White spirit rapid alcoholization device

Abstract

The invention relates to the technical field of wine alcoholization, in particular to a quick white wine alcoholization device which comprises an alcoholization barrel internally storing alcoholized wine, a row of zeolite filters arranged in the alcoholization barrel, a feeding device for supplying zeolite to the zeolite filters and driving the zeolite filters, and a collecting tray for recovering zeolite from the zeolite filters, the conversion device is used for supplying energy to zeolite conveying, transmission is established between the conversion device and the feeding device by arranging a lap joint shaft, transmission is established between the conversion device and the feeding device through a fixed inner gear ring on the inner wall of the alcoholization barrel and the conversion device, and alcohol alcoholization is accelerated by a row of zeolite filters through surrounding stirring in the alcoholization barrel. Zeolite is automatically replaced in the zeolite filter to prevent the zeolite from losing efficacy, a row of zeolite balls bound in the vertical net cylinder move in the alcoholization barrel in a surrounding mode to make contact with and stir the wine, alcoholization of the wine is accelerated, meanwhile, the zeolite balls in the vertical net cylinder are conveyed and replaced every set time, and the zeolite balls are recycled. Therefore, the problem of function failure caused by long-time soaking of the zeolite balls in wine is avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of wine aging, and specifically to a device for rapidly aging white liquor. Background Art

[0002] The principle of wine aging mainly includes two aspects: chemical reactions and physical changes. Chemical reactions include esterification reactions and oxidation reactions, while physical changes include volatilization and intermolecular association. A wine aging device with the publication number CN220485659U in the prior art provides a technical means. Wine aging means storing wine in an oak barrel or a stainless steel barrel and keeping it for a period of time under appropriate temperature and humidity. Subtle chemical reactions occur inside the wine to improve the taste and significantly enhance the quality of the wine. However, the aging time of the wine is relatively long, which affects the production efficiency of the wine. To accelerate wine aging, a combination of ultrasonic waves, a heating mechanism, and zeolite is used. The transducer emits ultrasonic waves to promote the reproduction of yeast, the heating mechanism raises the temperature inside the aging tank, and zeolite contacts and stirs to accelerate the esterification reaction of the liquor. Eventually, the aging progress of the liquor is accelerated.

[0003] However, the porous structure of zeolite may gradually become saturated due to long-term adsorption of impurities in the wine, resulting in a decrease in adsorption efficiency. At the same time, the presence of suspended matter or precipitation in the wine may block the pores of zeolite, thereby affecting its catalytic performance. The catalytic and adsorption efficiencies of zeolite gradually decrease due to physical structure changes or impurity accumulation. Failure to replace zeolite in a timely manner will affect the wine aging speed.

[0004] Based on the research and development purpose of periodic automatic replacement of zeolite, the present invention provides a device for rapidly aging white liquor. Summary of the Invention

[0005] The purpose of the present invention is to provide a device for rapidly aging white liquor to solve the problems raised in the above background art.

[0006] To achieve the above purpose, the present invention provides the following technical solution: A device for rapidly aging white liquor, including an aging barrel for storing aging liquor inside, a row of zeolite filters is arranged in the aging barrel, a feeding device for supplying zeolite to the zeolite filters and driving the zeolite filters, an aggregate tray for recovering zeolite from the zeolite filters, and a conversion device for providing energy for zeolite transportation. A transmission is established between the conversion device and the feeding device by setting a lapping shaft. A fixed internal gear ring is used on the inner wall of the aging barrel to establish a transmission with the conversion device. A row of zeolite filters accelerates the aging of the liquor by swirling and stirring in the aging barrel, and the zeolite in the zeolite filters is automatically replaced to prevent the zeolite from failing. The zeolite filter includes:

[0007] A vertical mesh cylinder, the top of the vertical mesh cylinder extends into the aggregate tray;

[0008] A feed pipe cylinder erected on one side of the vertical mesh cylinder. The bottom end of the feed pipe cylinder is fixedly connected to the bottom end of the vertical mesh cylinder through a U-shaped pipe;

[0009] A row of zeolite balls stacked vertically inside the vertical mesh cylinder and the feed pipe cylinder;

[0010] A row of inclined branch pipes fixedly connected to one side of the feed pipe cylinder, and the inclined branch pipes convey fluid into the feed pipe cylinder to make the zeolite balls in the feed pipe cylinder be conveyed downward.

