Novel meatball extruding device capable of preventing meatball adhesion

Abstract

The utility model discloses a novel meatball extruding device capable of preventing meatball adhesion, which comprises a water tank, a meatball extruder is arranged on the side of the water tank, a vortex mechanism is arranged at the water tank and comprises a mounting rack and a round frame part, the round frame part is arranged at the mounting rack, the mounting rack is arranged across the water tank, and the round frame part is arranged on the mounting rack. An extrusion opening of the meat ball extruder faces an inner cavity of the round frame piece; a first flow guide part and a second flow guide part are arranged in the round frame part and are arranged in a double-spiral mode. The structural design of the vortex mechanism is adopted in the water tank, compared with the prior art, the vortex mechanism generates vortex to prevent meat balls from adhering to one another, the situation that the forming appearance of the meat balls is affected due to collision between the stirring rod and the meat balls does not exist, cooling and shaping of the meat balls can be accelerated through the vortex, and the meat balls are not prone to falling off. The meat ball quality is improved.

Description

Technical Field

[0001] The utility model relates to the field of food processing, in particular to a novel meatball extruding device capable of preventing meatballs from sticking together. Background Art

[0002] Meatballs are a kind of spherical food formed by squeezing minced meat. They are rich in taste and easy to eat, and are deeply loved by consumers. When producing meatballs, the minced meat needs to be seasoned and stirred first, and then extruded into meatballs by a meatball extruder. When making meatballs, the freshly extruded meatballs are very easy to stick to each other. This is mainly because when the minced meat is minced and stirred, the actin and myosin released by the rupture of muscle cells will form a sticky network structure under the action of external force. This protein network not only gives the meatballs elasticity, but also makes their surface have strong adhesion.

[0003] In order to solve the technical problem that the freshly extruded meatballs are very easy to stick to each other, the Chinese utility model patent with the authorization announcement number CN219762440U discloses a meatball processing device for food processing that prevents adhesion. The device adopts the structural design of a heating component. The heating component includes a transmission shaft, a stirring rod and a heating rod. The heating component can stir the water to make the water rotate, so that the meatballs produced by the meatball machine can be thrown out of the central area by rotating centrifugally, thereby reducing the contact time between the meatballs. Although this technical solution can prevent the meatballs from sticking together due to long-term contact with each other during shaping, the stirring rod of the heating component is prone to collision with the meatballs, affecting the formed appearance of the meatballs. To this end, we propose a new meatball extrusion device that can prevent the meatballs from sticking. Utility Model Content

[0004] The utility model aims to overcome the shortcomings of the prior art and provide a novel meatball extruding device which can prevent meatballs from sticking together.

[0005] To achieve the above object, the utility model adopts the following technical scheme: a novel meatball extruder capable of preventing meatballs from sticking together, comprising a water tank, a meatball extruder arranged at the side of the water tank, an eddy current mechanism arranged at the water tank, the eddy current mechanism comprising a mounting frame and a round frame, the round frame arranged at the mounting frame, the mounting frame straddling the water tank, the extrusion port of the meatball extruder facing the inner cavity of the round frame;

[0006] Inside the circular frame member, a first flow guide member and a second flow guide member are provided. The first flow guide member and the second flow guide member are arranged in a double helix. The two ends of the first flow guide member are respectively a first flow outlet and a first outflow port. The horizontal height of the first outflow port is higher than that of the first flow outlet. The two ends of the second flow guide member are respectively a second flow outlet and a second outflow port. The horizontal height of the second outflow port is higher than that of the second flow outlet. The first flow outlet and the second flow outlet are arranged at the same horizontal height position. The first outflow port and the second outflow port are arranged at the same horizontal height position. At the first flow outlet of the first flow guide member and the second flow outlet of the second flow guide member, wave-making pumps are installed.

[0007] Further elaborating, the cross-section of the first flow guide member is in an inverted L shape, and the shape structure of the second flow guide member is the same as that of the first flow guide member.

[0008] Further elaborating, the first flow outlet and the second flow outlet are arranged below the upper plane of the circular frame member. The height difference between the first flow outlet and the upper plane of the circular frame member is L, and 8 cm < L < 15 cm.

[0009] Further elaborating, the upper plane of the circular frame member is 2 cm below the water surface of the water tank.

