Low-temperature plasma protein processing device

Abstract

The invention relates to the technical field of protein treatment, in particular to a low-temperature plasma protein treatment device which comprises a shell, and a material dispersing mechanism located at the bottom of a feeding mechanism is mounted in the shell; two discharging openings corresponding to the tops of the scraping plates are formed in the top of the shell. The feeding mechanism conveys protein powder to the discharging opening in the top of the shell, the protein powder flows to the two sides of the two side plates from the discharging opening, at the moment, two second motors can be started to achieve simultaneous rotation of two bidirectional lead screws, the protein powder accumulated on the two side plates is transversely dispersed and discharged, and uniform feeding is conducted in cooperation with a fan; the inclined baffles are arranged below the two side plates, worm gears at the ends of rotating rods can be driven to rotate by rotating worms, the opening angle of the baffles can be adjusted, the discharging amount is adjusted, the initial discharging position is located at the top of a fan, and discharging cannot be affected.

Description

Technical Field

[0001] The invention relates to the technical field of protein processing, in particular to a low-temperature plasma protein processing device. Background Art

[0002] Plasma is the fourth state of matter after solid, liquid and gas. When the applied voltage reaches the breakdown voltage, the gas molecules are ionized to produce a mixture including electrons, ions, atoms and atomic groups. Protein includes protein powder, which is a protein supplement. Protein powder can be treated with low-temperature plasma. The principle of low-temperature plasma treatment of protein powder is mainly based on the interaction between high-energy active particles in plasma and protein powder molecules. In a low-temperature plasma environment, these high-energy active particles (such as ions, electrons, free radicals, etc.) can penetrate the surface of protein powder particles, collide and chemically react with the protein molecules inside. These reactions will lead to fine-tuning of the protein molecular structure, thereby changing its solubility, dispersibility, emulsification, foaming and other functional properties.

[0003] However, the current protein powder is processed by collecting raw materials, crushing, purifying, sterilizing, drying and screening during production. The protein powder produced by this process is not processed by low-temperature plasma, so the solubility and dispersibility are poor, it is difficult to mix evenly with other ingredients, the emulsification is not optimized, the protein powder structure is not easily absorbed by the human body, and the bioavailability is low; and at present, when the protein powder is processed, the protein powder is added to the inside of the processing equipment by a spiral feeder, the feeding port is small, the protein powder is in the same place during feeding, it is difficult to feed evenly, and it is easy to cause sterilization and uneven feeding during sterilization or feeding, affecting the processing effect of the protein powder; when feeding, the protein powder is blown to the inside of the designated processing equipment by wind energy, and the feed density can only be adjusted by controlling the wind speed of the fan, the fan cannot be moved in the pipeline, and the fan blades close to the protein powder side are easily contaminated with protein powder, which is inconvenient to clean, affecting the stability of the fan blade rotation. Summary of the invention

[0004] In view of the problems in the prior art, the present invention provides a low-temperature plasma protein processing device.

[0005] The technical solution adopted by the present invention to solve its technical problems is: a low-temperature plasma protein processing device, comprising a shell, a feeding mechanism installed on the shell, a scattering mechanism located at the bottom of the feeding mechanism installed inside the shell, a unloading mechanism located at the bottom of the scattering mechanism installed inside the shell, an adjustment mechanism installed at one end of the shell, and a processing mechanism installed at the end of the shell away from the adjustment mechanism; the scattering mechanism comprises two side plates, two side plates are relatively fixedly connected inside the shell, two second motors are diagonally installed on both sides of the shell, the ends of the two second motors are connected to bidirectional screw rods, the ends of the two bidirectional screw rods are fixedly connected to rotating rods rotatably connected to the shell, two scrapers are relatively slidably connected between the two side plates, the two scrapers are respectively threadedly connected to the two bidirectional screw rods, and the two rotating rods respectively penetrate the side walls of the two scrapers, the feeding mechanism comprises a unloading port, and the top of the shell is provided with two unloading ports corresponding to the tops of the scrapers.

[0006] Specifically, the opposite sides of the two side plates are arranged at an angle, and the outer sides of the two scrapers are in contact with the inner sides of the side plates.

