Collagen peptide low-temperature enzymolysis equipment

Abstract

The utility model relates to the technical field of collagen peptide production, in particular to collagen peptide low-temperature enzymolysis equipment. Comprising a device body and a first communicating pipeline, the first communicating pipeline is installed above a sealing cover, an exhaust fan is installed below the first communicating pipeline, and the end, away from the exhaust fan, of the first communicating pipeline communicates with a cooling heat exchanger, a heating heat exchanger and a second communicating pipeline; a second water pump, a water inlet pipeline and a backflow pipeline are installed in the cooling water tank and the heating tank. A first water pump flushes the inner container with water in the cleaning water tank through a spraying nozzle, a driving motor drives a brush plate to rotate through a stirring rod to brush the inner wall of the inner container, an exhaust fan conveys gas in a cavity into a heating heat exchanger, the gas flows back into the cavity after being heated, and the inner container is heated; by the adoption of the mode, the cleaning and flushing efficiency can be effectively guaranteed.

Description

Technical Field

[0001] The utility model relates to the technical field of collagen peptide production, in particular to low-temperature enzymatic hydrolysis equipment for collagen peptide. Background Art

[0002] Collagen peptides are a type of product with a relative molecular mass of less than 10,000 Da that is produced from fresh animal tissues rich in collagen through extraction, hydrolysis, and refining. Low-temperature enzymatic hydrolysis is a step in the production process of collagen peptides, which decomposes the raw materials by enzyme catalysis. Existing collagen peptide low-temperature enzymatic hydrolysis equipment usually needs to be cleaned after use. The existing cleaning method is usually manual cleaning, but manual cleaning has blind spots and is not convenient for cleaning and flushing the enzymatic hydrolysis chamber, reducing the practicality of the device. Utility Model Content

[0003] In view of the above problems, the purpose of the utility model is to provide a collagen peptide low-temperature enzymatic hydrolysis device to solve the problem that the existing collagen peptide low-temperature enzymatic hydrolysis device usually needs to be cleaned after use. The existing cleaning method is usually manual cleaning, but manual cleaning has blind spots and is not convenient for cleaning and flushing the enzymatic hydrolysis chamber, which reduces the practicality of the device.

[0004] To achieve the above objectives, the technical solution adopted by the utility model is: a collagen peptide low-temperature enzymatic hydrolysis device, comprising a device body and a connecting pipe, a discharge port is installed at the bottom of the device body, and an inner tank is arranged inside the device body, a cavity is arranged in the middle part of the device body and the inner tank, a sealing cover is installed on the top of the device body, and a driving motor and a feeding port are installed on the top of the sealing cover, a stirring rod is connected to the bottom of the driving motor, and a brush plate is installed on the outside of the stirring rod, a cleaning water tank is arranged on the outside of the device body, and a water pump is installed on the top of the cleaning water tank, a spray plate is connected to the bottom of the water pump through a pipe, and a spray nozzle is circumferentially installed below the spray plate, the connecting pipe is installed above the sealing cover, and the connecting pipe is connected to the cavity, and the connecting pipe An exhaust fan is installed below one, and the end of the connecting pipe one away from the exhaust fan is connected to the cooling heat exchanger and the heating heat exchanger, and the other ends of the heating heat exchanger and the cooling heat exchanger are connected with a connecting pipe two, and solenoid valves are installed on the connecting pipe one and the connecting pipe two, the inner walls of the cooling heat exchanger and the heating heat exchanger are provided with insulation layers, and heat exchange pipes are installed inside the cooling heat exchanger and the heating heat exchanger, a cooling water tank and a heating box are arranged on the outside of the connecting pipe one, a semiconductor refrigeration sheet is installed on the outside of the cooling water tank, and heat dissipation fans are arranged at equal intervals on the outside of the semiconductor refrigeration sheet, an electric heating plate is arranged on the outside of the heating box, water pump two is installed inside the cooling water tank and the heating box, and a water inlet pipe is connected above the water pump two, and a return pipe is connected below the cooling water tank and the heating box.

