Configuration stirring device and preparation method for mass production of natural calculus bovis

Abstract

The invention relates to the technical field of preparation and mixing, and discloses a preparation stirring device and a preparation method for mass production of natural calculus bovis. Through continuous three-time stirring configuration of the pre-mixing cavity, the primary configuration cavity and the secondary configuration cavity, and through the primary conveying unit, the primarily stirred and mixed liquid is pressurized and conveyed into primary liquid on the upper layer and the lower layer in the primary configuration cavity; the liquid stirred and mixed in the primary configuration cavity is pressurized and conveyed to the interior of the liquid of each layer in the secondary configuration cavity through the secondary conveying unit, so that the liquid of the previous stage is dispersed in the configuration liquid of the next stage after being stirred and configured in a mixed state; and the interiors of the premixing cavity, the primary configuration cavity and the secondary configuration cavity can be fully stirred and mixed more uniformly, and the configuration uniformity degree can be more effectively guaranteed.

Description

Technical Field

[0001] The invention relates to the technical field of configuration and mixing, in particular to a configuration stirring device and a preparation method for mass production of natural bezoar. Background Art

[0002] The stirring device is a kind of equipment widely used in chemical, pharmaceutical, food and other industries. It is mainly used to stir and mix a variety of raw materials to make them into a mixture or a machine with suitable consistency. There are many types of stirring devices, including forced mixers, single-shaft mixers, double-shaft mixers, etc. Different types of stirring devices are suitable for different stirring needs. In the stirring of various raw materials, most of the stirring blades of traditional stirring devices are horizontally rotated during the stirring process. Sometimes the upper and lower raw materials are mixed unevenly, and even the raw materials are stratified. And when handling oily liquids and powdery materials, they are easy to condense into lumps, resulting in uneven stirring.

[0003] In the pharmaceutical industry, natural bezoar is the dried gallstone of cattle, a member of the Bovidae family. It is a precious Chinese medicinal material with the effects of clearing away heat and detoxifying, relieving swelling and pain, and dispelling wind and relieving phlegm. It is widely used in the field of traditional Chinese medicine and is an important raw material for many precious Chinese patent medicines. The existing method of producing natural bezoar is to cultivate special jaundice-causing factors in the gallbladder of living cattle through biotechnology. After 1-3 years of natural growth and cultivation, a substance consistent with natural bezoar is formed in the gallbladder of the living cattle.

[0004] In the process of extracting natural bezoar, ultrasonic-assisted extraction and bio-enzyme technology are usually used. Among them, ultrasonic-assisted extraction can extract the active ingredients in bezoar in an ethanol-water mixed solvent system, and optimize the extraction process, including parameters such as extraction time, solvent ratio and ultrasonic power, to improve the extraction efficiency and retain the activity of the effective ingredients in bezoar. Bio-enzyme technology obtains artificial bezoar of near-natural quality through heating, adjusting pH value, adding bio-enzymes, and then reacting, standing, refrigerating, filtering, refining and purification.

[0005] In the existing production process of natural bezoar, it is necessary to stir and mix it with the extractant to produce a uniform extract to facilitate the subsequent cooling and crystallization. When the existing stirring device is used to stir and mix the extract, the upper and lower raw materials will be mixed unevenly, and even the raw materials will be stratified. Especially when extracting powdered natural bezoar, it is easy to coagulate into lumps, resulting in uneven stirring, which in turn leads to poor extraction effect and poor yield. Summary of the invention

[0006] In view of the deficiencies in the prior art, the present invention provides a method for preparing natural bezoar in a mass production manner and equipped with a stirring device.

[0007] In order to solve the above technical problems, the present invention provides the following technical solutions: A configuration stirring device comprises a configuration box, wherein a premixing chamber, a primary configuration chamber and a secondary configuration chamber are sequentially arranged inside the configuration box, a configuration feeding mechanism is arranged at the top of the configuration box and located at the top of the premixing chamber, a liquid inlet mechanism is arranged on one side of the configuration box, a conveying mechanism is arranged on the other side of the configuration box, and a quantitative output mechanism is arranged at one end of the configuration box close to the secondary configuration chamber; the liquid inlet mechanism comprises a premixing liquid inlet unit, a primary liquid inlet pipe and a secondary liquid inlet pipe, and the conveying mechanism comprises a primary conveying unit and a secondary conveying unit; solid raw materials are quantitatively conveyed from the configuration feeding mechanism to the inside of the premixing chamber, and the solid raw materials are quantitatively conveyed ... The material is preliminarily stirred and mixed with the premixed liquid input from the premixed liquid inlet unit, the primary liquid is preliminarily input from the primary liquid inlet pipe into the primary configuration chamber, and the primary delivery unit can pressurize and deliver the liquid preliminarily stirred and mixed inside the premixed chamber to the upper and lower layers of primary liquid inside the primary configuration chamber; the secondary liquid is preliminarily input from the secondary liquid inlet pipe into the secondary configuration chamber, and the secondary delivery unit can pressurize and deliver the liquid stirred and mixed inside the primary configuration chamber to the upper and lower layers of secondary liquid inside the secondary configuration chamber; the quantitative output mechanism can quantitatively output the liquid stirred and mixed inside the secondary configuration chamber.

