Small dairy beverage production system
By designing a small-scale dairy beverage production system that integrates batching, sterilization, fermentation and filling units, the problem that large-scale production lines cannot meet the production needs of various dairy products is solved, and miniaturized, diversified dairy production and efficient automated production are achieved.
Patent Information
- Application Number
- CN202422755572.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-12
- Publication Date
- 2025-09-16
- Estimated Expiration
- 2034-11-12
AI Technical Summary
Existing dairy production systems are mostly large-scale production lines that cannot meet the needs of small-scale experiments and the production of various dairy products, and lack flexibility.
A small-scale dairy beverage production system was designed, including a batching unit, a sterilization unit, a fermentation unit and a filling unit, equipped with a fully automatic cleaning device. The system integrates batching tanks, UHT sterilizers, fermentation tanks and filling machines to achieve fully automatic production and cleaning.
It realizes miniaturized and diversified dairy production and meets the production needs of various types of beverages. The system has complete functions, high degree of automation, fast production efficiency and high product quality.
Smart Images

Figure CN223335497U_ABST
Abstract
Description
Technical Field
[0001] The utility model belongs to the field of dairy beverage production, and in particular relates to a small dairy beverage production system. Background Art
[0002] Milk beverages refer to products made from fresh milk or dairy products, either fermented or unfermented. Milk beverages are categorized into formulated milk beverages and fermented milk beverages.
[0003] Currently, most of the existing dairy production systems are large-scale production lines, and each production line can only produce one type of beverage; the market lacks small-scale experimental production systems that can meet the production needs of various dairy products. Utility Model Content
[0004] The purpose of the utility model is to provide a small-scale dairy beverage production system, which is miniaturized, experimental and capable of producing a variety of beverage types.
[0005] To achieve the above-mentioned purpose, the present invention provides the following technical solution: a small-scale dairy beverage production system, comprising a batching unit, a sterilization unit, a fermentation unit and a filling unit, the batching unit comprising several batching tanks, the sterilization unit comprising a UHT sterilizer, the fermentation unit comprising several fermentation tanks, the filling unit comprising a filling machine, the batching tank outputs ingredients which are connected in sequence to the UHT sterilizer, the fermentation tank and the filling machine through a pipeline, the UHT sterilizer outputs ingredients which are connected to the filling machine through a pipeline, and the fermentation tank outputs ingredients to the batching tank through a pipeline.
[0006] Furthermore, the batching tank is provided with an openable and closable batching tank cover, the batching tank is provided with a first RO water inlet, the tops of the batching tank and the fermentation tank are both provided with a scraping stirring device and a high shear stirring device, the outside of the batching tank is provided with a first jacket, and the outside of the fermentation tank is provided with a second jacket.
[0007] Furthermore, the UHT sterilizer includes a homogenizing device and a sterilizing device connected in sequence, the homogenizing device includes a balancing tank, the balancing tank is provided with a second RO water inlet, and the sterilizing device includes a plurality of heat exchange tubes connected by pipelines; the material output from the batching tank is output to the balancing tank, and the material output from the balancing tank is sterilized through multiple heat exchange tubes and then output.
[0008] Furthermore, it also includes a sterile air device, wherein the output of the sterile air device is connected to the fermentation tank.
[0009] Furthermore, it also includes a CIP cleaning unit, which includes a water tank, an acid tank and an alkali tank. The cleaning liquid output from the water tank, the acid tank and the alkali tank is respectively connected to the batching tank, the fermentation tank and the filling machine, and the CIP return water output from the batching tank, the fermentation tank and the filling machine is respectively connected to the water tank, the acid tank and the alkali tank.
[0010] Furthermore, it also includes a jacket hot water device, a jacket ice water device and an RO water device, the output of the RO water device is connected to the RO water inlet, and the jacket hot water device and the jacket ice water device are connected to the first jacket and the second jacket respectively.
[0011] Furthermore, the batching tank and the fermentation tank are both provided with temperature sensors and high and low liquid level sensors.
[0012] Beneficial effects
[0013] The utility model provides a small-scale dairy beverage production system, which has the following beneficial effects:
[0014] (1) The miniaturized dairy production system provided by the present invention can produce various types of products such as dairy products, yogurt, dairy beverages, etc. according to demand. The production system has diverse functions and can meet diverse needs.
[0015] (2) The utility model provides a laboratory dairy production system, which has a small size, complete functions, fully automatic production, high product quality and high production efficiency.
