Ancient-method food pulping equipment

Abstract

The utility model discloses ancient method food pulping equipment, the ancient method food pulping equipment comprises a pulping machine main body, the pulping machine main body comprises: a first heating stirring mechanism, the first heating stirring mechanism is provided with a first cavity; the second heating and stirring mechanism is provided with a second cavity; the clear water tank is communicated with the first cavity; the sewage tank is provided with a third cavity; and the discharge valve mechanism is assembled at the bottom of the first heating and stirring mechanism and has a first state for communicating the first cavity with the second cavity, a second state for communicating the first cavity with the third cavity and a third state for closing the first cavity. Thus, the food pulping process of an ancient method can be restored, the nutritional value of the food materials is effectively reserved, the taste of the food materials is more fragrant, and the problems that the food materials are burnt to the bottom and heated unevenly when stirring and heating are conducted in a single cavity at the same time can be solved.

Description

Technical Field

[0001] This application relates to the field of food processing, and particularly to an ancient method food pulping device. Background Art

[0002] With the popularization of the concept of healthy diet, consumers' demand for soy milk with rich nutrition and pure taste is increasing continuously. Ancient method soy milk has been favored by more and more consumers because it inherits the traditional production process and cultural connotations, and at the same time retains the original flavor and nutritional components of soy milk.

[0003] However, the existing food processors such as wall breakers and cooking machines on the market generally upgrade the cleaning function on the basis of the traditional one. In terms of the soy milk production technology, the traditional production process is still used in the same stirring cavity: rapid heating - stirring - boiling - stirring again - roasting until fragrant. Although such methods can realize the production of soy milk, they do not truly restore the essence of the ancient method of making soy milk, and cannot fully restore the original taste and nutritional value of soy milk. Therefore, it is necessary to improve the existing food processors to realize the production of ancient method soy milk. Summary of the Utility Model

[0004] In order to overcome at least one of the above-mentioned defects of the existing technology, this application provides an ancient method food pulping device, which can restore the ancient method food pulping process, and can avoid problems such as the bottom sticking of ingredients and uneven heating when stirring and heating are carried out simultaneously in a single cavity.

[0005] An ancient method food pulping device according to an embodiment of this application includes a pulping machine main body, and the following components are included on the pulping machine main body: a first heating and stirring mechanism, which has a first cavity; a second heating and stirring mechanism, which has a second cavity; a water tank, which is communicated with the first cavity; a sewage tank, which has a third cavity; an exhaust valve mechanism, which is assembled at the bottom of the first heating and stirring mechanism and has a state one of communicating the first cavity with the second cavity, a state two of communicating the first cavity with the third cavity, and a state three of closing the first cavity.

[0006] In this ancient method food pulping device, through the state switching of the exhaust valve mechanism, the first cavity is driven to have the functions of discharging pulp, soaking and cleaning, and pulping, which can wash, soak and remove fishy smell from the ingredients, and finely grind them, fully release the nutritional components of the ingredients, optimize the taste and flavor of the ingredients, and then discharge them to the second cavity through the exhaust valve mechanism for boiling, realizing the restoration of the ancient method food pulping process, effectively retaining the nutritional value of the ingredients, making the taste of the ingredients more fragrant, and can avoid problems such as the bottom sticking of ingredients and uneven heating when stirring and heating are carried out simultaneously in a single cavity.

[0007] According to some embodiments of the present application, the first heating and stirring mechanism includes: a first heating and stirring cup body, the first cavity is disposed within the first heating and stirring cup body, and the first heating and stirring cup body is detachably disposed on the main body of the pulping machine; a first heating element disposed within the first cavity; a first stirring member rotatably connected to the first cavity; and a first temperature sensing member disposed within the first cavity.

[0008] According to some embodiments of the present application, the second heating and stirring mechanism includes: a second heating and stirring cup body, the second cavity is disposed within the second heating and stirring cup body, and the second heating and stirring cup body is detachably disposed on the main body of the pulping machine; a second heating element disposed within the second cavity and surrounding the bottom of the second cavity; a second stirring member rotatably connected to the second cavity, and the bottom wall of the second cavity is close to the second stirring member; and a second temperature sensing member disposed within the second cavity.

[0009] According to some embodiments of the present application, the discharge valve mechanism includes: a discharge assembly, the discharge assembly includes a first discharge port for communicating the first cavity with the second cavity and a second discharge port for communicating the first cavity with the third cavity, a first valve plug is movably connected within the first discharge port, and a second valve plug is movably connected within the second discharge port; a valve core assembly, the valve core assembly includes a valve core driving member, a first driving rack and a second driving rack assembled on the main body of the pulping machine, an output shaft of the valve core driving member is connected with a driving gear, the first driving rack and the second driving rack are respectively engaged on two opposite sides of the driving gear, the first valve plug is connected with the first driving rack, and the second valve plug is connected with the second driving rack; a contact assembly, the contact assembly includes a contact switch and a contact boss, the contact boss is disposed on the first driving rack and / or the second driving rack, and when the discharge valve mechanism is in state three, the contact boss is connected with the contact switch.

[0010] According to some embodiments of the present application, the valve core assembly further includes a valve core housing detachably disposed on the first heating and stirring mechanism, two valve core connecting rods are movably disposed through the valve core housing, the first valve plug is detachably connected with the first driving rack through any one of the valve core connecting rods, and the second valve plug is detachably connected with the second driving rack through the other valve core connecting rod.

[0011] According to some embodiments of the present application, an elastic element is sleeved on the valve core connecting rod, an upper end of the elastic element abuts against the valve core housing, and a lower end of the elastic element abuts against a baffle, and the baffle is fixed to the valve core connecting rod.

[0012] According to some embodiments of the present application, the valve core housing cooperates with the bottom of the first heating and stirring mechanism to form a first diversion channel and a second diversion channel. The first diversion channel is arranged between the first discharge port and the second heating and stirring mechanism, and the second diversion channel is arranged between the second discharge port and the sewage tank.