[0008] Preferably, the feeding mechanism includes an upper feed hopper and a lower conveying hopper, the top end of the upper feed hopper is open, and the bottom end of the upper feed hopper and the top end of the lower conveying hopper are connected; a loosening motor is arranged on the outer side of the bottom end of the upper feed hopper, and a loosening blade is arranged on the output end of the loosening motor, and the loosening blade extends into the bottom end of the upper feed hopper, and a vibration motor is arranged on the outer side of the lower conveying hopper; the loosening motor can drive the loosening blade to rotate, and the vibration motor can drive the lower conveying hopper to vibrate, and the vibration of the vibration motor and the rotation of the loosening blade can cooperate to loosen the solid raw materials inside the upper feed hopper and the lower conveying hopper.

[0009] Preferably, a conveying cylinder is provided on one side of the bottom end of the lower conveying bucket, and the conveying cylinder is provided above the feeding cylinder provided at the top end of the premixing chamber, and a feeding motor is provided on the bottom end of the lower conveying bucket away from the conveying cylinder, and a feeding screw is provided on the output end of the feeding motor, and the end of the feeding screw away from the feeding motor passes through the conveying cylinder; the feeding motor can drive the feeding screw to rotate, and convey the solid raw material at the bottom end of the lower conveying bucket to the feeding cylinder at a constant speed.

[0010] Preferably, a connecting cylinder is also provided at the top of the premixing chamber, a flushing cylinder is provided at the side of the feeding cylinder close to the premixing liquid inlet unit, and the premixing liquid inlet unit includes a premixing liquid inlet main pipe, a flushing liquid inlet pipe and a premixing connecting pipe; one end of the flushing liquid inlet pipe is connected to the flushing cylinder, and the other end of the flushing liquid inlet pipe is connected to the premixing liquid inlet main pipe, one end of the premixing connecting pipe is connected to the connecting cylinder, and the other end of the premixing connecting pipe is connected to the premixing liquid inlet main pipe, and the premixed liquid input from the flushing liquid inlet pipe to the flushing cylinder can flush the inner wall of the feeding cylinder; a premixing motor is also provided at the top of the premixing chamber, and a premixing stirring paddle is provided at the output end of the premixing motor, and the premixing stirring paddle extends into the interior of the premixing chamber, and the premixing motor can drive the premixing stirring paddle to rotate in one direction inside the premixing chamber.

[0011] Preferably, a primary configuration motor is provided at the top of the primary configuration chamber, and a primary configuration paddle is provided at the output end of the primary configuration motor, and the primary configuration paddle extends into the interior of the primary configuration chamber, and the primary configuration motor can drive the primary configuration paddle to rotate in one direction inside the primary configuration chamber; a primary liquid inlet is also provided on the side of the top of the primary configuration chamber close to the primary liquid inlet pipe, and the primary liquid inlet pipe is connected to the interior of the primary configuration chamber through the primary liquid inlet.

[0012] Preferably, the primary delivery unit includes a primary connecting pipe, a primary annular pipe and a plurality of primary output rods, one end of the primary connecting pipe is connected to the bottom end of the premixing chamber, and the other end of the primary connecting pipe is connected to the primary annular pipe through a primary pressure pump; the primary annular pipe is arranged at the bottom end of the primary configuration chamber, and the primary annular pipe is arranged on the outside of the primary configuration paddle, and the bottom end of each primary output rod is connected to the primary annular pipe; a plurality of primary output nozzles are arranged on the outside of each primary output rod, and a plurality of primary output flow channels are opened on the outer surface of the primary output nozzle, and each of the primary output flow channels is inclined from the inside of the primary output nozzle to the outside of the primary output nozzle, and the inclination direction is opposite to the rotation direction of the primary configuration paddle.

[0013] Preferably, a secondary configuration motor is provided at the top of the secondary configuration chamber, and a secondary configuration paddle is provided at the output end of the secondary configuration motor, and the secondary configuration paddle extends into the interior of the secondary configuration chamber, and the secondary configuration motor can drive the secondary configuration paddle to rotate in one direction inside the secondary configuration chamber; a secondary liquid inlet is also provided on the side of the top of the secondary configuration chamber close to the secondary liquid inlet pipe, and the secondary liquid inlet pipe is connected to the interior of the secondary configuration chamber through the secondary liquid inlet.

[0014] Preferably, the secondary conveying unit includes a secondary connecting pipe, a secondary annular pipe and a plurality of secondary output rods, one end of the secondary connecting pipe is connected to the bottom end of the premixing chamber, and the other end of the secondary connecting pipe is connected to the secondary annular pipe through a secondary pressure pump; the secondary annular pipe is arranged at the bottom end of the secondary configuration chamber, and the secondary annular pipe is arranged on the outside of the secondary configuration paddle, and the bottom end of each secondary output rod is connected to the secondary annular pipe; a plurality of secondary output nozzles are arranged on the outside of each secondary output rod, and a plurality of secondary output flow channels are opened on the outer surface of the secondary output nozzle, and each of the secondary output flow channels is inclined from the inside of the secondary output nozzle to the outside of the secondary output nozzle, and the inclination direction is opposite to the rotation direction of the secondary configuration paddle.

[0015] Preferably, the quantitative output mechanism includes an output pipeline and an output metering pump, one end of the output pipeline is connected to the bottom end of the secondary configuration chamber, and the other end of the output pipeline is connected to the output metering pump, and the output metering pump can quantitatively extract liquid through the output pipeline for output.