[0011] The said feeding device includes:

[0012] A central shaft, the top end of which extends outside the aging barrel;

[0013] A lifting tray fixed to the bottom end of the central shaft. A row of funnel holes is opened in a region on one side of the middle of the lifting tray, and the funnel holes are fixedly connected to the top of the feed pipe cylinder passing through the aggregate receiving tray;

[0014] A disk wall device arranged above the lifting tray.

[0015] The said disk wall device includes:

[0016] A surrounding cylinder arranged around the edge of the lifting tray, a limiting cylinder movably sleeved on the central shaft, and a ball pushing plate fixed between the surrounding cylinder and the limiting cylinder;

[0017] A side position frame fixed on the lifting tray and a short worm supported on the side position frame. An external gear ring is arranged on the surrounding cylinder to establish a transmission connection with the short worm.

[0018] The surrounding cylinder and the lifting tray can rotate relative to each other, and the surrounding cylinder and the lifting tray cooperate to form a feed receiving tray. Both the feed receiving tray and the aggregate receiving tray distributed below are cylindrical. The feed receiving tray contains zeolite balls to be used, while the aggregate receiving tray contains ineffective zeolite balls. The top end of the vertical mesh cylinder penetrates through the bottom plate of the aggregate receiving tray.

[0019] The said conversion device includes a fluid supply part distributed at the bottom end of the vertical mesh cylinder, a plurality of shunt pipes connecting the fluid supply part and the inclined branch pipes, and an energy supply part establishing a transmission between the fluid supply part and the internal gear ring. The bottom end of the overlapping shaft is in transmission connection with the energy supply part.

[0020] The said fluid supply part includes a cylindrical flow-through barrel, a fluid rotating fan arranged in the flow-through barrel, and a fan shaft fixed in the middle of the fluid rotating fan. A partial section of the fan shaft is movably sleeved in a through hole opened in the middle of the bottom plate of the flow-through barrel. One end of the inclined branch pipe is fixedly connected to the flow-through barrel, and the other end is fixedly connected to a row of inclined branch pipes.

[0021] The energy supply part includes a follower frame fixed on one side of the shunt pipe, a transverse worm and a guide control shaft supported on the follower frame, a guide control gear fixed at one end of the guide control shaft, and a pressing tool connected to one side of the transverse worm for transmission. The other end of the guide control shaft is connected to the bevel gear fixed at the end of the transverse worm for direction transmission through a fixed bevel gear, and the guide control gear is meshed and connected to the inner gear ring for transmission.

[0022] The bottom end of the overlap shaft is movably sleeved in a column hole opened on the floating frame, and the top end of the overlap shaft is movably sleeved in a through hole opened on the side frame. One end of the short worm is connected to the bevel gear fixed on the top end of the overlap shaft for direction-changing transmission through a fixed bevel gear.

[0023] The pressure-generating device includes a power storage shaft with one end movably sleeved in a circular hole opened on the floating frame, a first mainspring fixedly sleeved at the other end of the power storage shaft, a booster gear also fixed on the power storage shaft, an outer ring gear of the outer fixed sleeve of the first mainspring, a disc frame plate fixed on the bottom surface of one side of the outer ring gear, and a clamping piece clamped with the disc frame plate, the transverse worm and the booster gear are meshingly connected to each other, the power storage shaft is also movably sleeved in a through hole opened in the middle of the disc frame plate, the end of the fan shaft is meshingly connected to the outer ring gear by setting a shaft gear, and the bottom end of the lap shaft is also meshingly connected to the outer ring gear by setting a shaft gear.

