Temperature control gelatin processing equipment

Abstract

The invention relates to the technical field of gelatin processing, in particular to temperature control gelatin processing equipment which comprises a rotating layer. The temperature control layer is arranged at the top of the rotating layer; the forming layer arranged at the top of the temperature control layer introduces external pressurized gas into the hollow plate through the gas inlet hose, the pressurized gas is utilized to extrude gelatin melt from the discharging hole, the flowing-out speed of the gelatin melt from the hollow plate is increased, the discharging speed is increased, the extruded gelatin falls into the forming groove under the action of gravity, and the forming effect of the gelatin melt is improved. The purpose of adding gelatin into the forming grooves is achieved, an air cylinder is arranged and used for driving a hollow plate to move downwards, then a rectangular protrusion moves downwards and stretches into the forming grooves, gelatin melt in the forming grooves is extruded, the flowing speed of the gelatin melt in a through groove is increased, the amount of the gelatin melt in the multiple forming grooves can be consistent in a short time, and the forming efficiency is improved. The speed of injecting gelatin into the forming grooves is increased, and it can be guaranteed that the amount of gelatin in each forming groove is the same.

Description

Technical Field

[0001] The invention relates to the technical field of temperature-controlled gelatin processing, in particular to temperature-controlled gelatin processing equipment. Background Art

[0002] Gelatin is formed by the partial degradation of collagen in connective tissues such as animal skin, bones, fascia, and myometrium to form white or light yellow, translucent, slightly shiny flakes or powder particles; therefore, it is also called animal gelatin and fat gelatin; industrial gelatin is colorless to light yellow transparent or translucent flakes or powder particles; tasteless and odorless; it absorbs water and swells in cold water; it is soluble in hot water; it is soluble in glycerol and acetic acid, but insoluble in ethanol and ether. In the process of processing gelatin into long strips, the hot gelatin needs to be cooled. A coolant is used to cool the hot gelatin processing device; The existing Chinese patent CN209812894U discloses a temperature-controlled gelatin processing device. When the temperature-controlled gelatin processing device is used, the gelatin liquid diffuses to other molding grooves through the channels between the molding grooves. The height of the channels is set to prevent the gelatin liquid from overflowing the molding grooves during the flow process. After the amount of gelatin liquid in the molding groove meets the requirements, the temperature control layer cools the molding layer so that the gelatin liquid gradually condenses to form a solid jelly to achieve the processing purpose. When the temperature-controlled gelatin processing equipment adds gelatin liquid into multiple molding tanks, it uses the channels connecting the molding tanks to each other and utilizes the flow of alum to complete the alum filling operation on the multiple molding tanks. This method results in a slow filling time and also leads to the problem of being unable to control the amount of alum in each molding tank. Summary of the invention

[0003] The object of the present invention is to provide a temperature-controlled gelatin processing device to solve the problems raised in the above background technology.