[0010] Further elaborating, a horizontal seat portion is provided at the bottom of the circular frame member. The horizontal seat portion is provided with a through pipe hole. The aeration pipe passes through the through pipe hole upward. The horizontal seat portion is provided with a pipe clamping mechanism for fixing the aeration pipe.

[0011] Further elaborating, the pipe clamping mechanism includes a pipe clamping seat and a pipe clamping block. The pipe clamping block is hinged to the pipe clamping seat. A pipe clamping opening for clamping the aeration pipe is provided between the pipe clamping block and the pipe clamping seat.

[0012] Further elaborating, a buckle ring member is provided at the pipe clamping seat, and a buckle ear portion cooperating with the buckle ring member is provided at the pipe clamping block.

[0013] The beneficial effects of the present utility model are as follows: The present utility model adopts the structural design of a vortex mechanism in the water tank. Compared with the prior art, the present utility model generates a vortex through the vortex mechanism to prevent the meatballs from sticking to each other. There is no situation where the stirring rod collides with the meatballs and affects the forming appearance of the meatballs. Moreover, the vortex can also accelerate the cooling and shaping of the meatballs and improve the quality of the meatballs. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is a structural schematic diagram of the present utility model.

[0015] Figure 2 It is a structural schematic diagram of the present utility model.

[0016] Figure 3 This is a schematic diagram of a partial structure of the present utility model.

[0017] Figure 4 This is a cross-sectional view of a partial structure of the present utility model.

[0018] Reference numerals in the drawings: 10, water tank; 20, eddy current mechanism; 21, mounting bracket; 22, circular frame member; 221, horizontal seat portion; 222, through pipe hole; 23, first guide member; 231, first flow outlet; 232, first outlet; 233, first wave-making pump; 24, second guide member; 241, second flow outlet; 242, second outlet; 243, second wave-making pump; 25, pipe clamping mechanism; 251, pipe clamping seat; 252, pipe clamping block; 2521, buckle ear portion; 253, buckle ring member; 30, meatball extruder. Specific embodiments

[0019] To make the objectives, technical solutions, and advantages of the present utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings.

[0020] Specific Embodiment 1: With reference to FIGS. Figure 1 to Figure 4 As shown, a novel meatball extruding device capable of preventing meatballs from sticking together includes a water tank 10. A meatball extruder 30 is disposed on the side of the water tank 10. An eddy current mechanism 20 is provided at the water tank 10. The eddy current mechanism 20 includes a mounting bracket 21 and a circular frame member 22. The circular frame member 22 is installed on the mounting bracket 21. The mounting bracket 21 straddles the water tank 10. The extrusion port of the meatball extruder 30 faces downward towards the inner cavity of the circular frame member 22;

[0021] Inside the circular frame member 22, a first guide member 23 and a second guide member 24 are provided. The first guide member 23 and the second guide member 24 are arranged in a double helix. The cross-section of the first guide member 23 is in an inverted L shape. The shape and structure of the second guide member 24 are the same as those of the first guide member 23.

[0022] The two ends of the first guide member 23 are respectively a first flow outlet 231 and a first outlet 232. The horizontal height of the first outlet 232 is higher than that of the first flow outlet 231. The two ends of the second guide member 24 are respectively a second flow outlet 241 and a second outlet 242. The horizontal height of the second outlet 242 is higher than that of the second flow outlet 241. The first flow outlet 231 and the second flow outlet 241 are disposed at the same horizontal height position. The first outlet 232 and the second outlet 242 are disposed at the same horizontal height position. Wave-making pumps are installed at the first flow outlet 231 of the first guide member 23 and the second flow outlet 241 of the second guide member 24.

[0023] Specifically, the first outflow port 232 of the first flow guide member 23 faces the second outflow port 241 of the second flow guide member 24, and the second outflow port 242 of the second flow guide member 24 faces the first inflow port 231 of the first flow guide member 23.

[0024] The wave-making pump at the first flow guide member 23 is the first wave-making pump 233, and the surge current generated by the first wave-making pump 233 surges out from the first outflow port 232 of the first flow guide member 23. The wave-making pump at the second flow guide member 24 is the second wave-making pump 243, and the surge current generated by the second wave-making pump 243 surges out from the second outflow port 242 of the second flow guide member 24.

[0025] The two surge currents surge upward in a spiral along the inner wall of the circular frame member 22, thereby forming a vortex in the circular frame member 22. The meatballs extruded by the meatball extruder 30 will fall into the vortex in the circular frame member 22. The vortex can not only accelerate the cooling and shaping of the meatballs, but also prevent the meatballs from sticking to each other.

