Protein suede membrane cloth and preparation device thereof

Abstract

The invention relates to the technical field of cosmetics, and discloses a preparation device for a protein velvet mask cloth, comprising a feeding mechanism and a mixing mechanism, wherein the mixing mechanism comprises a mixing tank and a stirring member, wherein the stirring member comprises a lifting bracket, wherein a stirring column coaxial with the mixing tank and capable of rotating is installed on the lifting bracket, wherein the bottom of the stirring column extends into the mixing tank and is provided with a base, wherein a blade component is installed on the side of the base, wherein the interior of the stirring column is hollow and is provided with an inner cylinder, wherein the inner cylinder is provided with a flow channel for pulling collagen and wood pulp into the blade component, wherein the blade component comprises a stirring blade extending radially along the stirring column, wherein a rotating shaft extends from the end of the stirring blade, wherein the rotating shaft is rotatably connected to the base, wherein the stirring blade is in the shape of a triangular column, wherein an inner chamber one and an inner chamber two are provided inside the stirring blade, wherein an output hole one communicating with the inner chamber one and an output hole two communicating with the inner chamber two are provided on the side of the stirring blade.

Description

Technical Field

[0001] The invention relates to the technical field of cosmetics, specifically to the technical field of facial masks, and in particular to a protein suede facial mask cloth and a preparation device thereof. Background Art

[0002] Facial mask cloth is a kind of cloth used to carry facial mask essence. Commonly used facial mask cloths include non-woven fabrics, silk fabrics, etc. In the prior art, facial mask cloth has the characteristic of adhering to the surface and absorbing water, and can hydrate and nourish the user's skin when used. However, the water-locking performance of existing facial mask cloths is average, which greatly affects the performance of the mask. Therefore, the present invention provides a protein velvet facial mask cloth and a preparation device thereof. Summary of the invention

[0003] In order to solve the problems mentioned in the above background, the present invention provides a protein suede membrane cloth and a preparation device thereof.

[0004] In order to achieve the above technical objectives, the technical solution adopted by the present invention is as follows.

[0005] A preparation device for a protein velvet mask cloth, comprising a stirring device for stirring collagen and wood pulp, the stirring device comprising a feeding mechanism and a mixing mechanism, the mixing mechanism comprising a mixing tank and a stirring member, the stirring member comprising a lifting bracket and a linear module 2 arranged on a tank cover of the mixing tank and used to drive the lifting bracket to move in a vertical direction;

[0006] A stirring column coaxial with the mixing tank and capable of rotating is installed on the lifting bracket, the bottom of the stirring column extends into the mixing tank and is provided with a base, a blade component is installed on the side of the base, and the blade component is arranged in a plurality of groups along the circumferential direction of the stirring column. The stirring column is hollow inside and is provided with an inner cylinder, and a flow channel for pulling collagen and wood pulp into the blade component is provided on the inner cylinder;

[0007] The blade component includes a stirring blade extending radially along the stirring column, a rotating shaft extending from the end of the stirring blade, and the rotating shaft is rotatably connected to the base. The stirring blade is in the shape of a triangular column, and an inner chamber 1 and an inner chamber 2 are arranged inside the stirring blade. An output hole 1 connected to the inner chamber 1 and an output hole 2 connected to the inner chamber 2 are arranged on the side of the stirring blade.

[0008] Further, the flow channel includes inner groove 1 and inner groove 2 arranged on the lower end surface of the inner cylinder, the upper end surface of the inner cylinder is penetrated with a mounting hole, and the flow channel also includes connecting channel 1 and connecting channel 2 arranged on the hole wall of the mounting hole, the connecting channel 1 is connected with the inner groove 1, and the connecting channel 2 is connected with the inner groove 2;

[0009] A distribution core in the shape of a circular ring is installed at the upper opening of the mounting hole, and a connection hole 1 connected to the connection channel 1 and a connection hole 2 connected to the connection channel 2 are provided on the distribution core. A rotary joint 1 and a rotary joint 2 are also provided on the lifting bracket. The input ends of the rotary joint 1 and the rotary joint 2 are both connected to the feeding mechanism, the output end of the rotary joint 1 is connected to the connection hole 1, and the output end of the rotary joint 2 is connected to the connection hole 2.

