Food fermentation device with weighing module

Abstract

The utility model discloses a food fermentation device with weighing module, including host casing and fermentation container, its characterized in that, the support seat is connected in the host casing, and the fermentation container setting chamber is arranged on the support seat, and the fermentation container is placed on the fermentation container setting chamber, still include the weighing module, and the weighing module includes the weighing sensor, the weighing support and the weighing bracket, and the bottom of weighing bracket passes through the bottom of host casing downward, and there is the gap between the weighing bracket and the inner bottom surface of host casing, and the lower end of weighing sensor is connected on the weighing bracket, and the both ends of weighing support are connected with the upper end of weighing sensor and support seat respectively, and the display control module is still arranged on the host casing, and the weighing sensor and display control module are electrically connected, this food fermentation device with weighing module, adds the weighing module, and the food material, water and condiment weight that the user controls to add in the fermentation container are convenient, and the overall charging operation is more simple.

Description

Technical Field

[0001] This utility model relates to the field of food fermentation technology, and in particular to a food fermentation device with a weighing module. Background Technology

[0002] Fermentation is an indispensable part of the production process of many foods. It not only affects the taste, aroma and quality of food, but also relates to the nutritional components and safety of food. Fermentation equipment and production methods used in food production usually involve the control and optimization of the fermentation process to ensure the good growth of microorganisms and product quality during the production process. It is quite common in food fermentation processing.

[0003] However, existing food fermentation equipment requires weighing each part of the ingredients first, then calculating the weight of the seasonings based on the weight of the ingredients, and then placing them all into the fermentation tank. The whole process is quite cumbersome and time-consuming. At the same time, temperature has a crucial impact on the fermentation process, so the fermentation equipment needs real-time temperature feedback and precise temperature control. Furthermore, the storage of fermented food is also very important. Utility Model Content

[0004] The purpose of this invention is to solve or alleviate the shortcomings of the existing technology and to provide a food fermentation device that adds a weighing module to facilitate the control of the weight of added food and seasonings, and to facilitate the user's related ingredient addition operations.

[0005] The purpose of this utility model is achieved as follows: A food fermentation device with a weighing module includes a main housing and a fermentation container. The main housing has a support base connected inside, and the support base has a fermentation container placement cavity on which the fermentation container is placed. The device also includes a weighing module located within the main housing. The weighing module includes a weighing sensor, a weighing bracket, and a weighing support. The bottom of the weighing support extends downwards through the bottom of the main housing, and a gap exists between the weighing support and the inner bottom surface of the main housing. The lower end of the weighing sensor is connected to the weighing support, and both ends of the weighing bracket are connected to the upper end of the weighing sensor and the support base, respectively. The main housing also has a display control module, and the weighing sensor is electrically connected to the display control module.

[0006] This food fermentation device with a weighing module allows users to control the weight changes of the support base and its components. These changes are transmitted through the weighing bracket to the weighing sensor and ultimately displayed on the control device. This facilitates user control over the weight of ingredients and water added to the fermentation container. The control device also automatically calculates the required salt amount, making it easy for users to add the necessary salt. This overall process of adding ingredients to the food fermentation device is simple and convenient.

[0007] The objective of this utility model can also be achieved by the following technical measures: Specifically, it further includes a metal inner liner, a support base with a support cavity on which the metal inner liner is placed, and a through-hole on the main housing corresponding to the inner cavity of the metal inner liner. The fermentation container passes through the through-hole from top to bottom and is placed on the inner cavity of the metal inner liner. The inner cavity of the metal inner liner constitutes the fermentation container placement cavity. The support base can support the metal inner liner well, which is conducive to the stable placement of the metal inner liner in the main housing. At the same time, the metal inner liner can also support the fermentation container well, so that the weight change on the fermentation container is transmitted to the weighing sensor in sequence through the metal inner liner and the support base, which is also conducive to the stable fermentation operation of the fermentation container.

[0008] Furthermore, the bottom of the support base is also connected to a support frame, and several connecting arms extend outward from the outer periphery of the weighing bracket. The lower part of the support frame is fixed on the connecting arms. The support base achieves a stable connection with the weighing bracket through the support frame, so that the weight change on the support base can be transmitted to the weighing bracket and the weighing sensor.

[0009] Specifically, the lower end of the support frame extends downward with a lower support leg, which is fixed to the connecting arm. The upper end of the support frame extends upward with an upper support leg, which is connected to the lower part of the support base. This ensures that the support frame is stably connected between the support base and the weighing bracket.

[0010] Specifically, the main housing includes a base, a hollow housing, and a top cover. The base is connected to the lower opening of the hollow housing, and the top cover is connected to the upper opening of the hollow housing. The upper end of the support base is connected to the bottom of the top cover, and the lower end of the support base is connected to the base. The bottom of the weighing bracket passes downward through the base. Both the base and the top cover of the main housing are connected to the support base, and the hollow housing is well clamped between the base and the top cover, achieving a stable connection between the support base and the main housing. That is, the weight of the main housing, together with the weight of the support base, is applied to the weighing sensor through the weighing bracket.