[0007] Specifically, the feeding mechanism also includes a top frame, the top frame is installed on the top of the outer shell, a screw feeder is fixedly connected to the top frame, the feed port passes through the top of the top frame and the bottom of the screw feeder, a hopper is installed on the screw feeder, a bracket is installed at the bottom of the screw feeder, a first motor is installed on the bracket, and one end of the first motor is connected to the screw feeder.

[0008] Specifically, the feeding mechanism further includes a cover plate, and the cover plate is hingedly connected to the hopper having a funnel-shaped structure.

[0009] Specifically, the unloading mechanism includes two rotating shafts and a baffle. The two rotating shafts are connected to the inside of the shell for relative rotation. A baffle located at the bottom of two side plates is fixedly and obliquely connected between the two rotating shafts.

[0010] Specifically, the unloading mechanism also includes two mounting seats, the side walls of the outer shell are relatively fixedly connected with the two mounting seats, a worm is rotatably connected between the two mounting seats, a worm wheel is installed at the end of one of the rotating shafts, the worm and the worm wheel are meshed, and a steering wheel is installed on the top of the worm.

[0011] Specifically, the adjustment mechanism includes a wind hood, a slide groove, a slide and a fan. The wind hood is installed at one end of the shell. The interior of the wind hood is provided with slide grooves in a circular array. The interiors of the multiple slide grooves are slidably connected to the slide, and the fan is installed on the slide.

[0012] Specifically, the adjustment mechanism also includes a slide rail, and a plurality of slide frames are fixed with slide rails, and a plurality of slide rails are slidably connected with a clamping strip, and a turntable is rotatably connected to the slide frame, and the turntable is provided with arc-shaped driving grooves corresponding to the clamping strips at equal intervals in a circular array, and a plurality of clamping strips are fixedly connected with driving rods, and the driving rods are inserted into the driving grooves, and a spring is clamped between the slide rails and the clamping strips, and a plurality of slide grooves are provided with clamping holes located on the inner side of the wind hood at equal intervals in a linear array, and the clamping strips are inserted into the clamping holes, and a steering plate is fixedly connected at the center of the turntable.

[0013] Specifically, the processing mechanism includes a plasma generator, the plasma generator is installed at the other end of the shell, a battery is installed on the top of the plasma generator, electrode plates are installed on the top and bottom of the plasma generator, the electrode plates are electrically connected to the battery, and a vacuum pump is installed at the bottom of the plasma generator.

[0014] Specifically, the processing mechanism also includes a mounting frame, which is laterally fixedly connected to the inside of the plasma generator, and a connecting shaft is rotatably connected to the center of the side of the mounting frame. Blades are fixedly connected to the connecting shaft in a circumferential array at equal intervals, and a fixing ring is fixedly connected to the outer sides of multiple blades.

[0015] The beneficial effects of the present invention are:

[0016] (1) A low-temperature plasma protein processing device described in the present invention has a feeding mechanism installed on the shell. The feeding mechanism transports the protein powder to the discharge port on the top of the shell. The protein powder flows from the discharge port to the two sides of the two side plates. At this time, the two second motors can be started to realize the simultaneous rotation of the two bidirectional screws, and the two rotating rods can realize the support of the scraper. With the rotation of the second motor, the bidirectional screw drives the two scrapers to move back and forth from the center of the side plate to the inner wall of the shell, and the protein powder accumulated on the two side plates is horizontally dispersed and discharged. The fan is used to evenly feed the material, which is beneficial to the comprehensive treatment of the protein powder by the processing mechanism. The two side plates are provided with an inclined baffle under the two side plates. The worm gear at the end of the rotating rod can be rotated by rotating the worm to realize the adjustment of the opening angle of the baffle, thereby adjusting the amount of material discharge. The initial position of the material discharge is located at the top of the fan, which will not affect the material discharge.

[0017] (2) A low-temperature plasma protein processing device described in the present invention has an adjustment mechanism at one end of the shell, and the fan can blow the protein powder dropped by the feeding mechanism into the interior of the plasma generator, so as to comprehensively deliver the protein powder into the interior of the plasma generator, which is beneficial to the processing of the protein powder. The steering wheel can be turned to realize the rotation of the turntable. When the turntable rotates, the multiple arc-shaped driving grooves on its surface rotate accordingly. Since the card strip is limited by the slide rail, when the position of the driving groove changes, it also drives the drive rod to move and contract the card strip. At this time, the slide can move arbitrarily inside the slide groove, which is convenient for adjusting the position of the fan. The steering wheel is released to realize the spring to reset the card strip, and then the card strip is stuck in the card hole on the wind cover to complete the fixing of the slide. It is convenient to clean the protein powder stained on the fan blades, and at the same time, the position of the fan can be adjusted as needed to facilitate the delivery of protein powder.