[0005] The beneficial effects of the utility model are as follows: the water pump uses the water inside the cleaning water tank to flush the inner tank through the spray nozzle, the driving motor drives the brush plate to rotate through the stirring rod to brush the inner wall of the inner tank, the exhaust fan transports the gas inside the cavity to the inside of the heating heat exchanger, and after heating, it refluxes into the inside of the cavity to heat the inner tank, thereby accelerating the drying of the inner tank after cleaning. This method can effectively ensure the efficiency of cleaning and flushing.

[0006] To facilitate the installation of the spray plate:

[0007] As a further improvement of the above technical solution: the spray plate and the sealing cover are fixed by bolts, and the spray plate is arranged in a circular ring shape.

[0008] The beneficial effects of this improvement are: the connection between the spray plate and the sealing cover can be made more reliable and firm by the bolts, and the annular arrangement can enable the spray plate to cooperate with the spray nozzle to fully rinse the inside of the inner tank.

[0009] To control access:

[0010] As a further improvement of the above technical solution: the number of the solenoid valves is four, and the solenoid valves are distributed at both ends of the cooling heat exchanger and the heating heat exchanger.

[0011] The beneficial effect of this improvement is that the four solenoid valves can control the gas entering the cooling heat exchanger or the heating heat exchanger, thereby controlling the heating and cooling of the air, thereby facilitating the production of collagen peptides and the cleaning of subsequent devices.

[0012] In order to facilitate the connection between the connecting pipe 1 and the cavity:

[0013] As a further improvement of the above technical solution: the communicating pipe 1 and the sealing cover are plug-in connected.

[0014] The beneficial effect of this improvement is that the plug-in connection can make the connection between the connecting pipe 1 and the cavity more convenient and quick.

[0015] In order to facilitate the heat dissipation of semiconductor refrigeration chips:

[0016] As a further improvement of the above technical solution: the heat dissipation fans are distributed at equal intervals on the outside of the cooling water tank.

[0017] The beneficial effect of this improvement is that the heat dissipation fans distributed at equal intervals can comprehensively and quickly dissipate the heat from the hot end of the semiconductor refrigeration plate.

[0018] To facilitate water entry into the interior of the cooling or heating heat exchanger:

[0019] As a further improvement of the above technical solution: the top end of the water inlet pipe is connected to the cooling heat exchanger and the heating heat exchanger.

[0020] The beneficial effect of this improvement is that the water inlet pipe is connected with the cooling heat exchanger and the heating heat exchanger, which can facilitate the water pump 2 to transport water into the interior of the cooling water tank and the heating tank.

[0021] To facilitate water return:

[0022] As a further improvement of the above technical solution: one end of the return pipe away from the cooling water tank is connected to the cooling heat exchanger and the heating heat exchanger.

[0023] The beneficial effect of this improvement is that the water inside the cooling heat exchanger and the heating heat exchanger can be easily refluxed into the cooling water tank and the heating tank through the reflux pipe.

[0024] To increase heat transfer efficiency:

[0025] As a further improvement of the above technical solution: the heat exchange tubes are distributed at equal intervals inside the cooling heat exchanger and the heating heat exchanger, and both ends of the heat exchange tubes are connected to the connecting pipe one and the connecting pipe two.

[0026] The beneficial effect of this improvement is that the heat exchange tubes distributed at equal intervals can increase the contact area between air and the medium, thereby increasing the heat exchange efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 It is a schematic diagram of the overall main structure.

[0028] Figure 2 It is a schematic diagram of the overall left-view structure.

[0029] Figure 3 It is a schematic diagram of the overall structure from a top view.

[0030] Figure 4 It is a schematic diagram of the enlarged structure of the main view and section of the cooling heat exchanger and the heating heat exchanger.

[0031] Figure 5 It is a schematic diagram of the axonometric structure of the cooling heat exchanger and the heating heat exchanger.