[0016] A preparation method for mass production of natural bezoar, using the above-mentioned stirring device, comprises the following steps: The natural bezoar powder after crushing is input into the configuration feeding mechanism for temporary storage, pure water is input into the premixing chamber in advance through the premixing liquid inlet unit, the primary ethanol solution is input into the primary configuration chamber in advance through the primary liquid inlet pipe, and the secondary ethanol solution is input into the secondary configuration chamber in advance through the secondary liquid inlet pipe; The natural bezoar powder is quantitatively transported from the configured feeding mechanism to the interior of the premixing chamber, and the natural bezoar powder is preliminarily stirred and mixed between the premixing chamber and the pure water to obtain a natural bezoar suspension; The natural bezoar suspension is extracted by the primary conveying unit and conveyed under pressure to the upper and lower primary ethanol solutions in the primary configuration chamber, the natural bezoar suspension is dispersed in the primary ethanol solution, and stirred and mixed in the primary configuration chamber to perform primary extraction of effective components in the natural bezoar suspension to obtain a primary natural bezoar extract; The primary natural bezoar extract is extracted by the secondary conveying unit and conveyed under pressure to the upper and lower layers of the secondary configuration chamber, the primary natural bezoar extract is dispersed in the secondary ethanol solution, and stirred and mixed in the secondary configuration chamber to extract the effective components in the primary natural bezoar extract again to obtain the secondary natural bezoar extract; The secondary natural bezoar extract is quantitatively output from the quantitative output mechanism for subsequent purification operations.

[0017] Compared with the prior art, the present invention provides a method for preparing natural bezoar in a mass production manner and is equipped with a stirring device, which has the following beneficial effects: 1. This configuration stirring device is configured by three consecutive stirring configurations of the premixing chamber, the primary configuration chamber and the secondary configuration chamber, and the liquid preliminarily stirred and mixed is pressurized and transported to the upper and lower layers of primary liquid in the primary configuration chamber by the primary conveying unit, and the liquid stirred and mixed in the primary configuration chamber is pressurized and transported to the upper and lower layers of graded liquid in the secondary configuration chamber by the secondary conveying unit, so that the liquid stirred and configured in the previous stage can be dispersed in the configuration liquid of the next stage in a mixed state, and the premixing chamber, the primary configuration chamber and the secondary configuration chamber can be more evenly stirred and mixed, and the uniformity of the configuration can be more effectively ensured.

[0018] 2. This type of stirring device is configured, in which the loosening blades are driven to rotate by the loosening motor, and the vibration motor drives the lower conveying bucket to vibrate. The vibration of the vibration motor and the rotation of the loosening blades can cooperate to loosen the solid raw materials inside the upper feeding hopper and the lower conveying bucket, so as to ensure that the looseness of the solid raw materials entering the bottom end of the lower conveying bucket remains constant, so that the feeding screw can be driven to rotate by the feeding motor to convey the solid raw materials at the bottom end of the lower conveying bucket to the feeding barrel at a constant speed, thereby achieving the purpose of quantitative conveying. When in use, the premixed liquid input from the flushing liquid inlet pipe to the flushing barrel can flush the inner wall of the feeding barrel through the connection between the flushing liquid inlet pipe and the flushing barrel, thereby ensuring that the solid raw materials quantitatively conveyed from the configured feeding mechanism to the feeding barrel can be completely delivered to the premixing chamber, which can effectively ensure the accuracy of the configured solid raw material quantity, and thus ensure the accuracy of the final configured product.

[0019] 3. With this configuration of the stirring device, the liquid premixed inside the premixing chamber can be input into the primary annular pipe along the primary connecting pipe under the pressure of the primary pressure pump, and then transported from the primary output rod to each primary output nozzle, so as to be layeredly sent into the liquid layer inside the primary configuration chamber where each primary output flow channel is located through each primary output flow channel opened on the outer surface of the primary output nozzle, and each primary output flow channel is inclined from the inside of the primary output nozzle to the outside of the primary output nozzle, and the inclination direction is opposite to the rotation direction of the primary configuration paddle, so that a vortex with a counter-action and a flow direction different from the overall liquid can be generated, which can more effectively promote the mixing between the premixed liquid and the primary liquid, ensure the uniformity of the coordination inside the primary configuration chamber, and ensure the effectiveness of the configuration. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 This is one of the three-dimensional structural schematic diagrams of a stirring device configured in the present invention; Figure 2This is a second schematic diagram of a three-dimensional structure of a stirring device provided in the present invention; Figure 3 This is a third schematic diagram of a three-dimensional structure of a stirring device configured in the present invention; Figure 4 This is a schematic diagram of the internal structure of a stirring device configured in the present invention; Figure 5 A schematic diagram of the stirring direction of a stirring device configured in the present invention; Figure 6 It is a schematic diagram of the internal structure of a primary configuration chamber and a secondary configuration chamber configured with a stirring device according to the present invention; Figure 7 For the present invention Figure 6 A magnified view of part A; Figure 8 It is a three-dimensional structural schematic diagram of a feeding mechanism equipped with a stirring device according to the present invention; Fig. 9 The present invention is a schematic diagram of the internal structure of a feeding mechanism equipped with a stirring device.