[0018] (3) The low-temperature plasma protein processing device described in the present invention has a processing mechanism installed at the other end of the shell. After the unloading mechanism unloads the material, the fan of the regulating mechanism blows the protein powder into the interior of the plasma generator, thereby realizing low-temperature plasma treatment of the protein powder, improving the solubility and dispersibility of the protein powder, making it evenly mixed with other ingredients, optimizing the emulsification, and making the protein powder structure easily absorbed by the human body, with high bioavailability. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The present invention is further described below in conjunction with the accompanying drawings and embodiments.

[0020] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a schematic diagram of the connection structure of the housing, the spiral feeder, the feed port and the second motor of the present invention; Figure 3 It is a schematic diagram of the connection structure of the housing, side plates, bidirectional screw rod and scraper of the present invention; Figure 4 It is a schematic diagram of the connection structure of the side plate, the bidirectional screw rod, the rotating rod, the baffle plate and the scraper plate of the present invention; Figure 5 It is a schematic diagram of the connection structure of the baffle, the rotating shaft, the worm gear, the worm and the steering wheel of the present invention; Figure 6 It is a schematic diagram of the connection structure of the wind cover, the slide slot, the slide frame, the fan and the turntable of the present invention; Figure 7 It is a schematic diagram of the connection structure of the slide, slide rail, clamping strip and spring of the present invention; Figure 8 It is a schematic diagram of the connection structure of the turntable, the clamping strip, the driving slot and the slide frame of the present invention; Fig. 9It is a schematic diagram of the connection structure of the plasma generator, mounting frame, connecting shaft and blades of the present invention.

[0021] In the figure: 1. housing; 2. feeding mechanism; 201. bracket; 202. screw feeder; 203. top frame; 204. first motor; 205. hopper; 206. cover plate; 207. feeding port; 3. adjustment mechanism; 301. wind cover; 302. slideway; 303. slideway; 304. fan; 305. clamping strip; 306. clamping hole; 307. slideway; 308. spring; 309. turntable; 310. steering wheel; 311. drive slot; 312. drive rod; 4. Feeding mechanism; 401, second motor; 402, bidirectional screw; 403, rotating rod; 404, scraper; 405, side plate; 5, feeding mechanism; 501, worm; 502, baffle; 503, rotating shaft; 504, worm gear; 505, mounting seat; 506, steering wheel; 6, processing mechanism; 601, plasma generator; 602, battery; 603, vacuum pump; 604, electrode plate; 605, mounting frame; 606, connecting shaft; 607, fixing ring; 608, blade. DETAILED DESCRIPTION

[0022] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further explained below in conjunction with specific implementation methods.

