A pure grain wine brewing process based on calcium negative ion bioceramic material

Abstract

The present application provides a pure grain wine brewing process based on calcium negative ion bioceramic materials, comprising: a support frame with an infusion pump connected to the bottom; a mixing tank and an ultrafiltration tank connected to both sides of the top of the support frame; an infusion tube connecting the infusion pump, the mixing tank and the ultrafiltration tank, wherein control valves are arranged at the positions where the infusion tube connects the infusion pump, the mixing tank and the ultrafiltration tank; a guide tube sliding on the bottom of the inner side of the mixing tank and forming a seal with the inner wall of the mixing tank; ceramic tubes distributed in an annular shape inside the guide tube and arranged equidistantly; by installing the guide tube and the ceramic tube in combination on the lower side of the mixing tank, the wine entering the mixing tank can be evenly attached to the surface of the ceramic tube in a thin layer when it is diverted into multiple streams, so that all the wine can contact the ceramic tube, thereby increasing the calcium negative ion content of the wine after friction with the bioceramic material, and making the wine higher in quality after fermentation and storage.

Description

Technical Field

[0001] The invention relates to the field of pure grain brewed wine, and in particular to a pure grain brewed wine process based on calcium negative ion bioceramic materials. Background Art

[0002] Pure grain brewed liquor refers to a liquor product made from sorghum, corn, wheat, rice, glutinous rice, barley, buckwheat and beans, which is naturally fermented in a fully solid state or semi-solid state (suitable for rice-flavored liquor) and made through high-temperature distillation. This brewing process is complex and the grain blending is particular. There are strict regulations on the process control of the entire process including koji making, fermentation, distillation, storage, blending and filling. In addition, the cycle is long and the cost is relatively high.

[0003] Pure wine brewed with calcium negative ion bioceramic materials is made in the fermentation step of the pure grain brewing process. The wine produced by the pure grain raw materials before fermentation is in contact and friction with the bioceramic material, and the friction between the bioceramic material and the wine is used to produce calcium negative ions mixed in the wine. The presence of calcium negative ions in the wine is beneficial to improving the body's absorption and utilization of healthy factors in the wine, enhancing immunity, activating cells in the human body, and promoting blood circulation.

[0004] The traditional wine production process is to place bioceramic materials inside the tank and let the wine flow through the bioceramic materials to complete the contact between the wine and the bioceramic materials. This friction contact method has a small contact area between the wine and the bioceramic materials. Most of the wine cannot come into contact with the bioceramic materials, and it is difficult to produce calcium negative ions inside the wine.

[0005] Therefore, we made improvements to this problem and proposed a pure grain wine brewing process based on calcium negative ion bioceramic materials. Summary of the invention

[0006] The purpose of the present invention is to address the problem that the contact area between the existing wine and the bioceramic material is small.

[0007] In order to achieve the above-mentioned purpose of the invention, the present invention provides the following pure grain brewing wine process based on calcium negative ion bioceramic material to improve the above-mentioned problems.

[0008] The specific application is as follows:

[0009] A pure grain wine brewing process based on calcium negative ion bioceramic materials, comprising:

[0010] A support frame with an infusion pump connected to the bottom;

[0011] A mixing tank and an ultrafiltration tank connected to both sides of the top of the support frame;

[0012] An infusion tube connected to the infusion pump, the mixing tank, and the ultrafiltration tank, wherein control valves are provided at the locations where the infusion tube connects to the infusion pump, the mixing tank, and the ultrafiltration tank;

[0013] A guide tube that slides on the bottom of the inner side of the mixing tank and forms a seal with the inner wall of the mixing tank;

[0014] Ceramic cylinders are distributed in an annular shape inside the guide cylinder and are arranged at equal distances;

[0015] A mixing connecting seat which is plugged into the inner side of the top of the guide tube and rotates on the upper inner side of the mixing tank;

[0016] A flow-limiting float slides on the outer surface of the guide tube, wherein the outer side surface of the flow-limiting float slides in contact with the inner wall of the mixing tank to form a seal on the upper and lower sides of the flow-limiting float;

[0017] The pure grain brewing wine process based on calcium anion bioceramic material comprises the following steps:

[0018] Step 1: After screening, cleaning and soaking, the raw materials (wheat, rice, corn, sorghum) of guaranteed hygienic quality are placed in a tank, and distiller's yeast is added and mixed;

[0019] Step 2: Add an appropriate amount of water to the mixed raw materials to convert the starch in the cooked raw materials into sugar to obtain the raw materials for fermenting liquor;

[0020] Step 3: Encapsulating and fermenting the raw materials for fermenting liquor;

[0021] Step 4: Filter the wine after fermentation in step 3 and deliver it to the bottom of the mixing tank through an infusion pump. The wine flows through the diversion cavity opened at the bottom of the mixing tank in a small thin shape and enters the inner side of the diversion cavity opened inside the diversion tube. After the delivery pressure of the infusion pump, the wine flows into the diversion cavity at a high speed under the pressure of the flow limiting float. The wine flows along the surface of the ceramic tube and gradually flows into the connecting cavity opened at the center of the diversion tube, so that the wine is completely in friction contact with the ceramic tube with bioceramic material, generating calcium negative ions in the wine, and then The wine entering the connecting cavity passes through the collecting area opened at the center of the bottom of the diversion cavity, and then the wine flows upward through the infusion hole opened on the top surface of the collecting area. During the upward flow of the wine, it passes through the inside of the ceramic tube again and contacts the bioceramic material, and then flows into the mixing connecting seat to change the flow direction of the wine, forming a spiral flow and mixing itself in the mixing tank, mixing the calcium negative ions in the wine evenly, and the mixed wine is transported to the ultrafiltration tank through the infusion tube, filtered by the ultrafiltration tank, and flows to the distillation tower connected to the ultrafiltration tank to distill the wine.