[0010] Furthermore, the part of the rotating shaft extending into the base is sleeved with a connecting seat, and the outer surface of the connecting seat is provided with a nozzle 1 connected to the inner groove 1 and a nozzle 2 connected to the inner groove 2, and a connecting channel 3 for connecting the nozzle 1 with the inner chamber 1 and a connecting channel 4 for connecting the nozzle 2 with the inner chamber 2 are also provided between the connecting seat and the rotating shaft.

[0011] Furthermore, the stirring component includes a motor 1, which is dynamically connected to the stirring column, and when the stirring column moves, the motor 1 can continuously output power to the stirring column.

[0012] Furthermore, a power transmission component is provided between the motor 1 and the stirring column, and a driven component of the power transmission component is installed on the outside of the stirring column through a spline. When the stirring column moves, the motor 1 can continuously output power to the stirring column.

[0013] Furthermore, the outer surface of the tank bottom of the mixing tank is radially extended with a side seat, and two side seats are arranged in an array along the circumferential direction of the tank bottom. The upper end surface of the side seat is flush with the upper end surface of the tank bottom, and the upper surface composed of the side seat and the tank bottom is provided with a slide groove along the radial direction of the tank bottom. A sealing plate is slidably installed in the slide groove, and the length of the sealing plate is greater than the outer diameter of the tank bottom. Initially, the upper end surface of the sealing plate is flush with the groove of the slide groove, and the discharge hole arranged on the sealing plate is located outside the mixing tank. A linear module for driving the sealing plate to move in the slide groove is installed on the side seat.

[0014] Furthermore, the mounting hole is coaxial with the stirring column, a core shaft is installed in the mounting hole, the upper end of the core shaft is dynamically connected to the motor 2 arranged on the lifting bracket, and the lower end of the core shaft extends into the base and is dynamically connected to the rotating shaft.

[0015] Furthermore, the feeding mechanism is provided with two groups, the feeding mechanism includes a storage tank and a conveying pipe, a convex tube extends from the highest point of the outer cylindrical surface of the conveying pipe, the convex tube is connected to the bottom of the storage tank, a push plug is provided inside the conveying pipe, and the feeding mechanism also includes a linear module three for driving the push plug to move in the conveying pipe, and the end of the conveying pipe away from the push plug is connected to the rotary joint one or the rotary joint two through the feeding pipe.

[0016] Furthermore, a connecting valve is provided at one end of the delivery pipe away from the push plug, a side hole is opened at the end of the delivery pipe, the connecting valve comprises a valve housing connected to the orifice of the side hole, a lower side nozzle and an upper side nozzle are provided on the outer circumferential surface of the valve housing, a feeding pipe is provided between the lower side nozzle and the first rotary joint or the second rotary joint, an air pipe is connected to the end of the upper side nozzle and an electromagnetic valve is provided at the connection, and an inert gas source is connected to the end of the air pipe;

[0017] A valve core is sleeved in the valve housing, a spring is arranged between the valve core and the end of the valve housing away from the delivery pipe, a valve hole is arranged on the valve core, and initially, the valve hole, the lower side nozzle and the upper side nozzle are located on the same straight line;

[0018] An air valve is arranged on the tank cover, and the end of the air valve is connected with a negative pressure pump.

[0019] Compared with the prior art, the present invention has the following beneficial effects:

[0020] This scheme is to fully mix collagen and wood pulp so that the effective ingredients in collagen are dispersed in wood pulp fibers to obtain protein fibers. The existing spinning machine technology is combined with the existing loom to obtain a mask base fabric with protein fibers as raw materials. The mask base fabric is then cut to obtain a protein velvet mask fabric with a shape and size that meets the specification requirements. The mask fabric contains collagen ingredients, is not easy to deform, is soft and fits, has long-lasting hydration, and has good water-locking properties. On this basis, one of the cores of this scheme is to fully mix collagen and wood pulp. Specifically:

[0021] 1. In the process of feeding collagen and wood pulp into the mixing tank, the cooperation of motor 2, motor 1 and linear module 2 can make the collagen raw material and wood pulp raw material arranged in layers, that is, in the mixing tank, wood pulp raw material, collagen raw material, wood pulp raw material, collagen raw material...wood pulp raw material are laid out in sequence from bottom to top. Such a layer-by-layer staggered laying method can achieve the purpose of pre-mixing and is conducive to improving the stirring and mixing effect of subsequent raw materials. In the subsequent stirring process, the wood pulp raw material and the collagen raw material are easier to fully mix evenly, and the stirring and mixing time can be shortened to improve the mixing efficiency;

[0022] Furthermore, after the collagen raw material and the wood pulp raw material are staggered and laid flat, they will be stirred by the orbital rotation of the blade component at the rear. This stirring occurs after the staggered and laid flat, thereby improving the pre-mixing effect.