[0013] According to some embodiments of the present application, the discharge assembly further includes a first diversion pipe and a second diversion pipe. The first diversion pipe is arranged between the first diversion channel and the second heating and stirring mechanism, and the second diversion pipe is arranged between the second diversion channel and the sewage tank.

[0014] According to some embodiments of the present application, the pulping machine main body includes: a main machine base; a bottom support connected to one side of the main machine base, and the second heating and stirring mechanism is detachably connected to the bottom support; a storage opening opened on the other side of the main machine base, and the sewage tank is detachably connected to the storage opening; an assembly sink arranged at the upper end of the main machine base, and the first heating and stirring mechanism is detachably connected to the assembly sink; a pulp discharge pipe detachably arranged on the main machine base and extending from the discharge valve mechanism to the second heating and stirring mechanism; a sewage pipe arranged on the main machine base and extending from the discharge valve mechanism to the sewage tank.

[0015] According to some embodiments of the present application, a water pump is further included, and the water pump is arranged between the clean water tank and the first heating and stirring cup body.

[0016] In summary, the ancient method food pulping equipment provided by the present application has the following technical effects:

[0017] By switching the state through the discharge valve mechanism, the first cavity is driven to have the functions of discharging pulp, soaking and cleaning, and pulping, so that the food materials can be rinsed, soaked to remove fishy smell, and finely ground, fully releasing the nutritional components of the food materials, optimizing the taste and flavor of the food materials, and then discharged to the second cavity through the discharge valve mechanism for boiling, realizing the food pulping process of restoring the ancient method, effectively retaining the nutritional value of the food materials, making the taste of the food materials more fragrant, and avoiding problems such as food sticking to the bottom and uneven heating that may occur when stirring and heating in a single cavity at the same time. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 is a schematic structural diagram of the ancient method food pulping equipment according to an embodiment of the present application;

[0019] Figure 2 is an exploded schematic structural diagram of the ancient method food pulping equipment according to an embodiment of the present application;

[0020] Figure 3 A cross-sectional view of the ancient method food pulping equipment according to an embodiment of the present application;

[0021] Figure 4 is Figure 3 an enlarged schematic view of area A of;

[0022] Figure 5 A schematic structural view of the main body of the pulping machine according to an embodiment of the present application;

[0023] Figure 6 An assembly schematic view of the first heating and stirring mechanism and the discharge valve mechanism according to an embodiment of the present application;

[0024] Figure 7 A schematic structural view of the first heating and stirring mechanism according to an embodiment of the present application;

[0025] Figure 8 A schematic structural view of the discharge valve mechanism according to an embodiment of the present application;

[0026] Figure 9 A schematic structural view of the contact component according to an embodiment of the present application;

[0027] Figure 10 A schematic structural view of the second heating and stirring mechanism according to an embodiment of the present application;

[0028] Figure 11 A schematic structural view of the discharge valve mechanism in state one according to an embodiment of the present application;

[0029] Figure 12 A schematic structural view of the discharge valve mechanism in state two according to an embodiment of the present application;

[0030] Figure 13 A schematic structural view of the discharge valve mechanism in state three according to an embodiment of the present application.

[0031] Among them, the meanings of the reference numerals are as follows:

[0032] 1. First heating and stirring mechanism; 11. First cavity; 12. First heating and stirring cup body; 13. First heating element; 14. First stirring member; 2. Second heating and stirring mechanism; 21. Second cavity; 22. Second heating and stirring cup body; 23. Second heating element; 24. Second stirring member; 25. Second temperature sensor; 3. Clean water tank; 4. Sewage tank; 41. Third cavity; 5. Discharge valve mechanism; 51. Discharge assembly; 511. First discharge port; 512. Second discharge port; 513. First valve plug; 514. Second valve plug; 515. First diversion pipe; 516. Second diversion pipe; 52. Spool assembly; 521. Spool drive member; 522. First drive rack; 523. Second drive rack; 524. Drive gear; 525. Spool housing; 526. Spool connecting rod; 527. Elastic element; 528. Baffle; 53. Contact assembly; 531. Contact switch; 532. Contact boss; 6. First diversion channel; 7. Second diversion channel; 8. Pulping machine main body; 81. Main body base; 82. Bottom support; 83. Storage opening; 84. Assembly sink; 85. Pulp discharge pipe; 86. Sewage pipe. Detailed implementation mode

[0033] For better understanding and implementation, the technical solutions in the embodiments of the present application will be clearly and completely described below in conjunction with the accompanying drawings in the embodiments of the present application.

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

[0035] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by those of ordinary skill in the technical field to which this application belongs. The terms used in the description of this application herein are only for the purpose of describing specific embodiments and are not intended to limit this application.

[0036] Embodiment 1:

[0037] Refer to Figure 1 、 Figure 2 and Figure 3, this embodiment discloses an ancient method food pulping device. The ancient method food pulping device includes a pulping machine main body 8. Preferably, the pulping machine main body 8 includes a first heating and stirring mechanism 1, a second heating and stirring mechanism 2, a clean water tank 3, a sewage tank 4 and a discharge valve mechanism 5. Preferably, the first heating and stirring mechanism 1 has a first cavity 11, the second heating and stirring mechanism 2 has a second cavity 21, the clean water tank 3 is communicated with the first cavity 11, the sewage tank 4 has a third cavity 41, and the discharge valve mechanism 5 is assembled at the bottom of the first heating and stirring mechanism 1 and has a state one of communicating the first cavity 11 with the second cavity 21, a state two of communicating the first cavity 11 with the third cavity 41, and a state three of closing the first cavity 11. Refer to Figure 11 , Figure 12 and Figure 13 . In this way, by switching the states of the discharge valve mechanism 5, the first cavity 11 is driven to have the functions of discharging pulp, soaking and cleaning, and pulping, so that the ingredients can be rinsed, soaked to remove fishy smell, and finely ground, fully releasing the nutritional components of the ingredients, optimizing the taste and flavor of the ingredients, and then discharged to the second cavity 21 through the discharge valve mechanism 5 for boiling, realizing the food pulping process of restoring the ancient method, effectively retaining the nutritional value of the ingredients, making the taste of the ingredients more fragrant, and avoiding problems such as sticking to the bottom and uneven heating of the ingredients that may occur when stirring and heating in a single cavity at the same time.