[0004] In order to solve the above technical problems, the present invention provides the following technical solutions: a temperature-controlled gelatin processing device, comprising a rotating layer; A temperature control layer disposed on top of the rotating layer; A forming layer disposed on top of the temperature control layer; A forming groove is provided on the top of the forming layer; A through groove communicated with the forming groove; And a material discharge component arranged outside the rotating layer, the material discharge component includes a material discharge part, a material pusher part is arranged inside the material discharge part, a shaking part is arranged inside the material discharge part, a stirring part is arranged inside the material pusher part, an auxiliary part is arranged inside the material discharge part, the material discharge part includes a support frame, a cylinder is fixedly installed on the inner outer wall of the top of the support frame, a hollow plate is fixedly installed on the bottom end of the cylinder, a rectangular protrusion is fixedly installed on the bottom of the hollow plate, the interior of the rectangular protrusion is connected with the interior of the hollow plate, a material discharge hole is opened at the bottom of the rectangular protrusion, an air intake hose is arranged on the inner wall of the side of the hollow plate, and the air intake hose is fixedly installed on the inner inner wall of the hollow plate. An electromagnetic valve is provided at the connection point between the hose and the hollow plate, a feed port is provided at the top of the hollow plate, and a sealing plug is provided inside the feed port, the pushing part comprises a motor 1, the motor 1 is fixedly mounted on the top of the hollow plate, a rotating shaft 1 is fixedly mounted on the output end of the motor 1, the rotating shaft 1 passes through the top of the hollow plate through a bearing, a pushing plate is fixedly mounted on the outer wall of the rotating shaft 1, a flow groove is provided on the outer wall of the pushing plate, the shaking part comprises a motor 2, a guide rail, and a fixed plate, the motor 2 is fixedly mounted on the inner outer wall of the support frame, a rotating shaft 2 is fixedly mounted on the output end of the motor 2, and a The cam, the guide rail is fixedly mounted on the inner outer wall of the support frame, an L-shaped plate is slidably arranged on the top of the guide rail, the left outer wall of the L-shaped plate contacts the outer wall of the cam, the top of the L-shaped plate is fixedly connected to the bottom of the rotating layer, the fixed plate is fixedly mounted on the inner outer wall of the support frame, a spring is fixedly mounted on the left outer wall of the fixed plate, the left end of the spring is fixedly connected to the right outer wall of the rotating layer, the auxiliary part includes a fixed sleeve and a threaded rod, the fixed sleeve movably sleeved on the rectangular protrusion, and the lower surface of the fixed sleeve is horizontal with the lower surface of the rectangular protrusion, the threaded rod is fixedly mounted on the outer wall of the rectangular protrusion, and the threaded rod The outer wall movable sleeve is provided with a connecting plate, and the outer wall of the connecting plate facing the rectangular protrusion is fixedly installed with a clamping block, and the side outer wall of the fixed sleeve is provided with a clamping groove, and the clamping block is clamped in the clamping groove, and the outer wall threaded sleeve of the threaded rod is provided with an internal threaded sleeve, and the internal threaded sleeve is pressed on the side of the connecting plate. The stirring part includes an internal gear, which is fixedly installed on the top inner wall of the hollow plate, and the internal gear is meshed with a gear. The inner wall of the gear is fixedly installed with a rotating shaft three, and the rotating shaft three passes through the inner wall of the circulation groove through a bearing. The outer wall of the rotating shaft three is fixedly installed with a stirring blade, and the lower surface of the stirring blade is level with the lower surface of the pushing plate.

[0005] According to the above technical solution, a plurality of rectangular protrusions are provided, and they correspond one-to-one to the forming grooves, and the outer diameter of the rectangular protrusion is smaller than the inner diameter of the forming groove.

[0006] According to the above technical solution, two cams are provided, and the angle between the two cams is 90°.

[0007] According to the above technical solution, a bevel groove is provided at the top of the L-shaped plate, a limit groove is provided at the bottom of the bevel groove, and a T-shaped plug is fixedly installed on the left outer wall of the hollow plate, the T-shaped plug is opposite to the bevel groove, the outer diameter of the T-shaped plug is smaller than the inner diameter of the bevel groove, and the outer diameter of the T-shaped plug is the same as the inner diameter of the limit groove.

[0008] According to the above technical solution, the size of the lower surface of the fixing sleeve is the same as the inner size of the forming groove, and a plurality of the fixing sleeves are provided, and they correspond one-to-one to the rectangular protrusions.