[0023] 2. After the mixing tank is fed, the air in the mixing tank can be pumped out through the cooperation of the connecting valve, the negative pressure pump and the air pump. At the same time, the raw materials in the feeding pipe and the stirring component will be sucked into the mixing tank. After that, the inert gas will enter the mixing tank. In this way, on the one hand, it can prevent the raw materials from remaining in the feeding pipe and the stirring component. Over time, these raw materials are prone to deterioration and blockage. On the other hand, the mixing tank is filled with inert protective gas to ensure that the raw materials are not affected by oxidation during the mixing process. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 It is a structural schematic diagram of the present invention;

[0025] Figure 2 is a schematic diagram of a hybrid mechanism;

[0026] Figure 3 is a cross-sectional view of a mixing tank;

[0027] Figure 4 It is a schematic diagram of the stirring member and the tank bottom;

[0028] Figure 5 is a schematic diagram of a stirring component;

[0029] Figure 6 is a cross-sectional view of a stirring member;

[0030] Figure 7 is a cross-sectional view of the inner cylinder;

[0031] Figure 8 is a schematic diagram of the base and blade components;

[0032] Fig. 9 is a cross-sectional view of a blade component;

[0033] Fig.10 is a cross-sectional view of a stirring blade;

[0034] Fig.11 is a schematic diagram of the feeding mechanism;

[0035] Fig.12 A cross-sectional view of the connecting valve.

[0036] The reference numerals in the accompanying drawings are:

[0037] 100, feeding mechanism; 101, storage tank; 102, delivery pipe; 103, push plug; 104, linear module three; 105, feeding pipe; 106, connecting valve; 1061, valve shell; 1062, lower side nozzle; 1063, solenoid valve; 1064, valve core; 1065, spring; 107, air pipe; 200, mixing tank; 201, tank cover; 2011, air valve; 202, tank bottom; 2021, side seat; 2022, slide; 203, sealing plate; 2031, discharge hole; 204, linear module one; 205, discharge pipe; 206, motor one; 207, linear module two; 208, lifting bracket; 209, stirring column; 210, motor 2; 211, core shaft; 212, inner cylinder; 2121, inner tank 1; 2122, inner tank 2; 2123, connecting channel 1; 2124, connecting channel 2; 213, distribution core; 2131, connecting hole 1; 2132, connecting hole 2; 214, rotary joint 1; 215, rotary joint 2; 216, base; 217, blade component; 218, stirring blade; 2181, inner chamber 1; 2182, inner chamber 2; 2183, output hole 1; 2184, output hole 2; 219, connecting seat; 2191, nozzle 1; 2192, nozzle 2; 2193, connecting channel 3; 2194, connecting channel 4. DETAILED DESCRIPTION

[0038] In order to further explain the technical means and effects adopted by the present invention to achieve the predetermined invention purpose, the specific implementation mode, structure, characteristics and effects of the present invention are described in detail below in combination with the accompanying drawings and preferred embodiments.

[0039] A protein suede mask cloth is prepared by fully stirring and mixing collagen and wood pulp so that the effective ingredients in the collagen are dispersed in the wood pulp fibers to obtain protein fibers. The existing spinning machine technology is combined with the existing loom to obtain a mask base cloth using the protein fibers as the raw material. The mask base cloth is then cut to obtain a protein suede mask cloth having a shape and size that meet the specification requirements. The protein suede mask cloth contains collagen components, is not easy to deform, is soft and fits well, has a lasting hydration effect, and has good water-locking properties.

[0040] One of the keys to the preparation of the above-mentioned protein velvet mask cloth is to fully and evenly mix the collagen and wood pulp. Since both collagen and wood pulp are fluids with high viscosity, it is difficult to mix the two. In the existing stirring technology, the stirring action is generally achieved by the rotating action of the blades. This method is difficult to achieve sufficient mixing of collagen and wood pulp. Therefore, this scheme proposes a preparation device for protein velvet mask cloth, including a stirring device, which is used to stir the collagen and wood pulp to make them fully mixed.

