Energy-saving crushing device for extracting natural electronic atomized liquid raw material

Abstract

The invention relates to the technical field of crushing devices, and discloses an energy-saving crushing device for natural electronic atomized liquid raw material extraction, which comprises a support frame, and a crushing box, a screening box and a coarse material discharge box are arranged on the support frame; the top of the crushing box communicates with a feeding box; a crushing mechanism is arranged in the crushing box; a driving material shifting mechanism is arranged on the crushing box; a screening mechanism is arranged in the screening box; raw materials are cut twice through an upper cutting blade and a lower cutting blade on a dispersion plate, and then are further crushed through a first crushing roller and a second crushing roller, so that the particle size of the finally crushed raw materials is more uniform, the subsequent extraction process is facilitated, and the product quality is improved; and compared with a traditional motor, a large amount of electric energy can be saved, and the current energy-saving and environment-friendly development trend is met.

Description

Technical Field

[0001] The present invention relates to the technical field of pulverizing devices, and in particular to an energy-saving pulverizing device for extracting natural electronic atomization liquid raw materials. Background Art

[0002] When extracting natural electronic atomization liquid raw materials, in order to obtain effective ingredients more efficiently and improve product quality, it is usually necessary to crush a variety of raw materials. Plant raw materials such as herbs such as mint and lavender, and woody plants such as tea trees and camphor trees, their fiber structure or cell wall will hinder the release of effective ingredients. Crushing can break these structures, increase the contact area with the extractant, and promote the dissolution of ingredients; among fruit raw materials, berries such as strawberries and blueberries and stone fruits such as cherries and plums can release flavor substances and nutrients by destroying the cell walls through crushing, making the extraction more complete; spice raw materials such as vanilla pods, cinnamon, cloves and other natural spice plants can break the cell structure through crushing and accelerate the extraction of aroma components, and animal spices such as musk (artificially synthesized or legally sourced) can make the effective aroma components evenly dispersed in the extractant after fine crushing, meeting the electronic atomization liquid's demand for unique fragrance and high quality.

[0003] The prior art also has the following problems:

[0004] 1. When traditional pulverizing devices pulverize natural electronic atomizing liquid raw materials, they usually only pulverize the raw materials once. This simple pulverization method will cause a large number of large-particle raw materials to fail to be fully crushed during the pulverization process, resulting in large differences in the particle size of the pulverized raw materials. In the subsequent extraction process, the negative impact of the excessive difference in raw material particle size is extremely prominent. In the subsequent extraction process, the contact surface area between the raw material particles with larger diameters and the extractant is relatively small. Taking the solvent extraction method widely used in the production of electronic atomizing liquid as an example, the extractant is usually a specific organic solvent that needs to dissolve the target component from the raw material. For large-particle raw materials, solvent molecules can only contact and act on their outer surface. Due to the small surface area to volume ratio of large particles, the diffusion process of the extractant to its internal core is slow and often cannot be completed. This situation seriously limits the efficiency of the extraction process. Ultimately, it is extremely difficult for the content of active ingredients in the product to meet the expected standards, which may lead to unstable product quality and reduced efficacy.

[0005] 2. In traditional crushing devices, the motors used are all motors with conventional mechanical bearings that rotate the rotor. There is a large friction between the mechanical bearings and the rotor. When the motor is running, this friction will consume a lot of energy and waste it in the form of heat energy, resulting in serious energy loss and low motor efficiency. This not only increases the operating cost of the device, but also goes against the current development trend of energy conservation and environmental protection, and cannot meet the demand for high efficiency and energy saving in modern production. Summary of the Invention

[0006] In view of the problems existing in the prior art, an energy-saving crushing device for extracting natural electronic atomization liquid raw materials is proposed.

[0007] The technical solution of the present invention is: an energy-saving crushing device for extracting natural electronic atomization liquid raw materials, comprising a support frame, on which a crushing box, a screening box and a coarse material discharge box are provided; the top of the crushing box is connected to a feed box; a crushing mechanism is provided in the crushing box; a driving material-discharging mechanism is provided on the crushing box; a screening mechanism is provided in the screening box; the crushing mechanism is used to crush the raw materials entering the crushing box; the screening mechanism is used to screen the raw materials crushed by the crushing mechanism; the driving material-discharging mechanism is used to disperse the raw materials entering the feed box and then deliver them to the crushing mechanism; the driving material-discharging mechanism is used to drive the screening mechanism to move to achieve rotary screening.