[0016] (3) The utility model is also equipped with a fully automatic cleaning device, which realizes fully automatic cleaning of the entire system through the connection of pipelines, without the need for manual cleaning, which is convenient, efficient and efficient. BRIEF DESCRIPTION OF THE DRAWINGS
[0017] Figure 1 This is the overall structural diagram of the small-scale dairy beverage production system of the utility model;
[0018] Figure 2 for Figure 1 Structure diagram of the batching unit;
[0019] Figure 3 for Figure 1 Structure diagram of sterilization unit;
[0020] Figure 4 for Figure 1 Structural diagram of the fermentation unit and sterile air device;
[0021] Figure 5 This is the structural diagram of the CIP cleaning unit of the utility model;
[0022] Figure 6 This is the structural diagram of the RO water device of this utility model;
[0023] Figure 7 This is the structural diagram of the jacketed hot water device of the utility model;
[0024] Figure 8 This is the structural diagram of the jacketed ice water device of the utility model;
[0025] In the figure: 1. Batching unit; 2. Sterilization unit; 3. Fermentation unit; 4. Filling unit; 5. CIP cleaning unit; 6. Sterile air device; 7. RO water device; 8. Jacketed hot water device; 9. Jacketed ice water device; 10. Scraping stirring device; 11. High shear stirring device; 12. Jacket; 13. Temperature sensor; 14. High and low liquid level sensors; 15. RO water inlet; 101. Batching tank; 102. Batching tank cover; 103. Pneumatic butterfly valve; 104. Pneumatic angle seat valve; 105. Centrifugal pump; 201. Homogenizer; 202. Sterilizer; 203. Flat Weighing tank; 204, heat exchange tube; 301, fermentation tank; 302, sterile air port; 401, filling machine; 501, water tank; 502, acid tank; 503, alkali tank; 504, cleaning fluid; 505, CIP return water; 701, water storage tank; 702, water treatment device; 703, first tap water inlet; 704, RO water outlet; 801, jacketed hot water tank; 802, electric heating rod; 803, hot water outlet; 804, hot water return port; 901, second tap water inlet; 902, chiller / chilled water unit; 903, chilled water outlet; 904, chilled water return port. DETAILED DESCRIPTION
[0026] The technical solutions in the embodiments of the present invention will be described clearly and completely below with reference to the accompanying drawings in the embodiments of the present invention.
[0027] The utility model provides a small-scale dairy beverage production system, such as Figure 1 As shown, it includes a batching unit 1, a sterilization unit 2, a fermentation unit 3 and a filling unit 4. The batching unit 1 includes several batching tanks 101, the sterilization unit 2 includes a UHT sterilizer, the fermentation unit 3 includes several fermentation tanks 301, and the filling unit 4 includes a filling machine 401; the batching tank 101 outputs ingredients that are connected to the UHT sterilizer, the fermentation tank 301 and the filling machine 401 in sequence through pipelines, the UHT sterilizer outputs ingredients that are connected to the filling machine 401 through pipelines, and the fermentation tank 301 outputs ingredients to the batching tank 101 through pipelines.
[0028] like Figure 2As shown, the batching tank 101 is equipped with an openable and closable top cover 102, an RO water inlet 15, a wall scraping and stirring device 10 and a high-shear stirring device 11 on the top, and a jacket 12 on the outside of the batching tank 101. The batching tank 101 is also equipped with a temperature sensor 13 and a high and low liquid level sensor 14. The batching unit 1 is equipped with multiple pneumatic butterfly valves 103, pneumatic angle seat valves 104, and a centrifugal pump 105 to control the flow of materials in the pipeline.
[0029] Batching unit 1 is used to mix ingredients for the product. It mixes raw materials such as milk, milk powder, water, and sugar evenly according to the formula ratio and heats the mixed product. Batching unit 1 is equipped with two 60L batching tanks 101. Each batching tank 101 has a top scraping and high-shear stirring function, which can dissolve sugar, colloids, and starch. The tank body is equipped with a jacket 12, which can pass hot or cold media to heat or cool the material; the batching tank 101 is equipped with a temperature sensor 13 to monitor the tank body temperature, which can realize automatic temperature adjustment of the material. The tank body is equipped with a high and low liquid level sensor 14 to automatically control the liquid level in the tank body. Batching unit 1 is equipped with a discharge pump to transport the material to the next sterilization process.
[0030] like Figure 3 As shown, the UHT sterilizer includes a homogenizer 201 and a sterilizer 202, connected in sequence. Homogenizer 201 includes a balancing tank 203 equipped with an RO water inlet 15. Sterilizer 202 includes several heat exchange tubes 204 connected by pipes. The batching tank 101 outputs material to balancing tank 203, where it is sterilized through the multiple heat exchange tubes 204 before being output. Sterilizer unit 2 includes a 50kW electrically heated steam generator, equipped with appropriate steam control and safety valves, capable of providing 80kg / h of steam to the system.