[0011] Specifically, the lower part of the support base is provided with a first connecting leg, and the base is provided with a fixing post corresponding to the position of the first connecting leg. The first connecting leg is fixed on the fixing post, and the upper outer periphery of the support base is provided with a fixing arm, which is connected to the bottom of the upper cover. The lower part of the support base is fixedly connected to the base through the first connecting leg, and the upper part of the support base is connected to the upper cover through the fixing arm. It is relatively simple to operate and the connection is firm.

[0012] Furthermore, the bottom of the weighing bracket extends downward with several support legs, the bottom of which passes through the base, so that the bottom of the support legs can rest on the ground or tabletop.

[0013] Specifically, it further includes a cooling component, a heat dissipation component, and a cooling fan. The bottom of the support base has a clearance through hole. The cooling component is attached to the outer bottom wall of the metal inner liner and is located within the clearance through hole. The support frame has a mounting platform with a through hole at the bottom. The cooling fan and the heat dissipation component are sequentially mounted on the mounting platform, with the upper and lower surfaces of the heat dissipation component abutting against the cooling component and the cooling fan, respectively. Through the cooperation of the support base and the support frame connected to its bottom, the cooling fan, the heat dissipation component, and the cooling component are mutually abutting and cooperating. At the same time, the cooling fan can promptly dissipate the heat generated by the cooling component through the through hole at the bottom of the mounting platform.

[0014] Specifically, it further includes a ventilation duct, one end of which is connected to the lower part of the support frame. The bottom of the through hole extends outward into a limiting groove, one end of which extends into the limiting groove. An air outlet is opened on the inner wall of the main unit housing, and the other end of the ventilation duct extends to a position close to the air outlet. This allows the hot air discharged by the cooling fan to flow through the ventilation duct to the air outlet and finally be discharged outside the main unit housing, thus preventing the hot air from affecting the stable operation of other components inside the main unit housing.

[0015] Specifically, the bottom of the main unit housing has an air outlet, and a limiting wall extends upward from the bottom of the main unit housing outside the air outlet. The other end of the ventilation pipe extends into the limiting wall, and the side wall of the main unit housing has an air inlet. The air inlet facilitates the entry of external air into the main unit housing, which absorbs the heat from the cooling components and becomes hot air, which is then discharged through the cooling fan. Furthermore, the cooperation between the limiting wall and the other end of the ventilation pipe allows the hot air discharged through the ventilation pipe to be discharged outside the main unit housing through the air outlet.

[0016] The beneficial effects of this utility model are as follows: (1) This food fermentation device with a weighing module, by adding a weighing module, the weight change of the support base and its components is applied to the weighing sensor through the weighing bracket, and finally displayed through the display control device; it is convenient for users to control the weight of the ingredients and water added to the fermentation container. At the same time, the display control device can automatically calculate the required amount of salt, which is convenient for users to add the required amount of salt to the fermentation container, making the overall feeding operation of the food fermentation device simple and convenient.

[0017] (2) The support base can support the metal inner liner well, which is conducive to the stable setting of the metal inner liner in the main body shell. At the same time, the metal inner liner can also support the fermentation container well, so that the weight change on the fermentation container is transmitted to the weighing sensor through the metal inner liner and the support base in turn, which is also conducive to the stable fermentation of the fermentation container.

[0018] (3) The base and top cover of the main unit housing are both connected to the support base, while the hollow housing is well clamped between the base and the top cover, realizing a stable connection between the support base and the main unit housing, that is, the weight of the main unit housing together with the weight of the support base is applied to the weighing sensor through the weighing bracket. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the food fermentation device of this utility model.

[0020] Figure 2 This is a breakdown diagram of the food fermentation device of this utility model.

[0021] Figure 3 This is a cross-sectional view of the food fermentation device of this utility model.

[0022] Figure 4 for Figure 3 Enlarged view of point A.

[0023] Figure 5 This is a schematic diagram of the weighing module of this utility model.

[0024] Figure 6 This is another cross-sectional view of the food fermentation device of this utility model.

[0025] Figure 7 This is a partial disassembled view of the food fermentation device of this utility model.

[0026] Figure 8 for Figure 7 Another perspective diagram.

[0027] Figure 9 This is a schematic diagram of the storage container of this utility model.

[0028] Figure 10 This is a schematic diagram of the storage tank lid of this utility model.

[0029] Figure 11 This is a cross-sectional view of the storage container of this utility model.

[0030] Figure 12 for Figure 11 Enlarged view of point B.