[0008] Furthermore, the driving material dispensing mechanism includes a driving component, a transmission component and a dispersion component, the driving component includes a driving energy-saving motor, the driving energy-saving motor is arranged on the box wall of the screening box, the rotating end of the driving energy-saving motor is connected to a vertical shaft, a worm is sleeved on the vertical shaft, the vertical shaft is rotatably arranged on the outer wall of the crushing box, the top of the vertical shaft is connected to an eccentrically arranged eccentric shaft, a worm gear is arranged in the screening box, the worm gear is meshed with the worm, the driving energy-saving motor includes a motor housing, a stator is arranged on the inner side of the motor housing, a rotor is arranged on the inner side of the stator, and axial magnetic suspension bearings and radial magnetic suspension bearings are sleeved on the outer sides of both ends of the rotor, the axial magnetic suspension bearings and radial magnetic suspension bearings are both arranged in the motor housing, one end of the rotor extends out of the motor housing, and a motor controller is fixedly mounted on the outer wall of the motor housing.

[0009] Furthermore, the transmission component includes a reciprocating transmission rod, which is laterally slidably arranged on the outer wall of the crushing box. One end of the reciprocating transmission rod is longitudinally penetrated by a horizontal long slot hole, and the eccentric shaft extends into the horizontal long slot hole. The other end of the reciprocating transmission rod is equidistantly provided with several vertical long slot holes.

[0010] Furthermore, the dispersion component includes a dispersion plate, and a number of the dispersion plates are arranged at equal distances in the crushing box. A swing shaft is provided on the upper part of the dispersion plate, one end of the swing shaft is rotatably connected to the inner wall of the crushing box, and the other end of the swing shaft is connected to a connecting strip after passing through the crushing box, and the bottom end of the connecting strip is connected to an eccentric column, and the eccentric column is arranged in a one-to-one correspondence with the vertical long slot hole, and the eccentric column extends into the corresponding vertical long slot hole.

[0011] Furthermore, the screening mechanism includes a screening frame, which is rotatably connected to the inner side of the screening box, and the diameter of the screening frame gradually increases from one end to the other end. A screen mesh adapted to it is fixedly connected to the inner side of the screening frame, and a number of retaining rings with gradually increasing diameters are arranged at equal distances on the inner side of the screen mesh. The end with a smaller diameter of the screening frame is connected to the outlet end of the crushing box, and the end with a larger diameter of the screening frame extends into the coarse material discharge box, and the worm gear is arranged on the outside of the screening frame.

[0012] Furthermore, a plurality of upper cutting blades are provided at equal distances on the upper portion of the dispersion plate along the axial direction of the swing shaft, and a plurality of lower cutting blades are provided at equal distances on the lower portion of the dispersion plate along the axial direction of the swing shaft.

[0013] Furthermore, a conveying mechanism is provided on the support frame, and the conveying mechanism includes a conveying cylinder, which is provided on the frame wall of the support frame, and the inner side of the conveying cylinder is rotatably connected to a conveying shaft, and the shaft wall of the conveying shaft is sleeved with spiral blades, and the top end of the conveying cylinder is provided with a conveying energy-saving motor, and the top end of the conveying shaft passes through the conveying cylinder and is connected to the rotating end of the conveying energy-saving motor, the inlet end of the conveying cylinder is connected to the outlet end of the coarse material discharge box, and the outlet end of the conveying cylinder passes through the box wall of the feed box and extends into the inner side thereof, and the conveying energy-saving motor has the same structure as the driving energy-saving motor.

[0014] Furthermore, a control switch and a voltage stabilizer are provided on the wall of the crushing box.

[0015] Furthermore, the distance between two adjacent lower cutting blades is smaller than the distance between two adjacent upper cutting blades.

[0016] Furthermore, the crushing mechanism includes a first crushing roller and a second crushing roller which are symmetrically arranged, and the first crushing roller and the second crushing roller are both rotatably arranged on the inner side of the crushing box, and a crushing energy-saving motor is provided on the outer wall of the crushing box. One end of the first crushing roller is extended out of the crushing box and is connected to a first gear, and the other end of the first crushing roller is extended out of the crushing box and is connected to the rotating end of the crushing energy-saving motor, and one end of the second crushing roller is extended out of the crushing box and is connected to a second gear, and the second gear is meshed with the first gear. The structure of the crushing energy-saving motor is the same as that of the driving energy-saving motor.

[0017] Beneficial effects of the present invention:

[0018] 1. The raw materials are cut twice by the upper cutting blade and the lower cutting blade on the dispersion plate, and the spacing between the upper cutting blade and the lower cutting blade is different, so the raw materials can be preliminarily cut to different degrees, and then further crushed by the first crushing roller and the second crushing roller, so that the particle size of the raw materials after final crushing is more uniform, which is beneficial to the subsequent extraction process and improves product quality. In addition, after two preliminary cuttings of different degrees by the upper cutting blade and the lower cutting blade, the raw materials are pre-broken into smaller particles, thereby reducing the pressure of the first crushing roller and the second crushing roller, extending the service life of the first crushing roller and the second crushing roller, and also improving the crushing efficiency.