[0031] Sterilization Unit 2 homogenizes and sterilizes the prepared materials. The sterilization mode is selected based on the sterilization temperature and time of each product, and the sterilized product is cooled to the corresponding process temperature. Sterilization Unit 2 is equipped with a homogenizer and sterilizer, with a homogenization pressure of 25 MPa, two-stage homogenization, and a homogenizer flow rate of 100 L / H. Frequency conversion can adjust the flow rate, and a corresponding safety valve is provided for pressure relief. The sterilizer uses a 100 L / H UIT ultra-high temperature tubular sterilizer. The sterilization temperature and time combinations must meet at least the following: 95°C for 5 seconds per group; 95°C for 300 seconds per group; 120°C for 30 seconds per group; and 140°C for 3 seconds per group. After sterilization, the product can be cooled to 4°C-42°C through heat exchange tubes 204 to meet the operating conditions of different products. UHT-sterilized products can be directly sent to filler 401 for aseptic filling or fermented in fermentation tanks for yogurt or lactic acid bacteria products.
[0032] like Figure 4As shown, the fermentation unit 3 includes several fermentation tanks 301. The tops of the fermentation tanks 301 are provided with scraping stirring devices 10 and high shear stirring devices 11. The fermentation tanks 301 are provided with jackets 12. A sterile air device 6 is also included, and the output of the sterile air device 6 is connected to the sterile air port 302 on the fermentation tanks 301. The fermentation tanks 301 are provided with temperature sensors 13 and high and low liquid level sensors 14.
[0033] The sterilized yogurt base is pumped to the fermentation tank 301 for fermentation. Bacteria are added online to ensure that the product is not contaminated by miscellaneous bacteria. The effective volume of the fermentation tank 301 is 60L, made of 304 stainless steel, and is an insulated jacketed tank. The jacket 12 can be filled with insulating water for insulation, or ice water for cooling the yogurt. Each fermentation tank 301 is equipped with a top scraper for stirring, sterile positive pressure air protection, and an automatic breathing valve. The tank body is equipped with high and low liquid level sensors 14, temperature sensors 13, and static pressure sensors to control the parameters of the fermentation process. The fermented yogurt can be cooled to below 20°C in the tank body for storage, or sent to the filling machine 401 for filling, or transported to the batching tank 101 for secondary batching to produce lactic acid bacteria beverage products.
[0034] The filling unit 4 includes a sterile operating table and a filling machine 401 arranged on the sterile operating table; the filling unit 4 ensures aseptic filling of the product under sterile positive pressure; it is equipped with a semi-automatic filling machine 401, which can manually fill the product according to different filling forms.
[0035] like Figure 5 As shown, a CIP cleaning unit 5 is also included. The CIP cleaning unit 5 includes a water tank 501, an acid tank 502 and an alkali tank 503. The cleaning liquid 504 output from the water tank 501, the acid tank 502 and the alkali tank 503 is connected to the batching tank 101, the fermentation tank 301 and the filling machine 401 respectively. The CIP return water 505 output from the batching tank 101, the fermentation tank 301 and the filling machine 401 is connected to the water tank 501, the acid tank 502 and the alkali tank 503 respectively.
[0036] CIP cleaning unit 5 serves as the main CIP cleaning station for the entire experimental production line, distributing cleaning fluid to each device for CIP cleaning. The entire system achieves fully automated cleaning capabilities. The cleaning unit is fully automatic, requiring no manual operation. The cleaning process includes automatic preparation of acid and alkali solutions, tank water replenishment, material heating and control, switching between different cleaning targets, and cleaning sequence.
[0037] This utility model is equipped with pumps, valves, and piping. The system configuration includes appropriate pumps and valves, and the piping design complies with dairy hygiene standards and fluid mechanics principles. Pipeline installation and welding must comply with food and drug hygiene standards. Pumps and valves are selected from leading domestic brands, while key instruments are imported.
[0038] like Figure 6-8 As shown, the present invention further includes an RO water device 7 , a jacketed hot water device 8 and a jacketed ice water device 9 . The output of the RO water device 7 is connected to the RO water inlet 15 , and the jacketed hot water device 8 or the jacketed ice water device 9 is connected to the jacket 12 .