[0022] As a preferred technical solution of the present application, a high-position frame is welded to the position where the support frame is connected to the mixing tank, a restraining frame is welded to the position where the support frame is connected to the ultrafiltration tank, and pipe clamps are connected to the upper and lower sides of the outer wall of the restraining frame. The ultrafiltration tank is fixed to both sides of the restraining frame by pipe clamps, the infusion pump is located on the lower side of the high-position frame, and the bottom bolts of the mixing tank are fixed to the top surface of the high-position frame.

[0023] As a preferred technical solution of the present application, a mixing chamber is provided above the diversion chamber, an embedded groove is provided on the top surface of the mixing chamber, a sealing cover is fitted and connected to the top surface of the embedded groove, a storage groove is provided on the top surface of the diversion chamber, a diverter baffle is fixed at the center of the bottom surface of the diversion chamber, a sealing embedded groove is provided on the outer side of the top surface of the diverter baffle, the bottom end of the diversion tube is fitted and embedded in the sealing embedded groove, the center of the bottom surface of the mixing tank is connected to the infusion tube, and the center of the sealing cover is connected to the infusion tube.

[0024] As a preferred technical solution of the present application, the diversion chambers on the inner side of the guide tube are arranged vertically equidistantly in a circular shape and have multiple layers. The diversion chambers are connected to the center of the guide tube and communicate with the connecting chamber. The center of the bottom of the connecting chamber is connected to the collection area. The infusion holes on the top surface of the collection area are opened in a circular shape, and the infusion holes are connected to the inside of the diversion chamber. A sealed chamber is opened at the top of the inner side of the guide tube, and the top of the infusion hole is connected to the inside of the sealed chamber.

[0025] As a preferred technical solution of the present application, the diversion cavity includes a liquid inlet opened on the outer wall of the side of the guide tube, symmetrical porcelain tube grooves are opened on both sides of the liquid inlet, and the porcelain tube grooves are opened in three groups and arranged equidistantly, and arc-shaped drainage grooves are opened between the porcelain tube grooves. The arc-shaped drainage groove away from one end of the liquid inlet is connected to the inside of the connecting cavity, and a porcelain tube connecting seat is fixed at the center of the inner side of the porcelain tube groove, and the infusion hole is connected to the center of the porcelain tube connecting seat.

[0026] As a preferred technical solution of the present application, the top surface of the sealing cavity is provided with annular liquid outlet holes which are evenly distributed, a symmetrical hinge seat is fixed on one side of the liquid outlet hole, a hinge rod is passed through the center of the hinge seat, a valve plate is connected to the center of the hinge rod, the outer wall of the valve plate is attached to the bottom surface of the liquid outlet hole, and first springs are sleeved at both ends of the position where the hinge rod is connected to the hinge seat, and the two ends of the first spring are respectively connected to the hinge seat and the outer wall of the hinge rod.

[0027] As a preferred technical solution of the present application, a connecting through hole is opened at the center of the upper and lower surfaces of the ceramic cylinder, a sealed bearing is embedded in the inner wall of the connecting through hole, the center of the sealed bearing is fitted on the outer wall of the ceramic cylinder connecting seat, a spiral blade is provided at the center of the ceramic cylinder, and the end of the spiral blade is fixed to the inner wall of the ceramic cylinder.

[0028] As a preferred technical solution of the present application, the mixing connecting seat includes a plug-in plate, the bottom surface of the plug-in plate is attached to the top surface of the guide tube, the bottom surface of the plug-in plate is connected with annular plug-in tubes that are evenly distributed, the plug-in tubes are passed through the inner side of the liquid outlet through hole, one end of the plug-in tube passed through the liquid outlet through hole is abutted against the top surface of the valve plate, a support ring is connected at the center of the top surface of the plug-in plate, and the top surface of the support ring is connected to an annular sliding seat.

[0029] As a preferred technical solution of the present application, a rotating disk is provided above the plug-in disk, and the center of the rotating disk is connected to the interior of the support ring. The bottom surface of the rotating disk is located directly above the annular slide and is connected to an annular base. The inner side of the annular base is embedded with annular equidistantly distributed balls, and the bottom ends of the balls slide inside the annular slide. The top surface of the rotating disk is connected to a hydrodynamic blade, and a bearing seat is fixed at the center of the top surface of the hydrodynamic blade. A second bearing is embedded inside the bearing seat, and a push rod bracket is connected at the center of the second bearing, and the top end of the push rod bracket is embedded in the embedded groove.

[0030] As a preferred technical solution of the present application, the top surface of the flow-limiting float is connected to sliding rods that are evenly distributed in an annular shape, and a telescopic cylinder that is evenly distributed in an annular shape is fixed to the inner side of the storage groove. A second spring is provided on the inner side of the telescopic cylinder. One end of the sliding rod away from the flow-limiting float slides on the inner side of the telescopic cylinder, and one end of the second spring abuts against the outer wall of the sliding rod.

[0031] Compared with the prior art, the present invention has the following beneficial effects:

[0032] In the scheme of the present application: by installing the guide tube and the ceramic tube in combination on the lower side of the mixing tank, the wine entering the mixing tank can be evenly adhered to the surface of the ceramic tube in a thin layer after being divided into multiple streams, so that all the wine can contact the ceramic tube, thereby increasing the calcium negative ion content of the wine after friction with the bioceramic material, and making the wine higher in quality after fermentation and storage. After the guide friction of the guide tube, the wine will flow in a spiral shape to the upper side through the mixing connecting seat, so that the wine can be mixed while flowing, thereby improving the mixing uniformity of the wine.

