A centrifugal nano-microporous vibrating sieve machine

Abstract

The invention discloses a centrifugal nano-microporous vibrating sieve machine, specifically, the centrifugal nano-microporous vibrating sieve machine comprises a horizontal frame, a vibration box is movably installed inside the horizontal frame, and the upper cone of the centrifugal barrel and the lower cone of the centrifugal barrel are rotatably connected inside the vibration box, belonging to the field of biological food and pharmaceutical fine processing technology. The equipment of the invention adopts an upright conical screen surface layout for rotation, which can form an extrusion effect on the mesh screen surface of the material powder, and at the same time, through the influence of the vibration force of the vibrator at the top of the vibration box, the fine powder of the material forms a tumbling and staggered extrusion of the screen barrel with the inner wall of the screen barrel, and at the same time, after the conical centrifugal barrel rotates at a high speed, the ultra-fine powder can be discharged along the material receiving wrist mouth to the spiral channel, and finally flows into the material receiving pocket arranged inside the middle guide pipe and falls into the material receiving port for collection, so that the biological powder can be screened out into ultra-fine powder of more than 12500 mesh, which improves the screening accuracy, thereby improving the quality and purity of the product.

Description

Technical Field

[0001] The present invention relates to the technical field of biological food and pharmaceutical fine processing, and specifically to a centrifugal nano-microporous vibrating sieve machine. Background Art

[0002] In the development process of the biological food and medicine field, screening equipment is required to filter the biological powder after grinding or cell wall breaking in order to isolate the fine substances beneficial to the human body. The ultra-fine screening and filtering technology of biological powder plays a decisive role in the application of biological foods and medicines in the dry state. To screen powders with a mesh size above 12,500 meshes, a screening device with the same sieve holes and a matching device must be manufactured; another problem is that to achieve the effect of direct absorption of the powder by the human body, the fineness of the biological powder must reach the ultra-fine state of 12,500 meshes. With the current technology, the corresponding pore diameter of the filtering sieve holes can be achieved, but when the micropores are too fine, the screening cannot be completed by the traditional vibrating sieve method, and the powder will only stay on the surface and cannot pass through the too-fine micropore channels.

[0003] Therefore, the technical personnel in this field have provided a centrifugal nano-microporous vibrating sieve machine to solve the problems raised in the above background art. Summary of the Invention

[0004] Aiming at the deficiencies of the above-mentioned prior art, the present invention provides a centrifugal nano-microporous vibrating sieve machine, which has the advantages of being able to screen ultra-micro biological powders above 12,500 meshes, and at the same time, after replacing different sieve mesh sheets, it can also screen biological powders below 12,500 meshes, and can screen other high-standard ultra-fine mineral powders, etc., and solves the problem of ultra-fine powder screening technology.

[0005] To achieve the above object of the application which can screen ultra-fine microbial powders above 12,500 meshes, and at the same time, after replacing different screen meshes, can also screen biological powders below 12,500 meshes, and can screen other high-standard ultra-fine mineral powders, the present invention provides the following technical solution: A centrifugal nano-microporous vibrating sieve machine, including a horizontal frame, inside which a vibrating box is movably installed. Inside the vibrating box, a centrifugal barrel upper cone and a centrifugal barrel lower cone are rotatably connected. Inside the centrifugal barrel lower cone, a centrifugal barrel receiving wrist opening is provided, and a diversion base is fixedly connected inside the centrifugal barrel lower cone. Inside the centrifugal barrel upper cone, an inner layer sieve barrel, a middle layer sieve barrel, and an outer layer sieve barrel are fixedly installed from the inside to the outside. The ends of the inner layer sieve barrel, the middle layer sieve barrel, and the outer layer sieve barrel are provided with a conical sieve barrel lower bottom, and the tops of the inner layer sieve barrel, the middle layer sieve barrel, and the outer layer sieve barrel are provided with a conical sieve barrel upper bottom. The upper surfaces of the inner layer sieve barrel, the middle layer sieve barrel, and the outer layer sieve barrel are fixedly installed with a centrifugal barrel top cover. Inside the centrifugal barrel lower cone, a moving limit disk is movably installed. At the center of the bottom of the centrifugal barrel lower cone, a diversion pipe is fixedly connected. A base bearing is sleeved on the outer surface of the diversion pipe, and an electromagnetic chuck is fixedly installed on the outer surface of the diversion pipe. On the outer surface of the diversion pipe, a secondary chuck and a discharge pocket fixing device are fixedly installed from top to bottom. At the top of the centrifugal barrel upper cone, a feed inlet is fixedly installed, and a negative pressure intake valve is fixedly installed on the top of the feed inlet. At the center of the upper surface of the conical sieve barrel lower bottom, a centrifugal cone is fixedly connected. On the outer surface of the outer layer sieve barrel, conical barrel frame columns are fixedly connected at equal intervals.