[0031] The reference numerals corresponding to the various technical features in this application are shown below: 1. Main unit housing; 2. Fermentation container; 3. Weighing module; 4. Temperature control module; 5. Display control module; 6. Metal inner liner; 7. Protective cover; 8. Storage container; 9. Vacuum connector assembly; 11. Fermentation container placement cavity; 12. Support base; 13. Through port; 14. Fixing column; 15. Base; 16. Hollow shell; 17. Top cover; 18. First electrical connector; 19. Boss; 20. Vacuum pump; 21. Fermentation tank body; 22. Fermentation tank cover; 30. Vacuum plug; 31. Weighing sensor; 32. Weighing bracket; 33. Weighing support; 40. Second electrical connector; 41. Heating element; 42. Cooling element; 43. Foaming agent; 44. Heat dissipation element; 45. Cooling fan; 46. Ventilation pipe; 50. Receiving recess; 51. Control circuit board; 52. Display screen; 53. Circuit board bracket; 60. Fixing base; 61. Outer flange; 70. Sealing ring; 80. Support frame; 9. Storage tank Body 81; Storage tank lid 82; Connecting cover 91; Lower connecting cover 92; Ventilation gap 100; Support cavity 121; Support wall 122; First connecting leg 123; Fixing arm 124; Third connecting leg 125; Clearance hole 126; Second connecting leg 127; Limiting wall 151; Air outlet 200; Temperature measuring element 221; First electrical plug 222; Air inlet 300; Connecting arm 32 1; Support foot 331; Silicone pad 332; Gap 400; Shock-absorbing rubber 601; Mounting platform 801; Through hole 802; Limiting groove 803; Lower support foot 804; Upper support foot 805; Connecting cavity 821; Vent hole 822; Limiting wall 823; Hollow opening 824; Temperature sensor 825; Second electrical plug 826; Air pipe through hole 911; Hollow connecting column 921; Connecting screw hole 1231. Detailed Implementation

[0032] The present patent will be further described below with reference to the accompanying drawings and embodiments: The accompanying drawings are for illustrative purposes only and are schematic diagrams, not actual pictures, and should not be construed as limiting the present patent; In order to better illustrate the embodiments of the present patent, some parts in the drawings may be omitted, enlarged or reduced, and do not represent the actual product size; It is understandable to those skilled in the art that some well-known structures and their descriptions may be omitted in the drawings.

[0033] The terms "first," "second," etc., used in this patent do not indicate any order, quantity, or importance, but are merely for distinction. The terms "one," "a kind," etc., used in this patent do not indicate a limitation on quantity, but rather indicate the presence of at least one of the mentioned objects. The terms indicating direction or location used in this patent, such as "top," "bottom," "side," "longitudinal," "lateral," "middle," "center," "outer," "inner," "horizontal," "vertical," "left," "right," "above," "below," etc., reflect relative positions, not absolute positions; those skilled in the art can understand the specific meaning of these terms according to the specific circumstances.

[0034] Implementation examples, in conjunction with Figures 1 to 12As shown, a food fermentation device includes a main housing 1 and a fermentation container 2. The fermentation container 2 includes a fermentation tank body 21 and a fermentation tank cover 22 that covers the upper opening of the fermentation tank body 21. The main housing 1 is provided with a fermentation container placement cavity 11, and the fermentation tank body 21 is placed on the fermentation container placement cavity 11. It also includes a weighing module 3 and a temperature control module 4. A display control module 5 is provided on the main housing 1. The weighing module 3 is placed inside the main housing 1 and its bottom extends downward through the bottom of the main housing 1. The weighing module 3 is located below the fermentation container 2 and is used to weigh the food fermentation device. The temperature control module 4 is fixed to the outer wall of the fermentation container placement cavity 11 to realize the heating or cooling of the fermentation container placement cavity 11. A temperature measuring element 221 is provided on the fermentation tank lid 22 and one end of the temperature measuring element 221 extends into the fermentation tank body 21. The display control module 5 is electrically connected to the weighing module 3, the temperature control module 4 and the temperature measuring element 221 respectively.

[0035] As a specific solution, it also includes a metal inner liner 6. A support base 12 is connected inside the main housing 1. A support cavity 121 is provided on the support base 12 and the metal inner liner 6 is placed on the support cavity 121. A through-hole 13 is opened on the main housing 1 corresponding to the inner cavity of the metal inner liner 6. The inner cavity of the metal inner liner 6 constitutes the fermentation container placement cavity 11. The fermentation tank 21 passes through the through-hole 13 from top to bottom and is placed on the inner cavity of the metal inner liner 6.

[0036] In this embodiment, the upper part of the support base 12 extends upward with a support wall 122, and the support cavity 121 is formed inside the support wall 122. The support base 12 is connected to the inner wall of the main unit housing 1.

[0037] In this embodiment, the upper part of the metal inner liner 6 is folded outward to form an outer flange 61, which is placed on the upper end of the supporting wall 122. The lower part of the supporting base 12 is provided with a first connecting leg 123, and the inner bottom of the main body housing 1 is provided with a fixing post 14 corresponding to the position of the first connecting leg 123. The first connecting leg 123 is fixed on the fixing post 14.