[0024] The clamping component includes a lifting slide column that slides through a column hole opened on the traveling frame, a pressure spring on the outer sleeve of the lifting slide column, and a lifting plate arranged on one side of the lifting slide column. The lifting plate is arranged with a pointed end to be inserted into a V-shaped groove opened on the disk rack plate, and the lifting plate slides through a groove opened on the traveling frame. The lifting plate is fixedly connected to the lifting slide column by a flat convex plate, and the pressure spring is supported between the flat convex plate and the traveling frame.

[0025] Compared with the prior art, the present invention has the following beneficial effects:

[0026] 1. A row of zeolite balls bound in a vertical mesh tube moves around in the aging barrel to contact and stir the wine, accelerating the aging of the wine. At the same time, the zeolite balls in the vertical mesh tube are transported and replaced at specified intervals to avoid functional failure caused by the zeolite balls being soaked in the wine for a long time.

[0027] 2. By injecting fluid into the feeding tube to impact the zeolite balls in the feeding tube, the zeolite balls are transported to the vertical mesh tube, and then the old zeolite balls in the vertical mesh tube are pushed out, and the old zeolite balls are recovered on the collecting plate. New zeolite balls are stored on the lifting plate and roll under the push of the ball pushing plate. They roll to the funnel hole of the lifting plate and automatically fall down to be added to the feeding tube. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 It is a schematic diagram of the structure of the present invention.

[0029] Figure 2It is a schematic diagram of the zeolite filter structure.

[0030] Figure 3 It is a schematic diagram of the aggregate tray structure.

[0031] Figure 4 It is a schematic diagram of the feeding device structure.

[0032] Figure 5 It is a schematic diagram of the disk wall device structure.

[0033] Figure 6 It is a schematic diagram of the enclosure cylinder structure.

[0034] Figure 7 It is a schematic diagram of the conversion device structure.

[0035] Figure 8 It is a schematic diagram of the fluid supply part structure.

[0036] Figure 9 It is a schematic diagram of the energy supply part structure.

[0037] Figure 10 It is a schematic diagram of the pressing tool structure.

[0038] Figure 11 It is a schematic diagram of the position of the fluid rotating fan.

[0039] In the figure: alcoholization barrel 1, zeolite filter 2, feeding device 3, aggregate tray 4, conversion device 5, lapping shaft 6, internal gear ring 7, vertical mesh cylinder 8, feeding pipe cylinder 9, zeolite balls 10, inclined branch pipe 11, central shaft 12, lifting tray 13, disk wall device 14, enclosure cylinder 15, limiting cylinder 16, ball pushing plate 17, side position frame 18, short worm 19, shunt pipe 20, energy supply part 21, fluid supply part 22, overflow barrel 23, fan shaft 24, fluid rotating fan 25, pressing tool 26, horizontal worm 27, follower frame 28, guiding and controlling shaft 29, guiding and controlling gear 30, first clockwork spring 31, energy storage shaft 32, supercharging gear 33, disk frame plate 34, clamping part 35, outer ring gear 36, lifting plate 37, lifting sliding column 38, pressure spring 39. Detailed implementation manners

[0040] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the technical solutions in the present invention without creative efforts shall fall within the protection scope of the present invention.

[0041] Please refer to Figures 1 to 11, the present invention provides a technical solution: a rapid aging device for white liquor, which includes an aging barrel 1 for storing aging liquor internally. A row of zeolite filters 2, a feeding device 3 for supplying zeolites to the zeolite filters 2 and driving the zeolite filters 2, an aggregate receiving tray 4 for recovering zeolites from the zeolite filters 2, and a conversion device 5 for zeolite conveying energy supply are arranged in the aging barrel 1. A transmission is established between the conversion device 5 and the feeding device 3 by arranging a lapping shaft 6. A transmission is established between the inner wall of the aging barrel 1 and the conversion device 5 by fixing an internal gear ring 7. A row of zeolite filters 2 accelerates the aging of the liquor by swirling and stirring in the aging barrel 1, and the zeolite filters 2 prevent the zeolites from failing by automatically replacing the zeolites. The zeolite filters 2 include:

