the feeding wheel 63 can only drive the casings to move in the direction of the discharge pipe 4. After the casings are sleeved, the sausage filling step is carried out. During the sausage filling process, the discharge pipe 4 will drive the circular tube 56 and the casings sleeved on the outside of the circular tube 56 to rotate, so that the sausage is twisted and segmented. The discharge pipe 4 will reverse and reset after the sausage is twisted. The discharge pipe 4 achieves uniform segmentation of the sausage by periodic forward and reverse rotation. When the discharge pipe 4 twists the sausage and rotates, it will drive the driving wheel 510 to rotate together, and the discharge pipe 4 drives the The slip ring 53 and the slider 54 rotate synchronously. The slider 54 will squeeze the sleeve 58 through the slide groove 512 while rotating. Since the sleeve 58 is constrained by the guide rail 59, it will move along the axis of the discharge pipe 4 toward the direction close to the circular pipe 56 after being subjected to force. While the sleeve 58 moves, it drives the driving wheel 510 to move together. The sleeve 58 will move to the maximum stroke when the discharge pipe 4 rotates half a circle. At this time, the driving wheel 510 will mesh with the driven wheel 2 524. At this time, the discharge pipe 4 continues to rotate, driving the damping ring 52 to rotate. The sleeve 58 will stop rotating due to the constraint of the slide groove 512, and the slip ring 53 will also stop rotating. At this time, the damping ring 52 will rotate inside the slip ring 53. When the discharge pipe 4 is reset and reversed half a circle, it will drive the sleeve 58 And the driving wheel 510 is reset, at this time the driving wheel 510 will mesh with the driven wheel 1 516, the driven wheel 1 516 and the driven wheel 2 524 are respectively constrained by the main ratchet 517 and the secondary ratchet 525, so they can only rotate in one direction, and the directions of rotation are opposite. When the driving wheel 510 drives the driven wheel 1 516 to rotate, the driven wheel 1 516 drives the rotating drum 522 to rotate, and the rotating drum 522 drives the outer end of the mainspring 523 to rotate while rotating, so that the mainspring 523 accumulates power. When the driving wheel 510 drives the driven wheel 2 524 to rotate, the driven wheel 2 524 drives the rotating shaft 515 to rotate, so that the rotating shaft 515 rotates in the opposite direction to the rotation of the rotating drum 522, and when the rotating shaft 515 rotates, it drives the inner end of the mainspring 523 to accumulate power.

[0054] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention rather than to limit it. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention, which should all be included in the scope of the claims of the present invention.

Claims

1. A sausage processing and stuffing machine based on agricultural and sideline food production, comprising a machine case (1), a shell (2) arranged outside the machine case (1), a load-bearing plate (3) arranged at the bottom of the shell (2), and a discharge pipe (4) arranged on a side of the machine case (1) close to the shell (2), characterized in that: It also includes an energy storage mechanism (5) arranged outside the discharge pipe (4), and a set mechanism (6) arranged on a side of the energy storage mechanism (5) away from the chassis (1); The energy storage mechanism (5) comprises a telescopic unit arranged outside the discharge pipe (4), and an energy storage unit arranged outside the telescopic unit; The telescopic unit is telescopic when the discharge pipe (4) rotates in different directions, and the energy storage unit is used to collect kinetic energy when the discharge pipe (4) rotates in different directions; The telescopic unit comprises a sliding assembly arranged on a side of the discharge port close to the housing (2), an annular groove (51) provided in the middle of the discharge pipe (4), a damping ring (52) sleeved inside the annular groove (51), a slip ring (53) sleeved outside the damping ring (52), two sliding blocks (54) symmetrically arranged outside the slip ring (53), two guide grooves (55) symmetrically provided at a position of the discharge pipe (4) away from the annular groove (51), a round tube (56) provided on a side of the discharge pipe (4) away from the guide groove (55), and a through hole (57) provided on a side of the housing (2) away from the chassis (1).