[0041] Reference Figure 1 The stirring device includes a feeding mechanism 100 and a mixing mechanism.

[0042] Reference Figure 2-Figure 10 The mixing mechanism includes a mixing tank 200, and the outer surface of the tank bottom 202 of the mixing tank 200 is radially extended with a side seat 2021, and two side seats 2021 are arranged in an array along the circumferential direction of the tank bottom 202, and the upper end surface of the side seat 2021 is flush with the upper end surface of the tank bottom 202, and the upper surface composed of the side seat 2021 and the tank bottom 202 is radially provided with a slide groove 2022, and a sealing plate 203 is slidably installed in the slide groove 2022, and the length of the sealing plate 203 is greater than the outer diameter of the tank bottom 202. Initially, the upper end surface of the sealing plate 203 and the groove of the slide groove 2022 are aligned. The mouth is flush, and the discharge hole 2031 arranged on the sealing plate 203 is located outside the mixing tank 200. Therefore, the inner cavity of the mixing tank 200 is a complete cylindrical shape. A linear module 204 is also installed on the side seat 2021 for driving the sealing plate 203 to move in the slide groove 2022. After stirring and mixing is completed, the sealing plate 203 is driven to move by the linear module 204 to connect the discharge hole 2031 with the mixing tank 200, so that the mixed fluid is discharged outward through the discharge hole 2031 and the discharge pipe 205 arranged at the lower hole of the discharge hole 2031.

[0043] The mixing mechanism also includes a stirring component, which includes a lifting bracket 208 and a linear module 207 arranged on the tank cover 201 of the mixing tank 200. The linear module 207 is used to drive the lifting bracket 208 to move in the vertical direction. A stirring column 209 coaxial with the mixing tank 200 is installed on the lifting bracket 208. The bottom of the stirring column 209 can pass through the through hole set on the tank cover 201 and extend into the mixing tank 200. The stirring column 209 and the through hole form a sealed sliding guide fit.

[0044] The stirring member also includes a motor 206, which forms a power connection with the stirring column 209. Furthermore, a power transmission member is arranged between the motor 206 and the stirring column 209. The driven member of the power transmission member is installed on the outside of the stirring column 209 through a spline, or a plane is cut on the outer cylindrical surface of the stirring column 209, and the inner wall of the driven member is provided with a flat wall corresponding to the plane. In this way, when the stirring column 209 moves, the motor 206 can continuously output power to the stirring column 209.

[0045] Reference Figure 5 , Figure 6 and Figure 8 A base 216 is provided at the bottom of the stirring column 209 , and a blade component 217 is installed on the side of the base 216 . The blade components 217 are arranged in an array in a circumferential direction of the stirring column 209 in a plurality of groups.

[0046] The interior of the stirring column 209 is hollow and is installed with an inner cylinder 212. The inner cylinder 212 is provided with a flow channel for pulling collagen and wood pulp into the blade component 217. There are several flow channels corresponding to the number of blade components 217. In this embodiment, there are three blade components 217 and three flow channels.

[0047] Reference Figure 6 and Figure 7 The flow channel includes an inner groove 1 2121 and an inner groove 2122 arranged on the lower end surface of the inner cylinder 212, and a mounting hole is penetrated on the upper end surface of the inner cylinder 212. The flow channel also includes a connecting channel 1 2123 and a connecting channel 2 2124 arranged on the hole wall of the mounting hole. The connecting channel 1 2123 is connected to the inner groove 1 2121, and the connecting channel 2 2124 is connected to the inner groove 2 2122.

[0048] A distribution core 213 in the shape of a circular ring is installed at the upper opening of the mounting hole, and a connection hole 2131 connected to the connection channel 1 2123 and a connection hole 2132 connected to the connection channel 2 2124 are provided on the distribution core 213. A rotary joint 214 and a rotary joint 215 are also provided on the lifting bracket 208, wherein the input ends of the rotary joint 1 214 and the rotary joint 2 215 are both connected to the feeding mechanism 100, the output end of the rotary joint 1 214 is connected to the connection hole 1 2131, and the output end of the rotary joint 2 215 is connected to the connection hole 2 2132. Because the inner cylinder 212 needs to rotate with the stirring column 209, a rotary joint is provided for the connection between the feeding mechanism 100 and the flow channel.