[0026] As shown in the attachment Figure 4 The first inflow port 231 and the second inflow port 241 are provided below the upper plane of the circular frame member 22. The height difference between the first inflow port 231 and the upper plane of the circular frame member 22 is L, and 8 cm < L < 15 cm. The upper plane of the circular frame member 22 is located 2 cm below the water surface of the water tank 10, which facilitates the meatballs in the circular frame member 22 to overflow from the circular frame member 22 to other positions of the water tank 10 and prevents the meatballs from accumulating in the circular frame member 22.

[0027] Specific Embodiment Two: Combining the attachment Figure 1 to the attachment Figure 4 As shown, a new type of meatball extrusion device that can prevent meatballs from sticking includes a water tank 10. The meatball extruder 30 is arranged on the side of the water tank 10. A vortex mechanism 20 is provided at the water tank 10. The vortex mechanism 20 includes a mounting frame 21 and a circular frame member 22. The circular frame member 22 is arranged at the mounting frame 21. The mounting frame 21 straddles the water tank 10. The extrusion port of the meatball extruder 30 faces downward towards the inner cavity of the circular frame member 22;

[0028] The bottom of the circular frame member 22 is provided with a horizontal seat portion 221. The horizontal seat portion 221 is provided with a through pipe hole 222. The air supply pipe penetrates upward through the through pipe hole 222. The horizontal seat portion 221 is provided with a pipe clamping mechanism 25 for fixing the air supply pipe. The pipe clamping mechanism 25 includes a pipe clamping seat 251 and a pipe clamping block 252. The pipe clamping block 252 is hinged to the pipe clamping seat 251. A pipe clamping port for clamping the air supply pipe (note: not shown in the attached drawing) is provided between the pipe clamping block 252 and the pipe clamping seat 251. A buckle member 253 is provided at the pipe clamping seat 251, and a buckle ear portion 2521 cooperating with the buckle member 253 is provided at the pipe clamping block 252.

[0029] Inside the circular frame member 22, there are a first flow guide member 23 and a second flow guide member 24. The first flow guide member 23 and the second flow guide member 24 are arranged in a double helix. The cross-section of the first flow guide member 23 is in an inverted L shape, and the shape structure of the second flow guide member 24 is the same as that of the first flow guide member 23.

[0030] The two ends of the first flow guide member 23 are respectively a first flow outlet 231 and a first out-flow port 232. The horizontal height of the first out-flow port 232 is higher than that of the first flow outlet 231. The two ends of the second flow guide member 24 are respectively a second flow outlet 241 and a second out-flow port 242. The horizontal height of the second out-flow port 242 is higher than that of the second flow outlet 241. The first flow outlet 231 and the second flow outlet 241 are arranged at the same horizontal height position, and the first out-flow port 232 and the second out-flow port 242 are arranged at the same horizontal height position. At the first flow outlet 231 of the first flow guide member 23 and at the second flow outlet 241 of the second flow guide member 24, wave-making pumps are installed.

[0031] Specifically, the first out-flow port 232 of the first flow guide member 23 faces the second flow outlet 241 of the second flow guide member 24, and the second out-flow port 242 of the second flow guide member 24 faces the first flow outlet 231 of the first flow guide member 23.

[0032] The wave-making pump at the first flow guide member 23 is the first wave-making pump 233, and the surge flow generated by the first wave-making pump 233 surges out from the first out-flow port 232 of the first flow guide member 23. The wave-making pump at the second flow guide member 24 is the second wave-making pump 243, and the surge flow generated by the second wave-making pump 243 surges out from the second out-flow port 242 of the second flow guide member 24. The two surge flows surge upward in a spiral along the inner wall of the circular frame member 22, thereby forming a vortex inside the circular frame member 22. The meatballs extruded by the meatball extruder 30 will fall into the vortex inside the circular frame member 22.

[0033] As shown in the Figure 4 attachment, the first flow outlet 231 and the second flow outlet 241 are arranged below the upper plane of the circular frame member 22. The height difference between the first flow outlet 231 and the upper plane of the circular frame member 22 is L, and 8 cm < L < 15 cm. The upper plane of the circular frame member 22 is 2 cm below the water surface of the water tank 10, which is convenient for the meatballs inside the circular frame member 22 to overflow from the circular frame member 22 to other positions of the water tank 10, preventing the meatballs from accumulating inside the circular frame member 22. The aeration pipe cooperates with the vortex mechanism 20 to make the water in the circular frame member 22 ripple, which can not only accelerate the cooling and shaping of the meatballs, but also prevent the meatballs from sticking to each other.