[0023] like Figure 1-Figure 9As shown, a low-temperature plasma protein processing device described in the present invention comprises a shell 1, a feeding mechanism 2 installed on the shell 1, a scattering mechanism 4 located at the bottom of the feeding mechanism 2 is installed inside the shell 1, a unloading mechanism 5 located at the bottom of the scattering mechanism 4 is installed inside the shell 1, an adjusting mechanism 3 is installed at one end of the shell 1, and a processing mechanism 6 is installed at the end of the shell 1 away from the adjusting mechanism 3; the scattering mechanism 4 comprises two side plates 405, the inside of the shell 1 is relatively fixedly connected with the two side plates 405, and two second motors 401 are installed diagonally on both sides of the shell 1, and the two second motors 401 are installed at opposite angles. The ends of the two bidirectional screw rods 402 are connected to the housing 1, and the ends of the two bidirectional screw rods 402 are fixedly connected to the rotating rods 403 that are rotatably connected to the housing 1. The two side plates 405 are relatively slidably connected to two scrapers 404, and the two scrapers 404 are respectively threadedly connected to the two bidirectional screw rods 402, and the two rotating rods 403 respectively penetrate the side walls of the two scrapers 404. The feeding mechanism 2 includes a discharge port 207, and the top of the housing 1 is provided with two discharge ports 207 corresponding to the tops of the scrapers 404; the opposite sides of the two side plates 405 are inclined, and the outer sides of the two scrapers 404 are in contact with the side plates 405. The inner side of the plate 405 is fitted; the feeding mechanism 2 also includes a top frame 203, the top of the shell 1 is equipped with a top frame 203, the top frame 203 is fixedly connected to a spiral feeder 202, the feed port 207 passes through the top of the top frame 203 and the bottom of the spiral feeder 202, a hopper 205 is installed on the spiral feeder 202, a bracket 201 is installed at the bottom of the spiral feeder 202, a first motor 204 is installed on the bracket 201, and one end of the first motor 204 is connected to the spiral feeder 202; the feeding mechanism 2 also includes a cover plate 206, and the hopper 205 with a funnel-shaped structure is hinged with The cover plate 206; the unloading mechanism 5 includes two rotating shafts 503 and a baffle 502, the interior of the housing 1 is relatively rotatably connected to the two rotating shafts 503, and the baffle 502 located at the bottom of the two side plates 405 is obliquely fixedly connected between the two rotating shafts 503; the unloading mechanism 5 also includes two mounting seats 505, the side wall of the housing 1 is relatively fixedly connected to the two mounting seats 505, and a worm 501 is rotatably connected between the two mounting seats 505, a worm wheel 504 is installed at the end of one of the rotating shafts 503, the worm 501 is meshed with the worm wheel 504, and a steering wheel 506 is installed on the top of the worm 501;When the protein powder is treated by low-temperature plasma, the cover plate 206 is opened to add the protein powder into the interior of the hopper 205. At this time, the baffle plate 502 at the bottom of the side plate 405 is in a sealed state, and its opening size can be adjusted according to the required situation, thereby adjusting the feeding speed of the protein powder. When adjusting, the worm 501 located on the mounting seat 505 can be rotated, and the steering wheel 506 can be held during rotation to drive the worm 501 to rotate, and then the worm 501 drives the worm wheel 504 to rotate, and further the rotating shaft 503 drives the baffle plate 502 to rotate obliquely. At this time, a gap is generated between the baffle plate 502 and the side plate 405, that is, the gap determines the amount and speed of feeding. The cover plate 206 can be closed during feeding to avoid dust, and the first motor 204 can be started to realize the protein powder transferred from the bottom of the hopper 205 into the spiral feeder 202 for transportation. After the white powder is sent to the discharge port 207 at the top of the top frame 203, it falls between the two side plates 405. After the two second motors 401 are started, the two bidirectional screws 402 are rotated at the same time. The rotating rods 403 at the ends of the two bidirectional screws 402 can assist the bidirectional screws 402 to rotate more smoothly, and can assist the two scrapers 404 to walk. With the rotation of the two bidirectional screws 402, the two scrapers 404 move in opposite directions, and the protein powder dropped between the two side plates 405 is pushed laterally, and evenly falls on the baffle 502, and finally falls into the interior of the housing 1 in a waterfall shape and is blown away by the fan 304. Since the two-way screw 402 drives the two scrapers 404 to move, the two scrapers 404 can move back and forth with the rotation of the second motor 401 to disperse the materials, which is conducive to the uniform feeding of the protein powder through the plasma generator 601 for processing. ;