[0033] 1. The present invention has a guide cavity on the lower side of the interior of the mixing tank, which can evenly disperse the wine entering from the bottom of the mixing tank to the inner wall of the mixing tank, and cooperate with the guide tube to form a small thin layer of liquid flow for the wine, thereby achieving perfect contact and friction between the wine and the bioceramic material. The mixing cavity at the top of the mixing tank can form a top seal by closing the guide tube and the guide cavity, so that the mixing and connecting seat has the function of diverting and mixing the wine.

[0034] 2. The present invention provides a guide tube at the bottom of the mixing tank, which can be used to fit the inner wall of the guide cavity to form a seal on the bottom of the guide cavity, allowing the wine to pass through the diversion cavity on the side wall of the guide tube to form a small thin layer of liquid, and evenly pass through the outer surface of the bioceramic material to complete the production of calcium negative ions inside the wine. In addition, the planning of the trough body and the liquid flow route inside the diversion cavity can allow the friction of the liquid flow to drive the ceramic tube to rotate when the liquid flows, thereby improving the friction uniformity between the ceramic tube and the wine.

[0035] 3. The present invention has connecting through holes on the upper and lower surfaces of the ceramic tube, which are inserted into the ceramic connecting seat. The sealed bearing embedded in the inner wall of the connecting through hole can be used to form a rotational connection between the ceramic tube and the ceramic connecting seat, so that the ceramic tube has the function of rotation. The ceramic connecting seat has an infusion hole inside that is connected to the inside of the ceramic tube, which can allow the wine to re-enter the interior of the ceramic tube during the process of being transported to the upper side, thereby increasing the contact between the wine and the bioceramic material. At the same time, when the wine passes through the interior of the ceramic tube, it can exert a certain driving force on the spiral blades inside the ceramic tube, so that the ceramic tube has the power to rotate.

[0036] 4. The present invention provides a mixing connection seat above the guide tube, which is plugged and connected with the guide tube, so that the wine that has completed friction mixing inside the guide tube can be uniformly collected and flowed outward through the water-dynamic blades, so that the wine forms a spiral water flow when flowing out, and can be spirally mixed when entering the mixing chamber. When the flow power of the wine is strong, it can also drive the spiral blades to rotate, thereby enhancing the mixing effect of the wine.

[0037] 5. The present invention provides a flow limiting float on the outside of the guide tube, which can limit the flow space of the wine when the flow pressure of the wine is relatively low, thereby enhancing the flow speed of the wine and allowing the wine to flow at a high speed on the outer surface of the ceramic tube, thereby maintaining the friction effect between the wine and the ceramic tube. BRIEF DESCRIPTION OF THE DRAWINGS

[0038] Figure 1 A schematic diagram of the overall structure of a pure grain wine brewing process based on calcium negative ion bioceramic materials provided by the present invention;

[0039] Figure 2 for Figure 1 The schematic diagram of the structure of the middle section shown;

[0040] Figure 3 for Figure 2 An exploded schematic diagram of the mixing tank location shown;

[0041] Figure 4 for Figure 3 The schematic diagram of the structure of the ultrafiltration tank is shown in the figure;

[0042] Figure 5 for Figure 3A schematic diagram of the structure of the guide tube position shown;

[0043] Figure 6 for Figure 5 The schematic structural diagram of the middle section of the guide tube shown;

[0044] Figure 7 for Figure 6 The schematic diagram of the structure of the guide tube as seen from above;

[0045] Figure 8 for Figure 5 The schematic diagram of the plane structure breakdown of the bottom section of the guide tube shown;

[0046] Fig. 9 for Figure 8 An enlarged schematic diagram of the structure of the shunt cavity position shown;

[0047] Fig.10 for Fig. 9 The structural section diagram of the ceramic tube shown is as follows;

[0048] Fig.11 for Figure 5 The structural exploded and enlarged schematic diagram of the mixing and connecting seat shown;

[0049] Fig.12 for Fig.11 The schematic diagram of the structural decomposition and enlargement of the middle section is shown.

[0050] Indicated in the figure:

[0051] 1. Support frame; 11. Infusion pump; 12. High-position frame; 13. Restraining frame; 14. Pipe clamp;

[0052] 2. Mixing tank; 21. Diversion chamber; 22. Mixing chamber; 23. Inlaid groove; 24. Sealing cover; 25. Storage groove; 26. Diversion baffle; 27. Sealing embedded groove;

[0053] 3. Ultrafiltration tank; 4. Infusion tube;

[0054] 5. Guide tube; 51. Diverter cavity; 511. Liquid inlet; 512. Ceramic tube groove; 513. Arc-shaped drainage groove; 514. Ceramic tube connecting seat; 52. Communication cavity; 53. Collection area; 54. Infusion hole; 55. Sealing cavity; 551. Hinge seat; 552. Hinge rod; 553. Valve plate; 554. First spring; 555. Liquid outlet through hole;

[0055] 6. Ceramic cylinder; 61. Connecting through hole; 62. Sealed bearing; 63. Spiral blade;

[0056] 7. Mixing connection seat; 71. Plug-in plate; 72. Plug-in tube; 73. Support ring; 74. Annular slide seat; 75. Rotating plate; 76. Annular base; 77. Ball bearing; 78. Hydrodynamic blade; 781. Bearing seat; 782. Second bearing; 79. Mandrel bracket;

[0057] 8. current limiting float; 81. telescopic cylinder; 82. sliding rod; 83. second spring. DETAILED DESCRIPTION

[0058] In order to enable those skilled in the art to better understand the scheme of the present invention, the technical scheme in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings 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 should fall within the scope of protection of the present invention.

[0059] As described in the background art, the contact area between the wine and the bioceramic material is small.

[0060] In order to solve this technical problem, the present invention provides a pure grain brewing wine process based on calcium negative ion bioceramic materials, which is used for the diversion of wine, allowing the wine to flow evenly on the bioceramic surface in a small flow state and mix after contacting the bioceramic material.

