Z-shaped bucket elevator with anti-leakage function
By introducing a continuous bucket structure and an airflow dust prevention system into the Z-type bucket elevator, the problems of bucket tilting and material spillage are solved, and the effects of preventing material leakage and protecting the environment are achieved.
Patent Information
- Application Number
- CN202511045184.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-07-29
- Publication Date
- 2025-10-14
AI Technical Summary
The existing Z-type bucket elevator is prone to bucket tilting and material spilling during operation, and lacks leakage prevention function, which affects normal operation.
By setting up soft connections of connecting pipes, soft plates and embedded shafts between the hoppers, a continuous hopper structure is formed. Combined with servo motor drive, the hoppers are connected to each other, and an air pump and interception net system are set at the lower hopper for dust adsorption and filtration.
It effectively prevents the hopper from tilting and material spilling during lifting and turnover, while absorbing and filtering dust to ensure the stability of material transportation and a clean environment.
Smart Images

Figure CN120774102A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of bucket elevators, in particular to a Z-type bucket elevator with a material leakage prevention function. Background Art
[0002] The Z-type bucket elevator is a common material conveying device, primarily used for vertical and inclined conveying of various granular and bulk materials. Its name comes from the different locations of its inlet and outlet, which resemble the letter Z. Z-type bucket elevators are also known as rotating bucket elevators, induced bucket elevators, Z-type elevators, Z-loaders, chain bucket elevators, or bucket elevators. Z-type bucket elevators use chains or belts to drive the bucket along a Z-shaped trajectory within a sealed housing, achieving vertical lifting and horizontal conveying of materials. They are widely used in various industrial fields.
[0003] Most existing Z-type bucket elevators use a split bucket design, where each bucket is connected to the chain at only two points and is not interconnected. This design does not prevent material leakage and can easily cause the bucket to tilt and material to spill during elevator operation and turnover, affecting normal operation and thus hindering the use of the elevator. Summary of the Invention
[0004] The object of the present invention is to provide a Z-type bucket elevator with a material leakage prevention function to solve the problems raised in the prior art.
[0005] In order to achieve the above object, the present application provides the following technical scheme: the Z-shaped bucket elevator with the anti-leakage function comprises a lifting main body, a feeding bin is installed on the input end of the lifting main body, and a discharging bin is installed on the output end of the lifting main body, driving gear teeth, transmission gear teeth and driven gear teeth are symmetrically and rotatably installed in the lifting main body, conveying chains are sleeved on the driving gear teeth, the transmission gear teeth and the driven gear teeth on the same side, a servo motor is installed on the lifting main body, the output shaft of the servo motor is connected with the driving gear teeth, a plurality of hoppers are arranged on the conveying chains, clamping grooves are arranged on the top of the plurality of hoppers, embedding shafts are embedded in the clamping grooves, soft plates are installed on the embedding shafts, connecting pipes are installed on the soft plates, connecting holes are arranged on the bottom of the plurality of hoppers, the connecting holes are aligned with the adjacent connecting pipes, the aligned connecting holes and the connecting pipes are penetrated by hopper shafts and fixed by shaft sleeves, and the shaft sleeves are connected with the conveying chains through connecting shafts; when the material is lifted, the servo motor is started, so that the conveying chains can drive the hoppers to be lifted and conveyed under the transmission of the driving gear teeth, the transmission gear teeth and the driven gear teeth; at the same time, the connecting holes on the hoppers are connected with the connecting pipes through the hopper shafts, and the embedding shafts are embedded in the clamping grooves on the top of the next hopper, so that the adjacent hoppers are connected through the connecting pipes, the soft plates and the embedding shafts, the hoppers are connected with each other, and the effect of preventing the hoppers from tilting and the material from spilling is achieved.
[0006] Further, the plurality of hoppers are connected one by one, and the connecting shafts are fixedly connected with the conveying chains and the shaft sleeves.