[0049] Reference Fig. 9 and Fig.10 The blade component 217 includes a stirring blade 218 extending radially along the stirring column 209, and a rotating shaft extends from the end of the stirring blade 218, and the rotating shaft is rotatably connected to the base 216. Furthermore, the mounting hole is coaxial with the stirring column 209, and a core shaft 211 is installed in the mounting hole. The upper end of the core shaft 211 is dynamically connected to the motor 210 arranged on the lifting bracket 208, and the lower end of the core shaft 211 extends into the base 216 and is dynamically connected to the rotating shaft. Therefore, the stirring blade 218 can be driven to rotate around the rotating shaft by the motor 210, which is named rotation. In addition, the stirring blade 218 can also rotate with the stirring column 209, which is named revolution. Based on this, the following actions can be achieved: the stirring blade 218 revolves and rotates at the same time, the stirring blade 218 only revolves, and the stirring blade 218 only rotates.

[0050] The stirring blade 218 is in the shape of a triangular prism, and its side edges parallel to the length direction are rounded. The interior of the stirring blade 218 is provided with an inner chamber 1 2181 and an inner chamber 2182. The side of the stirring blade 218 is provided with an output hole 1 2183 connected to the inner chamber 1 2181 and an output hole 2184 connected to the inner chamber 2 2182.

[0051] The part of the rotating shaft extending into the base 216 is sleeved with a connecting seat 219, and the outer surface of the connecting seat 219 is provided with a nozzle 1 2191 connected to the inner groove 1 2121 and a nozzle 2 2192 connected to the inner groove 2122. A connecting channel 3 2193 for connecting the nozzle 1 2191 with the inner chamber 1 2181 and a connecting channel 4 2194 for connecting the nozzle 2 2192 with the inner chamber 2 2182 are also provided between the connecting seat 219 and the rotating shaft.

[0052] Feeding process of mixing tank 200:

[0053] First, the second motor 210 is running, driving the stirring blade 218 to rotate only, so that the side of the stirring blade 218 provided with the first output hole 2183 and the second output hole 2184 is arranged vertically;

[0054] Then, the motor 1 206 cooperates with the motor 2 210 to rotate the stirring column 209 and the stirring blade 218 rotates only with the stirring column 209. At the same time, the linear module 207 drives the lifting bracket 208 to move up slowly and constantly. The lifting bracket 208 moves up slowly and constantly with the stirring column 209 and the stirring blade 218. At the same time, the wood pulp raw material provided by the feeding mechanism 100 flows into the inner chamber 1 2181 through the rotary joint 1 214, the connecting hole 1 2131, the connecting channel 1 2123, the inner groove 1 2121, the nozzle 1 2191, and the connecting channel 3 2193 in sequence, and flows out through the output hole 1 2183. The collagen raw material provided by the feeding mechanism 100 flows through the rotary joint 2 215, the connecting hole 2132, the connecting channel 2 2124 in sequence. , the second inner tank 2122, the second nozzle 2192, and the fourth connecting channel 2194 flow into the second inner chamber 2182, and flow out through the second output hole 2184. The outflowing collagen raw material flow rate and the outflowing wood pulp raw material flow rate can be controlled and adjusted by the feeding mechanism 100. Therefore, in the feeding process of the mixing tank 200, the collagen raw material and the wood pulp raw material can be arranged in layers, that is, in the mixing tank 200, wood pulp raw material, collagen raw material, wood pulp raw material, collagen raw material...wood pulp raw material are laid out in sequence from bottom to top. Such a layer-by-layer staggered laying method can achieve the purpose of pre-mixing, and is conducive to improving the stirring and mixing effect of the raw materials, so that the wood pulp raw material and the collagen raw material are fully mixed and evenly mixed, and can shorten the stirring and mixing time, that is, improve the mixing efficiency;

[0055] It should be noted that, during the feeding, since the stirring blade 218 needs to undergo a revolution, Figure 8 The side of the stirring blade 218 provided with the output hole 1 2183 and the output hole 2184 is named side 1, and the remaining two side surfaces of the stirring blade 218 are located directly in front of the side 1 along the revolution direction of the stirring blade 218. Therefore, after the collagen raw material and the wood pulp raw material are staggered and laid flat, they will be stirred by the revolution and rotation action of the blade component 217 at the rear. This stirring occurs after the staggered laying, thereby improving the pre-mixing effect.