[0061] Specifically, please refer to Figure 1-Figure 12 The pure grain brewing wine process based on calcium anion bioceramic material specifically includes:

[0062] A support frame 1 with an infusion pump 11 connected to the bottom;

[0063] A mixing tank 2 and an ultrafiltration tank 3 connected to both sides of the top of the support frame 1;

[0064] An infusion tube 4 connected to the infusion pump 11, the mixing tank 2, and the ultrafiltration tank 3, wherein control valves are provided at the locations where the infusion tube 4 connects the infusion pump 11, the mixing tank 2, and the ultrafiltration tank 3;

[0065] A guide tube 5 is slid on the inner bottom of the mixing tank 2 and forms a seal with the inner wall of the mixing tank 2;

[0066] Ceramic cylinders 6 are distributed in an annular shape inside the guide cylinder 5 and are arranged equidistantly;

[0067] A mixing and connecting seat 7 which is plugged into the inner side of the top of the guide tube 5 and rotates on the upper inner side of the mixing tank 2;

[0068] A flow limiting float 8 is slid on the outer surface of the guide tube 5, and the outer side surface of the flow limiting float 8 is slidably attached to the inner wall of the mixing tank 2 to form a seal on the upper and lower sides of the flow limiting float 8;

[0069] The pure grain brewing wine process based on calcium anion bioceramic material comprises the following steps:

[0070] Step 1: After screening, cleaning and soaking, the raw materials (wheat, rice, corn, sorghum) of guaranteed hygienic quality are placed in a tank, and distiller's yeast is added and mixed;

[0071] Step 2: Add an appropriate amount of water to the mixed raw materials to convert the starch in the cooked raw materials into sugar to obtain the raw materials for fermenting liquor;

[0072] Step 3: Encapsulating and fermenting the raw materials for fermenting liquor;

[0073] Step 4: After the fermentation in step 3 is completed, the wine is filtered and transported to the bottom of the mixing tank 2 through the infusion pump 11. The wine flows through the diversion cavity 21 opened at the bottom of the mixing tank 2 in a small thin shape and enters the inner side of the diversion cavity 51 opened inside the diversion tube 5. After the delivery pressure of the infusion pump 11, the wine flows into the diversion cavity 51 at a high speed under the pressure of the flow limiting float 8. The wine flows along the surface of the ceramic tube 6 and gradually flows into the connecting cavity 52 opened at the center of the diversion tube 5, so that the wine is completely in friction contact with the ceramic tube 6 with bioceramic materials, and calcium negative ions are generated in the wine. The wine entering the connecting cavity 52 passes through the collecting area 53 opened at the bottom center of the diversion cavity 51, and then the wine flows upward through the infusion hole 54 opened on the top surface of the collecting area 53. During the upward flow of the wine, it passes through the inside of the ceramic tube 6 again and contacts the bioceramic material, and then flows into the mixing connecting seat 7 to change the flow direction of the wine, forming a spiral flow and mixing itself in the mixing tank 2, so that the calcium negative ions in the wine are evenly mixed. After mixing, the wine is transported to the ultrafiltration tank 3 through the infusion tube 4, filtered by the ultrafiltration tank 3, and flows to the distillation tower connected to the ultrafiltration tank 3 to distill the wine.

[0074] The present invention provides a pure grain wine brewing process based on calcium negative ion bioceramic materials. By combining and installing a guide tube 5 and a ceramic tube 6 arranged on the lower side of a mixing tank 2, the wine entering the mixing tank 2 can be evenly adhered to the surface of the ceramic tube 6 in a thin layer when the flow is divided into multiple streams, so that all the wine can contact the ceramic tube 6, thereby increasing the calcium negative ion content of the wine after friction with the bioceramic material, and making the wine higher in quality after fermentation and storage. After the guide friction of the guide tube 5, the wine will flow to the upper side in a spiral shape through the mixing connecting seat 7, so that the wine can be mixed while flowing, thereby improving the mixing uniformity of the wine.

[0075] In order to enable those skilled in the art to better understand the solutions of the present invention, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the accompanying drawings.

[0076] It should be noted that, in the absence of conflict, the embodiments of the present invention and the features and technical solutions in the embodiments may be combined with each other.

[0077] It should be noted that similar reference numerals and letters denote similar items in the following drawings, and therefore, once an item is defined in one drawing, further definition and explanation thereof is not required in subsequent drawings.

[0078] Example 1

[0079] Please refer to Figure 1-Figure 12 A pure grain brewing process based on calcium negative ion bioceramic materials, a high frame 12 is welded at the position where the support frame 1 is connected to the mixing tank 2, a restraining frame 13 is welded at the position where the support frame 1 is connected to the ultrafiltration tank 3, and the upper and lower sides of the outer wall of the restraining frame 13 are connected with pipe clamps 14, the ultrafiltration tank 3 is fixed to both sides of the restraining frame 13 through the pipe clamps 14, the infusion pump 11 is located on the lower side of the high frame 12, and the bottom of the mixing tank 2 is bolted to the top surface of the high frame 12.

[0080] A mixing chamber 22 is provided above the diversion chamber 21, an embedded groove 23 is provided on the top surface of the mixing chamber 22, a sealing cover 24 is fitted and connected to the top surface of the embedded groove 23, a receiving groove 25 is provided on the top surface of the diversion chamber 21, a diverter baffle 26 is fixed at the center of the bottom surface of the diversion chamber 21, a sealing embedded groove 27 is provided on the outer side of the top surface of the diverter baffle 26, the bottom end of the diversion tube 5 is fitted and embedded in the sealing embedded groove 27, the center of the bottom surface of the mixing tank 2 is connected to the infusion tube 4, and the center of the sealing cover 24 is connected to the infusion tube 4.