[0006] Preferably, a gear box is fixedly installed on the top of the vibrating box, and a main motor which is internally connected to the gear box in a transmission manner is fixedly installed on the surface of the gear box. Vibration box supports are fixedly installed on the outer surface of the vibrating box at equal intervals, and vibration springs are fixedly installed on the surfaces of the vibration box supports. A vibrator is fixedly installed on the top of the vibrating box. At the center of the top of the vibrating box and inside the gear box, a negative pressure cover is fixedly installed. A moving positioning rib is fixedly installed on the outer surface of the diversion pipe, and a moving positioning groove matching the moving positioning rib is opened inside the diversion base. A negative pressure cover lock is fixedly installed on the outer surface of the negative pressure cover, and an air filter element is fixedly installed inside the negative pressure intake valve.

[0007] Preferably, a feed inlet protective cover is sleeved on the outer surface of the feed inlet.

[0008] Preferably, the columns of the horizontal frame are four-column feet perpendicular to the ground. The front and back sides use single beams up and down, and the left and right sides use double beams up and down. Vibration springs are arranged between the double beams and are fixedly arranged between the upper and lower double beams respectively. The vibration springs on the left and right sides of the upper and lower layers are equal to each other, forming upper and lower opposing matching vibration springs on the left and right sides, which are divided into upper springs and lower springs and are respectively arranged and fixed with the upper and lower double beams. The vibration box supports are inserted in the middle of the upper spring and the lower spring and then fixed. The eight vibration box supports are respectively connected and fixed with the upper and lower springs to form a suspended matching.

[0009] Preferably, the vibration box is a square box body, and the diameter of the top of the upper cone of the centrifugal barrel is smaller than the diameter of the bottom end.

[0010] Preferably, the upper cone of the centrifugal barrel and the lower cone of the centrifugal barrel are fixedly connected through a diversion base, and the end of the diversion pipe extends to the bottom of the vibration box.

[0011] Preferably, the inner sieve barrel, the middle sieve barrel and the outer sieve barrel are three forms of nano-microhole sieve plates. The radian of the inner and outer surfaces of the conical barrel frame column is consistent with the radian of the nano-microhole sieve plate. The inner vertical surface is provided with nano-microhole sieve plate fixing wire grooves, and the wire grooves extend from the top to the bottom. The nano-microhole sieve plate is made of stainless steel and titanium alloy plates.

[0012] Preferably, the wire groove opening at the upper end of the conical barrel frame column corresponds precisely to the wire groove port at the upper bottom of the conical sieve barrel.

[0013] Preferably, the radian of the inner and outer surfaces of the conical barrel frame column is consistent with the radian of the nano-microhole sieve plate, and the inner vertical surface is provided with nano-microhole sieve plate fixing wire grooves, and the wire grooves extend from the top to the bottom.

[0014] Preferably, the spiral channels provided inside the lower cone of the centrifugal barrel are distributed on the left and right sides and lead directly to the middle diversion pipe hole in a spiral manner inward and downward.