[0056] Mixing process of mixing tank 200:

[0057] The lifting bracket 208 is driven to reciprocate up and down by the linear module 2 207, and the stirring blade 218 is driven to revolve and rotate at the same time through the cooperation of the motor 1 206 and the motor 2 210, so as to achieve the stirring of the collagen raw material and the wood pulp raw material.

[0058] Output process of mixing tank 200:

[0059] After the stirring is finished, the linear module 207 cooperates with the motor 210 to drive any rounded corner of the stirring blade 218 to be tangent to the tank bottom 202;

[0060] Then, the linear module 204 drives the sealing plate 203 to move in the chute 2022, so that the discharge hole 2031 is connected with the mixing tank 200, and the evenly mixed raw materials in the mixing tank 200 are discharged outward through the discharge hole 2031 and the discharge pipe 205. At the end of the output, a small amount of raw materials will remain on the upper end surface of the tank bottom 202. At this time, the motor 1 206 cooperates with the motor 2 210 to drive the stirring blade 218 to only revolve. At the same time, the linear module 204 drives the sealing plate 203 to move in the chute 2022, so that the discharge hole 2031 is connected with the mixing tank 200 and moves slowly and at a constant speed along the radius direction of the mixing tank 200. In combination with the revolution of the stirring blade 218, the remaining raw materials can be scraped into the discharge hole 2031, thereby achieving the purpose of completely discharging the mixed raw materials.

[0061] Reference Fig.11 In this solution, since the raw materials include collagen and wood pulp, two groups of feeding mechanisms 100 are correspondingly provided.

[0062] The feeding mechanism 100 includes a storage tank 101 and a delivery pipe 102. A convex pipe extends from the highest point of the outer cylindrical surface of the delivery pipe 102, and the convex pipe is connected to the bottom of the storage tank 101. A push plug 103 is sleeved in the delivery pipe 102. The feeding mechanism 100 also includes a linear module three 104 for driving the push plug 103 to move in the delivery pipe 102. The end of the delivery pipe 102 away from the push plug 103 is connected to the rotary joint 1 214 or the rotary joint 2 215 through the feeding pipe 105.

[0063] Initially, the push plug 103 is located on the side of the convex tube away from the feeding tube 105, and the collagen raw material or wood pulp raw material in the storage tank 101 falls into the conveying tube 102;

[0064] Then, the push plug 103 is driven to move through the linear module three 104, so that the raw material is pushed into the rotary joint one 214 or the rotary joint two 215 through the feeding pipe 105. At the same time, by controlling the movement speed of the push plug 103, the flow rate of the raw material supplied to the rotary joint one 214 or the rotary joint two 215 can be controlled and adjusted.

[0065] In a preferred embodiment, when the mixing tank 200 is stirring and mixing, in order to prevent the air in the mixing tank 200 from oxidizing the raw materials, Fig.11 and Fig.12 A connecting valve 106 is provided at one end of the delivery pipe 102 away from the push plug 103, and a side hole is opened at the end of the delivery pipe 102. The connecting valve 106 includes a valve shell 1061 connected to the orifice of the side hole, and the outer circular surface of the valve shell 1061 is provided with a lower side nozzle 1062 and an upper side nozzle, and the two are located on the same straight line, wherein the feeding pipe 105 is arranged between the lower side nozzle 1062 and the rotary joint 1 214 or the rotary joint 2 215, and the end of the upper side nozzle is connected to the air pipe 107 and a solenoid valve 1063 is provided at the connection.

[0066] A valve core 1064 is sleeved in the valve housing 1061, a spring 1065 is arranged between the valve core 1064 and the end of the valve housing 1061 away from the delivery pipe 102, and a valve hole is arranged on the valve core 1064. Initially, the valve hole, the lower side mouth 1062 and the upper side mouth are located on the same straight line.

[0067] The end of the gas pipe 107 is connected to an inert gas source, for example, a gas tank filled with nitrogen, and an air pump is provided between the gas tank and the gas pipe 107 .

[0068] An air valve 2011 is provided on the tank cover 201 , and a negative pressure pump is connected to the end of the air valve 2011 .