[0081] A guide cavity 21 is provided on the lower inner side of the mixing tank 2, which can evenly disperse the wine entering from the bottom of the mixing tank 2 to the inner wall of the mixing tank 2, and cooperate with the guide tube 5 to allow the wine to form a small thin layer of liquid flow, thereby achieving perfect contact and friction between the wine and the bioceramic material. The mixing cavity 22 at the top of the mixing tank 2 can form a top seal by utilizing the closure of the guide tube 5 and the guide cavity 21, so that the mixing connecting seat 7 has the function of diverting and mixing the wine.

[0082] Example 2

[0083] The pure grain brewing wine process based on calcium anion bioceramic material provided in Example 1 is further optimized. Specifically, Figure 1-Figure 12The shunt cavity 51 inside the guide tube 5 is arranged in a circular shape and is equidistantly vertically and has multiple layers. The shunt cavity 51 is connected to the center of the guide tube 5 and communicates with the connecting cavity 52. ​​The bottom center of the connecting cavity 52 is connected to the collecting area 53. The infusion holes 54 on the top surface of the collecting area 53 are arranged in a circular shape. The infusion holes 54 are connected to the inside of the shunt cavity 51. A sealed cavity 55 is opened at the top of the inner side of the guide tube 5. The top of the infusion hole 54 is connected to the inside of the sealed cavity 55.

[0084] The diversion cavity 51 includes a liquid inlet 511 opened on the outer wall of the side of the guide tube 5, and symmetrical porcelain tube grooves 512 are opened on both sides of the liquid inlet 511. The porcelain tube grooves 512 are opened in three groups and are arranged equidistantly. Arc-shaped drainage grooves 513 are opened between the porcelain tube grooves 512. The arc-shaped drainage grooves 513 away from one end of the liquid inlet 511 are connected to the inside of the connecting cavity 52. ​​A porcelain tube connecting seat 514 is fixed at the inner center of the porcelain tube groove 512, and the infusion hole 54 is connected to the center of the porcelain tube connecting seat 514.

[0085] The top surface of the sealing cavity 55 is provided with annular liquid outlet holes 555 which are evenly distributed. A symmetrical hinge seat 551 is fixed on one side of the liquid outlet hole 555. A hinge rod 552 is passed through the center of the hinge seat 551. A valve plate 553 is connected to the center of the hinge rod 552. The outer wall of the valve plate 553 is attached to the bottom surface of the liquid outlet hole 555. First springs 554 are sleeved at both ends of the position where the hinge rod 552 is connected to the hinge seat 551. The two ends of the first spring 554 are respectively connected to the hinge seat 551 and the outer wall of the hinge rod 552.

[0086] A guide tube 5 is provided at the bottom of the mixing tank 2, and the guide tube 5 can be used to fit the inner wall of the guide cavity 21 to form a seal on the bottom of the guide cavity 21, allowing the wine to pass through the diversion cavity 51 on the side wall of the guide tube 5 to form a small thin layer of liquid, and evenly pass through the outer surface of the bioceramic material to complete the production of calcium negative ions inside the wine. In addition, the planning of the trough body and the liquid flow route inside the diversion cavity 51 can allow the friction of the liquid flow to drive the ceramic tube 6 to rotate, thereby improving the friction uniformity between the ceramic tube 6 and the wine.

[0087] Example 3

[0088] The pure grain brewing wine process based on calcium anion bioceramic material provided in Example 1 or 2 is further optimized. Specifically, Figure 1-Figure 12 As shown, a connecting through hole 61 is opened at the center of the upper and lower surfaces of the ceramic tube 6, and a sealed bearing 62 is embedded in the inner wall of the connecting through hole 61. The center of the sealed bearing 62 is fitted on the outer wall of the ceramic tube connecting seat 514. A spiral blade 63 is provided at the center of the ceramic tube 6, and the end of the spiral blade 63 is fixed to the inner wall of the ceramic tube 6.

[0089] The upper and lower surfaces of the ceramic barrel 6 are provided with connecting through holes 61 which are inserted into the ceramic connecting seat. The sealed bearing 62 embedded in the inner wall of the connecting through hole 61 can be used to form a rotational connection between the ceramic barrel 6 and the ceramic connecting seat, so that the ceramic barrel 6 has the function of rotation. The ceramic connecting seat is provided with an infusion hole 54 which is connected to the inside of the ceramic barrel 6, so that the wine can re-enter the ceramic barrel 6 during the process of being transported to the upward side, thereby increasing the contact between the wine and the bioceramic material. At the same time, when the wine passes through the inside of the ceramic barrel 6, a certain driving force can be applied to the spiral blades 63 inside the ceramic barrel 6, so that the ceramic barrel 6 has the power to rotate.

[0090] Example 4

[0091] The pure grain brewing wine process based on calcium anion bioceramic material provided in Examples 1-3 is further optimized. Specifically, Figure 1-Figure 12 As shown, the mixing and connecting seat 7 includes a plug-in plate 71, the bottom surface of the plug-in plate 71 is attached to the top surface of the guide tube 5, the bottom surface of the plug-in plate 71 is connected with an annular equidistantly distributed plug-in tube 72, the plug-in tube 72 is passed through the inner side of the liquid outlet through hole 555, one end of the plug-in tube 72 passed through the liquid outlet through hole 555 is abutted against the top surface of the valve plate 553, a support ring 73 is connected at the center of the top surface of the plug-in plate 71, and the top surface of the support ring 73 is connected with an annular slide seat 74.

[0092] A rotating disk 75 is provided above the plug-in disk 71, and the center of the rotating disk 75 is connected to the inside of the support ring 73. The bottom surface of the rotating disk 75 is located just above the annular slide 74 and is connected to an annular base 76. The inner side of the annular base 76 is embedded with annular equidistantly distributed balls 77, and the bottom ends of the balls 77 slide inside the annular slide 74. The top surface of the rotating disk 75 is connected to a hydrodynamic blade 78, and a bearing seat 781 is fixed at the center of the top surface of the hydrodynamic blade 78. A second bearing 782 is embedded inside the bearing seat 781, and a push rod bracket 79 is connected at the center of the second bearing 782. The top end of the push rod bracket 79 is embedded in the embedded groove 23.