[0032] In the figure: 1. device body; 11. discharge port; 12. liner; 13. cavity; 2. sealing cover; 21. drive motor; 22. stirring rod; 23. brush plate; 24. feeding port; 3. cleaning water tank; 31. water pump 1; 32. spray plate; 33. spray nozzle; 4. connecting pipe 1; 41. exhaust fan; 42. cooling heat exchanger; 43. heating heat exchanger; 44. connecting pipe 2; 45. solenoid valve; 46. insulation layer; 47. heat exchange tube; 5. cooling water tank; 51. semiconductor refrigeration plate; 52. cooling fan; 6. heating box; 61. electric heating plate; 7. water pump 2; 71. water inlet pipe; 72. return pipe. DETAILED DESCRIPTION

[0033] In order to enable those skilled in the art to better understand the technical solution of the utility model, the utility model is described in detail below in conjunction with the accompanying drawings. The description in this part is only exemplary and explanatory and should not have any limiting effect on the protection scope of the utility model.

[0034] like Figure 1-5As shown, a collagen peptide low-temperature enzymatic hydrolysis device includes a device body 1 and a connecting pipe 4, a discharge port 11 is installed at the bottom of the device body 1, and an inner tank 12 is arranged inside the device body 1, a cavity 13 is arranged between the device body 1 and the inner tank 12, a sealing cover 2 is installed on the top of the device body 1, and a driving motor 21 and a feeding port 24 are installed on the top of the sealing cover 2, a stirring rod 22 is connected below the driving motor 21, and a brush plate 23 is installed on the outside of the stirring rod 22, a cleaning water tank 3 is arranged on the outside of the device body 1, and a water pump 31 is installed on the top of the cleaning water tank 3, a spray plate 32 is connected to the bottom of the water pump 31 through a pipeline, and a spray plate 32 is installed circumferentially below the spray plate 32 There is a spray nozzle 33, the connecting pipe 14 is installed above the sealing cover 2, and the connecting pipe 14 is connected to the cavity 13, and an exhaust fan 41 is installed below the connecting pipe 14, and the end of the connecting pipe 14 away from the exhaust fan 41 is connected to the cooling heat exchanger 42 and the heating heat exchanger 43, and the other ends of the heating heat exchanger 43 and the cooling heat exchanger 42 are connected to the connecting pipe 2 44, and the connecting pipe 14 and the connecting pipe 2 44 are both installed with electromagnetic valves 45, the inner walls of the cooling heat exchanger 42 and the heating heat exchanger 43 are provided with a thermal insulation layer 46, and the cooling heat exchanger 42 and the heating heat exchanger 43 are internally provided with a heat exchange tube 47, and the outer side of the connecting pipe 14 is provided with a cooling water tank 5 and a heating box 6, and the cooling water tank 5 A semiconductor refrigeration sheet 51 is installed on the outside, and a heat dissipation fan 52 is arranged at equal intervals on the outside of the semiconductor refrigeration sheet 51. An electric heating plate 61 is arranged on the outside of the heating box 6. A water pump 27 is installed inside the cooling water tank 5 and the heating box 6, and a water inlet pipe 71 is connected above the water pump 27. A return pipe 72 is connected below the cooling water tank 5 and the heating box 6. The water pump 1 31 flushes the inner tank 12 with water inside the cleaning water tank 3 through the spray nozzle 33. The driving motor 21 drives the brush plate 23 to rotate through the stirring rod 22 to brush the inner wall of the inner tank 12. The exhaust fan 41 transports the gas inside the cavity 13 to the inside of the heating heat exchanger 43, and after heating, it refluxes into the inside of the cavity 13 to heat the inner tank 12, thereby accelerating The drying of the liner 12 after cleaning can effectively ensure the efficiency of cleaning and flushing. The spray plate 32 is fixed to the sealing cover 2 by bolts, and the spray plate 32 is set in a circular ring. The bolts can make the connection between the spray plate 32 and the sealing cover 2 more reliable and firm. The circular ring setting can make the spray plate 32 cooperate with the spray nozzle 33 to fully flush the inside of the liner 12. The number of the solenoid valves 45 is four, and the solenoid valves 45 are distributed at both ends of the cooling heat exchanger 42 and the heating heat exchanger 43. The four solenoid valves 45 can control the gas entering the cooling heat exchanger 42 or the heating heat exchanger 43, and then control the heating and cooling of the air, thereby facilitating the production of collagen peptides and the cleaning of subsequent devices.The connecting pipe 14 and the sealing cover 2 are connected by plug-in connection, which can make the connection between the connecting pipe 14 and the cavity 13 more convenient and faster. The heat dissipation fans 52 are evenly spaced and distributed on the outside of the cooling water tank 5. The evenly spaced heat dissipation fans 52 can quickly and comprehensively dissipate the heat at the hot end of the semiconductor refrigeration plate 51. The top of the water inlet pipe 71 is connected to the cooling heat exchanger 42 and the heating heat exchanger 43. The water inlet pipe 71 is connected to the cooling heat exchanger 42 and the heating heat exchanger 43, which can facilitate the water pump 27 to transport water into the cooling water tank 5 and the heating box 6. Inside, the end of the return pipe 72 away from the cooling water tank 5 is connected to the cooling heat exchanger 42 and the heating heat exchanger 43. The return pipe 72 can facilitate the water inside the cooling heat exchanger 42 and the heating heat exchanger 43 to return to the cooling water tank 5 and the heating box 6. The heat exchange tubes 47 are evenly spaced and distributed inside the cooling heat exchanger 42 and the heating heat exchanger 43, and the two ends of the heat exchange tubes 47 are connected to the connecting pipe 1 4 and the connecting pipe 2 44. The evenly spaced heat exchange tubes 47 can increase the contact area between the air and the medium, thereby increasing the heat exchange efficiency.