[0019] 2. The screening frame in the screening mechanism is rotatably connected to the screening box. The worm gear drives the screening frame to rotate, so that the screen rotates synchronously. The rotating screen can make the raw materials continuously roll and move on the screen surface, avoiding the accumulation of raw materials and clogging the mesh of the screen, thereby improving the screening efficiency and output. The retaining ring on the inside of the screen blocks the small-particle raw materials, reducing the risk of small-particle raw materials directly sliding into the coarse material discharge box, so that the small-particle raw materials can be more fully screened, and the large-particle raw materials are blocked and will not be mixed into the small-particle raw materials, thereby preventing the raw materials from having excessive differences in particle size and affecting the quality of the subsequent extraction process.

[0020] 3. In the present invention, the coarse material in the coarse material discharge box is re-transported to the feed box by the conveying mechanism for re-crushing, thereby improving the utilization rate of the raw materials and reducing the waste of raw materials.

[0021] 4. In the present invention, the input voltage is stabilized near the rated operating voltage of the crushing energy-saving motor, the driving energy-saving motor and the conveying energy-saving motor through the setting of the voltage stabilizer, thereby reducing the additional loss caused by voltage fluctuations and ensuring the voltage stability when the device is working.

[0022] 5. In the present invention, an axial magnetic levitation bearing and a radial magnetic levitation bearing are arranged in the driving energy-saving motor. The axial magnetic levitation bearing and the radial magnetic levitation bearing can enable the rotor to achieve contactless suspension, thereby greatly reducing the friction generated during the rotation of the rotor, effectively reducing energy consumption, and thus solving the problem of the friction between the mechanical bearings and the rotor of the traditional motor consuming a large amount of energy and wasting it in the form of heat energy, resulting in energy loss. The present invention significantly improves the operating efficiency of the motor and can save a large amount of electricity compared to traditional motors, which is in line with the current development trend of energy conservation and environmental protection. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 This is a schematic diagram of the overall structure of the energy-saving crushing device for extracting natural electronic atomization liquid raw materials in the present invention;

[0024] Figure 2 Another perspective view of the energy-saving crushing device for extracting natural electronic atomization liquid raw materials in the present invention;

[0025] Figure 3 This is a cross-sectional view of the energy-saving pulverizing device for extracting natural electronic atomization liquid raw materials in the present invention;

[0026] Figure 4 It is a cross-sectional view of the driving mechanism of the present invention;

[0027] Figure 5 A cross-sectional view of the driving energy-saving motor in the present invention;

[0028] Figure 6 It is a structural schematic diagram of the dispersed components in the present invention;

[0029] Figure 7 It is a structural schematic diagram of the driving component in the present invention;

[0030] Figure 8 It is a structural schematic diagram of the vertical axis in the present invention;

[0031] Figure 9 Schematic diagram of the structure of the reciprocating transmission rod in the present invention;

[0032] Figure 10 It is a structural diagram of the crushing mechanism in the present invention;

[0033] Figure 11 This is a schematic structural diagram of the first crushing roller in the present invention;

[0034] Figure 12 It is a cross-sectional view of the conveying mechanism in the present invention.

[0035] As shown in the figure: 1. Support frame; 2. Crushing box; 3. Feed box; 4. Crushing mechanism; 41. First crushing roller; 42. Crushing energy-saving motor; 43. First gear; 44. Second gear; 45. Second crushing roller; 5. Screening mechanism; 51. Screening frame; 52. Screen; 53. Baffle ring; 6. Screening box; 7. Coarse material discharge box; 8. Driving material mechanism; 81. Driving component; 811. Driving energy-saving motor; 8111. Motor housing; 8112. Stator; 8113. Rotor; 8114. Axial magnetic bearing; 8115. Radial magnetic bearing; 81 16. Motor controller; 812. Worm; 813. Vertical shaft; 814. Eccentric shaft; 815. Worm gear; 82. Transmission component; 821. Reciprocating transmission rod; 822. Horizontal long slot hole; 823. Vertical long slot hole; 83. Dispersion component; 831. Dispersion plate; 832. Swing shaft; 833. Eccentric column; 834. Connecting strip; 9. Control switch; 10. Voltage stabilizer; 11. Conveying mechanism; 1101. Conveying cylinder; 1102. Conveying energy-saving motor; 1103. Conveying shaft; 1104. Spiral blade; 12. Lower cutting blade; 13. Upper cutting blade. DETAILED DESCRIPTION

[0036] In order to make the above-mentioned objects, features and advantages of the present invention more obvious and easy to understand, the specific embodiments of the present invention are described in detail below with reference to the accompanying drawings.