[0007] Further, the lower part of the discharging bin is provided with an opening, an intercepting net is installed in the opening, a cover shell is installed at the outer port of the opening, a plurality of partition plates are installed in the cover shell, a plurality of air chambers are formed in the cover shell through the partition plates, a gas outlet is arranged on the side of the air chamber away from the opening, a gas connection pipe is installed on the gas outlet, a gas pump is installed on the discharging bin, the input end of the gas pump is connected with the gas connection pipe through a suction pipe, and a ring-shaped exhaust pipe is installed on the bottom of the discharging bin; the ring-shaped exhaust pipe is connected with the output end of the gas pump through a gas conveying pipe; when the discharging bin discharges the material, the gas pump is started, so that the suction pipe can absorb the dust in the discharging bin through the gas connection pipe and the gas outlet, and the gas pump can convey the inhaled air to the ring-shaped exhaust pipe through the gas conveying pipe, so that the ring-shaped exhaust pipe can blow the air downward, and the air flow dust layer can be formed.
[0008] Further, the air outlet is provided with a fixed baffle, a plurality of fixed air holes are arranged in the fixed baffle in a circumferential array, and a rotating ring is rotatably arranged on the fixed baffle, the rotating ring is provided with an adjusting baffle, a plurality of adjusting air holes are arranged in the adjusting baffle in a circumferential array, and a ring gear is arranged on the adjusting baffle, a driving motor is arranged in the air chamber, a driving gear is arranged on the output shaft of the driving motor, the driving gear is engaged with the ring gear, when the interception net at the air chamber is attached with dust, the driving motor can be started according to the air permeability of the interception net at the air chamber, and the ring gear drives the adjusting baffle to rotate correspondingly through the engagement of the driving gear and the ring gear, so that the adjusting baffle drives the adjusting air holes to rotate synchronously, thereby controlling the overlapping area of the adjusting air holes and the fixed air holes, improving the air intake and air pressure of the air chamber, and ensuring the stable flow of air flow.
[0009] Further, the fixed air holes and the adjusting air holes are the same size and one-to-one correspondence, and in the initial state, the adjusting air holes and the fixed air holes are staggered.
[0010] Further, the bottom of the air chamber is provided with a fixed rod, the end of the fixed rod is provided with a fixed sleeve, a pole is rotatably arranged in the fixed sleeve, an electrically conductive column is arranged at the end of the pole close to the interception net, a plurality of metal blades are arranged on the side wall of the electrically conductive column in a circumferential array, a rotating sensor is arranged at the end of the electrically conductive column, an angle sensor is arranged at the center of the adjusting baffle, and the rotating sensor, the angle sensor and the driving motor are electrically connected, when the interception nets in different air chamber regions are attached with different amounts of dust, the airflow pushes the metal blades to rotate through the interception net, so that the metal blades drive the electrically conductive column to rotate synchronously, the rotating speed of the electrically conductive column is detected by the rotating sensor, when the rotating speed of the electrically conductive column decreases, the rotating sensor can control the driving motor to operate, so that the driving gear drives the adjusting baffle to rotate, the overlapping area of the adjusting air holes and the fixed air holes is gradually increased, and when the rotating angle of the adjusting baffle detected by the angle sensor meets the requirement, the driving motor is controlled to stop operating, so that the overlapping degree of the adjusting air holes and the fixed air holes can be positively feedback controlled according to the amount of dust on the interception net, and different air chambers can be independently regulated and controlled according to the amount of dust on the interception net in the corresponding region.
[0011] Further, the rotating sensor controls the driving motor to drive the adjusting baffle to rotate correspondingly according to the rotating speed of the electrically conductive column under the control of the angle sensor, so as to adjust the overlapping area of the adjusting air holes and the fixed air holes.
[0012] Further, two magnetic plates are symmetrically installed in the air chamber, the two magnetic plates are positive and negative magnetic poles respectively, a rotary joint is installed at the end of the pole column away from the conductive column, a current sensor is installed at the top of the air chamber, the current sensor is connected with the rotary joint through wires, a plurality of guide rails are installed on the upper part of the opening away from the shell, the plurality of guide rails correspond to the air chamber one by one, a plurality of sliding seats are slidably installed on the plurality of guide rails, a cleaning brush is installed on the sliding seat, the cleaning brush is in contact with the interception net, the guide rail is electrically connected with the current sensor, when the metal blade rotates, the metal blade can cut the magnetic induction lines between the two magnetic plates, so that the current formed can enter the current sensor through the wire and be monitored, the reciprocating moving speed of the guide rail driven by the sliding seat is controlled according to the strength of the current monitored by the current sensor, when the dust amount on the interception net is too much, the rotating speed of the metal blade is reduced, the current intensity monitored by the current sensor is reduced, so that the reciprocating moving speed of the guide rail driven by the sliding seat can be improved, which is helpful for the sliding seat to drive the cleaning brush to clean the interception net in the air chamber synchronously.