[0035] The working principle of the utility model is as follows: when using the device, the feed port 24 is opened to put the raw materials into the inner tank 12, the solenoid valves 45 at both ends of the heating heat exchanger 43 are closed, the heat dissipation fan 52 dissipates the heat from the hot end of the semiconductor refrigeration plate 51, and the cold end of the semiconductor refrigeration plate 51 cools the cooling water tank 5, and the water pump 27 transports cold water to the inside of the cooling heat exchanger 42 through the water inlet pipe 71. After the cold water cools the heat exchange tube 47, it flows back into the cooling water tank 5 through the reflux pipe 72. At this time, the exhaust fan 41 draws air through the connecting pipe 1 4 to enter the heat exchange tube 47 inside the cooling heat exchanger 42. After cooling, it flows back into the inner side of the cavity 13 through the connecting pipe 2 44 to form a cooling circulation loop. The driving motor 21 drives the stirring rod 22 to stir the raw materials. In this way, low-temperature enzymolysis of collagen peptides can be achieved. After the enzymolysis is completed, the water pump 1 31 transports the water inside the cleaning water tank 3 to the spray The inside of the shower tray 32 is then sprayed with water on the inside of the inner tank 12 through the spray nozzle 33 to rinse the inner tank 12. During the rinsing process, the driving motor 21 drives the brush plate 23 to rotate through the stirring rod 22 to scrub the inner wall of the inner tank 12. The waste water after scrubbing can be discharged through the discharge port 11, the solenoid valves 45 at both ends of the cooling heat exchanger 42 are closed, and the solenoid valves 45 at both ends of the heating heat exchanger 43 are opened. The electric heating plate 61 heats the water inside the heating box 6, and the water pump 27 transports the hot water in the heating box 6 to the inside of the heating heat exchanger 43 to heat the heat exchange tube 47. The exhaust fan 41 transports the gas inside the cavity 13 to the heat exchange tube 47 inside the heating heat exchanger 43 for heating. After heating, it flows back into the cavity 13 through the connecting pipe 2 44. In this way, the inner tank 12 can be heated, thereby accelerating the drying of the inner tank 12 after cleaning. In this way, the efficiency of cleaning and flushing can be effectively guaranteed.

[0036] It should be noted that, in this article, the terms "comprises", "includes" or any other variations thereof are intended to cover non-exclusive inclusion, so that a process, method, article or apparatus that includes a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or apparatus.

[0037] This article uses specific examples to illustrate the principles and implementation methods of the utility model. The above examples are only used to help understand the method and core ideas of the utility model. The above is only the preferred implementation method of the utility model. It should be pointed out that due to the limitations of textual expression, there are objectively infinite specific structures. For ordinary technicians in this technical field, without departing from the principle of the utility model, they can make several improvements, embellishments or changes, and can also combine the above technical features in an appropriate manner; these improvements, embellishments, changes or combinations, or the direct application of the concept and technical solution of the utility model to other occasions without improvement, should be regarded as the protection scope of the utility model.