[0038] Optionally, the food ingredients are preferably beans. The discharge valve mechanism 5 is driven to switch to state three, and the beans are put into the first cavity 11. The water tank 3 is used to pump an appropriate amount of water into the first cavity 11, and then the water in the first cavity 11 is heated to a preset temperature to soak the beans, removing the fishy smell inherent in the beans. The discharge valve mechanism 5 is driven to switch to state two, and the water in the first cavity 11 is discharged into the third cavity 41. The discharge valve mechanism 5 is driven to switch to state three, and the water tank 3 is used to pump an appropriate amount of water into the first cavity 11 again, and the stirring and crushing of the beans start, so that the raw beans are finely ground in the independent first cavity 11, fully releasing the nutritional components of the beans, optimizing the taste and flavor of the soymilk. The discharge valve mechanism 5 is driven to switch to state one, and the raw soymilk in the first cavity 11 is discharged into the second cavity 21. The second cavity 21 is used to boil the raw soymilk, realizing the soymilk-making process of restoring the ancient method, effectively retaining the nutritional value of the beans and making the taste of the soymilk more fragrant. Further, during the boiling of the raw soymilk in the second cavity 21, the discharge valve mechanism 5 is driven to switch to state three, so that the second cavity 21 forms a micro-high pressure, improving the heating efficiency of the second cavity 21. When the slurry in the second cavity 21 boils, the discharge valve mechanism 5 is driven to switch to state one, and the slurry in the second cavity 21 is defoamed by using the pressure difference. At the same time, the boiling foam can overflow to the first cavity 11, and the foam overflowing to the first cavity 11 can be liquefied during the flow and flow back into the second cavity 21, realizing the recycling of the foam and effectively preventing the boiling foam from overflowing to the outside.

[0039] Refer to Figure 3 、 Figure 6 and Figure 7, the first heating and stirring mechanism 1 includes a first heating and stirring cup body 12, a first heating element 13, a first stirring member 14 and a first temperature sensing member. The first cavity 11 is arranged inside the first heating and stirring cup body 12. Preferably, the first heating and stirring cup body 12 is detachably arranged on the main body 8 of the pulping machine, so that the first heating and stirring cup body 12 can be separated from the main body 8 of the pulping machine, facilitating the user to clean the first heating and stirring cup body 12. The first heating element 13 is arranged in the first cavity 11. Optionally, the first heating element 13 is arranged at the bottom of the first cavity 11. Optionally, a heating plate is arranged at the bottom of the first cavity 11, and the first heating element 13 is embedded in the heating plate. Optionally, the first heating element 13 is arranged around the bottom of the first cavity 11, so that when the first heating element 13 generates heat, it can uniformly heat the first cavity 11, avoiding the bottom sticking caused by uneven local heating. Optionally, the first heating element 13 includes, but is not limited to, an alumina ceramic heating element, a PTC heating element, a ceramic heating element, etc. The first stirring member 14 is rotatably connected to the first cavity 11. Optionally, the first stirring member 14 includes a stirring blade and a first transmission shaft. The stirring blade is rotatably connected inside the first cavity 11. The upper end of the first transmission shaft is fixedly connected to the stirring blade, and the lower end of the first transmission shaft extends out of the first cavity 11 and is connected to the first stirring motor on the main body 8 of the pulping machine, so that the first stirring motor drives the stirring blade to rotate through the first transmission shaft, realizing fine grinding of the ingredients in the first cavity 11. The first temperature sensing member is arranged in the first cavity 11. Optionally, the first temperature sensing member is a temperature sensor arranged in the first cavity 11 to obtain the temperature of the first cavity 11.

[0040] Optionally, a water pump is further included. The water pump is arranged between the water tank 3 and the first heating and stirring cup body 12 and is used to pump the clear water in the water tank 3 into the first chamber. Optionally, the water inlet of the water pump is communicated with the water tank 3, and the water outlet of the water pump is communicated with the first chamber through a water supply hose, so that the water supply hose can be routed along the internal structure of the first heating and stirring cup body 12. Optionally, the water pump is assembled on the main body 8 of the pulping machine. When the water tank 3 is assembled to the main body 8 of the pulping machine, the water inlet of the water pump is synchronously communicated with the water tank 3.

[0041] Refer to Figure 2 , Figure 3 and Figure 10, the second heating and stirring mechanism 2 includes a second heating and stirring cup body 22, a second heating element 23, a second stirring member 24 and a second temperature sensing member 25. The second cavity 21 is arranged inside the second heating and stirring cup body 22. The second heating and stirring cup body 22 is detachably arranged on the main body 8 of the pulp making machine. Optionally, the upper end of the second heating and stirring cup body 22 is provided with a cup opening communicating with the second cavity 21, and a cup cover is arranged on the cup opening. Optionally, a sealing ring is arranged between the cup cover and the cup opening to improve the sealing performance between the cup cover and the cup opening. Optionally, a first buckle member is arranged on the cup cover, and the second heating and stirring cup body 22 is provided with a second buckle member cooperating with the first buckle member to form a reliable connection between the cup cover and the cup opening; the second heating element 23 is arranged in the second cavity 21 and surrounds the bottom of the second cavity 21. Optionally, the second heating element 23 is embedded in the bottom of the second cavity 21 and surrounds the bottom of the second cavity 21, which can uniformly heat the second cavity 21 and avoid the situation of bottom burning caused by uneven local heating. Optionally, the second heating element 23 includes but is not limited to an alumina ceramic heating element, a PTC heating element, a ceramic heating element, etc.; the second stirring member 24 is rotatably connected to the second cavity 21, and the bottom wall of the second cavity 21 is close to the second stirring member 24. Optionally, the second stirring member 24 includes a second stirring motor, a second transmission shaft and a stirring paddle. The second stirring motor is assembled at the lower end of the second heating and stirring cup body 22. The lower end of the second transmission shaft is connected to the output shaft of the second stirring motor, and the upper end of the second transmission shaft extends into the second cavity 21 and is connected to the stirring paddle arranged in the second cavity 21, so that the second stirring motor drives the stirring paddle to rotate through the second transmission shaft, and the stirring paddle is close to the bottom wall of the second cavity 21. Optionally, the stirring paddle is made of elastic materials such as silica gel and rubber or is jointly made of a rigid material skeleton and an elastic layer wrapped on the outer surface of the skeleton, and the elastic layer is made of elastic materials such as silica gel and rubber; the second temperature sensing member 25 is arranged in the second cavity 21. Optionally, the second temperature sensing member 25 is a temperature sensor arranged in the second cavity 21 to obtain the temperature of the second cavity 21.