[0069] During the feeding process of the mixing tank 200, the solenoid valve 1063 is closed, the push plug 103 pushes the raw material, and the raw material pushes against the valve core 1064, so that the valve core 1064 retreats, and the raw material can flow into the feeding pipe 105 through the lower side nozzle 1062;

[0070] After the mixing tank 200 completes feeding, the push plug 103 retreats, and the spring 1065 releases its elastic force, so that the connecting valve 106 returns to its initial state, that is, the valve hole, the lower side nozzle 1062 and the upper side nozzle are located in the same straight line, and then the solenoid valve 1063 opens, and the negative pressure pump and the air pump start at the same time to pump out the air in the mixing tank 200. At the same time, the raw materials in the feeding pipe 105 and the stirring component will be sucked into the mixing tank 200, and then the inert gas will enter the mixing tank 200. In this way, on the one hand, the raw materials are prevented from remaining in the feeding pipe 105 and the stirring component. Over time, this part of the raw materials is prone to deterioration and blockage. On the other hand, the mixing tank 200 is filled with inert protective gas to ensure that the raw materials are not affected by oxidation during the mixing process.

[0071] In this solution, the linear module can be the existing electric telescopic rod technology or the existing screw linear motion technology, etc., which will not be described in detail.

[0072] The above description is only a preferred embodiment of the present invention and does not limit the present invention in any form. Although the present invention has been disclosed as a preferred embodiment as above, it is not used to limit the present invention. Any technical personnel in this field can make some changes or modify the technical contents disclosed above into equivalent embodiments without departing from the scope of the technical solution of the present invention. However, any brief modifications, equivalent changes and modifications made to the above embodiments based on the technical essence of the present invention without departing from the content of the technical solution of the present invention are still within the scope of the technical solution of the present invention.

Claims

1. A device for preparing a protein suede membrane cloth, characterized in that: The invention comprises a stirring device for stirring collagen and wood pulp, the stirring device comprising a feeding mechanism (100) and a mixing mechanism, the mixing mechanism comprising a mixing tank (200) and a stirring member, the stirring member comprising a lifting bracket (208) and a linear module 2 (207) arranged on a tank cover (201) of the mixing tank (200) and used for driving the lifting bracket (208) to move in a vertical direction; A stirring column (209) coaxial with the mixing tank (200) and capable of rotating is mounted on the lifting bracket (208); the bottom of the stirring column (209) extends into the mixing tank (200) and is provided with a base (216); a blade component (217) is mounted on the side of the base (216); a plurality of groups of blade components (217) are arranged in an array along the circumferential direction of the stirring column (209); the stirring column (209) is hollow inside and is provided with an inner cylinder (212); a flow channel for pulling collagen and wood pulp into the blade component (217); The blade component (217) comprises a stirring blade (218) extending radially along the stirring column (209); a rotating shaft extends from the end of the stirring blade (218); the rotating shaft is rotatably connected to the base (216); the stirring blade (218) is in the shape of a triangular prism; a first inner chamber (2181) and a second inner chamber (2182) are arranged inside the stirring blade (218); and an output hole (2183) communicating with the first inner chamber (2181) and an output hole (2184) communicating with the second inner chamber (2182) are arranged on the side of the stirring blade (218); The flow channel comprises an inner groove 1 (2121) and an inner groove 2 (2122) arranged on the lower end surface of the inner cylinder (212); a mounting hole is provided through the upper end surface of the inner cylinder (212); the flow channel further comprises a connecting channel 1 (2123) and a connecting channel 2 (2124) arranged on the hole wall of the mounting hole; the connecting channel 1 (2123) is in communication with the inner groove 1 (2121); and the connecting channel 2 (2124) is in communication with the inner groove 2 (2122); A distribution core (213) in the shape of a circular ring is installed at the upper opening of the installation hole. The distribution core (213) is provided with a connection hole 1 (2131) connected to the connection channel 1 (2123) and a connection hole 2 (2132) connected to the connection channel 2 (2124). The lifting bracket (208) is also provided with a rotary joint 1 (214) and a rotary joint 2 (215). The input ends of the rotary joint 1 (214) and the rotary joint 2 (215) are both connected to the feeding mechanism (100), the output end of the rotary joint 1 (214) is connected to the connection hole 1 (2131), and the output end of the rotary joint 2 (215) is connected to the connection hole 2 (2132). The portion of the rotating shaft extending into the base (216) is sleeved with a connecting seat (219), and the outer surface of the connecting seat (219) is provided with a nozzle 1 (2191) connected to the inner groove 1 (2121) and a nozzle 2 (2192) connected to the inner groove 2 (2122). A connecting channel 3 (2193) for connecting the nozzle 1 (2191) with the inner chamber 1 (2181) and a connecting channel 4 (2194) for connecting the nozzle 2 (2192) with the inner chamber 2 (2182) are also provided between the connecting seat (219) and the rotating shaft.