[0009] Compared with the prior art, the beneficial effects achieved by the present invention are: 1. The present invention introduces external pressurized gas into the hollow plate through an air intake hose, and uses the pressurized gas to squeeze the gelatin melt from the feeding hole, thereby accelerating the rate at which the gelatin melt flows out of the hollow plate and improving the feeding rate. The extruded gelatin falls into the molding groove under the action of gravity, thereby achieving the purpose of adding gelatin into the molding groove. A cylinder is provided to drive the hollow plate to move downward, thereby causing the rectangular protrusion to move downward and extend into the molding groove, squeezing the gelatin melt in the molding groove, accelerating the rate at which the gelatin melt flows in the through groove, and making the gelatin melt in multiple molding grooves reach the same amount in a relatively short time, that is, increasing the rate at which gelatin is injected into the molding groove, and also ensuring that the amount of gelatin in each molding groove is the same; 2. The present invention uses a cam and a spring to push the L-shaped plate and the rotating layer to vibrate left and right, thereby accelerating the flow rate of the gelatin melt in the molding groove, making the gelatin melt in multiple molding grooves more evenly distributed, and uses two mutually perpendicular cams to push the L-shaped plate, so that the frequency of pushing the L-shaped plate is higher, thereby making the gelatin melt in the molding groove be shaken at a higher frequency, thereby accelerating the flow rate of the gelatin melt. BRIEF DESCRIPTION OF THE DRAWINGS

[0010] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings: Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a schematic diagram of the structure of the shaking part of the present invention; Figure 3 It is a structural schematic diagram of the blanking part of the present invention; Figure 4 It is a schematic diagram of the auxiliary part and the hollow plate structure of the present invention; Figure 5 It is a schematic diagram of the rectangular protrusion and the feeding hole structure of the present invention; Figure 6 It is a schematic diagram of the structure of the pusher part and the stirring part of the present invention; Figure 7 It is a schematic diagram of the auxiliary part guarantee view structure of the present invention; Figure 8 It is a schematic diagram of the front cross-sectional structure of the L-shaped plate of the present invention.

[0011] In the figure: 1, rotating layer; 2, temperature control layer; 3, forming layer; 4, forming groove; 5, unloading assembly; 51, unloading part; 511, support frame; 512, cylinder; 513, hollow plate; 514, air intake hose; 515, solenoid valve; 516, sealing plug; 517, rectangular protrusion; 518, unloading hole; 52, pushing part; 521, motor 1; 522, rotating shaft 1; 523, pushing plate; 524, circulation groove; 53, shaking part; 531, motor 2; 5 32. Rotating shaft two; 533. Cam; 534. L-shaped plate; 535. Guide rail; 536. Fixed plate; 537. Spring; 54. Auxiliary part; 541. Fixed sleeve; 542. Threaded rod; 543. Slot; 544. Block; 545. Connecting plate; 546. Internal threaded sleeve; 55. Stirring part; 551. Stirring blade; 552. Rotating shaft three; 553. Internal gear; 554. Gear; 6. Through slot; 7. T-shaped plug block; 8. Bevel slot; 9. Limiting slot. DETAILED DESCRIPTION