[0042] In this embodiment, the cup lid is pre-covered on the opening of the cup body to close the opening of the cup body. Then, the discharge valve mechanism 5 is driven to switch to State 1 to discharge the solution in the first cavity 11 into the second cavity 21. The solution is boiled in the second cavity 21. At the same time, the discharge valve mechanism 5 is driven to switch to State 3 so that the second cavity 21 is in a closed state. Along with the boiling of the solution in the second cavity 21, a micro-high pressure is formed in the second cavity 21, which can improve the heating efficiency of the second cavity 21. When the solution in the second cavity 21 reaches the preset temperature, the discharge valve mechanism 5 is driven to switch to State 1 to relieve the pressure of the second cavity 21. The pressure difference is used to defoam the slurry in the second cavity 21. At the same time, the boiling foam can overflow to the first cavity 11, and the foam overflowing to the first cavity 11 can be liquefied during the flowing process and flow back into the second cavity 21 to realize the recovery of the foam and effectively prevent the boiling foam from overflowing to the outside.

[0043] Refer to Figure 3 , Figure 4 , Figure 6 and Figure 8 , the discharge valve mechanism 5 includes a discharge assembly 51, a valve core assembly 52 and a contact assembly 53. The discharge assembly 51 includes a first discharge port 511 for communicating the first cavity 11 with the second cavity 21 and a second discharge port 512 for communicating the first cavity 11 with the third cavity 41. A first valve plug 513 is movably connected in the first discharge port 511, and a second valve plug 514 is movably connected in the second discharge port 512. Preferably, the first discharge port 511 and the second discharge port 512 are arranged at the bottom of the first cavity 11. The valve core assembly 52 includes a valve core driving member 521, a first driving rack 522 and a second driving rack 523 assembled on the main body 8 of the pulping machine. The output shaft of the valve core driving member 521 is connected with a driving gear 524. The first driving rack 522 and the second driving rack 523 are respectively engaged on two opposite sides of the driving gear 524. The first valve plug 513 is connected with the first driving rack 522, and the second valve plug 514 is connected with the second driving rack 523. The contact assembly 53 includes a contact switch 531 and a contact boss 532. The contact boss 532 is arranged on the first driving rack 522 and / or the second driving rack 523. When the discharge valve mechanism 5 is in State 3, the contact boss 532 is connected with the contact switch 531.

[0044] In this embodiment, the first driving rack 522 drives the first valve plug 513 to enter or leave the first discharge port 511, so that the first discharge port 511 is in a closed or open state. Correspondingly, the second driving rack 523 drives the second valve plug 514 to enter or leave the second discharge port 512, so that the second discharge port 512 is in a closed or open state. Specifically, when the valve core driving member 521 drives the driving gear 524 to rotate, the first driving rack 522 and the second driving rack 523 on the two opposite sides of the driving gear 524 mesh and move in opposite directions, so that the first valve plug 513 and the second valve plug 514 move in opposite directions synchronously. Optionally, the valve core driving member 521 can drive the driving gear 524 to rotate forward or backward. Optionally, when the valve core driving member 521 drives the driving gear 524 to rotate forward, the first driving rack 522 drives the first valve plug 513 to leave the first discharge port 511, and the second driving rack 523 drives the second valve plug 514 to enter the second discharge port 512, so that the discharge valve mechanism 5 is switched to state one. Refer to Figure 11 ; Optionally, when the valve core driving member 521 drives the driving gear 524 to rotate backward, the first driving rack 522 drives the first valve plug 513 to enter the first discharge port 511, and the second driving rack 523 drives the second valve plug 514 to leave the second discharge port 512, so that the discharge valve mechanism 5 is switched to state two. Refer to Figure 12 ; Optionally, when the driving gear 524 rotates forward or backward to a certain position to drive the contact boss 532 to connect with the contact switch 531, at this time, the first valve plug 513 enters the first discharge port 511 and the second valve plug 514 enters the second discharge port 512, so that the discharge valve mechanism 5 is switched to state three. Refer to Figure 13 , that is, when the first valve plug 513 enters the first discharge port 511 and the second valve plug 514 enters the second discharge port 512, the contact boss 532 can connect with the contact switch 531, thereby triggering the contact switch 531 to send an electrical signal to the control circuit or the MCU module of the pulping machine main body 8, so that the first heating and stirring mechanism 1 can perform operations such as soaking, stirring and crushing the food materials in the first cavity 11.