[0039] like Figure 6 As shown, the RO water system 7 includes a water storage tank 701. Tap water is fed into the water storage tank 701 from a first tap water inlet 703 through a water treatment unit 702. A valve and pump are connected to the bottom of the water storage tank 701, where water is delivered through an RO water outlet 704 to various water supply points. The RO water output rate is 100 L / H and includes various filtration and osmosis devices. The resulting RO water is stored in a 500 L single-layer stainless steel water storage tank 701 and then pumped to various water supply points.
[0040] like Figure 7 As shown, the jacketed hot water device 8 includes a jacketed hot water tank 801, an electric heating rod 802 is provided in the tank body, an RO water inlet 15 is provided at the upper end of the jacketed hot water tank 801, and hot water is output to the jacket from the hot water output port 803 at the lower part of the tank body through various valves and pump bodies, and the return water inside the jacket returns to the jacketed hot water tank 801 through the hot water return port 804.
[0041] like Figure 7 As shown, the jacketed water heater 8 is a closed-loop system that provides hot water at varying temperatures, which is passed into the batching tank 101 or the fermentation tank jacket. When fermenting yogurt, the water temperature is maintained at 42°C; when producing browning yogurt, the water temperature is maintained at 95°C. The hot water temperature can be adjusted to suit different products, and the temperature is displayed on the central control screen.
[0042] like Figure 8 As shown, the jacketed chilled water unit 9 includes a chiller / chilled water unit 902. Chilled water or iced water is provided with a second tap water inlet 901. Water flowing through the chiller / chilled water unit 902 is output into the jacket through an iced water outlet 903. Return water from the jacket is returned to the chiller / chilled water unit 902 through an iced water return port 904. Jacketed chilled water unit 9 is used to heat products in the downstream section of the UHT sterilizer. It also provides iced water for cooling the fermented yogurt in the fermentation tank 301.
[0043] The operating process of this utility model:
[0044] 1. Ingredients
[0045] 1. Add RO water: Click the production button to automatically open the pneumatic butterfly valve 103, and add a set amount of 25L of water into the tank.
[0046] 2. Heating: After the water is added, the pneumatic angle seat valve 104 is automatically opened to raise the water temperature to 50°C, and the temperature inside the tank is kept constant between 45°C and 50°C. At the same time, the wall scraping and stirring are automatically turned on.
[0047] 3. Powder feeding: Click on the touch screen to feed, shearing and stirring will start automatically, and the powder will be manually fed into the batching tank 101. Click the feeding completion button manually, and shearing and stirring will start. After 15 minutes of the set feeding time, the countdown will complete and prompts manual feeding of the thickener and white sugar mixture. After 5 minutes of the set feeding time, shearing and stirring will be turned off, and the screen will display ready for discharge.
[0048] 4. Completion: After the batching tank 101 completes the batching, the batching tank 101 starts to batch the batching.
[0049] 2. UHT sterilization
[0050] 1. Water circulation: Automatically open the pneumatic butterfly valve 103 to add circulating water to the balance tank 203. When the liquid level reaches the high level, water replenishment stops automatically. When the liquid level drops below the low level, water replenishment continues automatically. Automatically open the pneumatic butterfly valve 103 of the screw pump reversing valve to start self-circulation for X seconds.
[0051] 2. Heating: After the water circulation is completed, the system automatically heats up to 95℃ and sterilizes in a 20min cycle.
[0052] 3. Water substitute material circulation: The system starts to cool down, using water instead of material to regulate the temperature of each target section.
[0053] 4. Feeding and Production: Click the "Production" button on the screen to automatically open the pneumatic butterfly valve 103 at the bottom of the prepared batching tank 101 and the centrifugal pump 105 to begin feeding the UHT. When the liquid level in batching tank 101 falls below the low level, the scraping and stirring are automatically shut off. Water is then fed to the material, automatically closing the pneumatic butterfly valve 103 and then opening it to drain the water. After the set time X is reached, the pneumatic butterfly valve 103 is automatically opened and closed, and sterilization begins at 95°C for 300 seconds. When the temperature sensor 13 reaches 95°C, the touch screen prompts you to open the manual ball valve to begin cooling. When the temperature sensor 13 reaches both 95°C and 43°C, the reversing valve opens to begin discharging the material, with a discharge temperature of 37°C to 43°C.
[0054] 3. Fermentation
[0055] 1. Adding strains: Add strains after entering the production step, and add strains manually.
[0056] 2. Feeding: Automatically open the pneumatic butterfly valve 103 on the top of the fermentation tank 301 to start feeding, and start scraping and stirring when the liquid level reaches the low level. When the liquid level reaches the high level, close the pneumatic butterfly valve 103 and open the pneumatic butterfly valve 103 on the top of the fermentation tank 301 to start feeding.