[0013] Compared with the prior art, the beneficial effects of the present application are: In the present application, adjacent hoppers are connected by a soft connection of a connecting pipe, a soft plate and an embedded shaft to form a connected hopper, so that each hopper is connected to each other, thereby avoiding the tilting of the hopper and the spilling of the material during lifting and turning, and achieving the effect of preventing material leakage.
[0014] The present application can form an air flow dust prevention layer downwardly while adsorbing the dust generated by discharging, so as to avoid the dust from entering the lifting main body.
[0015] The present application can adjust the overlapping degree of the adjusting air holes and the fixed air holes according to the dust amount on the interception net in different air chamber regions, and can also realize independent regulation and control of different air chambers according to the dust amount on the interception net in the corresponding regions.
[0016] The present application uses the current intensity formed by the metal blade cutting the magnetic induction lines to control the reciprocating moving speed of the guide rail driven by the sliding seat to change accordingly, so as to control the cleaning frequency of the cleaning brush according to the dust amount on the interception net. BRIEF DESCRIPTION OF DRAWINGS
[0017] Figure 1 It is a schematic diagram of the main structure of the present application; Figure 2 It is a schematic diagram of the moving track of the hopper of the present application; Figure 3 It is a schematic diagram of the second structure of the hopper discharging place of the present application; Figure 4 It is a schematic diagram of the hopper structure of the present application; Figure 5It is the structure schematic diagram of the blanking bin of the present application; Figure 6 It is the first cut structure schematic diagram of the blanking bin of the present application; Figure 7 It is the second cut structure schematic diagram of the blanking bin of the present application; Figure 8 It is Figure 6 The enlarged structure schematic diagram of A in Figure 9 The enlarged structure schematic diagram of B in Figure 7
[0018] In the figure: 1, lifting main body; 2, feeding bin; 3, blanking bin; 4, driving gear; 5, driven gear; 6, transmission gear; 7, servo motor; 8, conveying chain; 9, hopper; 10, clamping groove; 11, embedded shaft; 12, soft plate; 13, connecting pipe; 14, connecting hole; 15, hopper shaft; 16, shaft sleeve; 17, connecting shaft; 1801, opening; 1802, intercepting net; 1803, cover shell; 1804, partition; 1805, air outlet; 1806, air connecting pipe; 1807, air pump; 1808, air suction pipe; 1809, annular exhaust pipe; 1810, air conveying pipe; 1811, fixed baffle; 1812, fixed air hole; 1813, rotating ring; 1814, adjusting baffle; 1815, adjusting air hole; 1816, ring tooth; 1817, driving motor; 1818, driving tooth; 1819, fixed rod; 1820, fixed sleeve; 1821, pole; 1822, conductive column; 1823, metal blade; 1824, rotation sensor; 1901, magnetic plate; 1902, current sensor; 1903, wire; 1904, guide rail; 1905, sliding seat; 1906, cleaning brush. DETAILED DESCRIPTION
[0019] The technical solutions in the embodiments of the present application will be clearly and completely described below with the accompanying drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the protection scope of the present application.