[0012] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention. Example 1

[0013] A preferred embodiment of the temperature-controlled gelatin processing equipment provided by the present invention is as follows: Figures 1 to 8 Shown: A temperature-controlled gelatin processing device, comprising a rotating layer 1; A temperature control layer 2 is arranged on the top of the rotating layer 1; A forming layer 3 disposed on top of the temperature control layer 2; A forming groove 4 is provided on the top of the forming layer 3; A through groove 6 communicating with the forming groove 4; and a material discharge assembly 5 disposed outside the rotating layer 1, the material discharge assembly 5 comprising a material discharge portion 51, a material pusher portion 52 disposed inside the material discharge portion 51, a shaking portion 53 disposed inside the material discharge portion 51, a stirring portion 55 disposed inside the material pusher portion 52, and an auxiliary portion 54 disposed inside the material discharge portion 51; The unloading part 51 includes a support frame 511, a cylinder 512 is fixedly installed on the inner and outer walls of the top of the support frame 511, a hollow plate 513 is fixedly installed on the bottom end of the cylinder 512, a rectangular protrusion 517 is fixedly installed on the bottom of the hollow plate 513, the interior of the rectangular protrusion 517 is connected to the interior of the hollow plate 513, a unloading hole 518 is provided at the bottom of the rectangular protrusion 517, an air intake hose 514 is provided on the inner wall of the side of the hollow plate 513, an electromagnetic valve 515 is provided at the connection between the air intake hose 514 and the hollow plate 513, a feed port is provided on the top of the hollow plate 513, and a sealing plug 516 is provided inside the feed port, and an air intake port is provided. The hose 514 passes external pressurized gas into the hollow plate 513, and uses the pressurized gas to squeeze the gelatin melt out of the discharge hole 518, thereby accelerating the rate at which the gelatin melt flows out of the hollow plate 513 and increasing the discharge rate. The extruded gelatin falls into the molding groove 4 under the action of gravity, thereby achieving the purpose of adding gelatin to the molding groove 4. The cylinder 512 is provided to drive the hollow plate 513 to move downward, thereby causing the rectangular protrusion 517 to move downward and extend into the molding groove 4, squeezing the gelatin melt in the molding groove 4, and accelerating the rate at which the gelatin melt flows in the through groove 6, so that the amount of gelatin melt in multiple molding grooves 4 can reach a consistent amount in a relatively short time, thereby promoting the production of the plurality of molding grooves 4. The material section 52 includes a motor 521, which is fixedly mounted on the top of the hollow plate 513. A rotating shaft 522 is fixedly mounted on the output end of the motor 521. The rotating shaft 522 passes through the top of the hollow plate 513 through a bearing. A pushing plate 523 is fixedly mounted on the outer wall of the rotating shaft 522. A flow groove 524 is provided on the outer wall of the pushing plate 523. The gelatin in the hollow plate 513 is pushed to various positions in the hollow plate 513 by rotating the pushing plate 523 to avoid gelatin accumulation on one side of the hollow plate 513, which makes it impossible to inject gelatin into multiple molding grooves 4. The flow groove 524 is provided so that the gelatin melt can be freely pushed in the pushing plate 523. The material plates 523 flow through, and the stirring part 55 includes an internal gear 553, which is fixedly mounted on the top inner wall of the hollow plate 513, and the internal gear 553 is meshed with a gear 554, and the inner wall of the gear 554 is fixedly mounted with a rotating shaft 552, and the rotating shaft 552 passes through the inner wall of the flow groove 524 through a bearing, and the outer wall of the rotating shaft 552 is fixedly mounted with a stirring blade 551, and the lower surface of the stirring blade 551 is level with the lower surface of the pushing plate 523, and the stirring blade 551 is arranged in the flow groove 524 at the outermost part to stir the gelatin melt with poor fluidity at the edge, so as to further improve the flow rate of the gelatin melt.

[0014] Furthermore, there are multiple rectangular protrusions 517 corresponding to the molding grooves 4 one by one, and gelatin melt can be injected into each molding groove 4 at the same time. The outer diameter of the rectangular protrusion 517 is smaller than the inner diameter of the molding groove 4, so that the rectangular protrusion 517 can extend into the molding groove 4. Example 2

[0015] Based on Example 1, a preferred embodiment of a temperature-controlled gelatin processing device provided by the present invention is as follows Figures 1 to 8 As shown, the shaking part 53 includes a second motor 531, a guide rail 535, and a fixing plate 536. The second motor 531 is fixedly mounted on the inner outer wall of the support frame 511. The output end of the second motor 531 is fixedly mounted with a second rotating shaft 532. The outer wall of the second rotating shaft 532 is fixedly mounted with a cam 533. The guide rail 535 is fixedly mounted on the inner outer wall of the support frame 511. The top of the guide rail 535 is slidably provided with an L-shaped plate 534. The left outer wall of the L-shaped plate 534 is connected to the outer wall of the cam 533. The top of the L-shaped plate 534 is fixedly connected to the bottom of the rotating layer 1, the fixed plate 536 is fixedly installed on the inner outer wall of the support frame 511, and the left outer wall of the fixed plate 536 is fixedly installed with a spring 537. The left end of the spring 537 is fixedly connected to the right outer wall of the rotating layer 1. The cam 533 and the spring 537 push the L-shaped plate 534 and the rotating layer 1 to shake left and right, thereby accelerating the flow rate of the gelatin melt in the molding groove 4, so that the gelatin melt in multiple molding grooves 4 is more evenly distributed.