[0038] More specifically, the fixing column 14 is a hollow column, and the first connecting leg 123 is provided with a connecting screw hole 1231. A connecting screw passes through the hollow column from bottom to top and connects to the connecting screw hole 1231. The connecting screw is not shown.

[0039] In this embodiment, the main housing 1 includes a base 15, a hollow housing 16, and a top cover 17. The base 15 is connected to the lower opening of the hollow housing 16, and the fixing post 14 is provided on the base 15. The top cover 17 is connected to the upper opening of the hollow housing 16, and the top cover 17 has the through opening 13. The upper end of the support base 12 is connected to the bottom of the top cover 17.

[0040] More specifically, a fixing arm 124 is provided on the outer periphery of the upper end of the support base 12. The fixing arm 124 can be connected to the bottom of the upper cover 17 by conventional connection methods such as snap-fit ​​or screw connection. The base 15 and the upper cover 17 of the main unit housing 1 are respectively connected to the support base 12, while the hollow housing 16 is well fixed between the base 15 and the upper cover 17, realizing a stable connection between the support base 12 and the main unit housing 1. More specifically, the base 15 and the hollow housing 16, and the upper cover 17 and the hollow housing 16 can also be installed, positioned and pre-installed by conventional methods such as snap-fit.

[0041] As a more specific solution, the display control module 5 includes a control circuit board 51 and a display screen 52. The control circuit board 51 is connected to the lower part of the support base 12, and the display screen 52 is fixed to the outer wall of the hollow shell 16. The control circuit board 51 is electrically connected to the display screen 52, the weighing module 3, the temperature control module 4 and the temperature measuring element 221 respectively.

[0042] The display screen 52 can clearly show the specific fermentation program in progress and the remaining time until fermentation is complete, as well as some real-time data during the fermentation process, such as real-time fermentation temperature and real-time weight.

[0043] In addition, the control circuit board 51 may also be equipped with a Wi-Fi module and / or a Bluetooth communication module. Through the above two communication modules, a communication connection with a mobile terminal can be realized, and then data such as temperature, weight, and fermentation time can be monitored through the application in the mobile terminal. Fermentation logs can be exported for scientific research or health analysis.

[0044] More specifically, it also includes a circuit board bracket 53, a control circuit board 51 fixed on one side of the circuit board bracket 53, a third connecting leg 125 provided at the lower part of the support base 12, and the other side of the circuit board bracket 53 fixedly connected to the third connecting leg 125; the display screen 52 is a TFT color screen.

[0045] As a preferred embodiment, a first electrical connector 18 is fixed on the main housing 1, the temperature measuring element 221 is an NTC temperature measuring probe, one end of the first electrical connector 18 is electrically connected to the display control module 5, and the other end of the first electrical connector 18 is detachably inserted into the fermenter cover 22 and electrically connected to the NTC temperature measuring probe.

[0046] More specifically, the fermenter lid 22 is provided with a first electrical plug 222 that is electrically connected to the NTC temperature probe, and the other end of the first electrical connector 18 is detachably inserted into the first electrical plug 222; more preferably, the bottom temperature sensing end of the NTC temperature probe extends to a depth exceeding half the internal depth of the fermenter body 21.

[0047] As a preferred embodiment, a protective cover 7 is also included. A boss 19 is provided on the upper surface of the main housing 1. The first electrical connector 18 is fixed on the boss 19. The fermentation tank cover 22 of the fermentation container 2 extends upward from the boss 19. The protective cover 7 is placed on the upper surface of the main housing 1, and the boss 19 and the fermentation tank cover 22 are located inside the protective cover 7.

[0048] The food fermentation control method based on a food fermentation device according to an embodiment of the present invention uses the aforementioned food fermentation device and includes the following steps: 1. The display control module 5 has multiple fermentation programs. Each fermentation program has its corresponding recommended ingredients, fermentation temperature, fermentation time and required salt percentage. You can select one of the fermentation programs through the display control module 5. 2. Open the fermentation tank lid 22 and add the ingredients and water into the fermentation tank body 21; 3. The display control module 5 automatically calculates and displays the required amount of salt based on the weight of the added ingredients and water and the salt percentage data set in the selected fermentation program, and then adds the required amount of salt into the fermentation tank 21. 4. The fermentation tank lid 22 is placed on the fermentation tank body 21 and one end of the temperature measuring element 221 of the fermentation tank lid 22 extends into the fermentation tank body 21 to sense the temperature inside the tank and feed it back to the display control module 5 in real time. 5. The temperature control module 4 is controlled by the display control module 5 to keep the temperature of the fermentation container cavity 11 within the temperature range specified in the fermentation program; and to maintain the set temperature within the fermentation time specified in the fermentation program.