Claims

1. A collagen peptide low-temperature enzymatic hydrolysis device, comprising a device body (1) and a connecting pipe (4), wherein a discharge port (11) is installed at the bottom of the device body (1), and an inner liner (12) is arranged inside the device body (1), a cavity (13) is arranged in the middle of the device body (1) and the inner liner (12), a sealing cover (2) is installed at the top of the device body (1), and a driving motor (21) and a feeding port (24) are installed at the top of the sealing cover (2), characterized in that: A stirring rod (22) is connected below the driving motor (21), and a brush plate (23) is installed on the outside of the stirring rod (22); a cleaning water tank (3) is arranged on the outside of the device body (1), and a water pump (31) is installed on the top of the cleaning water tank (3); a spray plate (32) is connected below the water pump (31) through a pipeline, and a spray nozzle (33) is installed circumferentially below the spray plate (32); the connecting pipe (4) is installed above the sealing cover (2), and the connecting pipe (4) is connected to the cavity (13); an exhaust fan (41) is installed below the connecting pipe (4); one end of the connecting pipe (4) away from the exhaust fan (41) is connected to the cooling heat exchanger (42) and the heating heat exchanger (43), and the other end of the heating heat exchanger (43) and the cooling heat exchanger (42) are connected by a connecting pipe (44); Solenoid valves (45) are installed on both the connecting pipe 1 (4) and the connecting pipe 2 (44); the inner walls of the cooling heat exchanger (42) and the heating heat exchanger (43) are provided with insulation layers (46); and heat exchange tubes (47) are installed inside the cooling heat exchanger (42) and the heating heat exchanger (43); a cooling water tank (5) and a heating box (6) are installed on the outside of the connecting pipe 1 (4); a semiconductor refrigeration plate (51) is installed on the outside of the cooling water tank (5); and heat dissipation fans (52) are evenly spaced outside the semiconductor refrigeration plate (51); an electric heating plate (61) is installed on the outside of the heating box (6); a water pump 2 (7) is installed inside the cooling water tank (5) and the heating box (6); and a water inlet pipe (71) is connected above the water pump 2 (7); and a return pipe (72) is connected below the cooling water tank (5) and the heating box (6).

2. A collagen peptide low-temperature enzymatic hydrolysis device according to claim 1, characterized in that: The spray plate (32) and the sealing cover (2) are fixed by bolts, and the spray plate (32) is arranged in a circular ring shape.

3. A collagen peptide low-temperature enzymatic hydrolysis device according to claim 1, characterized in that: The number of the solenoid valves (45) is four, and the solenoid valves (45) are distributed at both ends of the cooling heat exchanger (42) and the heating heat exchanger (43).

4. A collagen peptide low-temperature enzymatic hydrolysis device according to claim 1, characterized in that: The communicating pipe 1 (4) and the sealing cover (2) are plug-in connected.

5. The collagen peptide low-temperature enzymatic hydrolysis device according to claim 1, characterized in that: The heat dissipation fans (52) are distributed at equal intervals on the outside of the cooling water tank (5).

6. The collagen peptide low-temperature enzymatic hydrolysis device according to claim 1, characterized in that: The top end of the water inlet pipe (71) is connected to the cooling heat exchanger (42) and the heating heat exchanger (43).

7. The collagen peptide low-temperature enzymatic hydrolysis device according to claim 1, characterized in that: One end of the return pipe (72) away from the cooling water tank (5) is connected to the cooling heat exchanger (42) and the heating heat exchanger (43).

8. The collagen peptide low-temperature enzymatic hydrolysis device according to claim 1, characterized in that: The heat exchange tubes (47) are evenly spaced and distributed inside the cooling heat exchanger (42) and the heating heat exchanger (43), and both ends of the heat exchange tubes (47) are connected to the connecting pipe 1 (4) and the connecting pipe 2 (44).

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