[0016] Furthermore, two cams 533 are provided, and the angle between the two cams 533 is 90°. The L-shaped plate 534 is pushed by the two mutually perpendicular cams 533, so that the frequency of pushing the L-shaped plate 534 is higher, thereby making the gelatin melt in the molding groove 4 vibrate at a higher frequency, thereby accelerating the flow rate of the gelatin melt.

[0017] Furthermore, a bevel groove 8 is provided at the top of the L-shaped plate 534, a limit groove 9 is provided at the bottom of the bevel groove 8, and a T-shaped plug block 7 is fixedly installed on the left outer wall of the hollow plate 513, the T-shaped plug block 7 is opposite to the bevel groove 8, the outer diameter of the T-shaped plug block 7 is smaller than the inner diameter of the bevel groove 8, and the outer diameter of the T-shaped plug block 7 is the same as the inner diameter of the limit groove 9. When the rectangular protrusion 517 moves downward, in order to ensure that the rectangular protrusion 517 can extend into the forming groove 4, all T-shaped plug blocks 7 are designed to be inserted into the limit groove 9 to fix the position of the L-shaped plate 534, and the bevel groove 8 is set so that when the T-shaped plug block 7 moves downward, it will not be unable to extend into the limit groove 9 due to the position offset of the L-shaped plate 534. Example 3

[0018] Based on Example 1, a preferred embodiment of a temperature-controlled gelatin processing device provided by the present invention is as follows Figures 1 to 8As shown, the auxiliary part 54 includes a fixed sleeve 541 and a threaded rod 542. The fixed sleeve 541 is movably sleeved on the rectangular protrusion 517, and the lower surface of the fixed sleeve 541 is horizontal with the lower surface of the rectangular protrusion 517. The threaded rod 542 is fixedly installed on the outer wall of the rectangular protrusion 517. The outer wall of the threaded rod 542 is movably sleeved with a connecting plate 545. The connecting plate 545 is fixedly installed with a clamping block 544 on the outer wall of the side of the rectangular protrusion 517. A clamping groove 543 is opened on the side outer wall of the fixed sleeve 541. The clamping block 544 is clamped in the clamping groove 543. The outer wall thread sleeve of the threaded rod 542 is provided with an internal threaded sleeve 546, and the internal threaded sleeve 546 is pressed on the connecting plate 545. On the side of the connecting plate 545, a connecting plate 545, a block 544, and a groove 543 are provided to fix the fixing sleeve 541, and an internal threaded sleeve 546 is provided to limit the connecting plate 545. The fixing sleeve 541 is provided so that when the rectangular protrusion 517 is extended into the molding groove 4, the gelatin melt in the molding groove 4 cannot flow to the side of the rectangular protrusion 517, thereby avoiding the problem of the gelatin solution being squeezed out of the molding groove 4 by the rectangular protrusion 517. When the inner diameter of the molding groove 4 changes, that is, when gelatin strips of different lengths are produced, the fixing sleeve 541 of the corresponding size can be replaced without changing the rectangular protrusion 517, thereby improving the utilization rate of the overall device.

[0019] The lower surface size of the fixing sleeve 541 is the same as the internal size of the forming groove 4 to avoid a gap between the fixing sleeve 541 and the inner wall of the forming groove 4 after the fixing sleeve 541 extends into the forming groove 4. There are multiple fixing sleeves 541, which correspond one by one to the rectangular protrusions 517.