[0021] In the figure: 1. configuration box; 2. premixing chamber; 21. feeding cylinder; 22. connecting cylinder; 23. flushing cylinder; 24. premixing motor; 25. premixing stirring paddle; 3. primary configuration chamber; 31. primary configuration motor; 32. primary configuration paddle; 33. primary liquid inlet; 4. secondary configuration chamber; 41. secondary configuration motor; 42. secondary configuration paddle; 43. secondary liquid inlet; 5. configuration feeding mechanism; 51. upper feeding hopper; 52. lower conveying hopper; 53. loosening motor; 531. loosening blade; 54. vibration motor; 55. conveying cylinder; 56. feeding motor; 57. feeding screw; 6. liquid inlet mechanism; 61. premixing liquid inlet unit; 611. premixing Mixing liquid main pipe; 612, flushing liquid inlet pipe; 613, premixing connecting pipe; 62, primary liquid inlet pipe; 63, secondary liquid inlet pipe; 7, conveying mechanism; 71, primary conveying unit; 711, primary connecting pipe; 712, primary annular pipeline; 713, primary output rod; 714, primary pressure pump; 715, primary output nozzle; 716, primary output flow channel; 72, secondary conveying unit; 721, secondary connecting pipe; 722, secondary annular pipeline; 723, secondary output rod; 724, secondary pressure pump; 725, secondary output nozzle; 726, secondary output flow channel; 8, quantitative output mechanism; 81, output pipeline; 82, output metering pump. DETAILED DESCRIPTION

[0022] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0023] As introduced in the background technology, there are deficiencies in the prior art. In order to solve the above technical problems, the present application proposes a preparation method for mass production of natural bezoar with a stirring device.

[0024] Embodiment 1

[0025] See also Figure 1-Figure 9 A configuration stirring device comprises a configuration box 1, wherein a premixing chamber 2, a primary configuration chamber 3 and a secondary configuration chamber 4 are sequentially arranged inside the configuration box 1, a configuration feeding mechanism 5 is arranged at the top of the configuration box 1 and located at the top of the premixing chamber 2, a liquid inlet mechanism 6 is arranged on one side of the configuration box 1, a conveying mechanism 7 is arranged on the other side of the configuration box 1, and a quantitative output mechanism 8 is arranged at one end of the configuration box 1 close to the secondary configuration chamber 4; the liquid inlet mechanism 6 comprises a premixing liquid inlet unit 61, a primary liquid inlet pipe 62 and a secondary liquid inlet pipe 63, and the conveying mechanism 7 comprises a primary conveying unit 71 and a secondary conveying unit 72; the solid raw material is quantitatively conveyed from the configuration feeding mechanism 5 to the premixing chamber 2; Inside the cavity 2, the solid raw material is preliminarily stirred and mixed with the premixed liquid input from the premixed liquid inlet unit 61, the primary liquid is preliminarily input from the primary liquid inlet pipe 62 to the primary configuration cavity 3, and the primary conveying unit 71 can pressurize and convey the liquid preliminarily stirred and mixed inside the premixed cavity 2 to the upper and lower layers of primary liquid inside the primary configuration cavity 3; the secondary liquid is preliminarily input from the secondary liquid inlet pipe 63 to the secondary configuration cavity 4, and the secondary conveying unit 72 can pressurize and convey the liquid stirred and mixed inside the primary configuration cavity 3 to the upper and lower layers of secondary liquid inside the secondary configuration cavity 4; the quantitative output mechanism 8 can quantitatively output the liquid stirred and mixed inside the secondary configuration cavity 4.

[0026] When in use, the raw materials to be configured need to be prepared in advance, and the raw materials may include solids and liquids, or both may be liquids. When there are solids in the configured raw materials, the solid raw materials need to be pre-placed in the configuration feeding mechanism 5 (various solid raw materials are pre-mixed evenly), and the storage tanks of other liquid raw materials are connected to the premixing liquid inlet unit 61, the primary liquid inlet pipe 62 and the secondary liquid inlet pipe 63 respectively (if there are more than three liquid raw materials to be configured, it is necessary to premix so that the liquid raw materials are less than or equal to three), and then the solid raw materials are quantitatively transported to the premixing chamber 2 through the configuration feeding mechanism 5, and the solid raw materials are preliminarily stirred and mixed with the premixed liquid (the first liquid raw material) input from the premixing liquid inlet unit 61, and the primary liquid (the second liquid raw material) is pre-input into the primary configuration chamber 3 from the primary liquid inlet pipe 62, and the primary conveying unit 71 can pressurize and transport the liquid preliminarily stirred and mixed in the premixing chamber 2 to the upper and lower layers of the primary liquid inlet pipe 62 in the primary configuration chamber 3. Inside, the secondary liquid (third liquid raw material) is pre-input into the secondary configuration chamber 4 from the secondary liquid inlet pipe 63, and the secondary conveying unit 72 can pressurize and convey the liquid stirred and mixed inside the primary configuration chamber 3 to the upper and lower layers of graded liquid inside the secondary configuration chamber 4, so as to be stirred and configured three times in a row through the premixing chamber 2, the primary configuration chamber 3 and the secondary configuration chamber 4, and the liquid stirred and mixed preliminarily is pressurized and conveyed to the upper and lower layers of primary liquid inside the primary configuration chamber 3 through the primary conveying unit 71, and the liquid stirred and mixed inside the primary configuration chamber 3 is pressurized and conveyed to the upper and lower layers of graded liquid inside the secondary configuration chamber 4 through the secondary conveying unit 72, so that the liquid stirred and configured in the previous stage can be dispersed in the configuration liquid of the next stage in a mixed state, and the premixing chamber 2, the primary configuration chamber 3 and the secondary configuration chamber 4 can be more evenly stirred, mixed and configured, and the uniformity of the configuration can be more effectively guaranteed.