[0045] Refer to Figure 3 、 Figure 4 、 Figure 6 、 Figure 8 and Figure 9, the valve core assembly 52 further includes a valve core housing 525 detachably provided on the first heating and stirring mechanism 1. Two valve core connecting rods 526 are movably inserted through the valve core housing 525. The first valve plug 513 is detachably connected to the first driving rack 522 through any one of the valve core connecting rods 526, and the second valve plug 514 is detachably connected to the second driving rack 523 through the other valve core connecting rod 526. Preferably, both valve core connections penetrate through the valve core housing 525 and can move relative to the valve core housing 525. For the convenience of description, any one of the valve core connecting rods 526 is defined as the first valve core connecting rod 526, and the other valve core connecting rod 526 is defined as the second valve core connecting rod 526. Optionally, the first valve plug 513 is fixedly connected to the upper end of the first valve core connecting rod 526, and the second valve plug 514 is fixedly connected to the upper end of the first valve core connecting rod 526. Specifically, the first driving rack 522 drives the first valve plug 513 to enter or leave the first discharge port 511 through the first valve core connecting rod 526, and the second driving rack 523 drives the second valve plug 514 to enter or leave the second discharge port 512 through the second valve core connecting rod 526. Optionally, a filter screen is provided on the second valve core connecting rod 526. When the second valve plug 514 leaves the second discharge port 512, the filter screen on the second valve core connecting rod 526 synchronously enters the second discharge port 512. That is, after the second discharge port 512 is opened, the first cavity 11 is communicated with the sewage tank 4 through the filter screen, and filtering is carried out by using the filter screen to prevent the food materials in the first cavity 11 from passing through the second discharge port 512 and entering the sewage tank 4 and / or the intermediate pipeline, avoiding food material waste and reducing the occurrence of blockage in the sewage tank 4 and / or the intermediate pipeline.

[0046] Refer to Figure 3 , Figure 4 , Figure 6 , Figure 8 and Figure 9, an elastic element 527 is sleeved on the valve core connecting rod 526. The upper end of the elastic element 527 abuts against the valve core housing 525, and a baffle 528 is abutted against the lower end of the elastic element 527. The baffle 528 is fixed to the valve core connecting rod 526. Optionally, the elastic element 527 is a spring. Preferably, an elastic element 527 is sleeved on each valve core connecting rod 526. Specifically, when the first driving rack 522 moves the first valve core connecting rod 526 upward to drive the first valve plug 513 away from the first discharge port 511, the elastic element 527 sleeved on the first valve core connecting rod 526 is compressed under the pushing action of the baffle 528. At this time, if the first driving rack 522 is separated from the first valve core connecting rod 526, the elastic element 527 drives the first valve core connecting rod 526 to move downward through the baffle 528, so as to drive the first valve plug 513 into the first discharge port 511, realizing the closing of the first discharge port 511. Correspondingly, when the second driving rack 523 moves the second valve core connecting rod 526 upward to drive the second valve plug 514 away from the second discharge port 512, the elastic element 527 is compressed under the pushing action of the baffle 528. At this time, if the second driving rack 523 is separated from the second valve core connecting rod 526, the elastic element 527 drives the second valve core connecting rod 526 to move downward through the baffle 528, so as to drive the second valve plug 514 into the second discharge port 512, realizing the closing of the second discharge port 512.

[0047] In this embodiment, the lower end of the first valve core connecting rod 526 abuts against the upper end of the first driving rack 522, and the lower end of the second valve core connecting rod 526 abuts against the upper end of the second driving rack 523. When the user directly lifts the first heating and stirring mechanism 1, the valve core housing 525 drives the valve core connecting rod 526 to move along with the first heating and stirring mechanism 1. At this time, the two valve core connecting rods 526 are separated from the first driving rack 522 and the second driving rack 523. The valve core connecting rod 526 corresponding to the first discharge port 511 or the second discharge port 512 in the open state moves downward under the driving action of the elastic element 527, so as to drive the corresponding first valve plug 513 or second valve plug 514 into the first discharge port 511 or the second discharge port 512, driving the discharge valve mechanism 5 to switch to state three, preventing leakage from the first discharge port 511 or the second discharge port 512 when the user lifts the first heating and stirring mechanism 1.

[0048] Refer to Figure 3 , Figure 4 , Figure 6 , Figure 8 and Figure 9, the valve core housing 525 cooperates with the bottom of the first heating and stirring mechanism 1 to form a first diversion channel 6 and a second diversion channel 7. The first diversion channel 6 is arranged between the first discharge port 511 and the second heating and stirring mechanism 2, and the second diversion channel 7 is arranged between the second discharge port 512 and the sewage tank 4. In this way, when the discharge valve mechanism 5 switches to state one, the first discharge port 511 communicates with the second cavity 21 in the second heating and stirring cup body 22 through the first diversion channel 6. When the discharge valve mechanism 5 switches to state two, the second discharge port 512 communicates with the third cavity 41 in the sewage tank 4 through the second diversion channel 7.

[0049] Refer to Figure 3 , Figure 4 , Figure 6 , Figure 8 and Figure 9 , the discharge assembly 51 further includes a first diversion pipe 515 and a second diversion pipe 516. The first diversion pipe 515 is arranged between the first diversion channel 6 and the second heating and stirring mechanism 2, and the second diversion pipe 516 is arranged between the second diversion channel 7 and the sewage tank 4. In this way, when the discharge valve mechanism 5 switches to state one, the first discharge port 511 is connected to the second heating and stirring cup body 22 through the first diversion channel 6 and the first diversion pipe 515. When the discharge valve mechanism 5 switches to state two, the second discharge port 512 and the second diversion pipe 516 communicate with the third cavity 41 in the sewage tank 4 through the second diversion channel 7.