[0015] Compared with the prior art, the present invention provides a centrifugal nano-microhole vibrating sieve machine, which has the following beneficial effects:

[0016] 1. For this centrifugal nano-microhole vibrating sieve machine, the microhole precision of the stainless steel sieve plate after laser processing can be controlled at more than 12,500 meshes at most. The sieve plates can be selected and installed according to different material component properties. The biological powder can be sieved into ultra-fine powder with more than 12,500 meshes at most, such as the powder of the roots, stems, leaves, flowers and pollen of plants. The sieve plates are arranged in three layers: inner, middle and outer. The inner layer isolates the coarse powder, the middle layer isolates the medium powder, and the outer layer isolates the fine powder. Finally, the ultra-fine powder falls into the conical centrifugal barrel. After being evenly distributed by the three-layer sieve plates, the gravity of the material powder on the sieve plates generated during the rotation of the conical sieve barrel is dispersed and reduced.

[0017] 2. The centrifugal nano-microporous vibrating screen machine adopts an upright conical screen layout for rotation. The centrifugal force generated by the rotation throws the material powder to the surroundings and contacts the screen to generate friction, forming an extrusion effect on the screen surface of the material powder. At the same time, through the vibration force of the vibrator on the top of the vibration box, the fine powder of the material forms a tumbling and staggered extrusion of the screen barrel with the inner wall of the screen barrel. At the same time, after the conical centrifugal barrel rotates at a high speed, the material receiving wrist at the bottom forms friction with the air in the conical centrifugal barrel, and negative pressure is generated in the conical centrifugal barrel. The intake valve adjusts the appropriate intake volume state, and the appropriate amount of air sucked in through the filter element in the intake valve enters the conical screen barrel. In the process of air being discharged outward around the screen barrel, the ultra-fine powder attached to it is discharged to the outer layer, and flows into the conical centrifugal barrel after passing through the first, second and third layers of screen cylinders. The conical centrifugal barrel generates outward and downward centrifugal force through synchronous high-speed rotation, and discharges the ultra-fine powder along the receiving wrist mouth to the spiral channel, and finally flows into the receiving pocket set in the middle guide pipe and falls into the receiving port for collection.

[0018] 3. After the centrifugal nano-porous vibrating screen machine stops, the ultra-fine powder is screened and collected, and then the material collection bag is taken out and replaced with a bag for collecting residual materials. The electromagnetic suction cup switch button is turned on. At this time, the guide tube is upward, and the equipment reverse unloading mode is started. The conical centrifugal barrel is reversed, and the inner, middle and outer three-layer unloading wrists set in the conical screen cylinder start to work, which can automatically discharge the coarse powder remaining in the screen barrel through the spiral channel to the middle guide tube downward. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 The figure is a front view of a centrifugal nano-microporous vibrating screen machine of the present invention.

[0020] Figure 2 The figure is a side view of a centrifugal nano-microporous vibrating screen machine of the present invention.

[0021] Figure 3 The figure is a top view of a centrifugal nano-microporous vibrating screen machine of the present invention.

[0022] Figure 4 The present invention is a perspective view of a centrifugal nano-microporous vibrating screen machine.

[0023] Figure 5 The present invention is a perspective view of a vibration box of a centrifugal nano-microporous vibrating screen machine.

[0024] Figure 6 The present invention is a perspective view of a conical centrifugal barrel of a centrifugal nano-microporous vibrating sieve machine.

[0025] Figure 7 This is a vertical view of a conical screen barrel frame column of a centrifugal nano-microporous vibrating screen machine of the present invention.