[0042] A vertical mesh cylinder 8, the top end of the vertical mesh cylinder 8 extends into the aggregate receiving tray 4;

[0043] A feeding pipe cylinder 9 erected on one side of the vertical mesh cylinder 8, the bottom end of the feeding pipe cylinder 9 is fixedly communicated with the bottom end of the vertical mesh cylinder 8 by arranging a U-shaped pipe;

[0044] A row of zeolite balls 10 stacked vertically inside the vertical mesh cylinder 8 and the feeding pipe cylinder 9;

[0045] A row of inclined branch pipes 11 fixedly communicated with one side of the feeding pipe cylinder 9, and the inclined branch pipes 11 convey fluid into the feeding pipe cylinder 9 to make the zeolite balls 10 in the feeding pipe cylinder 9 be conveyed downward.

[0046] The main body of the vertical mesh cylinder 8 is immersed below the liquor level in the aging barrel 1. The zeolite balls 10 in the vertical mesh cylinder 8 accelerate the aging of the liquor by contacting the liquor. The vertical mesh cylinder 8 drives the zeolite balls 10 to move in a circle to accelerate the contact between the zeolite balls 10 and the liquor. As the soaking time increases, the catalytic function of the zeolite balls 10 gradually decreases, and it is necessary to replace them with new ones to maintain the functional vitality of the zeolite balls 10. Specifically, the zeolite balls 10 in the vertical mesh cylinder 8 are automatically lifted and conveyed at regular intervals. In this way, the old zeolite balls 10 are conveyed away from the top of the vertical mesh cylinder 8, and the new zeolite balls 10 are conveyed and supplied to the bottom of the vertical mesh cylinder 8 through the feeding pipe cylinder 9, so as to control the automatic replacement of the zeolite balls 10 in the vertical mesh cylinder 8.

[0047] Reference Figure 4 It is understood that the feeding device 3 includes:

[0048] A central shaft 12, the top end of the central shaft 12 extends outside the aging barrel 1;

[0049] A lifting tray 13 fixed to the bottom end of the central shaft 12. A row of funnel holes are opened in a region on one side of the middle of the lifting tray 13, and the funnel holes are fixedly communicated with the top of the feeding pipe cylinder 9 passing through the aggregate receiving tray 4;

[0050] A tray wall device 14 arranged above the lifting tray 13.

[0051] refer to Figure 5 It is understood that the wall device 14 includes:

[0052] A retaining cylinder 15 arranged around the edge of the lifting plate 13, a limiting cylinder 16 movably sleeved on the central axis 12, and a ball pushing plate 17 fixed between the retaining cylinder 15 and the limiting cylinder 16;

[0053] The side frame 18 fixed on the lifting plate 13 and the short worm 19 supported on the side frame 18 are connected to the enclosure cylinder 15 through an external gear ring to establish a transmission connection with the short worm 19.

[0054] The enclosing cylinder 15 and the lifting plate 13 can rotate with each other, and the enclosing cylinder 15 and the lifting plate 13 are combined to form a feeding plate. The feeding plate and the gathering plate 4 distributed below are both barrel-shaped. The feeding plate is filled with zeolite balls 10 to be used, and the gathering plate is filled with expired zeolite balls 10. The top of the vertical mesh cylinder 8 passes through the bottom plate on the gathering plate 4.

[0055] refer to Figure 7 It is understood that the conversion device 5 includes a flow supply part 22 distributed at the bottom end of the vertical mesh tube 8, a plurality of branch pipes 20 connected between the flow supply part 22 and the oblique branch pipe 11, and an energy supply part 21 that establishes transmission between the flow supply part 22 and the inner gear ring 7, and transmission is established between the bottom end of the lap shaft 6 and the energy supply part 21.