[0050] Refer to Figure 1 , Figure 2 and Figure 5, the pulping machine main body 8 includes a main body base 81, a bottom support 82, a storage opening 83, an assembly sink 84, a pulp discharge pipe 85 and a sewage pipe 86. The bottom support 82 is connected to one side of the main body base 81, and the second heating and stirring mechanism 2 is detachably connected to the bottom support 82. Optionally, a limiting convex block is provided on the upper end surface of the bottom support 82, and a limiting groove for mating connection with the limiting convex block is provided at the bottom of the second heating and stirring cup body 22. Optionally, the upper end surface of the limiting convex block is inclined downward in a direction away from the main body base 81, so that the upper end surface of the limiting convex block can guide the second heating and stirring cup body 22, facilitating the assembly of the second heating and stirring cup body 22 on the bottom support 82, and at the same time ensuring that one end of the limiting convex block close to the main body base 81 can have sufficient contact area with the limiting groove to prevent the second heating and stirring cup body 22 from moving in a direction away from the main body base 81; the storage opening 83 is opened on the other side of the main body base 81, and the sewage tank 4 is detachably connected to the storage opening 83; the assembly sink 84 is provided on the upper end of the main body base 81, and the first heating and stirring mechanism 1 is detachably connected to the assembly sink 84; the pulp discharge pipe 85 is detachably provided on the main body base 81 and extends from the discharge valve mechanism 5 to the second heating and stirring mechanism 2. Optionally, the main body base 81 is provided with a receiving groove extending from the assembly sink 84 to the second heating and stirring mechanism 2, and the pulp discharge pipe 85 is detachably provided in the receiving groove; the sewage pipe 86 is provided on the main body base 81 and extends from the discharge valve mechanism 5 to the sewage tank 4.

[0051] In this embodiment, the assembly sink 84 cooperates with the first heating and stirring cup body 12. Optionally, a first stirring motor is provided at the lower end of the assembly sink 84, and the output shaft of the first stirring motor extends into the assembly sink 84 to form a transmission interface opposite to the first transmission shaft. Optionally, one end of the pulp discharge pipe 85 close to the discharge valve mechanism 5 extends out of the assembly sink 84 and is disposed opposite to the first diversion pipe 515, and the inner diameter of the pulp discharge pipe 85 is larger than the outer diameter of the first diversion pipe 515. One end of the sewage pipe 86 close to the discharge valve mechanism 5 extends out of the assembly sink 84 and is disposed opposite to the second diversion pipe 516, and the inner diameter of the sewage pipe 86 is larger than the outer diameter of the second diversion pipe 516. Optionally, the first driving rack 522 extends out of the assembly sink 84 and is disposed opposite to the first valve core connecting rod 526, and the second driving rack 523 extends out of the assembly sink 84 and is disposed opposite to the second valve core connecting rod 526. When the first heating and stirring cup body 12 is cooperatively connected to the assembly sink 84, the first driving rack 522 abuts against the first valve core connecting rod 526, the second driving rack 523 abuts against the second valve core connecting rod 526, the first transmission shaft is cooperatively connected to the transmission interface, the first diversion pipe 515 is inserted into the pulp discharge pipe 85, and the second diversion pipe 516 is inserted into the sewage pipe 86. Optionally, the second heating and stirring cup body 22 is provided with a pulp discharge interface communicating with the second cavity 21, and one end of the pulp discharge pipe 85 close to the second heating and stirring cup body 22 is inserted into the pulp discharge interface, and one end of the sewage pipe 86 close to the sewage tank 4 extends into the storage opening 83 or the sewage tank 4.

[0052] Example 2:

[0053] A method for making ancient - style food pulp, which is applied to the ancient - style food pulp - making equipment as in Example 1, includes the following steps:

[0054] S1: Pump water V1 from the water tank 3 into the first cavity 11. The first heating and stirring mechanism 1 heats the water in the first cavity 11 to temperature T1. After soaking the ingredients for time N1, the first heating and stirring mechanism 1 stirs and crushes the ingredients at a rotational speed S1. The single - time stirring duration is N2 minutes, and the total stirring duration is N3 minutes;

[0055] Specifically, use a water pump to pump the clear water stored in the water tank 3 into the first cavity 11, so that there is clear water with a volume of V1 in the first cavity 11, thereby soaking the ingredients in the first cavity 11. Optionally, the volume V1 can be adjusted according to factors such as the type and quantity of the ingredients, so that there is enough clear water in the first cavity 11 to submerge the ingredients. Then, heat the water in the first cavity 11 to temperature T1 through the first heating element 13. Optionally, the temperature T1 is 80°C. Maintain the water in the first cavity 11 at temperature T1 for soaking the ingredients for time N1. Optionally, the time N1 is 3 minutes to remove the fishy smell of the ingredients. Then, the first stirring motor drives the first stirring member 14 to stir and crush the ingredients at a rotational speed S1. The single - time stirring duration is N2 minutes, and the total stirring duration is N3 minutes, that is, it needs to be stirred N3 / N2 times. Thus, the first stirring member 14 intermittently grinds the ingredients multiple times to ensure that the ingredients are fully broken, making the taste of the formed solution more delicate, reducing the granular feeling. And a large amount of heat will be generated during the grinding process by the first stirring member 14. If grinding continuously, it may cause the first stirring member 14 to overheat or even stick to the bottom. Optionally, N2 and N3 can be adjusted according to factors such as the type and quantity of the ingredients. In this embodiment, intermittent grinding allows the machine to have time to dissipate heat, avoiding damage to the machine caused by overheating, and at the same time preventing the solution formed by grinding from sticking to the bottom, affecting the taste and quality. Optionally, after soaking the ingredients at temperature T1 for time N1, the discharge valve mechanism 5 can be driven to switch to state two to discharge the water in the current first cavity 11 into the sewage tank 4, and then drive the discharge valve mechanism 5 to switch to state three, and then use a water pump to pump an appropriate amount of clear water into the first cavity 11 and then start stirring and crushing the ingredients. Optionally, when the water tank 3 is not installed or has no water, the lack of water can be detected by detecting the power / electric current of the water pump and an error message is reported; before pumping water from the water tank 3 into the first cavity 11, if the water level detection sensor in the first cavity 11 detects that the water level in the first cavity 11 has reached the highest water level, an error message is reported externally and it cannot enter the working state. If the water injection reaches the highest water level during the process of pumping water from the water tank 3 into the first cavity 11, the water pump stops working and enters the next step in advance;

[0056] S2: After the first heating and stirring mechanism 1 reheats the first cavity 11 at power P1 for time N4, it then stirs and crushes the food ingredients at rotation speed S2 for time N5;

[0057] Specifically, after the first heating element 13 reheats the first cavity 11 at power P1 for time N4, the first stirring motor then drives the first stirring member 14 to stir and crush the food ingredients at rotation speed S2 for time N5. In this way, the food ingredients can be softened by heating, making it easier for the food ingredients to be broken by the first stirring member 14, thereby more fully releasing the nutrients in the food ingredients, such as protein, dietary fiber, vitamins, and minerals.