[0093] A mixing connector is provided above the guide tube 5 and is plugged into and connected to the guide tube 5. The wine that has completed friction mixing inside the guide tube 5 can be uniformly collected and flowed outward through the hydraulic blades 78, so that the wine forms a spiral water flow when flowing out, and can be spirally mixed when entering the mixing chamber 22. When the flow power of the wine is strong, the spiral blades 63 can also be driven to rotate to enhance the mixing effect of the wine.

[0094] Example 5

[0095] The pure grain brewing wine process based on calcium anion bioceramic material provided in Examples 1-4 is further optimized. Specifically, Figure 1-Figure 12As shown, the top surface of the flow-limiting float 8 is connected to a circularly equidistantly distributed slide rod 82, and a circularly equidistantly distributed telescopic cylinder 81 is fixed to the inner side of the storage groove 25. A second spring 83 is provided on the inner side of the telescopic cylinder 81. One end of the slide rod 82 away from the flow-limiting float 8 is limitedly slid on the inner side of the telescopic cylinder 81, and one end of the second spring 83 abuts against the outer wall of the slide rod 82.

[0096] A flow limiting float 8 is provided on the outside of the guide tube 5, which can limit the flow space of the wine when the flow pressure of the wine is low, thereby enhancing the flow speed of the wine and allowing the wine to flow at high speed on the outer surface of the ceramic tube 6 to maintain the friction effect between the wine and the ceramic tube 6.

[0097] The use process of a pure grain brewing wine process based on calcium negative ion bioceramic materials provided by the present invention is as follows:

[0098] The infusion pump 11 delivers the fermented and coarsely filtered wine to the inside of the infusion tube 4. At this time, the valve body at the position where the infusion tube 4 is connected to the mixing tank 2 controls the connection direction so that the infusion pump 11 delivers the wine into the bottom of the mixing tank 2, and then delivers it to the inside of the ultrafiltration tank 3 through the sealing cover 24 on the top of the mixing tank 2.

[0099] The infusion pump 11 transports the wine to the inside of the diversion chamber 21 at the bottom of the mixing tank 2. The wine entering the diversion chamber 21 will be blocked by the diversion baffle 26 and flow to the outside of the diversion baffle 26. Since the top surface of the diversion baffle 26 is sealed and connected to the diversion tube 5, the wine flowing to the outside of the diversion baffle 26 will pass through the internal circumferential position of the diversion chamber 21 and flow into the inside of the diversion tube 5. When the wine enters the internal circumferential position of the diversion chamber 21, the wine entering the internal circumferential position of the diversion chamber 21 will be flushed on the bottom of the flow limiting float 8. The impact pressure on the flow limiting float 8 and the buoyancy of the wine will push the sliding rod 82 to contract into the telescopic tube 81. When the sliding rod 82 slides into the telescopic tube 81, it will apply pressure to the second spring 83. The elastic force of the second spring 83 is used to counteract the flushing force and buoyancy of the wine, so that the wine can be in a high-speed flow state under a variety of conveying pressure states and be conveyed to the inside of the flow guide tube 5.

[0100] When the wine enters the guide tube 5, it will pass through the liquid inlet 511 inside the diversion chamber 51 and enter the inner side of the porcelain tube groove 512. The wine entering the porcelain tube groove 512 will flush the surface of the ceramic tube 6 that is rotatably connected to the inside of the porcelain tube groove 512, and flow along the gap between the ceramic tube 6 and the porcelain tube groove 512 to the arc-shaped drainage groove 513 between the porcelain tube grooves 512. The wine will be streamlined through the arc-shaped drainage groove 513 and transported to the subsequent porcelain tube grooves 512. While ensuring the flow rate of the wine, the wine can slide on the outer surface of the ceramic tube 6, so that the wine can rub against the surface of the ceramic tube 6 (bioceramic material) to generate calcium negative ions and drive the ceramic tube 6 to rotate.

[0101] When the wine flows out through the ceramic groove inside the diversion chamber 51, it will enter the connecting chamber 52, and flow to the inside of the infusion hole 54 through the collecting area 53 connected to the bottom of the connecting chamber 52. The wine entering the infusion hole 54 will be transported to the inside of the ceramic tube 6 again. The secondary flow inside the ceramic tube 6 will increase the calcium negative ion content in the wine again. When the wine flows out from the infusion hole 54, it will enter the inside of the sealed chamber 55.

[0102] After the wine flows through the ceramic tube 6 for the second time, it will exert a certain thrust on the spiral blades 63 inside the ceramic tube 6, assisting the friction force when flowing through the surface of the ceramic tube 6 to drive the ceramic tube 6 to rotate, allowing the ceramic tube 6 to use all positions on the outer surface to rub against the wine.

[0103] The wine that enters the sealed chamber 55 will flow to the inside of the support ring 73 through the plug-in tube 72 inserted in the liquid outlet hole 555 on the top surface of the sealed chamber 55. The wine passes through the rotating disk 75 on the top surface of the support ring 73 and enters the center of the hydrodynamic blade 78. As the hydrodynamic blade 78 is tilted, it flows in a spiral shape into the mixing chamber 22. The spirally flowing wine will flow rapidly in the mixing chamber 22 for mixing. After mixing, the wine will flow to the inside of the ultrafiltration tank 3 through the infusion tube 4 connected to the top of the sealing cover 24, filter the impurities in the wine, and then transport it to the distillation tower for purification.

[0104] It should be noted that when the wine delivery pressure is strong, the flow limiting float 8 will be washed to the uppermost side, allowing the guide tube 5 to be used at full power, thereby improving the stability of the calcium negative ion content generated inside the wine when the wine flows at high speed.