[0034] In the description of the present utility model, it should be understood that the orientation or positional relationship indicated by the terms "upper", "lower", "front", "rear", "left", "right", "top", "bottom", "inner", "outer", etc. is based on the orientation or positional relationship shown in the drawings, and is only for the convenience of describing the present utility model and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation to the present utility model.

[0035] It should be understood that in the present utility model, the terms "first", "second", etc. are used to describe various information, but such information should not be limited to these terms, and these terms are only used to distinguish the same type of information from each other. For example, without departing from the scope of the present utility model, the "first" information may also be referred to as the "second" information, and similarly, the "second" information may also be referred to as the "first" information.

[0036] The above description does not impose any limitation on the technical scope of the present utility model. Any modification, equivalent change, and modification made to the above embodiments based on the technical essence of the present utility model still fall within the scope of the technical solution of the present utility model.

Claims

1. A novel meatball extrusion device capable of preventing meatballs from sticking together, comprising a water tank (10), and a meatball extruder (30) is arranged at the side of the water tank (10), characterized in that: A vortex mechanism (20) is provided at the water tank (10). The vortex mechanism (20) includes a mounting frame (21) and a circular frame member (22). The circular frame member (22) is installed at the mounting frame (21). The mounting frame (21) straddles the water tank (10). The extrusion port of the meatball extruder (30) faces the inner cavity of the circular frame member (22). A first flow guide member (23) and a second flow guide member (24) are provided inside the circular frame member (22). The first flow guide member (23) and the second flow guide member (24) are arranged in a double helix. The two ends of the first flow guide member (23) are respectively a first flow inlet (231) and a first flow outlet (232). The horizontal height of the first flow outlet (232) is higher than that of the first flow inlet (231). The two ends of the second flow guide member (24) are respectively a second flow inlet (241) and a second flow outlet (242). The horizontal height of the second flow outlet (242) is higher than that of the second flow inlet (241). The first flow inlet (231) and the second flow inlet (241) are arranged at the same horizontal height position. The first flow outlet (232) and the second flow outlet (242) are arranged at the same horizontal height position. A wave-making pump is installed at the first flow inlet (231) of the first flow guide member (23) and at the second flow inlet (241) of the second flow guide member (24).

2. The novel meatball extrusion device capable of preventing meatball adhesion according to claim 1, wherein: The cross-section of the first flow guide member (23) is in an inverted L shape. The shape and structure of the second flow guide member (24) are the same as those of the first flow guide member (23).

3. A novel meatball extrusion device capable of preventing meatball adhesion according to claim 1, characterized in that: The first flow inlet (231) and the second flow inlet (241) are arranged below the upper plane of the circular frame member (22). The height difference between the first flow inlet (231) and the upper plane of the circular frame member (22) is L, and 8 cm < L < 15 cm.

4. A novel meatball extrusion device capable of preventing meatball adhesion according to claim 3, characterized in that: The upper plane of the circular frame member (22) is 2 cm below the water surface of the water tank (10).

5. A novel meatball extrusion device capable of preventing meatball adhesion according to claim 1, characterized in that: A transverse seat portion (221) is provided at the bottom of the circular frame member (22). The transverse seat portion (221) is provided with a through pipe hole (222). The aeration pipe passes upward through the through pipe hole (222). The transverse seat portion (221) is provided with a pipe clamping mechanism (25) for fixing the aeration pipe.

6. A novel meatball extrusion device capable of preventing meatball adhesion according to claim 5, characterized in that: The pipe clamping mechanism (25) includes a pipe clamping seat (251) and a pipe clamping block (252). The pipe clamping block (252) is hinged to the pipe clamping seat (251). A pipe clamping port for clamping the aeration pipe is provided between the pipe clamping block (252) and the pipe clamping seat (251).

7. A novel meatball extrusion device capable of preventing meatball adhesion according to claim 6, characterized in that: A buckle member (253) is provided at the pipe clamping seat (251). A buckle ear portion (2521) matching the buckle member (253) is provided at the pipe clamping block (252).

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