[0024] Specifically, the adjustment mechanism 3 includes a hood 301, a slide slot 302, a slide 303 and a fan 304. The hood 301 is installed at one end of the housing 1. The hood 301 has a circular array of slide slots 302 inside. The slides 303 are slidably connected inside the plurality of slide slots 302. The fan 304 is installed on the slide 303. The adjustment mechanism 3 also includes a slide rail 307. The slide rails 307 are fixed on the plurality of slide rails 303. The plurality of slide rails 307 are slidably connected to the clamping strips 305. The slide 303 is rotatably connected to a turntable 309. The turntable 309 is The driving grooves 311 corresponding to the clip strips 305 are equidistantly provided in an annular array, and the multiple clip strips 305 are fixedly connected with driving rods 312, and the driving rods 312 are inserted into the driving grooves 311. A spring 308 is clamped between the slide rail 307 and the clip strips 305. The multiple slide grooves 302 are equidistantly provided with clip holes 306 located on the inner side of the wind shield 301 in a linear array, and the clip strips 305 are inserted into the clip holes 306. The center of the turntable 309 is fixedly connected with a steering wheel 310. After the protein powder falls from the baffle 502 to the inside of the housing 1, the protein powder can be activated. The fan 304 on 03, with the rotation of the fan 304, blows the dropped protein powder into the interior of the plasma generator 601 to complete the feeding. The distance between the fan 304 and the baffle 502 can be adjusted as needed to change the wind speed and the position of the air outlet, and the fan 304 can be moved to the end of the wind cover 301 to clean the protein powder on the fan blades to increase the stability of the rotation. When adjusting, you only need to hold the steering wheel 310 to rotate the turntable 309. When the turntable 309 rotates, the position of the driving slot 311 changes. Since the driving slot 311 is an arc-shaped structure, when the turntable 309 rotates, the driving slot 311 is realized. 311 drives the driving rod 312 to move. Since the driving rod 312 is fixed on the card strip 305, and the card strip 305 is limited by the slide rail 307, the driving rod 312 moves and drives the card strip 305 to shrink inside the slide rail 307, and then the card strip 305 withdraws from the inside of the card hole 306, and the spring 308 opens. After the slide 303 is moved to the position where it needs to be placed, the steering plate 310 can be released to realize the reset of the spring 308. Further, the turntable 309 drives the driving slot 311 to move, and the driving rod 312 pushes the card strip 305 to the inside of the corresponding card hole 306, completing the movement and fixation of the slide 303. When moving toward the protein powder discharging direction, the distance between the fan 304 and the protein powder decreases. The greater the wind force, the faster the protein powder is blown. When the slide 303 moves away from the protein powder discharging direction, the distance between the fan 304 and the protein powder becomes larger, and the speed at which the wind blows the protein powder will also slow down. The wind speed is adjusted, and it is beneficial to move the fan 304 to the end of the wind cover 301 for cleaning.

[0025] Specifically, the processing mechanism 6 includes a plasma generator 601, the other end of the housing 1 is equipped with a plasma generator 601, a battery 602 is installed on the top of the plasma generator 601, the inner top and bottom of the plasma generator 601 are equipped with electrode plates 604, the electrode plates 604 are electrically connected to the battery 602, and a vacuum pump 603 is installed at the bottom of the plasma generator 601; the processing mechanism 6 also includes a mounting frame 605, the inside of the plasma generator 601 is laterally fixedly connected with the mounting frame 605, the side center of the mounting frame 605 is rotatably connected with a connecting shaft 606, the circumferential array on the connecting shaft 606 is equidistantly fixedly connected with blades 608, and the outer sides of the plurality of blades 608 are fixedly connected with fixed Fixed circle 607; when the protein powder is blown into the interior of the plasma generator 601 by the fan 304, the plasma generator 601 is started by the battery 602, and the two electrode plates 604 start to work. In the low-temperature plasma environment, these high-energy active particles (such as ions, electrons, free radicals, etc.) can penetrate the surface of the protein powder particles, collide with the internal protein molecules and react chemically. These reactions will lead to fine-tuning of the protein molecular structure, thereby changing its solubility, dispersibility, emulsification, foaming and other functional properties. The processed protein powder is discharged from the end of the plasma generator 601. When the fan 304 blows the protein powder, it drives the blades 608 to rotate and can hit the protein powder again, realizing cutting in the circumferential direction, which is conducive to the comprehensive treatment of the protein powder by plasma.