[0020] When the present invention is in use, firstly, the fixing sleeve 541 corresponding to the forming groove 4 is taken out, and the fixing sleeve 541 is sleeved on the rectangular protrusion 517, and then the support frame 511 is inserted into the slot 543 to fix the fixing sleeve 541, and then the internal threaded sleeve 546 is screwed on the threaded rod 542 to fix the connecting plate 545, and the sealing plug 516 is opened to pour the melted gelatin into the hollow plate 513, at this time, part of the gelatin melt falls into the forming groove 4 from the discharge hole 518, and most of the gelatin melt continues to remain in the hollow plate 513 due to poor fluidity, and the sealing plug 516 is closed and the motor 1 521 is turned on to drive the rotating shaft 1 522 to rotate, thereby driving the pusher The material plate 523 rotates to push the gelatin melt accumulated on one side of the hollow plate 513 to the rest of the hollow plate 513. Because the gelatin melt is blocked at the discharge hole 518 at this time, and there is no air inlet channel in the hollow plate 513, only a small amount of gelatin melt falls in the discharge hole 518 when the gelatin melt is pushed. Therefore, there is no need to worry about the uneven distribution of the gelatin melt in the hollow plate 513, resulting in excessive deviation in the discharge into the forming groove 4. After connecting the air intake hose 514 to the external air source (the air source in this technical solution is an air compressor), open the solenoid valve 515 to allow the pressurized air generated by the air source to flow into the hollow plate 513, and use the airflow to push the gelatin melt. The material is dropped from the discharge hole 518 into the molding groove 4, which realizes fast injection and ensures that the amount of gelatin melt injected into different molding grooves 4 is within a certain range. After the injection is completed, the solenoid valve 515 is closed, and the cylinder 512 is opened to push the hollow plate 513 downward, thereby driving the rectangular protrusion 517 downward and driving the fixed sleeve 541 downward to extend into the molding groove 4, and by squeezing the excess gelatin melt in the molding groove 4, the gelatin melt quickly flows through the through groove 6 to the other molding grooves 4, thereby accelerating the flow rate of the gelatin melt, and making the amount of gelatin melt in all molding grooves 4 consistent in a shorter time, and in the fixed sleeve 541 and the rectangular protrusion 517, the amount of gelatin melt in all molding grooves 4 is consistent. When the gelatin solution is extruded, the only air inlet channel of the hollow plate 513 that is connected to the outside world is the feed hole 518, which is blocked by the gelatin melt. Therefore, there is no need to worry about the gelatin melt being squeezed into the hollow plate 513. When the gelatin melt is injected, the motor 2 531 is turned on to drive the rotating shaft 2 532 to rotate, thereby driving the cam 533 to rotate, so that the cam 533 periodically pushes the L-shaped plate 534, and cooperates with the spring 537 to push the L-shaped plate 534 and the rotating layer 1 left and right. The flow rate of the gelatin solution in the molding groove 4 is accelerated by high-frequency and low-amplitude shaking, and the rate at which the gelatin melt in multiple molding grooves 4 reaches a consistent amount is further accelerated.