[0049] The food fermentation control method based on a food fermentation device in an embodiment of the present invention further includes a weight zeroing operation between step one and step two, specifically: performing a weight zeroing operation on the fermentation container 2 on the display control module 5.

[0050] In the second step of the food fermentation control method based on the food fermentation device of the present invention, ingredients are first added to the fermentation tank 21, and then water is added until the water volume reaches 90% of the internal volume of the fermentation tank 21. Preferably, multiple volume lines can be set in the fermentation tank 21, with 10% intervals, so that the user can add water to 90% of the internal volume of the fermentation tank 21.

[0051] In the food fermentation control method based on the food fermentation device of the present invention, after completing step three, an external stirring rod can be inserted into the fermentation tank 21 and gently stirred to ensure that the ingredients, water and salt in the fermentation tank 21 are fully mixed.

[0052] In the food fermentation control method based on a food fermentation device according to an embodiment of the present invention, in step one, the display control module 5 is equipped with ten specific fermentation programs and one manual mode fermentation program; the ten specific fermentation programs are: lactic acid bacteria fermentation, acetic acid bacteria fermentation, propionic acid bacteria fermentation, Bacillus subtilis fermentation, Rhizopus oligosporus fermentation, yeast fermentation, mixed fermentation of lactic acid bacteria and yeast, alkaline fermentation, Aspergillus-enhanced fermentation, and short-path lactic acid fermentation.

[0053] The food fermentation control method based on a food fermentation device in the embodiments of the present invention has ten specific fermentation programs in which the required salt percentage data is between 0% and 2% of the weight of the ingredients and water.

[0054] The relevant parameters for ten specific fermentation programs are as follows: Fermentation Procedure 1, which involves lactic acid bacteria fermentation; specific parameters are: fermentation temperature range 18-24 °C; preferred temperature 22 °C (±1 °C). Fermentation time range 5-7 days; preferred time 6 days. Salt percentage is 2% of the weight of ingredients and water. Recommended ingredients include cabbage, carrots, cucumbers, radishes, beets, peppers, fennel, kale, cauliflower stalks, green beans, and cauliflower heads.

[0055] Fermentation procedure two involves acetic acid bacteria fermentation. Specific parameters are: fermentation temperature range of 25-30 °C; preferred temperature is 28 °C (±1 °C). Fermentation time range of 10-14 days; preferred time is 12 days. Salt content is 0% of the weight of ingredients and water. Recommended ingredients include apple slices, grape pulp, berry puree (blueberries, raspberries), peach chunks, mango chunks, and pineapple tops.

[0056] Fermentation procedure three involves propionic acid bacteria fermentation. Specific parameters are as follows: fermentation temperature range: 25-32°C; preferred temperature: 30°C (±1°C). Fermentation time range: 7-10 days; preferred time: 8 days. Salt percentage: 0.75% of the weight of ingredients and water. Recommended ingredients are low-acid vegetables: cabbage, celery, parsnips, turnips, peeled carrots, fennel balls, cauliflower, and white asparagus.

[0057] Fermentation procedure four involves Bacillus subtilis fermentation; specific parameters are as follows: fermentation temperature range 40-45°C; preferred temperature 42°C (±1°C); fermentation time range 16-24 hours; preferred time 24 hours; salt percentage 0% of the weight of ingredients and water. Recommended ingredients are soybeans, chickpeas, black beans, white beans, and red beans.

[0058] Fermentation procedure five involves Rhizopus oligosporus fermentation; specific parameters are as follows: fermentation temperature range 30-32°C; preferred temperature 31°C (±1°C). Fermentation time range 24-48 hours; preferred time 36 hours. Salt percentage is 0% of the weight of ingredients and water. Recommended ingredients are a mixture of shelled soybeans, chickpeas, black-eyed peas, lentils, mung beans, and quinoa.

[0059] Fermentation procedure six involves yeast fermentation; specific parameters are as follows: fermentation temperature range 18-22°C; preferred temperature 20°C (±1°C). Fermentation time range 3-5 days; preferred time 4 days. Salt percentage is 1.25% of the weight of ingredients and water. Recommended ingredients are a mixture of shelled soybeans, chickpeas, black-eyed peas, lentils, mung beans, and quinoa.

[0060] Fermentation procedure seven involves a mixture of lactic acid bacteria and yeast. Specific parameters are: fermentation temperature range of 28-32°C; optimal temperature is 30°C (±1°C); fermentation time range of 5-7 days; optimal time is 6 days; salt content is 1.75% of the weight of ingredients and water. Recommended ingredients include cabbage, radish, garlic, onion, leeks, kale, Brussels sprouts, and ginger slices.

[0061] Fermentation procedure eight is an alkaline fermentation; specific parameters are: fermentation temperature range 35-39°C; preferred temperature 37°C (±1°C). Fermentation time range 5-7 days; preferred time 6 days. Salt percentage is 0% of the weight of ingredients and water. Recommended ingredients are bitter melon slices, broad beans, green beans, leafy greens (spinach, kale), and soybean pulp.