[0027] Embodiment 2

[0028] See also Figure 1-Figure 4 , Figure 8-Figure 9 , which is different from the above-mentioned embodiment, is that the feeding mechanism 5 includes an upper feeding hopper 51 and a lower conveying hopper 52, the top of the upper feeding hopper 51 is open, and the bottom end of the upper feeding hopper 51 and the top end of the lower conveying hopper 52 are connected; a loosening motor 53 is arranged on the outer side of the bottom end of the upper feeding hopper 51, and a loosening blade 531 is arranged on the output end of the loosening motor 53, and the loosening blade 531 extends into the bottom end of the upper feeding hopper 51, and a vibration motor 54 is arranged on the outer side of the lower conveying hopper 52; the loosening motor 53 can drive the loosening blade 531 to rotate, and the vibration motor 54 can drive the lower conveying hopper 52 to vibrate, and the vibration of the vibration motor 54 and the rotation of the loosening blade 531 can cooperate to loosen the solid raw materials inside the upper feeding hopper 51 and the lower conveying hopper 52.

[0029] A conveying cylinder 55 is provided on one side of the bottom end of the lower conveying bucket 52, and the conveying cylinder 55 is arranged above the feeding cylinder 21 arranged at the top end of the premixing chamber 2, and a feeding motor 56 is provided on the bottom end of the lower conveying bucket 52 away from the conveying cylinder 55, and a feeding screw 57 is provided at the output end of the feeding motor 56, and the end of the feeding screw 57 away from the feeding motor 56 passes through the conveying cylinder 55; the feeding motor 56 can drive the feeding screw 57 to rotate, and convey the solid raw material at the bottom end of the lower conveying bucket 52 to the feeding cylinder 21 at a constant speed.

[0030] A connecting cylinder 22 is also provided at the top of the premixing chamber 2, and a flushing cylinder 23 is provided on the side of the feeding cylinder 21 close to the premixing liquid inlet unit 61. The premixing liquid inlet unit 61 includes a premixing liquid inlet main pipe 611, a flushing liquid inlet pipe 612 and a premixing connecting pipe 613; one end of the flushing liquid inlet pipe 612 is connected to the flushing cylinder 23, and the other end of the flushing liquid inlet pipe 612 is connected to the premixing liquid inlet main pipe 611, one end of the premixing connecting pipe 613 is connected to the connecting cylinder 22, and the other end of the premixing connecting pipe 613 is connected to the premixing liquid inlet main pipe 611, and the premixed liquid input from the flushing liquid inlet pipe 612 to the flushing cylinder 23 can flush the inner wall of the feeding cylinder 21; a premixing motor 24 is also provided at the top of the premixing chamber 2, and a premixing stirring paddle 25 is provided at the output end of the premixing motor 24, and the premixing stirring paddle 25 extends into the interior of the premixing chamber 2, and the premixing motor 24 can drive the premixing stirring paddle 25 to rotate in one direction inside the premixing chamber 2.

[0031] When in use, firstly, the solid raw material is pre-placed inside the configuration feeding mechanism 5, and then the loosening blade 531 is driven to rotate by the loosening motor 53, and the vibration motor 54 drives the lower conveying bucket 52 to vibrate. The vibration of the vibration motor 54 and the rotation of the loosening blade 531 can cooperate to loosen the solid raw material inside the upper feeding bucket 51 and the lower conveying bucket 52, so as to ensure that the looseness of the solid raw material at the bottom end of the lower conveying bucket 52 remains constant, so that the feeding screw 57 can be driven to rotate by the feeding motor 56 to loosen the solid raw material in the lower conveying bucket 52. The solid raw materials at the bottom of the part are transported to the feed barrel 21 at a constant speed, so as to achieve the purpose of quantitative transportation. When in use, the connection between the flushing liquid inlet pipe 612 and the flushing barrel 23 can be used, and the premixed liquid input from the flushing liquid inlet pipe 612 to the flushing barrel 23 can flush the inner wall of the feed barrel 21, thereby ensuring that the solid raw materials quantitatively transported from the configured feeding mechanism 5 to the feed barrel 21 can be completely fed into the premixing chamber 2, which can effectively ensure the accuracy of the configured solid raw material amount, and then ensure the accuracy of the final configured product.

[0032] Embodiment 3

[0033] See also Figure 1-Figure 7, which is different from the above-mentioned embodiment, is that a primary configuration motor 31 is provided at the top of the primary configuration chamber 3, and a primary configuration paddle 32 is provided at the output end of the primary configuration motor 31, and the primary configuration paddle 32 extends into the interior of the primary configuration chamber 3, and the primary configuration motor 31 can drive the primary configuration paddle 32 to rotate in one direction inside the primary configuration chamber 3; a primary liquid inlet 33 is also provided on one side of the top of the primary configuration chamber 3 close to the primary liquid inlet pipe 62, and the primary liquid inlet pipe 62 is connected to the interior of the primary configuration chamber 3 through the primary liquid inlet 33.