[0037] Example 1

[0038] Reference Figures 1 to 4 , which is the first embodiment of the present invention, provides an energy-saving crushing device for extracting natural electronic atomization liquid raw materials, including a support frame 1, to which a crushing box 2, a screening box 6 and a coarse material discharge box 7 are fixedly connected; the top of the crushing box 2 is connected to a feed box 3; a crushing mechanism 4 is installed in the crushing box 2; a driving material-discharging mechanism 8 is installed on the crushing box 2; a screening mechanism 5 is installed in the screening box 6; the crushing mechanism 4 is used to crush the raw materials entering the crushing box 2; the screening mechanism 5 is used to screen the raw materials crushed by the crushing mechanism 4; the driving material-discharging mechanism 8 is used to disperse the raw materials entering the feed box 3 and then feed them to the crushing mechanism 4; the driving material-discharging mechanism 8 is used to drive the screening mechanism 5 to move to achieve rotary screening.

[0039] Reference Figures 1 to 8 The material-driving mechanism 8 includes a driving component 81, a transmission component 82 and a dispersion component 83. The driving component 81 includes a driving energy-saving motor 811, which is fixedly mounted on the box wall of the screening box 6. The rotating end of the driving energy-saving motor 811 is fixedly connected to a vertical shaft 813. A worm 812 is fixedly sleeved on the vertical shaft 813. The vertical shaft 813 is rotatably connected to the outer wall of the crushing box 2. The top of the vertical shaft 813 is fixedly connected to an eccentrically arranged eccentric shaft 814. A worm gear 815 is provided in the screening box 6. The worm gear 815 is meshed with the worm 812. The driving energy-saving motor 811 includes a motor housing 8111. The inner shell of the motor housing 8111 A stator 8112 is fixedly installed on the side, and a rotor 8113 is arranged on the inner side of the stator 8112. Axial magnetic bearings 8114 and radial magnetic bearings 8115 are sleeved on the outer sides of both ends of the rotor 8113. The axial magnetic bearings 8114 and radial magnetic bearings 8115 are fixedly installed in the motor housing 8111. One end of the rotor 8113 extends out of the motor housing 8111 to form a rotating end to provide rotational power. A motor controller 8116 is fixedly installed on the outer wall of the motor housing 8111. The stator 8112, axial magnetic bearings 8114 and radial magnetic bearings 8115 are all electrically connected to the motor controller 8116.

[0040] Specifically, when the energy-saving motor 811 is driven to operate, the motor controller 8116 plays a core control role, providing stable current to the stator 8112, the axial magnetic suspension bearing 8114 and the radial magnetic suspension bearing 8115. When the motor controller 8116 energizes the stator 8112, a rotating magnetic field is generated around the stator 8112. Based on the principle of electromagnetic induction, the rotor 8113 in the rotating magnetic field is affected by the electromagnetic force, causing the rotor 8113 to start rotating, thereby realizing the conversion of electrical energy into mechanical energy; the axial magnetic suspension shaft The arrangement of the bearing 8114 and the radial magnetic bearing 8115 ensures the stable and efficient operation of the rotor 8113. The axial magnetic bearing 8114 offsets the force exerted on the rotor 8113 in the axial direction through electromagnetic force, thereby preventing the rotor 8113 from being displaced in the axial direction. The radial magnetic bearing 8115 uses electromagnetic force to constrain the rotor 8113 in the radial direction, thereby enabling the rotor 8113 to float in the center position inside the motor housing 8111, thereby avoiding friction with the stator 8112 or the inner wall of the motor housing 8111.

[0041] Specifically, the energy-saving motor 811 is driven to rotate the vertical shaft 813. When the vertical shaft 813 rotates, the worm 812 is driven to rotate synchronously. The worm 812 drives the worm wheel 815 to rotate. At the same time, the rotation of the vertical shaft 813 drives the eccentric shaft 814 to rotate synchronously.

[0042] Reference Figures 1 to 9 The transmission component 82 includes a reciprocating transmission rod 821, which is laterally slidably connected to the outer wall of the crushing box 2. One end of the reciprocating transmission rod 821 is longitudinally penetrated by a horizontal long slot hole 822, and the eccentric shaft 814 extends into the horizontal long slot hole 822. The other end of the reciprocating transmission rod 821 is equidistantly provided with a plurality of vertical long slot holes 823.

[0043] Specifically, the eccentric shaft 814 moves in the horizontal long slot hole 822, causing the reciprocating transmission rod 821 to slide back and forth, thereby driving the vertical long slot hole 823 to reciprocate synchronously.