[0062] Fermentation procedure nine, which is Aspergillus-enhanced fermentation; the specific parameters are: fermentation temperature range of 28-32°C; preferred temperature is 30°C (±1°C). Fermentation time range of 2-4 days; preferred time is 2 days. Salt percentage is 0.75% of the weight of ingredients and water. Recommended ingredients are steamed rice, barley, soybeans, sweet potatoes, pumpkin, and black beans.

[0063] Fermentation procedure ten is a short-path lactic acid fermentation; specific parameters are: fermentation temperature range 15-18°C; preferred temperature 18°C ​​(±1°C); fermentation time range 3-5 days; preferred time 4 days; salt percentage 2% of the weight of ingredients and water. Recommended ingredients include carrots, celery stalks, green beans, bell peppers, Jerusalem artichokes, cauliflower, cauliflower stalks, and asparagus tips.

[0064] The manual fermentation program allows users to select any vegetables, fruits, beans, or grains; users can also customize relevant parameter values ​​based on the ingredients.

[0065] like Figure 9-12As shown, in order to achieve vacuum storage of fermented food, a storage container 8 and a vacuum connector assembly 9 are also included. The storage container 8 includes a storage tank 81 and a storage tank lid 82 that covers the upper opening of the storage tank 81. A vacuum pump 20 is provided inside the main housing 1 and is electrically connected to the display control module 5. One end of the vacuum connector assembly 9 is connected to the vacuum pump 20, and the other end of the vacuum connector assembly 9 is detachably connected to the storage tank lid 82 and is connected to the storage tank 81.

[0066] As a specific solution, the storage tank lid 82 has a connecting cavity 821, and the bottom of the connecting cavity 821 has a vent hole 822 for connecting the storage tank body 81. A movable vacuum plug 30 is provided on the inner circumference of the vent hole 822. There is a ventilation gap 100 between the outer circumference of the middle part of the vacuum plug 30 and the vent hole 822. The upper end of the vacuum plug 30 extends upward beyond the upper end of the vent hole 822 and covers the upper end of the vent hole 822. The lower end of the vacuum plug 30 extends downward beyond the lower end of the vent hole 822. The vacuum connector assembly 9 is detachably connected to the connecting cavity 821. More specifically, the outer circumference of the vacuum connector assembly 9 and the inner circumference of the connecting cavity 821 are connected by a screw thread, which makes the assembly and disassembly operations more convenient.

[0067] In this embodiment, the bottom of the storage tank cover 82 located on the outer periphery of the vent 822 also extends downward to form a limiting wall 823. The limiting wall 823 has several hollow openings 824 that connect to the vent 822. The lower end of the vacuum plug 30 is located below the limiting wall 823.

[0068] As a more specific embodiment, an NTC thermometer 825 is also provided at the lower part of the storage tank cover 82, and the NTC thermometer 825 is electrically connected to the display control module 5, with one end of the NTC thermometer 825 extending into the storage tank body 81.

[0069] In this embodiment, a second electrical connector 40 is fixed on the main housing 1. One end of the second electrical connector 40 is electrically connected to the display control module 5. A second electrical plug 826, which is electrically connected to the NTC thermometer 825, is provided on the storage tank lid 82. The other end of the second electrical connector 40 is detachably inserted into the second electrical plug 826.

[0070] As a more specific embodiment, the vacuum connector assembly 9 includes an upper connecting cover 91 and a lower connecting cover 92 connected to each other. The interiors of the upper connecting cover 91 and the lower connecting cover 92 are connected. The interior of the lower connecting cover 92 is connected to the vent 822. A gas pipe is connected to the vacuum pump 20, and one end of the gas pipe extends into the interior of the upper connecting cover 91 and connects to the lower connecting cover 92. The gas pipe is not shown.

[0071] In this embodiment, the lower connecting cover 92 is provided with a hollow connecting post 921 for connecting the air tube, and the upper connecting cover 91 is provided with an air tube through hole 911 for the air tube to pass through at the position corresponding to the hollow connecting post 921.

[0072] In this embodiment, the main housing 1 is provided with a receiving recess 50, and the connecting cover 91 above the outer periphery of the vacuum connector assembly 9 is detachably connected to the receiving recess 50 with the outer periphery facing downward; more specifically, the outer periphery of the vacuum connector assembly 9 and the inner periphery of the receiving recess 50 are connected by a screw fastener, which makes the assembly and disassembly operation more convenient.

[0073] As a more specific solution, a fixing seat 60 is provided inside the main housing 1, the vacuum pump 20 is sleeved on the inner circumference of the fixing seat 60, and a shock-absorbing rubber 601 is provided between the vacuum pump 20 and the fixing seat 60.