[0034] The primary delivery unit 71 includes a primary connecting pipe 711, a primary annular pipe 712 and a plurality of primary output rods 713. One end of the primary connecting pipe 711 is connected to the bottom end of the premixing chamber 2, and the other end of the primary connecting pipe 711 is connected to the primary annular pipe 712 through a primary pressure pump 714; the primary annular pipe 712 is arranged at the bottom end of the primary configuration chamber 3, and the primary annular pipe 712 is arranged on the outside of the primary configuration paddle 32, and the bottom end of each primary output rod 713 is connected to the primary annular pipe 712; a plurality of primary output nozzles 715 are arranged on the outside of each primary output rod 713, and a plurality of primary output flow channels 716 are opened on the outer surface of the primary output nozzle 715, and each primary output flow channel 716 is inclined from the inside of the primary output nozzle 715 to the outside of the primary output nozzle 715, and the inclination direction is opposite to the rotation direction of the primary configuration paddle 32.

[0035] Therefore, when in use, the premixed liquid inside the premixing chamber 2 can be input into the primary annular pipe 712 along the primary connecting pipe 711 under the pressurized action of the primary pressure pump 714, and then transported from the primary output rod 713 to each primary output nozzle 715, so as to be layeredly sent into the liquid layer inside the primary configuration chamber 3 where each primary output flow channel 716 is located through each primary output flow channel 716 opened on the outer surface of the primary output nozzle 715, and each primary output flow channel 716 is inclined from the inside of the primary output nozzle 715 to the outside of the primary output nozzle 715, and the inclination direction is opposite to the rotation direction of the primary configuration paddle 32, so that a vortex with a counter-action and a direction different from the overall liquid flow direction can be generated, which can more effectively promote the mixing between the premixed liquid and the primary liquid, ensure the uniformity of the coordination inside the primary configuration chamber 3, and ensure the effectiveness of the configuration.

[0036] A secondary configuration motor 41 is provided at the top of the secondary configuration chamber 4, and a secondary configuration paddle 42 is provided at the output end of the secondary configuration motor 41. The secondary configuration paddle 42 extends into the interior of the secondary configuration chamber 4, and the secondary configuration motor 41 can drive the secondary configuration paddle 42 to rotate in one direction inside the secondary configuration chamber 4; a secondary liquid inlet 43 is also provided on one side of the top of the secondary configuration chamber 4 close to the secondary liquid inlet pipe 63, and the secondary liquid inlet pipe 63 is connected to the interior of the secondary configuration chamber 4 through the secondary liquid inlet 43.

[0037] The secondary conveying unit 72 includes a secondary connecting pipe 721, a secondary annular pipe 722 and a plurality of secondary output rods 723. One end of the secondary connecting pipe 721 is connected to the bottom end of the premixing chamber 2, and the other end of the secondary connecting pipe 721 is connected to the secondary annular pipe 722 through a secondary pressure pump 724. The secondary annular pipe 722 is arranged at the bottom end of the secondary configuration chamber 4, and the secondary annular pipe 722 is arranged on the outside of the secondary configuration paddle 42, and the bottom end of each secondary output rod 723 is connected to the secondary annular pipe 722. A plurality of secondary output nozzles 725 are arranged on the outside of each secondary output rod 723, and a plurality of secondary output flow channels 726 are opened on the outer surface of the secondary output nozzle 725. Each secondary output flow channel 726 is inclined from the inside of the secondary output nozzle 725 to the outside of the secondary output nozzle 725, and the inclination direction is opposite to the rotation direction of the secondary configuration paddle 42.

[0038] Similar to the configuration process inside the primary configuration chamber 3 mentioned above, the liquid after primary configuration inside the primary configuration chamber 3 can be input into the secondary annular pipe 722 along the secondary connecting pipe 721 under the pressurized action of the secondary pressure pump 724, and then transported from the secondary output rod 723 to each secondary output nozzle 725, so as to be layeredly sent into the liquid layer inside the secondary configuration chamber 4 where each secondary output flow channel 726 is located through each secondary output flow channel 726 opened on the outer surface of the secondary output nozzle 725, and each secondary output flow channel 726 is inclined from the inside of the secondary output nozzle 725 to the outside of the secondary output nozzle 725, and the inclination direction is opposite to the rotation direction of the secondary configuration paddle 42, so that a vortex with a counteraction and a direction different from the overall liquid flow direction can be generated, which can more effectively promote the mixing between the premixed liquid and the secondary liquid, ensure the uniformity of the coordination inside the secondary configuration chamber 4, and ensure the effectiveness of the configuration.

[0039] The quantitative output mechanism 8 includes an output pipeline 81 and an output metering pump 82. One end of the output pipeline 81 is connected to the bottom end of the secondary configuration chamber 4, and the other end of the output pipeline 81 is connected to the output metering pump 82. The output metering pump 82 can quantitatively extract liquid through the output pipeline 81 for output.

[0040] Therefore, the output metering pump 82 can be used to output the configured liquid in a quantitative manner, thereby ensuring the accuracy of subsequent processing.