[0105] When the wine inside the support ring 73 flows outward through the hydraulic blades 78, the high-speed flow of the wine can drive the hydraulic blades 78 to rotate, so that the wine can still be efficiently mixed under the high-speed flow state.

[0106] When the hydraulic blades 78 are in the rotating state, the rotating disk 75 connected to the bottom end of the hydraulic blades 78 will drive the annular base 76 to rotate. The rotation of the annular base 76 will allow the ball 77 connected inside it to slide on the inner side of the top surface of the annular slide 74. At the same time, when the hydraulic blades 78 are in the rotating state, the top surface of the hydraulic blades 78 will form a rotation support with the top rod bracket 79 through the second bearing 782 (also a sealed bearing 62), so that when the hydraulic blades 78 are rotated by the flushing of the wine, they can be pressed down by the top rod bracket 79 to form a stable rotation of the hydraulic blades 78.

[0107] When the inside of the mixing tank 2 needs to be cleaned, the flow direction of the liquid in the infusion tube 4 entering the mixing tank 2 can be changed, so that the cleaning water flow enters the inside of the mixing chamber 22 of the mixing tank 2 from the inside of the sealing cover 24, and the water flows through the mixing chamber 22 to the inside of the guide chamber 21, so that the water flow inside the mixing tank 2 forms a countercurrent state, and the inside of the guide tube 5 and the ceramic tube 6 are flushed and cleaned.

[0108] When careful cleaning is required, the sealing cover 24 can be removed to remove the push rod bracket 79. When the push rod bracket 79 is removed, the hydraulic blade 78 will lose pressure and can also be directly taken out from the inside of the mixing tank 2. The plug-in plate 71 at the bottom of the hydraulic blade 78 is plug-in connected to the sealing chamber 55, and can also be directly taken out from the mixing tank 2 and the sealing chamber 55. When the plug-in plate 71 is taken out, along with the plug-in tube 72 being taken out, the valve plate 553 inside the sealing chamber 55 will be pushed by the first spring 554 to close the liquid outlet through hole 555. At this time, water is transported to the inside of the guide chamber 21 at the bottom of the mixing tank 2, and the water source that enters the mixing tank 2 will push the guide tube 5 to the upper part of the mixing tank 2.

[0109] It should be noted that after the liquid outlet hole 555 inside the sealing cavity 55 is closed by the valve plate 553, a seal will be formed inside the guide tube 5, so that the guide cavity 21 and the mixing cavity 22 are closed. At this time, water is transported inside the guide cavity 21, and the water source can be used to push the guide tube 5 upward, thereby realizing the rapid removal of the guide tube 5, which is simple and labor-saving.

[0110] The present invention can make the content of calcium negative ions in the wine more uniform through the design of multiple groups and multiple layers of ceramic tubes 6 inside the guide tube 5, and can ensure the content of calcium negative ions in the wine under both high-speed flow and low-speed flow conditions, and can effectively improve the friction between the wine and the bioceramic material and the fusion effect of the calcium negative ions, so that during the subsequent storage of the wine, the calcium negative ions in the wine and the flavor substances in the wine are quickly converted into small-molecule flavor substances, thereby improving the human body's absorption and utilization of health factors in the wine, enhancing immunity, activating cells in the human body, and promoting blood circulation.

[0111] At the same time, long-term storage of pure grain wine soaked in calcium negative ion bioceramic materials promotes metabolism, making it more mature, aged and mellow.

[0112] In the present invention, unless otherwise clearly specified and limited, the terms "installed", "connected", "connected", "fixed" and the like should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral one; it can be a mechanical connection, an electrical connection, or communication with each other; it can be a direct connection, or an indirect connection through an intermediate medium, it can be the internal connection of two elements or the interaction relationship between two elements, unless otherwise clearly defined. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0113] Obviously, the embodiments described above are only some embodiments of the present invention, rather than all embodiments. The preferred embodiments of the present invention are given in the accompanying drawings, but they do not limit the patent scope of the present invention. The present invention can be implemented in many different forms. On the contrary, the purpose of providing these embodiments is to make the understanding of the disclosure of the present invention more thorough and comprehensive. Although the present invention has been described in detail with reference to the aforementioned embodiments, for those skilled in the art, it is still possible to modify the technical solutions recorded in the aforementioned specific embodiments, or to perform equivalent replacements for some of the technical features therein. Any equivalent structure made using the contents of the specification and drawings of the present invention, directly or indirectly used in other related technical fields, is also within the scope of patent protection of the present invention.