2. The sausage processing and stuffing machine based on agricultural and sideline food production according to claim 1 is characterized by: The sliding assembly includes a sleeve (58) sleeved on the outside of the discharge pipe (4), two guide rails (59) symmetrically arranged on the outside of the sleeve (58), a driving wheel (510) arranged on one end of the sleeve (58) close to the circular tube (56), two protrusions (511) symmetrically arranged on the inside of the driving wheel (510), and two sliding grooves (512) symmetrically opened on the inside of the sleeve (58), and the outer sides of the two sliding blocks (54) are slidably connected to the sliding grooves (512).

3. The sausage processing and stuffing machine based on agricultural and sideline food production according to claim 1 is characterized by: The energy storage unit comprises two support plates (513) arranged in a linear array on the top of the load-bearing plate (3), a bracket (514) arranged on the side of the load-bearing plate (3) close to the housing (2), a rotating shaft (515) arranged together on the inner sides of the two support plates (513), a power storage component arranged on the side of the rotating shaft (515) close to the housing (2), and a release component arranged on the top of the bracket (514); The power storage component comprises a driven wheel (516) arranged on a side of the rotating shaft (515) close to the housing (2), a main ratchet (517) arranged on a side of the driven wheel (516) close to the housing (2), and a brake assembly arranged at the bottom of the main ratchet (517).

4. The sausage processing and stuffing machine based on agricultural and sideline food production according to claim 3 is characterized by: The brake assembly comprises a short pin (518) arranged at the bottom of the main ratchet (517), a pin sleeve (519) sleeved on the bottom of the short pin (518), an ejection spring (520) arranged inside the pin sleeve (519), the top and bottom of the ejection spring (520) being fixedly connected to the short pin (518) and the pin sleeve (519) respectively, and a transverse plate (521) arranged at the bottom of the brake assembly, the side of the transverse plate (521) away from the brake assembly being fixedly connected to a support plate (513) close to the housing (2).

5. The sausage processing and stuffing machine based on agricultural and sideline food production according to claim 3 is characterized by: The release assembly comprises a rotating drum (522) arranged at the top of the bracket (514), one end of the rotating drum (522) close to the main ratchet (517) being fixedly connected to the driven wheel 1 (516), a spring (523) arranged inside the rotating drum (522), two ends of the spring (523) being respectively fixedly connected to the rotating drum (522) and the rotating shaft (515), a driven wheel 2 (524) arranged at a position of the rotating shaft (515) close to the top of the bracket (514), a secondary ratchet (525) arranged at a side of the driven wheel 2 (524) away from the rotating drum (522), and a release assembly arranged at the bottom of the bracket (514).

6. The sausage processing and stuffing machine based on agricultural and sideline food production according to claim 5, characterized in that: The release assembly includes a sleeve (526) arranged at the bottom of the bracket (514), a round block (527) arranged at the side of the sleeve (526) close to the bracket (514), a return spring (528) arranged inside the sleeve (526) away from the bracket (514), the two ends of the return spring (528) are respectively fixedly connected to the sleeve (526) and the round block (527), a handle (529) is arranged at the bottom of the round block (527), and a support rod (530) is arranged at the top of the round block (527), and the top of the support rod (530) is fixedly connected to the bottom of a pin sleeve (519) in another brake assembly.

7. The sausage processing and stuffing machine based on agricultural and sideline food production according to claim 1 is characterized by: The sleeve mechanism (6) comprises a large bevel gear (61) arranged on a side of the rotating shaft (515) away from the housing (2), a vertical plate (62) arranged on a side of the load-bearing plate (3) close to the large bevel gear (61), two linear arrays of feed wheels (63) arranged on the inner side of the vertical plate (62), a transmission wheel (64) arranged on a side of the feed wheel (63) close to the large bevel gear (61), a round belt (65) sleeved together on the outer side of the two transmission wheels (64), and a small bevel gear (66) arranged at the bottom of the large bevel gear (61), wherein the side of the small bevel gear (66) close to the vertical plate (62) is fixedly connected to the transmission wheel (64) close to the bottom of the vertical plate (62).

8. The sausage processing and stuffing machine based on agricultural and sideline food production according to claim 7, characterized in that: The vertical plate (62) has two circular holes on one side close to the large bevel gear (61) and penetrates to the other side, and the inner wall of the circular hole matches the shape of one end of the feeding wheel (63) close to the vertical plate (62).

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