[0041] Embodiment 4

[0042] A preparation method for mass production of natural bezoar, using a stirring device configured as described in any one of Embodiments 1 to 3, comprising the following steps: The natural bezoar powder after crushing is input into the configuration feeding mechanism 5 for temporary storage, pure water is pre-input into the pre-mixing chamber 2 through the pre-mixing liquid inlet unit 61, the primary ethanol solution (primary ethanol solution, ethanol and pure water volume ratio is 1:4) is pre-input into the primary configuration chamber 3 through the primary liquid inlet pipe 62, and the secondary ethanol solution (secondary ethanol solution, ethanol and pure water volume ratio is 2:3) is pre-input into the secondary configuration chamber 4 through the secondary liquid inlet pipe 63; The natural bezoar powder is quantitatively transported from the feeding mechanism 5 to the interior of the premixing chamber 2, and the natural bezoar powder is preliminarily stirred and mixed between the premixing chamber 2 and the pure water to obtain a natural bezoar suspension; The natural bezoar suspension is extracted by the primary conveying unit 71 and conveyed under pressure to the upper and lower layers of primary ethanol solutions in the primary configuration chamber 3, the natural bezoar suspension is dispersed in the primary ethanol solution, and stirred and mixed in the primary configuration chamber 3 to perform primary extraction of the effective components in the natural bezoar suspension to obtain a primary natural bezoar extract; The primary natural bezoar extract is extracted by the secondary conveying unit 72 and conveyed under pressure to the upper and lower layers of the secondary configuration chamber 4, the primary natural bezoar extract is dispersed in the secondary ethanol solution, and stirred and mixed in the secondary configuration chamber 4 to extract the effective components in the primary natural bezoar extract again to obtain the secondary natural bezoar extract; The secondary natural bezoar extract is quantitatively output from the quantitative output mechanism 8 for subsequent purification operations.

[0043] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A stirring device, comprising a box, characterized in that: The configuration box is provided with a premixing chamber, a primary configuration chamber and a secondary configuration chamber in sequence, a configuration feeding mechanism is provided at the top of the configuration box and located at the top of the premixing chamber, a liquid inlet mechanism is provided on one side of the configuration box, a conveying mechanism is provided on the other side of the configuration box, and a quantitative output mechanism is provided at one end of the configuration box close to the secondary configuration chamber; The liquid inlet mechanism includes a premixed liquid inlet unit, a primary liquid inlet pipe and a secondary liquid inlet pipe, and the delivery mechanism includes a primary delivery unit and a secondary delivery unit; Solid raw materials are quantitatively transported from the configuration feeding mechanism to the inside of the premixing chamber, the solid raw materials are preliminarily stirred and mixed with the premixed liquid input from the premixing liquid inlet unit, the primary liquid is preliminarily input from the primary liquid inlet pipe to the primary configuration chamber, and the primary transport unit can pressurize and transport the preliminarily stirred and mixed liquid inside the premixing chamber to the upper and lower layers of primary liquid inside the primary configuration chamber; The secondary liquid is inputted into the secondary configuration chamber from the secondary liquid inlet pipe in advance, and the secondary delivery unit can pressurize and deliver the liquid stirred and mixed inside the primary configuration chamber to the upper and lower layers of the secondary configuration chamber; The quantitative output mechanism can quantitatively output the liquid stirred and mixed inside the secondary configuration chamber.

2. A stirring device according to claim 1, characterized in that: The feeding mechanism includes an upper feeding hopper and a lower conveying hopper, the top of the upper feeding hopper is open, and the bottom of the upper feeding hopper is connected to the top of the lower conveying hopper; A loosening motor is arranged on the outer side of the bottom end of the upper feed hopper, a loosening blade is arranged on the output end of the loosening motor, and the loosening blade extends into the bottom end of the upper feed hopper, and a vibration motor is arranged on the outer side of the lower conveying hopper; The loosening motor can drive the loosening blades to rotate, and the vibration motor can drive the lower conveying bucket to vibrate. The vibration of the vibration motor and the rotation of the loosening blades can cooperate to loosen the solid raw materials inside the upper feed hopper and the lower conveying bucket.

3. A stirring device according to claim 2, characterized in that: A conveying cylinder is arranged on one side of the bottom end of the lower conveying bucket, and the conveying cylinder is arranged above the feeding cylinder arranged at the top end of the premixing chamber, and a feeding motor is arranged on the bottom end of the lower conveying bucket away from the conveying cylinder, and a feeding screw is arranged on the output end of the feeding motor, and one end of the feeding screw away from the feeding motor passes through the conveying cylinder; The feeding motor can drive the feeding screw to rotate, so as to convey the solid raw materials at the bottom end of the lower conveying bucket to the feeding barrel at a constant speed.

4. A stirring device according to claim 3, characterized in that: The top of the premixing chamber is also provided with a connecting tube, and a flushing tube is provided on the side of the feeding tube close to the premixing liquid inlet unit. The premixing liquid inlet unit includes a premixing liquid inlet main pipe, a flushing liquid inlet pipe and a premixing connecting pipe; One end of the flushing liquid inlet pipe is connected to the flushing cylinder, the other end of the flushing liquid inlet pipe is connected to the premixing liquid inlet main pipe, one end of the premixing connecting pipe is connected to the connecting cylinder, the other end of the premixing connecting pipe is connected to the premixing liquid inlet main pipe, and the premixed liquid input from the flushing liquid inlet pipe to the flushing cylinder can flush the inner wall of the feed cylinder; A premixing motor is also provided at the top of the premixing chamber, and a premixing stirring paddle is provided at the output end of the premixing motor. The premixing stirring paddle extends into the premixing chamber, and the premixing motor can drive the premixing stirring paddle to rotate in one direction inside the premixing chamber.