[0026] Figure 8 Top view of the upper bottom surface of the conical sieve barrel frame of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0027] Figure 9 Bottom view of the lower bottom surface of the conical sieve barrel frame of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0028] Figure 10 Perspective view from above of the lower bottom surface of the conical sieve barrel frame of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0029] Figure 11 Distribution diagram from above of the columns of the conical sieve barrel frame of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0030] Figure 12 Large detail view from above of the columns of the conical sieve barrel frame of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0031] Figure 13 Distribution diagram from above of the microporous sieve plates of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0032] Figure 14 Elevation view of the inner layer microporous sieve plate of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0033] Figure 15 Elevation view of the middle layer microporous sieve plate of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0034] Figure 16 Elevation view of the outer layer microporous sieve plate of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0035] Figure 17 Elevation view of the conical centrifugal bucket cover of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0036] Figure 18 Top view of the conical centrifugal bucket cover of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0037] Figure 19 Front perspective view of the flow guiding base of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0038] Figure 20 Perspective view from above of the flow guiding base of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0039] Figure 21 Bottom upward view of the flow guiding base of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0040] Figure 22 Front perspective view of the lower conical body of the conical centrifugal bucket of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0041] Figure 23 This is a perspective view of the upper bottom surface of the lower conical body of the conical centrifugal bucket of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0042] Figure 24 This is a front elevation perspective view of the diversion pipe of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0043] Figure 25 This is a top view of the cross-section of the diversion pipe of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0044] Figure 26 This is a bottom view of the electromagnetic chuck of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0045] Figure 27 This is a front elevation view of the electromagnetic chuck of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0046] Figure 28 This is a bottom view of the auxiliary chuck of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0047] Figure 29 This is a front view of the auxiliary chuck of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0048] Figure 30 This is a front view of the movable discharge opening of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0049] Figure 31 This is a bottom view of the movable discharge opening of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0050] Figure 32 This is a top view of the negative pressure cover of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0051] Figure 33 This is a front elevation perspective view of the negative pressure cover of a centrifugal nano-microporous vibrating sieve machine of the present invention.

[0052] In the figure: 1, horizontal frame; 2, vibration box; 3, gear box; 4, feed inlet protective cover; 5, main motor; 6, vibration box support; 7, vibration spring; 8, vibrator; 9, negative pressure cover; 10, upper cone of centrifugal barrel; 11, lower cone of centrifugal barrel; 12, receiving wrist opening of centrifugal barrel; 13, diversion base; 14, lower bottom of conical sieve barrel; 15, inner sieve barrel; 16, middle sieve barrel; 17, outer sieve barrel; 18, upper bottom of conical sieve barrel; 19, top cover of centrifugal barrel; 20, moving limit disk; 21, diversion pipe; 22, base bearing; 23, electromagnetic chuck; 24, auxiliary chuck; 25, fixed device for discharging pocket; 26, negative pressure inlet valve; 27, column of conical barrel frame; 28, centrifugal cone; 29, moving positioning groove; 30, moving positioning rib; 31, negative pressure cover lock; 32, air filter element; 33, feed inlet. Detailed implementation mode

[0053] The technical solutions in the embodiments of the present invention will be clearly and completely described below. 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 embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention. Embodiment 1