[0058] S3: Determine whether the current temperature is T2. If so, execute S4; if not, return to execute S2;

[0059] Specifically, after stirring and crushing the food ingredients for time N5, determine whether the current temperature is T2. If so, the slurry can be discharged. If not, loop through step S3. In this way, through multiple heating and grinding processes, the taste of the solution will become more delicate and smooth, reducing the raw food ingredient taste and granularity, making the ground solution easier to drink and digest. It can also promote the denaturation of proteins in the solution, forming a more stable colloidal structure and making the taste of the solution more rich and mellow. Optionally, the temperature T2 is (boiling point temperature - 3) °C, where the boiling point temperature changes with the altitude.

[0060] S4: The discharge valve mechanism 5 discharges the solution in the first cavity 11 into the second cavity 21, then closes the discharge valve mechanism 5, and pumps water V2 from the water tank 3 into the first cavity 11 to clean the first cavity 11;

[0061] Specifically, drive the discharge valve mechanism 5 to switch to state one, so that the first cavity 11 is connected to the second cavity 21, and discharge the solution in the first cavity 11 into the second cavity 21. Use the second cavity 21 to boil the solution, realizing that pulping and boiling are carried out in different chambers respectively, restoring the ancient food pulping process, and avoiding problems such as food sticking to the bottom and uneven heating that may occur when stirring and heating are carried out simultaneously in a single chamber. Then drive the discharge valve mechanism 5 to switch to state three, and use a water pump to pump water with volume V2 into the first cavity 11 to clean the first cavity 11. Optionally, when cleaning the first cavity 11, the first stirring motor can drive the first stirring member 14 to rotate to improve the cleaning effect. After cleaning, drive the discharge valve mechanism 5 to switch to state two to discharge the sewage into the sewage tank 4.

[0062] S5: The second heating and stirring mechanism 2 heats and stirs the solution in the second cavity 21. When the solution temperature is higher than T3, the second heating and stirring mechanism 2 continues to heat the solution to temperature T4 at power P2, opens the discharge valve mechanism 5 again, and drives the first heating and stirring mechanism 1 to start at rotation speed S3.

[0063] Specifically, the second heating element 23 uniformly heats the solution in the second cavity 21 and boils the solution. At the same time, the second stirring member 24 starts to rotate to stir the solution in the second cavity 21 to prevent bottom burning. At this time, the cup cover closes the opening of the cup body, and the first valve plug 513 closes the first discharge port 511, so that the second cavity 21 is in a closed state. Along with the boiling of the solution in the second cavity 21, a micro-high pressure is formed in the second cavity 21. When the second temperature sensing member 25 detects that the solution temperature is higher than T3, optionally, T3 is 90 °C, then reduce the heating power of the second heating element 23 and continue to heat the solution to temperature T4 at power P2. Optionally, the temperature T4 is (boiling point temperature - 3) °C, and drive the discharge valve mechanism 5 to switch to state one again to open the first discharge port 511 to relieve the pressure in the second cavity 21, use the pressure difference to defoam the slurry in the second cavity 21, and at the same time the overflowing foam can overflow to the first cavity 11, so that part of the foam overflowing to the first cavity 11 can be liquefied during the flow and flow back into the second cavity 21. At the same time, drive the first stirring member 14 to start at rotation speed S3 by the first stirring motor. Optionally, the rotation speed S3 is 500 - 20000 rpm, so that the first stirring member 14 rotates at rotation speed S3, so that the foam overflowing to the first cavity 11 is broken by the rotating first stirring member 14, realizing strengthening the defoaming effect, driving the foam overflowing to the first cavity 11 to be liquefied and flow back into the second cavity 21, effectively preventing the boiling foam from overflowing to the outside.

[0064] S6: The second heating and stirring mechanism 2 intermittently heats at power P3, drives the solution to be kept at temperature T5, and maintains for time N6.

[0065] Specifically, drive the second heating element 23 to intermittently heat the solution at power P3 lower than power P2, drive the solution to be kept at temperature T5, and maintain for time N6, where the temperature T5 is (boiling point temperature - 4) °C, and the time N6 is preferably 10 minutes. Preventing the excessively high continuous heating temperature may cause excessive denaturation of proteins in the solution, making the taste of the solution rough. In this embodiment, by reducing the heating power and intermittent heating, this situation can be effectively avoided, keeping the solution with better taste and quality, and helping to reduce the loss of nutrients, and also helping to reduce the generation of foam, making the boiling process more stable.

[0066] Further, after the ancient food pulping equipment is powered on and started, it can first enter the self-check mode to determine whether the contact switch 531 is triggered. If not, the driving gear 524 is driven to rotate forward or backward until the contact switch 531 is triggered, that is, the discharge valve mechanism 5 is driven to switch to state three. Optionally, it can also be determined whether the water tank 3, the sewage tank 4, the first heating and stirring mechanism 1, and the second heating and stirring mechanism 2 are installed in place. Further, it can also detect whether the stirring cup cover on the first heating and stirring cup body 12 is closed in place. Optionally, after the self-check mode ends, a selection program is entered: select the type of food to be processed and put the food into the first cavity 11. Optionally, the user can pre-set the pump water volume V1, rotation speed S1, single stirring duration N2, stirring times, power P1, heating time N4, rotation speed S2, time N5, pump water volume V2, power P2, and power P3, etc., and associate them with the corresponding food types to form a solution that suits their own taste.