[0074] The working principle of vacuuming storage container 8: During vacuuming, vacuum pump 20 drives vacuum plug 30 upward through suction until the lower end of vacuum plug 30 abuts against limiting wall 823; at this time, air in storage tank 81 can flow sequentially through perforation 824, ventilation gap 100 and the upper end of ventilation hole 822 into vacuum connector assembly 9, and finally be drawn out of storage container 8, so that a vacuum environment is formed inside storage container 8. After vacuuming is completed, vacuum pump 20 is turned off, vacuum plug 30 moves down and covers the upper end of ventilation hole 822. Specifically, it can be a low-oxygen vacuum environment of -60 kPa to -80 kPa, which can effectively slow down the oxidation of fermented food and extend the shelf life of fermented food.

[0075] like Figure 3-4 As shown in Figures 6-8, the temperature control module 4 includes a heating element 41 and a cooling element 42. The heating element 41 is attached to the outer wall of the metal inner liner 6, and the cooling element 42 is attached to the outer bottom wall of the metal inner liner 6. The heating element 41 and the cooling element 42 are electrically connected to the display control module 5.

[0076] As a more specific solution, it also includes a sealing ring 70, which is clamped between the upper surface of the metal inner liner 6 and the inner top wall of the main housing 1, and one end of the sealing ring 70 abuts against the outer wall of the fermentation tank 21.

[0077] In this embodiment, the heating element 41 is a silicone heating sheet, which is attached to the outer wall of the metal inner liner 6.

[0078] More specifically, a foaming agent 43 is provided between the outer periphery of the metal inner liner 6 and the inner wall of the support cavity 121, and the foaming agent 43 wraps around the outer periphery of the silicone heating element.

[0079] As a more specific solution, it also includes a heat sink 44 and a cooling fan 45. The cooling component 42 is a PTC cooling chip. One end of the PTC cooling chip is attached to the outer bottom wall of the metal inner liner 6, and the other end of the PTC cooling chip abuts against the upper surface of the heat sink 44. The lower surface of the heat sink 44 abuts against the cooling fan 45.

[0080] In this embodiment, the bottom of the support base 12 has a clearance through hole 126, and the PTC cooling chip is located inside the clearance through hole 126. The bottom of the support base 12 located outside the clearance through hole 126 is also connected to a support frame 80. The support frame 80 has a mounting platform 801, and the bottom of the mounting platform 801 has a through hole 802. The cooling fan 45 and the heat sink 44 are sequentially mounted on the mounting platform 801 to achieve mutual resistance between the cooling fan 45, the heat sink 44 and the PTC cooling chip. At the same time, the hot air from the cooling fan 45 can be discharged in time from the through hole 802 at the bottom of the mounting platform 801.

[0081] In this embodiment, a ventilation pipe 46 is also included. One end of the ventilation pipe 46 is connected to the lower part of the support frame 80. The bottom of the through hole 802 extends outward into a limiting groove 803. One end of the ventilation pipe 46 extends into the limiting groove 803. An air outlet 200 is opened on the inner wall of the main unit housing 1. The other end of the ventilation pipe 46 extends to a position close to the air outlet 200.

[0082] In this embodiment, the base 15 of the main housing 1 has the air outlet 200, and a limiting wall 151 extends upward from the base 15 outside the air outlet 200. The other end of the ventilation pipe 46 extends into the limiting wall 151, and the side wall of the hollow housing 16 has an air inlet 300.

[0083] like Figure 5-8 As shown, the weighing module 3 includes a weighing sensor 31, a weighing bracket 32, and a weighing support 33. The bottom of the weighing support 33 extends downward through the bottom of the main housing 1, and there is a gap 400 between the weighing support 33 and the inner bottom surface of the main housing 1. The lower end of the weighing sensor 31 is connected to the weighing support 33. The two ends of the weighing bracket 32 ​​are respectively connected to the upper end of the weighing sensor 31 and the support base 12. The weighing sensor 31 is electrically connected to the display control module 5. The weighing working principle of the weighing sensor 31 is similar to that of the existing electronic scales, and will not be described in detail here. The model of the weighing sensor 31 is CZL611NF02-20kg.

[0084] As a more specific embodiment, the bottom of the support base 12 is also connected to a support frame 80, and several connecting arms 321 extend outward from the outer periphery of the weighing bracket 32, with the lower part of the support frame 80 fixed on the connecting arms 321.

[0085] In this embodiment, the lower end of the support frame 80 extends downward to form a lower support leg 804, which is fixed to the connecting arm 321. The upper end of the support frame 80 extends upward to form an upper support leg 805, which is connected to the lower part of the support base 12. More specifically, the upper support leg 805 is fixedly connected to the second connecting leg 127 at the lower part of the support base 12.

[0086] More specifically, the bottom of the weighing bracket 33 extends downward with several support legs 331, the bottom of which passes through the base 15.

[0087] More specifically, a number of support feet 331 have silicone pads 332 connected to their bottoms; when in use, the silicone pads 332 on the support feet 331 can be placed directly on the ground or a table.