[0056] refer to Figure 8 It is understood that the flow supply part 22 includes a cylindrical flow barrel 23, a fluid rotating fan 25 arranged in the flow barrel 23, and a fan shaft 24 fixed in the middle of the fluid rotating fan 25. A partial section of the fan shaft 24 is movably sleeved in a through hole opened in the middle of the bottom plate of the flow barrel 23. One end of the inclined branch pipe 11 is fixedly connected to the flow barrel 23, and the other end is fixedly connected to a row of inclined branch pipes 11.

[0057] The energy supply part 21 includes a follower frame 28 fixed on one side of the shunt pipe 20, a transverse worm 27 and a guide control shaft 29 supported on the follower frame 28, a guide control gear 30 fixed at one end of the guide control shaft 29, and a pressing tool 26 connected to one side of the transverse worm 27 for transmission. The other end of the guide control shaft 29 is connected to the bevel gear fixed at the end of the transverse worm 27 for direction transmission through a fixed bevel gear. The guide control gear 30 is meshed and connected with the inner gear ring 7 for transmission. The transverse worm 27 and the guide control shaft 29 are respectively movably sleeved in two through holes opened on the follower frame 28.

[0058] The bottom end of the lap shaft 6 is movably sleeved in the column hole opened on the swing frame 28, and the top end of the lap shaft 6 is movably sleeved in the through hole opened on the side frame 18. One end of the short worm 19 is connected to the bevel gear fixed on the top end of the lap shaft 6 through the fixed bevel gear for changing direction transmission.

[0059] The pressing tool 26 includes a power storage shaft 32 with one end movably sleeved in a circular hole opened on the following frame 28, a first spring 31 with the other end of the power storage shaft 32 fixedly sleeved, a boost gear 33 also fixed on the power storage shaft 32, an outer ring gear 36 of the outer fixed sleeve of the first spring 31, a rack plate 34 fixed on the bottom surface of one side of the outer ring gear 36, and a clamping piece 35 clamped with the rack plate 34, the transverse worm 27 and the boost gear 33 are meshed and transmission connected, the power storage shaft 32 is also movably sleeved in a through hole opened in the middle of the rack plate 34, the end of the fan shaft 24 is meshed and transmission connected with the outer ring gear 36 by setting a shaft gear, and the bottom end of the lap shaft 6 is also meshed and transmission connected with the outer ring gear 36 by setting a shaft gear.

[0060] The clamping member 35 includes a lifting slide post 38 that slides through a column hole opened on the rotating frame 28, a pressure spring 39 on the outer sleeve of the lifting slide post 38, and a lifting plate 37 arranged on one side of the lifting slide post 38. The lifting plate 37 is provided with a pointed end to be inserted into the V-shaped groove opened on the rack plate 34, and the lifting plate 37 slides through the groove opened on the rotating frame 28. The lifting plate 37 is fixedly connected to the lifting slide post 38 by providing a flat convex plate, and the pressure spring 39 is supported between the flat convex plate and the rotating frame 28.

[0061] The top end of the central shaft 12 is externally connected to the motor drive mechanism of the prior art. The central shaft 12 rotates to drive the lifting plate 13, thereby controlling the rotation of the entire plate wall device 14. In addition, the collection plate 4 is driven by the feeding tube 9. The collection plate 4 and the lifting plate 13 rotate synchronously. The zeolite filter 2, the conversion device 5 and the overlap shaft 6 continuously rotate in the alcoholization barrel 1. Further analysis shows that the rotating guide control gear 30 is meshed with the stationary inner gear ring 7, so that the guide control gear 30 rotates continuously, and then the horizontal worm 27 is driven by the guide control shaft 29, causing the supercharging gear 33 to rotate slowly. Next, the power storage shaft 32 rotates to cause the first spring 31 to contract and store power. The first spring 31 is released after being saturated with power, causing the outer ring gear 36 and the rack plate 34 to rotate synchronously. The release timing is that the rotation pressure provided by the first spring 31 on the rack plate 34 is greater than the blocking effect of the clamping member 35. The rotation causes the tip of the lifting plate 37 to disengage from the V-groove of the rack plate 34. The rack plate 34 that has lost its blocking position rotates smoothly for one circle and is then blocked again by the clamping member 35. During the process of the rack plate 34 and the outer ring gear 36 rotating a full circle, the outer ring gear 36 drives the fan shaft 24 and the lap shaft 6 respectively.