[0044] Reference Figures 1 to 11 The dispersion component 83 includes a dispersion plate 831, and a number of dispersion plates 831 are arranged at equal distances in the crushing box 2. The upper part of the dispersion plate 831 is fixedly connected to the swing shaft 832, and one end of the swing shaft 832 is rotatably connected to the inner wall of the crushing box 2. The other end of the swing shaft 832 passes through the crushing box 2 and is fixedly connected to the connecting bar 834. The bottom end of the connecting bar 834 is fixedly connected to the eccentric column 833. The eccentric column 833 is arranged in a one-to-one correspondence with the vertical long slot hole 823, and the eccentric column 833 extends into the corresponding vertical long slot hole 823.

[0045] Specifically, the vertical long slot hole 823 on the reciprocating transmission rod 821 cooperates with the eccentric column 833, so that the eccentric column 833 drives the connecting bar 834 to rotate back and forth along the axis of the swing shaft 832, thereby causing the dispersion plate 831 to swing back and forth, and the raw materials fall and are dispersed by the dispersion plate 831.

[0046] Example 2

[0047] Reference Figures 1 to 11 , which is the second embodiment of the present invention. This embodiment is different from the first embodiment in that: the screening mechanism 5 includes a screening frame 51, which is rotatably connected to the inner side of the screening box 6, and the diameter of the screening frame 51 from one end to the other end gradually increases. A screen 52 adapted to it is fixedly connected to the inner side of the screening frame 51. The screen 52 is a conical tubular structure with mesh holes for screening evenly arranged thereon. A number of retaining rings 53 with gradually increasing diameters are fixedly connected to the inner side of the screen 52 at equal distances. The end with a smaller diameter of the screening frame 51 is connected to the outlet end of the crushing box 2 and is rotatably arranged. The end with a larger diameter of the screening frame 51 extends into the coarse material discharge box 7, and the worm gear 815 is fixedly sleeved on the outer side of the screening frame 51.

[0048] Specifically, the crushed raw material enters the screen 52 in the screening frame 51 through the outlet end of the crushing box 2, and the worm 812 drives the worm wheel 815 to make the screening frame 51 rotate synchronously, and the screening frame 51 drives the screen 52 to rotate synchronously. The rotating screen 52 makes the raw material continuously roll and move on the screen surface, avoiding the accumulation of raw materials and clogging the mesh of the screen 52, thereby improving the screening efficiency and output. The retaining ring 53 on the inside of the screen 52 blocks the small particle raw material, reducing the risk of small particle raw material directly sliding into the coarse material discharge box 7, so that the small particle raw material can be more fully screened. Small particle raw materials smaller than the mesh of the screen 52 fall down and are discharged through the outlet end of the screening box 6; raw materials larger than the mesh of the screen 52 gradually enter the coarse material discharge box 7.

[0049] Reference Figures 1 to 11 The crushing mechanism 4 includes a first crushing roller 41 and a second crushing roller 45 which are symmetrically arranged. The first crushing roller 41 and the second crushing roller 45 are both rotatably connected to the inner side of the crushing box 2. A crushing energy-saving motor 42 is fixedly connected to the outer wall of the crushing box 2. One end of the first crushing roller 41 is extended out of the crushing box 2 and is fixedly connected to a first gear 43. The other end of the first crushing roller 41 is extended out of the crushing box 2 and is fixedly connected to the rotating end of the crushing energy-saving motor 42. One end of the second crushing roller 45 is extended out of the crushing box 2 and is fixedly connected to a second gear 44. The second gear 44 is meshed with the first gear 43. The structure of the crushing energy-saving motor 42 is the same as that of the driving energy-saving motor 811.

[0050] Specifically, the energy-saving crushing motor 42 drives the first crushing roller 41 to rotate, the first crushing roller 41 drives the first gear 43 to rotate, the first gear 43 engages with the second gear 44, and then drives the second crushing roller 45 to rotate, and the falling raw materials are crushed by the first crushing roller 41 and the second crushing roller 45.

[0051] Reference Figures 1 to 11 The upper part of the dispersion plate 831 is fixedly connected with several upper cutting blades 13 at equal distances along the axial direction of the swing shaft 832, and the lower part of the dispersion plate 831 is fixedly connected with several lower cutting blades 12 at equal distances along the axial direction of the swing shaft 832. Sharp cutting edges are provided on both sides of the lower cutting blade 12 and the upper cutting blade 13, so that the lower cutting blade 12 and the upper cutting blade 13 have bidirectional cutting capabilities. The lower cutting blade 12 is arranged above the first crushing roller 41 and the second crushing roller 45; the distance between two adjacent lower cutting blades 12 is smaller than the distance between two adjacent upper cutting blades 13.