[0054] Please refer to the attached Figure 1 - attached Figure 7, A centrifugal nano-microporous vibrating sieve machine, comprising a horizontal frame 1. Inside the horizontal frame 1, a vibrating box 2 is movably installed. The vibrating box 2 is a square box body. Inside the vibrating box 2, a centrifugal bucket upper cone 10 and a centrifugal bucket lower cone 11 are rotatably connected. The top diameter of the centrifugal bucket upper cone 10 is smaller than the end diameter. Inside the centrifugal bucket lower cone 11, a centrifugal bucket material receiving wrist opening 12 is provided. Inside the centrifugal bucket lower cone 11, a guide base 13 is fixedly connected. The centrifugal bucket upper cone 10 and the centrifugal bucket lower cone 11 are fixedly connected through the guide base 13. Inside the centrifugal bucket upper cone 10, an inner sieve bucket 15, a middle sieve bucket 16 and an outer sieve bucket 17 are fixedly installed from the inside to the outside respectively. The ends of the inner sieve bucket 15, the middle sieve bucket 16 and the outer sieve bucket 17 are provided with a conical sieve bucket lower bottom 14. The tops of the inner sieve bucket 15, the middle sieve bucket 16 and the outer sieve bucket 17 are provided with a conical sieve bucket upper bottom 18. On the upper surfaces of the inner sieve bucket 15, the middle sieve bucket 16 and the outer sieve bucket 17, a centrifugal bucket top cover 19 is fixedly installed. Inside the centrifugal bucket lower cone 11, a movable limit disc 20 is movably installed. At the center of the bottom of the centrifugal bucket lower cone 11, a guide pipe 21 is fixedly connected. The spiral channels provided inside the centrifugal bucket lower cone 11 are distributed on the left and right sides and lead directly to the orifice of the guide pipe 21 in the middle in a spiral manner of "inward and downward". The end of the guide pipe 21 extends to the bottom of the vibrating box 2. The spiral channels provided inside the conical centrifugal bucket lower cone are distributed on the left and right sides and lead directly to the orifice of the guide pipe 21 in the middle in a spiral manner of "inward and downward", and finally the sieved ultrafine materials are discharged. The circular hollow part provided inside the conical centrifugal bucket lower cone is the activity space of the movable limit disc 20, which plays a role in limiting the "ascending and descending" of the movable limit disc;

[0055] A base bearing 22 is sleeved on the outer surface of the guide pipe 21. An electromagnetic chuck 23 is fixedly installed on the outer surface of the guide pipe 21. A secondary chuck 24 and a discharge pocket fixing device 25 are fixedly installed on the outer surface of the guide pipe 21 from top to bottom respectively. At the top of the centrifugal bucket upper cone 10, a feed inlet 33 is fixedly installed. A feed inlet protective cover 4 is sleeved on the outer surface of the feed inlet 33. At the top of the feed inlet 33, a negative pressure intake valve 26 is fixedly installed. At the center of the upper surface of the conical sieve bucket lower bottom 14, a centrifugal cone 28 is fixedly connected. On the outer surface of the outer sieve bucket 17, conical bucket frame columns 27 are fixedly connected at equal intervals. The inner sieve bucket 15, the middle sieve bucket 16 and the outer sieve bucket 17 are three forms of nano-microporous sieve sheets. The radian of the inner and outer surfaces of the conical bucket frame column 27 is consistent with the radian of the nano-microporous sieve sheet. The inner vertical surface is provided with a nano-microporous sieve sheet fixing wire groove, and the wire groove extends from the top to the bottom. The nano-microporous sieve sheet is made of stainless steel and titanium alloy plates. The wire groove opening at the upper end of the conical bucket frame column 27 corresponds precisely to the wire groove port of the conical sieve bucket upper bottom 18. The radian of the inner and outer surfaces of the conical bucket frame column 27 is consistent with the radian of the nano-microporous sieve sheet. The inner vertical surface is provided with a nano-microporous sieve sheet fixing wire groove, and the wire groove extends from the top to the bottom;

[0056] A gearbox 3 is fixedly installed at the top of the vibration box 2. A main motor 5 that is internally connected to the gearbox 3 through transmission is fixedly installed on the surface of the gearbox 3. Vibration box supports 6 are fixedly installed on the outer surface of the vibration box 2 at equal intervals. The columns of the horizontal frame 1 are four-column feet perpendicular to the ground. The front and rear sides adopt single beams from top to bottom, and the left and right sides adopt double beams from top to bottom. Vibration springs 7 are arranged between the double beams and are fixedly installed between the upper and lower double beams respectively. The vibration springs 7 on the upper and lower left and right sides are equal to each other, forming upper and lower opposing matching vibration springs 7 on the left and right sides. The vibration springs 7 are divided into upper springs and lower springs, which are respectively installed and fixed to the upper and lower double beams. After inserting the vibration box supports 6 into the middle of the upper spring and the lower spring, they are fixed. After the eight vibration box supports 6 are respectively connected and fixed to the upper and lower springs, a suspended matching is formed. A vibration spring 7 is fixedly installed on the surface of the vibration box support 6, and a vibrator 8 is fixedly installed at the top of the vibration box 2. Embodiment 2