2. The preparation device of a protein suede membrane cloth according to claim 1, characterized in that: The stirring member comprises a motor 1 (206), the motor 1 (206) and the stirring column (209) forming a power connection, and when the stirring column (209) moves, the motor 1 (206) can continuously output power to the stirring column (209).

3. The preparation device of a protein suede membrane cloth according to claim 2, characterized in that: A power transmission member is provided between the motor 1 (206) and the stirring column (209), and a driven member of the power transmission member is installed on the outside of the stirring column (209) via a spline. When the stirring column (209) moves, the motor 1 (206) can continuously output power to the stirring column (209).

4. The device for preparing a protein suede membrane cloth according to claim 1, characterized in that: The outer surface of the tank bottom (202) of the mixing tank (200) is provided with a side seat (2021) extending radially, two side seats (2021) are arranged in an array along the circumferential direction of the tank bottom (202), the upper end surface of the side seat (2021) is flush with the upper end surface of the tank bottom (202), and the upper surface formed by the side seat (2021) and the tank bottom (202) is provided with a slide groove (222) along the radial direction of the tank bottom (202), and the inner slide groove (2022 is provided with a slide groove (2022). A sealing plate (203) is movably mounted thereon, the length of the sealing plate (203) being greater than the outer diameter of the tank bottom (202); initially, the upper end surface of the sealing plate (203) is flush with the notch of the chute (2022); a discharge hole (2031) disposed on the sealing plate (203) is located outside the mixing tank (200); and a linear module (204) for driving the sealing plate (203) to move within the chute (2022) is mounted on the side seat (221).

5. The device for preparing a protein suede membrane cloth according to claim 1, characterized in that: The mounting hole is coaxial with the stirring column (209), and a core shaft (211) is mounted in the mounting hole. The upper end of the core shaft (211) is dynamically connected to a second motor (210) disposed on the lifting bracket (208), and the lower end of the core shaft (211) extends into the base (216) and is dynamically connected to the rotating shaft.

6. The device for preparing a protein suede membrane cloth according to claim 1, characterized in that: The feeding mechanism (100) is provided with two groups. The feeding mechanism (100) comprises a storage tank (101) and a delivery pipe (102). A convex pipe extends from the highest point of the outer cylindrical surface of the delivery pipe (102). The convex pipe is connected to the bottom of the storage tank (101). A push plug (103) is sleeved inside the delivery pipe (102). The feeding mechanism (100) further comprises a linear module three (104) for driving the push plug (103) to move inside the delivery pipe (102). An end of the delivery pipe (102) away from the push plug (103) is connected to a rotary joint one (214) or a rotary joint two (215) via the feeding pipe (105).

7. The device for preparing a protein suede membrane cloth according to claim 6, characterized in that: A connecting valve (106) is provided at one end of the delivery pipe (102) away from the push plug (103); a side hole is provided at the end of the delivery pipe (102); the connecting valve (106) comprises a valve housing (1061) connected to the orifice of the side hole; a lower side nozzle (1062) and an upper side nozzle are provided on the outer circumferential surface of the valve housing (1061); a feeding pipe (105) is provided between the lower side nozzle (1062) and the first rotary joint (214) or the second rotary joint (215); an air pipe (107) is connected to the end of the upper side nozzle and a solenoid valve (1063) is provided at the connection; and an inert gas source is connected to the end of the air pipe (107); A valve core (1064) is sleeved in the valve housing (1061), a spring (1065) is arranged between the valve core (1064) and the end of the valve housing (1061) away from the delivery pipe (102), and a valve hole is arranged on the valve core (1064). Initially, the valve hole, the lower side nozzle (1062) and the upper side nozzle are located on the same straight line; An air valve (2011) is provided on the tank cover (201), and a negative pressure pump is connected to the end of the air valve (2011).

8. The device for preparing a protein suede membrane cloth according to claim 5, characterized in that: The side of the stirring blade (218) provided with the output hole 1 (2183) and the output hole 2 (2184) is named side 1, and the remaining two side surfaces of the stirring blade (218) are located directly in front of the side 1 along the revolution direction of the stirring blade (218). The revolution of the stirring blade (218) refers to the rotation of the stirring blade (218) following the stirring column (209).

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