Claims

1. A wine-making device based on calcium anion bioceramic material, characterized in that: The invention comprises a support frame (1), an infusion pump (11), a mixing tank (2) and an ultrafiltration tank (3) connected to both sides of the top of the support frame (1), an infusion tube (4) connecting the infusion pump (11), the mixing tank (2) and the ultrafiltration tank (3), and a control valve is arranged at each position where the infusion tube (4) connects the infusion pump (11), the mixing tank (2) and the ultrafiltration tank (3); a guide tube (5) sliding on the bottom of the inner side of the mixing tank (2) and forming a seal with the inner wall of the mixing tank (2); ceramic tubes (6) distributed in an annular shape and arranged equidistantly inside the guide tube (5); a mixing connection seat (7) plugged into the inner side of the top of the guide tube (5) and rotating on the upper inner side of the mixing tank (2); a flow limiting float (8) sliding on the outer surface of the guide tube (5), the outer side surface of the flow limiting float (8) sliding in contact with the inner wall of the mixing tank (2) to form a seal on both sides of the flow limiting float (8); A flow guide cavity (21) is provided at the lower side of the interior of the mixing tank (2), a mixing cavity (22) is provided above the flow guide cavity (21), an embedded groove (23) is provided on the top surface of the mixing cavity (22), a sealing cover (24) is fitted and connected to the top surface of the embedded groove (23), a receiving groove (25) is provided on the top surface of the flow guide cavity (21), a flow diversion baffle (26) is fixed at the center of the bottom surface of the flow guide cavity (21), a sealing embedded groove (27) is provided on the outer side of the top surface of the flow diversion baffle (26), the bottom end of the flow guide tube (5) is fitted and embedded in the sealing embedded groove (27), the center of the bottom surface of the mixing tank (2) is connected to the infusion tube (4), and the center of the sealing cover (24) is connected to the infusion tube (4); The flow diversion chamber (51) inside the flow guide tube (5) is arranged in a circular shape and vertically equidistantly and has multiple layers. The flow diversion chamber (51) is connected to the center of the flow guide tube (5) and communicates with the communication chamber (52). The center of the bottom of the communication chamber (52) is communicated with the collection area (53). The infusion holes (54) on the top surface of the collection area (53) are arranged in a circular shape. The infusion holes (54) are communicated with the inside of the flow diversion chamber (51). A sealing chamber (55) is provided at the top of the inner side of the flow guide tube (5), and the top of the infusion hole (54) is communicated with the inside of the sealing chamber (55). The flow dividing cavity (51) comprises a liquid inlet (511) provided on the outer wall of the side of the flow guiding cylinder (5); symmetrical porcelain tube grooves (512) are provided on both sides of the liquid inlet (511); the porcelain tube grooves (512) are provided in three groups and are arranged at equal intervals; arc-shaped drainage grooves (513) are provided between the porcelain tube grooves (512); the arc-shaped drainage grooves (513) at one end away from the liquid inlet (511) are communicated with the inside of the communicating cavity (52); a porcelain tube connecting seat (514) is fixed at the center of the inner side of the porcelain tube groove (512); and the infusion hole (54) is communicated with the center of the porcelain tube connecting seat (514); A connecting through hole (61) is provided at the center of the upper and lower surfaces of the ceramic tube (6), and a sealing bearing (62) is embedded in the inner wall of the connecting through hole (61). The center of the sealing bearing (62) is sleeved on the outer wall of the ceramic tube connecting seat (514). A spiral blade (63) is provided at the center of the ceramic tube (6), and the end of the spiral blade (63) is fixed to the inner wall of the ceramic tube (6); the connecting through hole (61) is provided on the upper and lower surfaces of the ceramic tube (6) and is inserted into the ceramic connecting seat. The sealing bearing (62) embedded in the inner wall of the connecting through hole (61) can be used to form a rotational connection between the ceramic tube (6) and the ceramic connecting seat, so that the ceramic tube (6) has a rotation function. The ceramic connecting seat is provided with an infusion hole (54) that is connected to the inside of the ceramic tube (6).

2. The device according to claim 1, wherein a high-position frame (12) is welded at the position where the support frame (1) is connected to the mixing tank (2), a restraining frame (13) is welded at the position where the support frame (1) is connected to the ultrafiltration tank (3), and pipe clamps (14) are connected to the upper and lower sides of the outer wall of the restraining frame (13), the ultrafiltration tank (3) is fixed to the two sides of the restraining frame (13) through the pipe clamps (14), the infusion pump (11) is located on the lower side of the high-position frame (12), and the bottom bolts of the mixing tank (2) are fixed to the top surface of the high-position frame (12).

3. The device according to claim 2, wherein the top surface of the sealed cavity (55) is provided with annular liquid outlet holes (555) distributed equidistantly, a symmetrical hinge seat (551) is fixed on one side of the liquid outlet hole (555), a hinge rod (552) is passed through the center of the hinge seat (551), a valve plate (553) is connected to the center of the hinge rod (552), the outer wall of the valve plate (553) is attached to the inner bottom surface of the liquid outlet hole (555), and first springs (554) are sleeved at both ends of the position where the hinge rod (552) is connected to the hinge seat (551), and the two ends of the first spring (554) are respectively connected to the hinge seat (551) and the outer wall of the hinge rod (552).

4. The device according to claim 2, wherein the mixing and connecting seat (7) includes a plug-in plate (71), the bottom surface of the plug-in plate (71) is attached to the top surface of the guide tube (5), the bottom surface of the plug-in plate (71) is connected to an annular plug-in tube (72) distributed equidistantly, the plug-in tube (72) is passed through the inner side of the liquid outlet through hole (555), one end of the plug-in tube (72) passed through the inside of the liquid outlet through hole (555) is in contact with the top surface of the valve plate (553), a support ring (73) is connected at the center of the top surface of the plug-in plate (71), and the top surface of the support ring (73) is connected to an annular sliding seat (74).

5. The device according to claim 4, wherein a rotating disk (75) is provided above the plug-in disk (71), the center of the rotating disk (75) is connected to the inside of the support ring (73), the bottom surface of the rotating disk (75) is located just above the annular slide (74) and is connected to an annular base (76), the inner side of the annular base (76) is embedded with annular equidistantly distributed balls (77), the bottom end of the ball (77) slides inside the annular slide (74), the top surface of the rotating disk (75) is connected to a hydrodynamic blade (78), a bearing seat (781) is fixed at the center of the top surface of the hydrodynamic blade (78), a second bearing (782) is embedded inside the bearing seat (781), a push rod bracket (79) is connected at the center of the second bearing (782), and the top end of the push rod bracket (79) is embedded in the embedded groove (23).

6. The device according to claim 5, wherein the top surface of the flow-limiting float (8) is connected to a circular evenly distributed sliding rod (82), the inner side of the storage groove (25) is fixed with a circular evenly distributed telescopic cylinder (81), the inner side of the telescopic cylinder (81) is provided with a second spring (83), one end of the sliding rod (82) away from the flow-limiting float (8) slides on the inner side of the telescopic cylinder (81), and one end of the second spring (83) abuts against the outer wall of the sliding rod (82).

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