[0057] 3. Heating: When there is liquid level in the tank, the jacket 12 hot water automatic butterfly valve is automatically opened, and the temperature in the tank is kept constant at 45℃ for 5 hours, and the stirring is turned off.
[0058] 4. Cooling: After the temperature reaches 45℃ for 5 hours, the hot water pneumatic butterfly valve 103 of jacket 12 is automatically closed, and the ice water pneumatic butterfly valve 103 of jacket 12 is opened. At the same time, the scraper is turned on to stir and demulsify for 15 minutes to cool the material to 4℃.
[0059] 5. Discharging: Automatically open the pneumatic butterfly valve 103 to discharge the screw pump to feed the manual filling machine 401.
[0060] 4. CIP procedure: The CIP procedure is divided into liquid preparation procedure and cleaning procedure.
[0061] ① Liquid Preparation: Before CIP cleaning, you must prepare the acid, alkali, or water needed for cleaning. Enter the liquid preparation parameters in advance and click "Select the desired liquid type and start." The system will automatically prepare the liquid. When the set concentration and temperature are reached, the system will determine that the liquid preparation is complete and automatically end the process.
[0062] ②Cleaning procedure: Before performing CIP cleaning, you must first ensure that the material in the cleaning target has been emptied and the conversion board of the cleaning pipeline has been correctly connected. Set the "cleaning target" and "cleaning recipe". The parameters have been set according to the on-site conditions. Do not change them at will unless necessary. When the target is correctly selected, the system will automatically read the cleaning parameters of the corresponding target. After clicking the "Start" button, the system will automatically clean the target. After the cleaning is completed, the system will automatically stop. After the cleaning is completed, the system will detect the conductivity and temperature of the cleaning liquid 504 returning to the cleaning station. If both meet the set requirements, the system will operate normally. If the temperature is not enough, the system will temporarily stop the timer and start the heater to heat the circulating cleaning liquid 504. If the conductivity is not enough, the system will temporarily stop the timer.
[0063] Although the embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and variations may be made to these embodiments without departing from the principles and spirit of the present invention, and the scope of the present invention is defined by the appended claims and their equivalents.
Claims
1. A small-scale dairy beverage production system, characterized by: It includes a batching unit, a sterilization unit, a fermentation unit and a filling unit. The batching unit includes several batching tanks, the sterilization unit includes a UHT sterilizer, the fermentation unit includes several fermentation tanks, and the filling unit includes a filling machine. The ingredients output by the batching tank are connected to the UHT sterilizer, the fermentation tank and the filling machine in sequence through pipelines. The ingredients output by the UHT sterilizer are connected to the filling machine through pipelines. The fermentation tank outputs the ingredients to the batching tank through pipelines.
2. The small-scale dairy beverage production system according to claim 1, characterized in that: The batching tank is provided with an openable and closable batching tank cover, the batching tank is provided with a first RO water inlet, the tops of the batching tank and the fermentation tank are both provided with a scraping stirring device and a high shear stirring device, the outside of the batching tank is provided with a first jacket, and the outside of the fermentation tank is provided with a second jacket.
3. The small-scale dairy beverage production system according to claim 1, characterized in that: The UHT sterilizer includes a homogenizing device and a sterilizing device connected in sequence. The homogenizing device includes a balancing tank, which is provided with a second RO water inlet. The sterilizing device includes a plurality of heat exchange tubes connected by pipelines. The material output from the batching tank is sent to the balancing tank, and the material output from the balancing tank is sterilized through multiple heat exchange tubes before being output.
4. The small-scale dairy beverage production system according to claim 2, characterized in that: A sterile air device is also included, wherein the output of the sterile air device is connected to the fermenter.
5. The small-scale dairy beverage production system according to claim 1, characterized in that: It also includes a CIP cleaning unit, which includes a water tank, an acid tank and an alkali tank. The cleaning liquids output from the water tank, the acid tank and the alkali tank are respectively connected to the batching tank, the fermentation tank and the filling machine, and the CIP return water output from the batching tank, the fermentation tank and the filling machine is respectively connected to the water tank, the acid tank and the alkali tank.
6. The small-scale dairy beverage production system according to claim 1, characterized in that: It also includes a jacketed hot water device, a jacketed ice water device and an RO water device. The output of the RO water device is connected to the RO water inlet. The jacketed hot water device and the jacketed ice water device are connected to the first jacket and the second jacket respectively.
7. The small-scale dairy beverage production system according to claim 1, characterized in that: The batching tank and the fermentation tank are both provided with temperature sensors and high and low liquid level sensors.