[0062] The fan shaft 24 drives the fluid rotating fan 25 to rotate rapidly for multiple circles. In this way, the liquor fluid in the aging barrel 1 is sucked into the flow-through barrel 23, and then injected into a plurality of inclined branch pipes 11 through the shunt pipe 20. The fluid flowing downward impacts and injects into the feed pipe cylinder 9. The zeolite balls 10 in the feed pipe cylinder 9 are impacted and conveyed downward. The zeolite balls 10 in the feed pipe cylinder 9 are injected into the vertical mesh cylinder 8 from the bottom of the vertical mesh cylinder 8. The zeolite balls 10 at the top in the vertical mesh cylinder 8 are pushed upward. Subsequently, the zeolite balls 10 at the top end of the vertical mesh cylinder 8 move to the aggregate tray 4. Through the input at the bottom end and output at the top end of the vertical mesh cylinder 8, the automatic replacement of the internal zeolite balls 10 is realized.

[0063] During the self-rotation of the lapping shaft 6, the short worm 19 is driven. The rotation of the short worm 19 causes the overall rotation of the assembly composed of the enclosing cylinder 15, the ball pushing plate 17 and the limiting cylinder 16. Unused zeolite balls 10 are placed inside the enclosing cylinder 15. During the circular motion of the ball pushing plate 17, the zeolite balls 10 are pushed to roll. The rolling zeolite balls 10 smoothly roll into the funnel holes on the lifting tray 13 and then replenish and fall into the feed pipe cylinder 9.

[0064] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principle and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A device for rapid alcoholization of liquor, comprising an alcoholization barrel for storing alcoholized liquor, characterized in that: The alcoholization barrel is provided with a row of zeolite filters, a feeding device for supplying zeolite to the zeolite filters and driving the zeolite filters, a collection plate for recovering zeolite from the zeolite filters, and a conversion device for zeolite transportation and energy supply. A transmission is established between the conversion device and the feeding device by setting a lap shaft, and a transmission is established between the inner wall of the alcoholization barrel and the conversion device by fixing an inner gear ring. A row of zeolite filters accelerates alcoholization of wine by stirring around in the alcoholization barrel, and the zeolite in the zeolite filter is prevented from failing by automatically replacing zeolite. The zeolite filter includes: A vertical net cylinder, the top of which extends into the aggregate tray; A feeding tube is erected on one side of the vertical net cylinder, and the bottom end of the feeding tube is fixedly connected to the bottom end of the vertical net cylinder by setting a U-shaped tube; A row of zeolite balls are stacked vertically inside the vertical mesh tube and the feed tube; A row of oblique branch pipes are fixedly connected to one side of the feeding tube, and the oblique branch pipes transport fluid into the inside of the feeding tube to transport the zeolite balls in the feeding tube downward.

2. A device for rapid alcoholization of liquor according to claim 1, characterized in that: The feeding device comprises: Central axis, the top end of the central axis extends to the outside of the aging barrel; A lifting plate is fixed at the bottom end of the central axis, and a row of funnel holes are opened in the middle area of ​​one side of the lifting plate, and the funnel holes are fixedly connected to the top of the feeding tube that passes through the aggregate receiving plate; A plate wall device is arranged above the lifting plate.