[0026] When the present invention is in use, first, when the protein powder is processed by low-temperature plasma, the cover plate 206 is opened to add the protein powder into the interior of the hopper 205. At this time, the baffle plate 502 located at the bottom of the side plate 405 is in a sealed state, and its opening size can be adjusted according to the required situation, thereby adjusting the feeding speed of the protein powder. When adjusting, the worm 501 located on the mounting seat 505 can be rotated. When rotating, the steering wheel 506 can be held to drive the worm 501 to rotate, and then the worm 501 drives the worm wheel 504 to rotate, and further the rotating shaft 503 drives the baffle plate 502 to rotate obliquely. At this time, a gap is generated between the baffle plate 502 and the side plate 405, that is, the gap determines the amount and speed of feeding. When feeding, the cover plate 206 can be closed to avoid dust, and the first motor 204 can be started to transfer the protein powder into the spiral feeder 202 from the bottom of the hopper 205. The protein powder is transported, and the protein powder is sent to the discharge port 207 at the top of the top frame 203 and then falls between the two side plates 405. After the two second motors 401 are started, the two bidirectional screw rods 402 are rotated at the same time. The rotating rods 403 at the ends of the two bidirectional screw rods 402 can assist the bidirectional screw rods 402 to rotate more smoothly, and can assist the two scrapers 404 to walk. As the two bidirectional screw rods 402 rotate, the two scrapers 404 move back to back, and the protein powder dropped between the two side plates 405 is pushed laterally, and evenly falls on the baffle 502, and finally falls into the interior of the housing 1 in a waterfall shape and is blown away by the fan 304. Since the two-way screw rods 402 drive the two scrapers 404 to move, the two scrapers 404 can move back and forth as the second motor 401 rotates, and the materials are dispersed, which is conducive to the uniform feeding of the protein powder and is processed by the plasma generator 601; Then, after the protein powder falls from the baffle 502 to the inside of the shell 1, the fan 304 located on the slide 303 can be started, and the fallen protein powder can be blown into the inside of the plasma generator 601 as the fan 304 rotates to complete the feeding. The distance between the fan 304 and the baffle 502 can be adjusted as needed to change the wind speed, the position of the air outlet, and the fan 304 can be moved to the end of the wind cover 301 to clean the protein powder on the fan blades to increase the stability of the rotation. When adjusting, it is only necessary to hold the steering wheel 310 to rotate the turntable 309. When the turntable 309 rotates, the position of the driving slot 311 changes. Since the driving slot 311 is in an arc-shaped structure, when the turntable 309 rotates, it is realized The driving slot 311 drives the driving rod 312 to move. Since the driving rod 312 is fixed on the clamping strip 305 and the clamping strip 305 is limited by the slide rail 307, the driving rod 312 drives the clamping strip 305 to contract inside the slide rail 307 after moving, and then the clamping strip 305 withdraws from the inside of the clamping hole 306, and the spring 308 opens. After the slide 303 is moved to the position where it needs to be placed, the steering plate 310 can be released to realize the reset of the spring 308. The rotating disk 309 further drives the driving slot 311 to move, and the driving rod 312 pushes the clamping strip 305 into the corresponding clamping hole 306, completing the movement and fixation of the slide 303, making it easy to adjust the wind speed and facilitate moving the fan 304 to the end of the wind cover 301 for cleaning. Finally, when the protein powder is blown to the inside of the plasma generator 601 by the fan 304, the plasma generator 601 is started by the battery 602, and the two electrode plates 604 start to work. In the low-temperature plasma environment, these high-energy active particles (such as ions, electrons, free radicals, etc.) can penetrate the surface of the protein powder particles, collide with the internal protein molecules and react chemically. These reactions will lead to fine-tuning of the protein molecular structure, thereby changing its solubility, dispersibility, emulsification, foaming and other functional characteristics. The processed protein powder is discharged from the end of the plasma generator 601. When the fan 304 blows the protein powder, it drives the blade 608 to rotate and can hit the protein powder again, realizing cutting in the circumferential direction, which is conducive to the comprehensive treatment of the protein powder by plasma.

[0027] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

[0028] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. A low-temperature plasma protein processing device, characterized in that: The invention comprises a housing (1), a feeding mechanism (2) mounted on the housing (1), a material distributing mechanism (4) located at the bottom of the material distributing mechanism (2) being mounted inside the housing (1), a material unloading mechanism (5) located at the bottom of the material distributing mechanism (4) being mounted inside the housing (1), an adjusting mechanism (3) being mounted at one end of the housing (1), a processing mechanism (6) being mounted at one end of the housing (1) away from the adjusting mechanism (3), the processing mechanism (6) comprising a plasma generator (601), a plasma generator (601) being mounted at the other end of the housing (1), a battery (602) being mounted at the top of the plasma generator (601), electrode plates (604) being mounted at the inner top and bottom of the plasma generator (601), the electrode plates (604) being electrically connected to the battery (602), and a vacuum pump (603) being mounted at the bottom of the plasma generator (601); The dispersing mechanism (4) comprises two side plates (405), the inside of the housing (1) is relatively fixedly connected to the two side plates (405), two second motors (401) are diagonally installed on both sides of the housing (1), the ends of the two second motors (401) are connected to bidirectional screw rods (402), the ends of the two bidirectional screw rods (402) are fixedly connected to a rotating rod (403) rotatably connected to the housing (1), two scrapers (404) are relatively slidably connected between the two side plates (405), the two scrapers (404) are respectively threadedly connected to the two bidirectional screw rods (402), and the two rotating rods (403) respectively penetrate the side walls of the two scrapers (404), and the feeding mechanism (2) comprises a discharge port (207), and the top of the housing (1) is provided with two discharge ports (207) corresponding to the tops of the scrapers (404).