5. The stirring device according to claim 1, characterized in that: A primary configuration motor is disposed at the top of the primary configuration cavity, a primary configuration paddle is disposed at the output end of the primary configuration motor, the primary configuration paddle extends into the primary configuration cavity, and the primary configuration motor can drive the primary configuration paddle to rotate in one direction inside the primary configuration cavity; A primary liquid inlet is also provided on one side of the top of the primary configuration cavity close to the primary liquid inlet pipe, and the primary liquid inlet pipe is communicated with the interior of the primary configuration cavity through the primary liquid inlet.

6. A stirring device according to claim 5, characterized in that: The primary delivery unit comprises a primary connecting pipe, a primary annular pipe and a plurality of primary output rods, one end of the primary connecting pipe is connected to the bottom end of the premixing chamber, and the other end of the primary connecting pipe is connected to the primary annular pipe via a primary pressure pump; The primary annular pipeline is arranged at the bottom end of the primary configuration cavity, and the primary annular pipeline is arranged outside the primary configuration paddle, and the bottom end of each primary output rod is connected to the primary annular pipeline; A plurality of primary output nozzles are arranged on the outside of each of the primary output rods, and a plurality of primary output flow channels are opened on the outer surface of the primary output nozzles. Each of the primary output flow channels is inclined from the inside of the primary output nozzle to the outside of the primary output nozzle, and the inclination direction is opposite to the rotation direction of the primary configuration paddle.

7. A stirring device according to claim 1, characterized in that: A secondary configuration motor is disposed at the top of the secondary configuration cavity, a secondary configuration paddle is disposed at the output end of the secondary configuration motor, the secondary configuration paddle extends into the interior of the secondary configuration cavity, and the secondary configuration motor can drive the secondary configuration paddle to rotate in one direction inside the secondary configuration cavity; A secondary liquid inlet is also provided on one side of the top of the secondary configuration cavity close to the secondary liquid inlet pipe, and the secondary liquid inlet pipe is communicated with the interior of the secondary configuration cavity through the secondary liquid inlet.

8. A stirring device according to claim 7, characterized in that: The secondary delivery unit comprises a secondary connecting pipe, a secondary annular pipeline and a plurality of secondary output rods, one end of the secondary connecting pipe is connected to the bottom end of the premixing chamber, and the other end of the secondary connecting pipe is connected to the secondary annular pipeline via a secondary pressure pump; The secondary annular pipeline is arranged at the bottom end of the secondary configuration cavity, and the secondary annular pipeline is arranged outside the secondary configuration paddle, and the bottom end of each secondary output rod is communicated with the secondary annular pipeline; A plurality of secondary output nozzles are arranged on the outside of each of the secondary output rods, and a plurality of secondary output flow channels are opened on the outer surface of the secondary output nozzles. Each of the secondary output flow channels is inclined from the inside of the secondary output nozzle to the outside of the secondary output nozzle, and the inclination direction is opposite to the rotation direction of the secondary configuration paddle.

9. The stirring device according to claim 1, characterized in that: The quantitative output mechanism includes an output pipeline and an output metering pump. One end of the output pipeline is connected to the bottom end of the secondary configuration cavity, and the other end of the output pipeline is connected to the output metering pump. The output metering pump can quantitatively extract liquid through the output pipeline for output.

10. A method for mass production of natural bezoar, characterized in that A stirring device as claimed in any one of claims 1 to 9 is used, comprising the following steps: The natural bezoar powder after crushing is input into the configuration feeding mechanism for temporary storage, pure water is input into the premixing chamber in advance through the premixing liquid inlet unit, the primary ethanol solution is input into the primary configuration chamber in advance through the primary liquid inlet pipe, and the secondary ethanol solution is input into the secondary configuration chamber in advance through the secondary liquid inlet pipe; The natural bezoar powder is quantitatively transported from the configured feeding mechanism to the interior of the premixing chamber, and the natural bezoar powder is preliminarily stirred and mixed between the premixing chamber and the pure water to obtain a natural bezoar suspension; The natural bezoar suspension is extracted by the primary conveying unit and conveyed under pressure to the upper and lower primary ethanol solutions in the primary configuration chamber, the natural bezoar suspension is dispersed in the primary ethanol solution, and stirred and mixed in the primary configuration chamber to perform primary extraction of effective components in the natural bezoar suspension to obtain a primary natural bezoar extract; The primary natural bezoar extract is extracted by the secondary conveying unit and conveyed under pressure to the upper and lower layers of the secondary configuration chamber, the primary natural bezoar extract is dispersed in the secondary ethanol solution, and stirred and mixed in the secondary configuration chamber to extract the effective components in the primary natural bezoar extract again to obtain the secondary natural bezoar extract; The secondary natural bezoar extract is quantitatively output from the quantitative output mechanism for subsequent purification operations.

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