Claims

1. A temperature-controlled gelatin processing device, comprising a rotating layer (1); A temperature control layer (2) disposed on top of the rotating layer (1); A forming layer (3) disposed on top of the temperature control layer (2); A forming groove (4) provided on the top of the forming layer (3); A through groove (6) communicating with the molding groove (4); and a material discharge assembly (5) arranged outside the rotating layer (1), characterized in that: The material discharge assembly (5) comprises a material discharge portion (51), a material pushing portion (52) is arranged inside the material discharge portion (51), a shaking portion (53) is arranged inside the material discharge portion (51), a stirring portion (55) is arranged inside the material pushing portion (52), an auxiliary portion (54) is arranged inside the material discharge portion (51), and the material discharge portion (51) comprises a support frame (511), a cylinder (512) is fixedly mounted on the top of the support frame (511), a hollow plate (513) is fixedly mounted on the bottom end of the cylinder (512), a rectangular protrusion (517) is fixedly mounted on the bottom of the hollow plate (513), the interior of the rectangular protrusion (517) is communicated with the interior of the hollow plate (513), and the rectangular protrusion (517) is connected to the interior of the hollow plate (513). A feeding hole (518) is provided at the bottom of the hollow plate (517); an air intake hose (514) is provided on the inner wall of the side of the hollow plate (513); a solenoid valve (515) is provided at the connection between the air intake hose (514) and the hollow plate (513); a feeding port is provided at the top of the hollow plate (513); a sealing plug (516) is provided inside the feeding port; the pushing portion (52) comprises a motor 1 (521); the motor 1 (521) is fixedly mounted on the top of the hollow plate (513); a rotating shaft 1 (522) is fixedly mounted on the output end of the motor 1 (521); the rotating shaft 1 (522) passes through the top of the hollow plate (513) through a bearing; a pushing portion (521) is fixedly mounted on the outer wall of the rotating shaft 1 (522); The material plate (523) is provided with a flow groove (524) on the outer wall of the push plate (523); the shaking part (53) comprises a second motor (531), a guide rail (535), and a fixed plate (536); the second motor (531) is fixedly mounted on the inner outer wall of the support frame (511); a second rotating shaft (532) is fixedly mounted on the output end of the second motor (531); a cam (533) is fixedly mounted on the outer wall of the second rotating shaft (532); the guide rail (535) is fixedly mounted on the inner outer wall of the support frame (511); an L-shaped plate (534) is slidably arranged on the top of the guide rail (535); the left outer wall of the L-shaped plate (534) contacts the outer wall of the cam (533); the L-shaped plate (534) ) is fixedly connected to the bottom of the rotating layer (1); the fixing plate (536) is fixedly mounted on the inner outer wall of the support frame (511); a spring (537) is fixedly mounted on the left outer wall of the fixing plate (536); the left end of the spring (537) is fixedly connected to the right outer wall of the rotating layer (1); the auxiliary part (54) comprises a fixing sleeve (541) and a threaded rod (542); the fixing sleeve (541) is movably mounted on the rectangular protrusion (517), and the lower surface of the fixing sleeve (541) is parallel to the lower surface of the rectangular protrusion (517); the threaded rod (542) is fixedly mounted on the outer wall of the rectangular protrusion (517); the outer wall of the threaded rod (542) is movably mounted with a connecting plate (545);A clamping block (544) is fixedly mounted on the outer wall of the connecting plate (545) on one side facing the rectangular protrusion (517); a clamping groove (543) is provided on the outer wall of the side of the fixing sleeve (541); the clamping block (544) is clamped in the clamping groove (543); an inner threaded sleeve (546) is provided on the outer wall of the threaded rod (542); the inner threaded sleeve (546) is pressed on the side of the connecting plate (545); the stirring portion (55) comprises an inner gear (553); An internal gear (553) is fixedly mounted on the top inner wall of the hollow plate (513), the internal gear (553) is meshed with a gear (554), a rotating shaft (552) is fixedly mounted on the inner wall of the gear (554), the rotating shaft (552) passes through the inner wall of the flow groove (524) via a bearing, a stirring blade (551) is fixedly mounted on the outer wall of the rotating shaft (552), and the lower surface of the stirring blade (551) is parallel to the lower surface of the push plate (523).

2. A temperature-controlled gelatin processing equipment according to claim 1, characterized in that: A plurality of rectangular protrusions (517) are provided, and correspond one to one with the forming grooves (4); the outer diameter of the rectangular protrusion (517) is smaller than the inner diameter of the forming groove (4).

3. A temperature-controlled gelatin processing equipment according to claim 2, characterized in that: Two cams (533) are provided, and the angle between the two cams (533) is 90°.

4. A temperature-controlled gelatin processing equipment according to claim 3, characterized in that: The top of the L-shaped plate (534) is provided with an inclined groove (8), the bottom of the inclined groove (8) is provided with a limiting groove (9), and a T-shaped plug block (7) is fixedly mounted on the left outer wall of the hollow plate (513), the T-shaped plug block (7) is directly opposite to the inclined groove (8), the outer diameter of the T-shaped plug block (7) is smaller than the inner diameter of the inclined groove (8), and the outer diameter of the T-shaped plug block (7) is the same as the inner diameter of the limiting groove (9).

5. A temperature-controlled gelatin processing equipment according to claim 4, characterized in that: The lower surface dimensions of the fixing sleeve (541) are the same as the internal dimensions of the molding groove (4); a plurality of fixing sleeves (541) are provided, and correspond one to one with the rectangular protrusions (517).

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