[0057] Please refer to the appendix Figure 2 - appendix Figure 21 At the center of the top of the vibration box 2, a negative pressure cover 9 is fixedly installed inside the gearbox 3. A moving positioning rib 30 is fixedly installed on the outer surface of the diversion pipe 21. A moving positioning groove 29 that matches the moving positioning rib 30 is opened inside the diversion base 13. A negative pressure cover lock 31 is fixedly installed on the outer surface of the negative pressure cover 9. An air filter element 32 is fixedly installed inside the negative pressure air inlet valve 26. The size of the intake air is adjusted through the intake valve provided in the middle of the top of the negative pressure cover 9. After passing through the adjusted intake valve, a certain amount of air enters the inner layer of the conical sieve barrel. While the air gradually diffuses outward after entering, it cooperates with the centrifugal force generated by the rotation of the conical centrifugal barrel and the vibration force generated by the vibrator 8 to perform three different functions, discharging the ultrafine powder attached to the nano sieve sheet into the nano micropores. Through the formation of a convergence inside the outer conical centrifugal barrel, finally, the sieved ultra-fine powder flows into the collection pocket together with the air. The air is discharged after being filtered by the collection pocket, and the ultra-fine powder adheres to the inner wall for collection after entering the collection pocket. Embodiment 3

[0058] For the screening operation process of the present invention, please refer to Figure 1 、appendix Figure 4 、appendix Figure 5 、appendix Figure 6 、appendix Figure 22 、appendix Figure 23 、appendix Figure 24 、appendix Figure 25 、appendix Figure 32 、appendix Figure 33As shown in the figure, the material powder is crushed and then added to the feed inlet 33. Next, the negative pressure cover 9 is sealed and locked. The negative pressure intake valve 26 set in the sealed negative pressure cover 9 is opened and adjusted to the intake volume, and then the intake valve is locked. Further, the feed inlet protective cover 4 is covered to prevent injury accidents during rotation. Synchronously, the material powder passes through the feed inlet and then passes through the top cover 19 of the conical centrifuge barrel directly to the inner sieve barrel 15 of the conical centrifuge barrel. The center of the feed inlet 33, the center of the conical centrifuge barrel, and the center of the lowest discharge port are on the same straight line, and the vertical line is perpendicular to the ground. The material powder entering the conical inner sieve barrel 15 accumulates at the bottom of the conical inner sieve barrel 15. When the conical centrifuge barrel rotates forward, it drives the material powder staying at the bottom of the conical inner sieve barrel 15 to spread around the nano-micro pore sieve barrel in the "upward and outward" manner. More preferably, the material powder is filtered and screened into the middle sieve barrel 16 through centrifugal force and vibration force. Similarly, as the powder gradually overflows to the outer layer, it gradually becomes ultra-fine. Synchronously, under the high-speed rotation of the conical centrifuge barrel, the conical centrifuge barrel gradually generates air negative pressure. The air passes through the mesh holes provided at the top of the feed inlet protective cover 4, and the air passing through the negative pressure intake valve 26 is filtered by the air filter element 32 and enters the inner sieve barrel 15. More preferably, due to the negative pressure generated by the high-speed rotation of the conical centrifuge barrel, after the air enters at the top, the material powder staying around the inner sieve barrel 15, the middle sieve barrel 16, and the outer sieve barrel 17 is under the action of three external forces: the centrifugal force of outward expansion, the vibration force of up and down, and the negative pressure inside. The powder adhering to the nano-micro pore sieve sheet is discharged through the first-layer, second-layer, and third-layer nano-micro pore sieve barrels. More preferably, under the rotation of the conical centrifuge barrel, the filtered ultra-fine powder is collected in the "outward and downward" manner. Under the action of the centrifugal force and negative pressure generated during the forward rotation of the conical centrifuge barrel, the centrifugal barrel receiving wrist opening 12 provided at the bottom preferably sucks the ultra-fine powder into the wrist opening. The centrifugal barrel receiving wrist opening 12 transfers the ultra-fine powder to the diversion pipe 21 in the "downward and inward" spiral manner through the spiral channel. More preferably, the discharging pocket fixing device 25 provided at the tail discharge port of the diversion pipe 21 is bundled and connected to the receiving pocket to receive the sieved ultra-fine powder. Finally, the sieved ultra-fine powder enters the receiving pocket after passing through the discharge port. After the receiving pocket discharges the air, the ultra-fine powder is left, thus completing the sieving and collection process. Example 4