[0052] Specifically, the raw material is cut twice by the upper cutting blade 13 and the lower cutting blade 12 on the dispersion plate 831, so that the raw material can be preliminarily cut to different degrees; the rest of the structure is the same as that of the first embodiment.

[0053] Example 3

[0054] Reference Figures 1 to 12 , which is the third embodiment of the present invention. This embodiment is different from the second embodiment in that: a conveying mechanism 11 is installed on the support frame 1, and the conveying mechanism 11 includes a conveying cylinder 1101, which is fixedly connected to the frame wall of the support frame 1, and the inner side of the conveying cylinder 1101 is rotatably connected to a conveying shaft 1103, and a spiral blade 1104 is fixedly sleeved on the shaft wall of the conveying shaft 1103. A conveying energy-saving motor 1102 is fixedly installed on the top of the conveying cylinder 1101, and the top of the conveying shaft 1103 passes through the conveying cylinder 1101 and is fixedly connected to the rotating end of the conveying energy-saving motor 1102. The inlet end of the conveying cylinder 1101 is connected to the outlet end of the coarse material discharge box 7, and the outlet end of the conveying cylinder 1101 passes through the box wall of the feed box 3 and extends into the inner side thereof. The conveying energy-saving motor 1102 has the same structure as the driving energy-saving motor 811.

[0055] Specifically, the raw materials entering the coarse material discharge box 7 fall into the conveying cylinder 1101 through its outlet end, the conveying energy-saving motor 1102 drives the conveying shaft 1103 to rotate, and the conveying shaft 1103 drives the spiral blade 1104 to rotate, and the raw materials entering the conveying cylinder 1101 are conveyed upward, so that the raw materials fall into the feed box 3 through the outlet end of the conveying cylinder 1101 and are crushed again.

[0056] Reference Figures 1 to 12A control switch 9 and a voltage stabilizer 10 are fixedly installed on the wall of the crushing box 2. The power input ends of the crushing energy-saving motor 42, the driving energy-saving motor 811 and the conveying energy-saving motor 1102 are electrically connected to the output end of the control switch 9 through wires. The power input end of the control switch 9 is electrically connected to the power output end of the voltage stabilizer 10 through a wire, and the power input end of the voltage stabilizer 10 is connected to the mains power grid through a wire.

[0057] Specifically, the voltage stabilizer 10 ensures the stability of the power supply voltage of the device, and the control switch 9 controls the operation of the crushing energy-saving motor 42, the driving energy-saving motor 811 and the conveying energy-saving motor 1102; the remaining structure is the same as that of the second embodiment.

[0058] Reference Figures 1 to 12 The working principle of the energy-saving crushing device for extracting natural electronic atomization liquid raw materials in the present invention is as follows:

[0059] The raw materials that need to be crushed for the extraction of natural electronic atomization liquid raw materials are delivered to the feed box 3. The power supply voltage of the device is stable through the setting of the voltage stabilizer 10. The energy-saving crushing motor 42, the energy-saving driving motor 811 and the energy-saving conveying motor 1102 are started by the control switch 9. When the grid voltage fluctuates, it may deviate from its optimal operating voltage range. The voltage stabilizer 10 can stabilize the input voltage near the rated voltage of the energy-saving crushing motor 42, the energy-saving driving motor 811 and the energy-saving conveying motor 1102, ensure the stability of the magnetic field strength, reduce the additional loss caused by voltage fluctuations, and achieve an overall energy-saving effect.

[0060] By driving the energy-saving motor 811 to drive the vertical shaft 813 to rotate, the vertical shaft 813 drives the eccentric shaft 814 to rotate, and the eccentric shaft 814 moves in the horizontal long slot hole 822. The circular motion of the eccentric shaft 814 drives the reciprocating transmission rod 821 to slide back and forth horizontally, and the eccentric column 833 moves back and forth in the vertical long slot hole 823, so that the eccentric column 833 drives the connecting bar 834 to rotate back and forth along the axis of the swing shaft 832, thereby causing the dispersion plate 831 to swing back and forth. During the reciprocating swing of the dispersion plate 831, the lower cutting blade 12 and the upper cutting blade 13 are driven to swing back and forth. A cutting action occurs. Since the spacing of the upper cutting blades 13 is greater than the spacing of the lower cutting blades 12, the particle size of the raw material particles cut by the upper cutting blades 13 is greater than the particle size of the raw material particles cut by the lower cutting blades 12. The raw material is preliminarily cut by the upper cutting blades 13. The raw material after the preliminary cutting falls and is dispersed by the swing of the dispersion plate 831. The dispersed raw material contacts the lower cutting blade 12 and is cut again, so that the raw material is cut again. After being cut twice, the raw material particles fall onto the first crushing roller 41 and the second crushing roller 45.