[0088] The embodiments described above are merely examples for clearly illustrating this patent, and while the descriptions are specific and detailed, they should not be construed as limiting the scope of this patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this patent, and these all fall within the scope of protection of this patent. Therefore, the scope of protection of this patent should be determined by the appended claims.

Claims

1. A food fermentation device with a weighing module, comprising a main housing (1) and a fermentation container (2), characterized in that, A support base (12) is connected inside the main housing (1), and a fermentation container placement cavity (11) is provided on the support base (12). The fermentation container (2) is placed on the fermentation container placement cavity (11). It also includes a weighing module (3) and the weighing module (3) is located inside the main housing (1). The weighing module (3) includes a weighing sensor (31), a weighing bracket (32) and a weighing support (33). The bottom of the weighing support (33) passes through the bottom of the main housing (1) downwards, and there is a gap (400) between the weighing support (33) and the inner bottom surface of the main housing (1). The lower end of the weighing sensor (31) is connected to the weighing support (33), and the two ends of the weighing bracket (32) are connected to the upper end of the weighing sensor (31) and the support base (12) respectively. The main housing (1) is also provided with a display control module (5), and the weighing sensor (31) is electrically connected to the display control module (5).

2. The food fermentation device with a weighing module according to claim 1, characterized in that, It also includes a metal inner liner (6), a support cavity (121) is provided on the support base (12) and the metal inner liner (6) is placed on the support cavity (121), and a through-hole (13) is opened on the main body housing (1) corresponding to the inner cavity of the metal inner liner (6). The fermentation container (2) passes through the through-hole (13) from top to bottom and is placed on the inner cavity of the metal inner liner (6). The inner cavity of the metal inner liner (6) constitutes the fermentation container placement cavity (11).

3. The food fermentation device with a weighing module according to claim 2, characterized in that, The bottom of the support base (12) is also connected to a support frame (80), and several connecting arms (321) extend outward from the outer periphery of the weighing bracket (32). The lower part of the support frame (80) is fixed on the connecting arms (321).

4. The food fermentation device with a weighing module according to claim 3, characterized in that, The lower end of the support frame (80) extends downward with a lower support leg (804), which is fixed on the connecting arm (321). The upper end of the support frame (80) extends upward with an upper support leg (805), which is connected to the lower part of the support base (12).

5. The food fermentation device with a weighing module according to claim 1, characterized in that, The main housing (1) includes a base (15), a hollow housing (16) and a top cover (17). The base (15) is connected to the lower opening of the hollow housing (16), and the top cover (17) is connected to the upper opening of the hollow housing (16). The upper end of the support base (12) is connected to the bottom of the top cover (17), and the lower end of the support base (12) is connected to the base (15). The bottom of the weighing bracket (33) passes downward through the base (15).

6. The food fermentation apparatus with a weighing module according to claim 5, characterized in that, The lower part of the support base (12) is provided with a first connecting leg (123), and a fixing column (14) is provided on the base (15) corresponding to the position of the first connecting leg (123). The first connecting leg (123) is fixed on the fixing column (14). A fixing arm (124) is provided on the upper outer periphery of the support base (12), and the fixing arm (124) is connected to the bottom of the upper cover (17).

7. The food fermentation apparatus with a weighing module according to claim 5, characterized in that, The bottom of the weighing bracket (33) extends downward with several support feet (331), the bottom of which passes through the base (15).

8. The food fermentation device with a weighing module according to claim 3, characterized in that, It also includes a cooling component (42), a heat sink (44), and a cooling fan (45). The bottom of the support base (12) has a clearance through hole (126). The cooling component (42) is attached to the outer bottom wall of the metal inner liner (6) and the cooling component (42) is located in the clearance through hole (126). The support frame (80) has a mounting platform (801). The bottom of the mounting platform (801) has a through hole (802). The cooling fan (45) and the heat sink (44) are sequentially mounted on the mounting platform (801). The upper and lower surfaces of the heat sink (44) abut against the cooling component (42) and the cooling fan (45), respectively.

9. The food fermentation apparatus with a weighing module according to claim 8, characterized in that, It also includes a ventilation pipe (46), one end of which is connected to the lower part of the support frame (80). The bottom of the through hole (802) extends outward to a limiting groove (803). One end of the ventilation pipe (46) extends into the limiting groove (803). An air outlet (200) is opened on the inner wall of the main unit housing (1). The other end of the ventilation pipe (46) extends to a position close to the air outlet (200).

10. The food fermentation apparatus with a weighing module according to claim 9, characterized in that, The bottom of the main unit housing (1) has an air outlet (200), and the bottom of the main unit housing (1) located outside the air outlet (200) extends upward to form a limiting wall (151). The other end of the ventilation pipe (46) extends into the limiting wall (151), and the side wall of the main unit housing (1) has an air inlet (300).

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