[0059] The rough material unloading operation process of the present invention: Please refer to the attached Figure 4 , attached Figure 6 , attached Figure 9 , attached Figure 10 , attached Figure 19 , attached Figure 20 , attached Figure 24 , attached Figure 25 , attached Figure 26 , attached Figure 27 , attached Figure 28 , attached Figure 29 , attached Figure 30, Attachment Figure 31 As shown, the technical measures for unloading the remaining coarse powder remaining in the conical screen barrel are also discharged to the discharge port at the lower end in a spiral manner, so the discharge port and the discharge port share an outlet. When the equipment stops the screening process, it switches to the discharge mode. At this time, the power switch of the electromagnetic suction cup 23 is turned on, and the electromagnetic suction cup 23 starts to work, absorbing and merging the auxiliary suction cup 24 at the lower end to form a whole. While the auxiliary suction cup 24 rises, it drives the guide tube 21 to move upward, and the six holes at the upper end of the guide tube 21 are directly opposite to the lower outlet of the spiral holes of the guide base 13. At this time, the unloading spiral channel is in a smooth state. Synchronously, when the guide tube moves upward, the left and right holes at the lower end of the guide tube are staggered with the outlet of the spiral channel to form a closed state. Further, the equipment is started in a reverse unloading operation mode. When the conical screen barrel is reversed, the inner, middle and outer collecting wrists arranged at the bottom of the conical screen barrel synchronously collect the remaining coarse powder and send it into the spiral channel. Synchronously, the guide tube 21 is used to discharge the remaining coarse powder from the spiral channel holes "downward and inward" along the spiral channel to the unloading port.

[0060] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A centrifugal nano-microporous vibrating sieve machine, comprising a horizontal frame (1), characterized in that: Inside the horizontal frame (1), a vibration box (2) is movably installed. Inside the vibration box (2), a centrifugal barrel upper cone (10) and a centrifugal barrel lower cone (11) are rotatably connected. Inside the centrifugal barrel lower cone (11), a centrifugal barrel material receiving wrist opening (12) is provided. Inside the centrifugal barrel lower cone (11), a diversion base (13) is fixedly connected. Inside the centrifugal barrel upper cone (10), an inner sieve barrel (15), a middle sieve barrel (16), and an outer sieve barrel (17) are fixedly installed from the inside to the outside. At the ends of the inner sieve barrel (15), the middle sieve barrel (16), and the outer sieve barrel (17), there is a conical sieve barrel bottom (14). At the tops of the inner sieve barrel (15), the middle sieve barrel (16), and the outer sieve barrel (17), there is a conical sieve barrel top (18). On the upper surfaces of the inner sieve barrel (15), the middle sieve barrel (16), and the outer sieve barrel (17), a centrifugal barrel top cover (19) is fixedly installed. Inside the centrifugal barrel lower cone (11), a movable limit disk (20) is movably installed. At the center of the bottom of the centrifugal barrel lower cone (11), a diversion pipe (21) is fixedly connected. A base bearing (22) is sleeved on the outer surface of the diversion pipe (21). An electromagnetic chuck (23) is fixedly installed on the outer surface of the diversion pipe (21). On the outer surface of the diversion pipe (21), a secondary chuck (24) and a discharge pocket fixing device (25) are fixedly installed from top to bottom. At the top of the centrifugal barrel upper cone (10), a feed inlet (33) is fixedly installed. At the top of the feed inlet (33), a negative pressure intake valve (26) is fixedly installed. At the center of the upper surface of the conical sieve barrel bottom (14), a centrifugal cone (28) is fixedly connected. On the outer surface of the outer sieve barrel (17), conical barrel frame columns (27) are fixedly connected at equal intervals; The spiral channels provided inside the centrifugal barrel lower cone (11) are distributed on the left and right sides and lead directly into the hole of the diversion pipe (21) in the middle in a spiral manner inward and downward; The centrifugal barrel upper cone (10) and the centrifugal barrel lower cone (11) are fixedly connected through the diversion base (13), and the end of the diversion pipe (21) extends to the bottom of the vibration box (2); When the power switch of the electromagnetic chuck (23) is turned on, the electromagnetic chuck (23) absorbs and combines the lower secondary chuck (24) upward to form a single body. While the secondary chuck (24) rises, it drives the diversion pipe (21) upward. The upper hole of the diversion pipe (21) is connected to the lower outlet of the spiral hole of the diversion base (13), and the two left and right holes at the lower end of the diversion pipe (21) are staggered from the spiral channel openings.