2. A low-temperature plasma protein processing device according to claim 1, characterized in that: The opposite sides of the two side plates (405) are arranged at an inclination, and the outer sides of the two scrapers (404) are in contact with the inner sides of the side plates (405).

3. A low-temperature plasma protein processing device according to claim 2, characterized in that: The feeding mechanism (2) further comprises a top frame (203), the top of the housing (1) being mounted with the top frame (203), a screw feeder (202) being fixedly connected to the top frame (203), the feed outlet (207) penetrating the top of the top frame (203) and the bottom of the screw feeder (202), a hopper (205) being mounted on the screw feeder (202), a bracket (201) being mounted at the bottom of the screw feeder (202), a first motor (204) being mounted on the bracket (201), and one end of the first motor (204) being connected to the screw feeder (202).

4. A low-temperature plasma protein processing device according to claim 3, characterized in that: The feeding mechanism (2) further comprises a cover plate (206), and the cover plate (206) is hingedly connected to the hopper (205) having a funnel-shaped structure.

5. A low-temperature plasma protein processing device according to claim 1, characterized in that: The unloading mechanism (5) comprises two rotating shafts (503) and a baffle (502); the two rotating shafts (503) are relatively rotatably connected inside the housing (1); and a baffle (502) located at the bottom of two side plates (405) is obliquely and fixedly connected between the two rotating shafts (503).

6. A low-temperature plasma protein processing device according to claim 5, characterized in that: The unloading mechanism (5) further comprises two mounting seats (505), the side walls of the housing (1) being relatively fixedly connected to the two mounting seats (505), a worm (501) being rotatably connected between the two mounting seats (505), a worm wheel (504) being mounted at the end of one of the rotating shafts (503), the worm (501) being meshed with the worm wheel (504), and a steering wheel (506) being mounted on the top of the worm (501).

7. A low-temperature plasma protein processing device according to claim 1, characterized in that: The regulating mechanism (3) comprises a wind shield (301), a slide groove (302), a slide frame (303) and a fan (304); the wind shield (301) is mounted on one end of the housing (1); the interior of the wind shield (301) is provided with slide grooves (302) in a circular array; the interiors of a plurality of the slide grooves (302) are slidably connected to the slide frames (303); and the fan (304) is mounted on the slide frame (303).

8. A low-temperature plasma protein processing device according to claim 7, characterized in that: The adjustment mechanism (3) further comprises a slide rail (307), a plurality of the slide racks (303) are each fixed with a slide rail (307), a plurality of the slide rails (307) are each slidably connected to a clamping strip (305), a turntable (309) is rotatably connected to the slide rack (303), the turntable (309) is provided with arc-shaped drive grooves (311) corresponding to the clamping strip (305) at equal intervals in a circular array, and a plurality of the clamping strips (305) are each fixedly connected to a clamping strip (305). A driving rod (312) is connected, the driving rod (312) is inserted into the driving groove (311), a spring (308) is clamped between the slide rail (307) and the clamping strip (305), a plurality of the slide grooves (302) are provided with clamping holes (306) located on the inner side of the wind shield (301) at equal intervals in a linear array, the clamping strip (305) is inserted into the clamping holes (306), and a steering disc (310) is fixedly connected at the center of the rotating disc (309).

9. A low-temperature plasma protein processing device according to claim 1, characterized in that: The processing mechanism (6) further comprises a mounting frame (605), the mounting frame (605) being laterally fixedly connected to the interior of the plasma generator (601), a connecting shaft (606) being rotatably connected to the center of the side of the mounting frame (605), blades (608) being fixedly connected to a circular array equidistantly on the connecting shaft (606), and a fixing ring (607) being fixedly connected to the outer sides of the plurality of blades (608).

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