[0061] The energy-saving crushing motor 42 drives the first crushing roller 41 to rotate, the first crushing roller 41 drives the first gear 43 to rotate, the first gear 43 drives the second gear 44 to rotate, and the second gear 44 drives the second crushing roller 45 to rotate, so that the falling raw materials are further crushed by the first crushing roller 41 and the second crushing roller 45. The raw materials crushed by the first crushing roller 41 and the second crushing roller 45 fall and enter the screen 52 in the screening frame 51 through the outlet end of the crushing box 2. After crushing, small particles of raw materials smaller than the mesh of the screen 52 fall and are discharged through the outlet end of the screening box 6.

[0062] In addition, when the vertical shaft 813 rotates, it drives the worm 812 to rotate synchronously. The worm 812 drives the worm wheel 815 to rotate synchronously, and the screening frame 51 drives the screen 52 to rotate synchronously. The rotating screen 52 can make the raw materials roll and move continuously on the screen surface, avoiding the accumulation of raw materials to block the mesh of the screen 52, so that small particles of raw materials have more opportunities to pass through the mesh, thereby improving the screening efficiency and output, and through the setting of several retaining rings 53, it can play a role in blocking small particles of raw materials, thereby reducing the risk of small particles of raw materials directly sliding along the screen 52 into the coarse material discharge box 7, so that small particles of raw materials can be more fully screened, and raw materials larger than the mesh of the screen 52 gradually enter the coarse material discharge box 7, and then fall into the conveying cylinder 1101 through the outlet end of the coarse material discharge box 7.

[0063] The conveying energy-saving motor 1102 drives the conveying shaft 1103 to rotate, and the conveying shaft 1103 drives the spiral blade 1104 to rotate. The spiral blade 1104 conveys the raw materials entering the conveying cylinder 1101 upward, so that the raw materials fall into the feed box 3 through the outlet end of the conveying cylinder 1101 for further crushing.

[0064] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention, which should all be included in the scope of the claims of the present invention.

Claims

1. An energy-saving pulverizing device for extracting raw materials of natural electronic atomized liquid, comprising a support frame (1), characterized in that: The support frame (1) is provided with a crushing box (2), a screening box (6) and a coarse material discharge box (7); The top of the crushing box (2) is connected to a feed box (3); a crushing mechanism (4) is provided in the crushing box (2); a driving and discharging mechanism (8) is provided on the crushing box (2); a screening mechanism (5) is provided in the screening box (6); The pulverizing mechanism (4) is used to pulverize the raw materials entering the pulverizing box (2); the screening mechanism (5) is used to screen the raw materials pulverized by the pulverizing mechanism (4); The driving material-dispensing mechanism (8) is used to disperse the raw materials entering the feed box (3) and then deliver them to the crushing mechanism (4); the driving material-dispensing mechanism (8) is used to drive the screening mechanism (5) to move, so as to realize rotary screening.

2. The energy-saving crushing device for extracting natural electronic atomized liquid raw materials according to claim 1, characterized in that: The driving material-selecting mechanism (8) comprises a driving component (81), a transmission component (82) and a dispersing component (83); the driving component (81) comprises a driving energy-saving motor (811); the driving energy-saving motor (811) is arranged on the box wall of the screening box (6); the rotating end of the driving energy-saving motor (811) is connected to a vertical shaft (813); a worm (812) is sleeved on the vertical shaft (813); the vertical shaft (813) is rotatably arranged on the outer wall of the crushing box (2); the top end of the vertical shaft (813) is connected to an eccentrically arranged eccentric shaft (814); a worm wheel (815) is arranged in the screening box (6); the worm wheel (815) is connected to the worm wheel (812) The energy-saving driving motor (811) comprises a motor housing (8111), a stator (8112) is provided on the inner side of the motor housing (8111), a rotor (8113) is provided on the inner side of the stator (8112), an axial magnetic suspension bearing (8114) and a radial magnetic suspension bearing (8115) are sleeved on the outer sides of both ends of the rotor (8113), the axial magnetic suspension bearing (8114) and the radial magnetic suspension bearing (8115) are both provided in the motor housing (8111), one end of the rotor (8113 extends out of the motor housing (8111), and a motor controller (8116) is fixedly mounted on the outer wall of the motor housing (8111).