2. The centrifugal nano-microporous vibrating sieve machine according to claim 1, wherein: A gearbox (3) is fixedly installed at the top of the vibration box (2). A main motor (5) that is internally connected to the gearbox (3) through transmission is fixedly installed on the surface of the gearbox (3). Vibration box supports (6) are fixedly installed on the outer surface of the vibration box (2) at equal intervals. Vibration springs (7) are fixedly installed on the surfaces of the vibration box supports (6). A vibrator (8) is fixedly installed at the top of the vibration box (2). A negative pressure cover (9) is fixedly installed at the center of the top of the vibration box (2) inside the gearbox (3). A moving positioning rib (30) is fixedly installed on the outer surface of the diversion pipe (21). A moving positioning groove (29) that matches the moving positioning rib (30) is formed inside the diversion base (13). A negative pressure cover lock (31) is fixedly installed on the outer surface of the negative pressure cover (9). An air filter element (32) is fixedly installed inside the negative pressure intake valve (26).

3. The centrifugal nano-microporous vibrating sieve machine according to claim 1, wherein: A feed inlet protective cover (4) is sleeved on the outer surface of the feed inlet (33).

4. The centrifugal nano-microporous vibrating sieve machine according to claim 1, wherein: The columns of the horizontal frame (1) are four-column feet perpendicular to the ground. The front and rear sides adopt single beams from top to bottom, and the left and right sides adopt double beams from top to bottom. Vibration springs (7) are arranged between the double beams. The vibration springs (7) are fixedly arranged between the upper and lower double beams respectively. The vibration springs (7) on the left and right sides of the upper and lower layers are equal to each other, forming upper and lower layer opposing matching vibration springs (7) on the left and right sides, which are divided into upper springs and lower springs and are respectively arranged and fixed with the upper and lower double beams. The vibration box supports (6) are inserted into the middle of the upper springs and lower springs and then fixed. After the eight vibration box supports (6) are respectively connected and fixed with the upper and lower springs, a suspended matching is formed.

5. The centrifugal nano-microporous vibrating sieve machine according to claim 1, characterized in that: The vibration box (2) is a square box body, and the diameter of the top end of the centrifugal barrel upper cone (10) is smaller than that of the end.

6. The centrifugal nano-microporous vibrating sieve machine according to claim 1, characterized in that: The inner layer sieve barrel (15), the middle layer sieve barrel (16) and the outer layer sieve barrel (17) are three forms of nano-micro pore sieve plates. The radian of the inner and outer surfaces of the conical barrel frame column (27) is consistent with the radian of the nano-micro pore sieve plate. A nano-micro pore sieve plate fixing wire groove is arranged on the inner vertical surface, and the wire groove extends from the top to the bottom. The nano-micro pore sieve plate is made of stainless steel and titanium alloy plates.

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