[0067] The technical means disclosed in the solution of this application are not limited to the technical means disclosed in the above embodiments, but also include technical solutions composed of any combination of the above technical features. It should be noted that for those of ordinary skill in the art in this technical field, without departing from the principle of this application, several improvements and retouches can be made, and these improvements and retouches are also regarded as the protection scope of this application.

Claims

1. An ancient food pulping device, characterized in that, It includes a pulping machine main body (8), and the pulping machine main body (8) includes: A first heating and stirring mechanism (1), and the first heating and stirring mechanism (1) has a first cavity (11); A second heating and stirring mechanism (2), and the second heating and stirring mechanism (2) has a second cavity (21); A clean water tank (3), and the clean water tank (3) is communicated with the first cavity (11); A sewage tank (4), and the sewage tank (4) has a third cavity (41); A discharge valve mechanism (5), which is assembled at the bottom of the first heating and stirring mechanism (1), and has a first state of communicating the first cavity (11) with the second cavity (21), a second state of communicating the first cavity (11) with the third cavity (41), and a third state of closing the first cavity (11).

2. The ancient food pulping equipment according to claim 1, characterized in that: The first heating and stirring mechanism (1) includes: A first heating and stirring cup body (12), the first cavity (11) is arranged in the first heating and stirring cup body (12), and the first heating and stirring cup body (12) is detachably arranged on the pulping machine main body (8); A first heating element (13), and the first heating element (13) is arranged in the first cavity (11); A first stirring member (14), and the first stirring member (14) is rotatably connected to the first cavity (11); A first temperature sensing member, and the first temperature sensing member is arranged in the first cavity (11).

3. The ancient food pulping equipment according to claim 1, characterized in that: The second heating and stirring mechanism (2) includes: A second heating and stirring cup body (22), the second cavity (21) is arranged in the second heating and stirring cup body (22), and the second heating and stirring cup body (22) is detachably arranged on the pulping machine main body (8); A second heating element (23), and the second heating element (23) is arranged in the second cavity (21) and is arranged around the bottom of the second cavity (21); A second stirring member (24), and the second stirring member (24) is rotatably connected to the second cavity (21), and the bottom wall of the second cavity (21) is close to the second stirring member (24); A second temperature sensing member (25), and the second temperature sensing member (25) is arranged in the second cavity (21).

4. The ancient food pulping equipment according to claim 1, characterized in that: The discharge valve mechanism (5) includes: A discharge assembly (51), the discharge assembly (51) includes a first discharge port (511) for communicating the first cavity (11) with the second cavity (21) and a second discharge port (512) for communicating the first cavity (11) with the third cavity (41), a first valve plug (513) is movably connected in the first discharge port (511), and a second valve plug (514) is movably connected in the second discharge port (512); A spool assembly (52), the spool assembly (52) includes a spool drive member (521), a first drive rack (522) and a second drive rack (523) assembled to the main body (8) of the pulping machine. An output shaft of the spool drive member (521) is connected with a drive gear (524). The first drive rack (522) and the second drive rack (523) are respectively engaged with two opposite sides of the drive gear (524). The first valve plug (513) is connected with the first drive rack (522), and the second valve plug (514) is connected with the second drive rack (523); A contact assembly (53), the contact assembly (53) includes a contact switch (531) and a contact boss (532). The contact boss (532) is arranged on the first drive rack (522) and / or the second drive rack (523). When the discharge valve mechanism (5) is in state three, the contact boss (532) is connected with the contact switch (531).

5. The ancient food pulping equipment according to claim 4, characterized in that: The spool assembly (52) further includes a spool housing (525) detachably arranged on the first heating and stirring mechanism (1). Two spool connecting rods (526) are movably arranged through the spool housing (525). The first valve plug (513) is detachably connected with the first drive rack (522) through any one of the spool connecting rods (526), and the second valve plug (514) is detachably connected with the second drive rack (523) through the other spool connecting rod (526).

6. The ancient method food pulping equipment according to claim 5, characterized in that: An elastic element (527) is sleeved on the spool connecting rod (526). The upper end of the elastic element (527) abuts against the spool housing (525), and the lower end of the elastic element (527) abuts against a baffle (528), and the baffle (528) is fixed on the spool connecting rod (526).

7. The ancient method food pulping equipment according to claim 5, characterized in that: The spool housing (525) and the bottom of the first heating and stirring mechanism (1) cooperate to form a first diversion channel (6) and a second diversion channel (7). The first diversion channel (6) is arranged between the first discharge port (511) and the second heating and stirring mechanism (2), and the second diversion channel (7) is arranged between the second discharge port (512) and the sewage tank (4).

8. The ancient food pulping equipment according to claim 7, characterized in that: The discharge assembly (51) further includes a first diversion pipe (515) and a second diversion pipe (516). The first diversion pipe (515) is arranged between the first diversion channel (6) and the second heating and stirring mechanism (2), and the second diversion pipe (516) is arranged between the second diversion channel (7) and the sewage tank (4).

9. The ancient food pulping equipment according to claim 1, characterized in that: The main body (8) of the pulping machine includes: A main body base (81); A bottom support (82), the bottom support (82) is connected to one side of the main body base (81), and the second heating and stirring mechanism (2) is detachably connected to the bottom support (82); A storage opening (83), the storage opening (83) is opened on the other side of the main body base (81), and the sewage tank (4) is detachably connected to the storage opening (83); An assembly sunk platform (84) is provided at the upper end of the main machine base (81), and the first heating and stirring mechanism (1) is detachably connected to the assembly sunk platform (84); A slurry discharge pipe (85) is detachably arranged on the main machine base (81) and extends from the discharge valve mechanism (5) to the second heating and stirring mechanism (2); A sewage pipe (86) is arranged on the main machine base (81) and extends from the discharge valve mechanism (5) to the sewage tank (4).

10. The ancient food pulping equipment according to claim 1, characterized in that: It further includes a water pump, and the water pump is arranged between the clean water tank (3) and the first heating and stirring cup body (12).

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