3. The energy-saving crushing device for extracting natural electronic atomized liquid raw materials according to claim 2, characterized in that: The transmission component (82) includes a reciprocating transmission rod (821), which is slidably arranged on the outer wall of the crushing box (2) in a transverse direction. One end of the reciprocating transmission rod (821) is longitudinally penetrated by a transverse long slot hole (822), and the eccentric shaft (814) extends into the transverse long slot hole (822). The other end of the reciprocating transmission rod (821) is equidistantly provided with a plurality of vertical long slot holes (823).

4. The energy-saving crushing device for extracting natural electronic atomized liquid raw materials according to claim 3, characterized in that: The dispersion component (83) includes a dispersion plate (831), and a plurality of the dispersion plates (831) are arranged at equal distances in the crushing box (2). A swing shaft (832) is provided on the upper portion of the dispersion plate (831), and one end of the swing shaft (832) is rotatably connected to the inner wall of the crushing box (2). The other end of the swing shaft (832) passes through the crushing box (2) and is connected to a connecting bar (834). The bottom end of the connecting bar (834) is connected to an eccentric column (833), and the eccentric column (833) is arranged in a one-to-one correspondence with the vertical long slot hole (823), and the eccentric column (833) extends into the corresponding vertical long slot hole (823).

5. The energy-saving crushing device for extracting natural electronic atomized liquid raw materials according to claim 4, characterized in that: The screening mechanism (5) comprises a screening frame (51), the screening frame (51) being rotatably connected to the inner side of the screening box (6), the diameter of the screening frame (51) gradually increasing from one end to the other, a screen (52) adapted thereto being fixedly connected to the inner side of the screening frame (51), a plurality of retaining rings (53) of gradually increasing diameter being equidistantly arranged on the inner side of the screen (52), the end of the screening frame (51) having a smaller diameter being connected to the outlet end of the crushing box (2), the end of the screening frame (51) having a larger diameter extending into the coarse material discharge box (7), and the worm gear (815) being arranged on the outer side of the screening frame (51).

6. The energy-saving pulverizing device for extracting natural electronic atomized liquid raw materials according to claim 5, characterized in that: The upper portion of the dispersion plate (831) is provided with a plurality of upper cutting blades (13) at equal distances along the axial direction of the swing shaft (832), and the lower portion of the dispersion plate (831) is provided with a plurality of lower cutting blades (12) at equal distances along the axial direction of the swing shaft (832).

7. The energy-saving pulverizing device for extracting natural electronic atomized liquid raw materials according to claim 2, characterized in that: The support frame (1) is provided with a conveying mechanism (11), and the conveying mechanism (11) includes a conveying cylinder (1101), the conveying cylinder (1101) is provided on the frame wall of the support frame (1), the inner side of the conveying cylinder (1101) is rotatably connected to a conveying shaft (1103), the shaft wall of the conveying shaft (1103) is sleeved with a spiral blade (1104), the top end of the conveying cylinder (1101) is provided with a conveying energy-saving motor (1102), the top end of the conveying shaft (1103) passes through the conveying cylinder (1101) and is connected to the rotating end of the conveying energy-saving motor (1102), the inlet end of the conveying cylinder (1101) is communicated with the outlet end of the coarse material discharge box (7), the outlet end of the conveying cylinder (1101) passes through the box wall of the feed box (3) and extends into the inner side thereof, and the conveying energy-saving motor (1102) has the same structure as the driving energy-saving motor (811).

8. The energy-saving crushing device for extracting natural electronic atomized liquid raw materials according to claim 7, characterized in that: A control switch (9) and a voltage stabilizer (10) are provided on the wall of the crushing box (2).

9. The energy-saving pulverizing device for extracting natural electronic atomized liquid raw materials according to claim 6, characterized in that: The distance between two adjacent lower cutting blades (12) is smaller than the distance between two adjacent upper cutting blades (13).

10. The energy-saving pulverizing device for extracting natural electronic atomized liquid raw materials according to claim 2, characterized in that: The pulverizing mechanism (4) comprises a first pulverizing roller (41) and a second pulverizing roller (45) which are symmetrically arranged. The first pulverizing roller (41) and the second pulverizing roller (45) are both rotatably arranged on the inner side of the pulverizing box (2). An energy-saving pulverizing motor (42) is arranged on the outer side wall of the pulverizing box (2). One end of the first pulverizing roller (41) is connected to a first gear (43) after extending out of the pulverizing box (2). The other end of the first pulverizing roller (41) is connected to the rotating end of the energy-saving pulverizing motor (42) after extending out of the pulverizing box (2). One end of the second pulverizing roller (45) is connected to a second gear (44) after extending out of the pulverizing box (2). The second gear (44) is meshed with the first gear (43). The energy-saving pulverizing motor (42) has the same structure as the driving energy-saving motor (811).

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