3. A device for rapid alcoholization of liquor according to claim 2, characterized in that: The disk wall device comprises: A retaining cylinder arranged around the edge of the lifting plate, a limiting cylinder movably sleeved on the central axis, and a ball pushing plate fixed between the retaining cylinder and the limiting cylinder; A side frame fixed on the lifting plate and a short worm supported on the side frame are connected to the enclosure cylinder through an external gear ring to establish a transmission connection with the short worm.

4. A device for rapid alcoholization of liquor according to claim 3, characterized in that: The enclosing cylinder and the lifting plate can rotate with each other, and the enclosing cylinder and the lifting plate are combined to form a feeding plate. The feeding plate and the gathering plate distributed below are both barrel-shaped. The feeding plate is filled with zeolite balls to be used, and the gathering plate is filled with expired zeolite balls. The top of the vertical mesh cylinder passes through the bottom plate on the gathering plate.

5. The device for rapid alcoholization of liquor according to claim 1, characterized in that: The conversion device includes a flow supply part distributed at the bottom end of the vertical mesh cylinder, a plurality of branch pipes connected between the flow supply part and the oblique branch pipe, and an energy supply part that establishes transmission between the flow supply part and the inner gear ring, and the bottom end of the lap shaft and the energy supply part establish transmission.

6. A device for rapid alcoholization of liquor according to claim 5, characterized in that: The flow supply part includes a cylindrical flow barrel, a fluid rotating fan arranged in the flow barrel, and a fan shaft fixed in the middle of the fluid rotating fan. A partial section of the fan shaft is movably sleeved in a through hole opened in the middle of the bottom plate on the flow barrel. One end of the oblique branch pipe is fixedly connected to the flow barrel, and the other end is fixedly connected to a row of oblique branch pipes.

7. A device for rapid alcoholization of liquor according to claim 6, characterized in that: The energy supply part includes a follower frame fixed on one side of the shunt pipe, a transverse worm and a guide control shaft supported on the follower frame, a guide control gear fixed at one end of the guide control shaft, and a pressing tool connected to one side of the transverse worm for transmission. The other end of the guide control shaft is connected to the bevel gear fixed at the end of the transverse worm for direction transmission through a fixed bevel gear, and the guide control gear is meshed and connected to the inner gear ring for transmission.

8. A device for rapid alcoholization of liquor according to claim 7, characterized in that: The bottom end of the overlap shaft is movably sleeved in a column hole opened on the floating frame, and the top end of the overlap shaft is movably sleeved in a through hole opened on the side frame. One end of the short worm is connected to the bevel gear fixed on the top end of the overlap shaft for direction-changing transmission through a fixed bevel gear.

9. The device for rapid alcoholization of liquor according to claim 7, characterized in that: The pressure-generating device includes a power storage shaft with one end movably sleeved in a circular hole opened on the floating frame, a first mainspring fixedly sleeved at the other end of the power storage shaft, a booster gear also fixed on the power storage shaft, an outer ring gear of the outer fixed sleeve of the first mainspring, a disc frame plate fixed on the bottom surface of one side of the outer ring gear, and a clamping piece clamped with the disc frame plate, the transverse worm and the booster gear are meshingly connected to each other, the power storage shaft is also movably sleeved in a through hole opened in the middle of the disc frame plate, the end of the fan shaft is meshingly connected to the outer ring gear by setting a shaft gear, and the bottom end of the lap shaft is also meshingly connected to the outer ring gear by setting a shaft gear.

10. A liquor rapid alcoholization device according to claim 9, characterized in that: The clamping component includes a lifting slide column that slides through a column hole opened on the traveling frame, a pressure spring on the outer sleeve of the lifting slide column, and a lifting plate arranged on one side of the lifting slide column. The lifting plate is arranged with a pointed end to be inserted into a V-shaped groove opened on the disk rack plate, and the lifting plate slides through a groove opened on the traveling frame. The lifting plate is fixedly connected to the lifting slide column by a flat convex plate, and the pressure spring is supported between the flat convex plate and the traveling frame.

Images