[0020] Embodiment: as Figures 1-9 As shown, the present invention provides a technical solution of a Z-type bucket elevator with a leakage-proof function, which includes a lifting body 1, a feed bin 2 is installed on the input end of the lifting body 1, and a lower bin 3 is installed on the output end of the lifting body 1, a driving gear 4, a transmission gear 6 and a driven gear 5 are symmetrically installed in the lifting body 1 for rotation, and a conveying chain 8 is sleeved on the driving gear 4, the transmission gear 6 and the driven gear 5 on the same side, a servo motor 7 is installed on the lifting body 1, and the output shaft of the servo motor 7 is connected to the driving gear 4, a plurality of hoppers 9 are provided on the conveying chain 8, and a plurality of hoppers 9 are provided with a card slot 10 on the top of each of the plurality of hoppers 9, an embedded shaft 11 is embedded in the card slot 10, a soft board 12 is installed on the embedded shaft 11, a connecting pipe 13 is installed on the soft board 12, and a connecting pipe 13 is provided on the bottom of each of the plurality of hoppers 9. The connecting hole 14 is aligned with the nearby connecting pipe 13, and the aligned connecting hole 14 and the connecting pipe 13 pass through the hopper shaft 15 and are fixed with a sleeve 16. The sleeve 16 is connected to the conveyor chain 8 through a connecting shaft 17. When lifting the material, the servo motor 7 is started so that the conveyor chain 8 can drive the hopper 9 to be lifted and transported under the transmission of the driving gear 4, the transmission gear 6 and the driven gear 5. At the same time, the connecting hole 14 on the hopper 9 is connected to the connecting pipe 13 through the hopper shaft 15, and then the embedded shaft 11 is engaged with the card groove 10 at the upper end of the latter hopper 9 to realize the soft connection of the adjacent hoppers 9 through the connecting pipe 13, the soft plate 12 and the embedded shaft 11 to form a continuous bucket, so that each hopper 9 is connected to each other, thereby avoiding the hopper 9 from tilting and material spilling during lifting and turnover, thereby achieving the effect of preventing leakage.
[0021] The plurality of hoppers 9 are connected one by one, and the connecting shaft 17 is fixedly connected to the conveying chain 8 and the shaft sleeve 16 respectively.
[0022] The lower part of the two sides of the discharging bin 3 is provided with an opening 1801, the opening 1801 is provided with an intercepting net 1802, the outer side of the opening 1801 is provided with a cover 1803, the cover 1803 is provided with a plurality of partitions 1804, a plurality of air chambers are formed in the cover 1803 through the partitions 1804, the side far away from the opening 1801 of the plurality of air chambers is provided with an air outlet 1805, the air outlet 1805 is provided with a gas connecting pipe 1806, the discharging bin 3 is provided with a gas pump 1807, the input end of the gas pump 1807 is connected with the gas connecting pipe 1806 through a suction pipe 1808, the bottom of the discharging bin 3 is provided with a ring-shaped exhaust pipe 1809, the ring-shaped exhaust pipe 1809 is connected with the output end of the gas pump 1807 through a gas conveying pipe 1810, when the discharging bin 3 discharges, the gas pump 1807 is started, the suction pipe 1808 can absorb the dust in the discharging bin 3 through the gas connecting pipe 1806 and the air outlet 1805, and the suction air flow can be filtered through the intercepting net 1802, at the same time, the gas pump 1807 can convey the suction air flow to the ring-shaped exhaust pipe 1809 through the gas conveying pipe 1810, so that the ring-shaped exhaust pipe 1809 can blow air flow downward, and a dust-proof air flow layer can be formed.
[0023] The air outlet 1805 is provided with a fixed baffle 1811, a plurality of fixed air holes 1812 are arranged in a circular array on the fixed baffle 1811, a rotating ring 1813 is rotatably arranged on the fixed baffle 1811, an adjusting baffle 1814 is arranged on the rotating ring 1813, a plurality of adjusting air holes 1815 are arranged in a circular array on the adjusting baffle 1814, and a ring tooth 1816 is sleeved on the adjusting baffle 1814, a driving motor 1817 is arranged in the air chamber, a driving tooth 1818 is arranged on the output shaft of the driving motor 1817, and the driving tooth 1818 is engaged with the ring tooth 1816, when the intercepting net 1802 at the air chamber is attached with dust, the driving motor 1817 can be started to operate according to the air permeability of the intercepting net 1802 at the air chamber, the ring tooth 1816 can drive the adjusting baffle 1814 to rotate through the engagement of the driving tooth 1818 and the ring tooth 1816, the adjusting baffle 1814 can drive the adjusting air holes 1815 to rotate synchronously, so as to control the overlapping area of the adjusting air holes 1815 and the fixed air holes 1812, improve the air suction amount and air pressure of the air chamber, and ensure the stable flow of the air flow.
[0024] The plurality of fixed air holes 1812 and the plurality of adjusting air holes 1815 are consistent in size and one-to-one correspondence, and in the initial state, the adjusting air holes 1815 and the fixed air holes 1812 are staggered.
[0025] The bottom of the air chamber is provided with a fixing rod 1819, the end of the fixing rod 1819 is provided with a fixing sleeve 1820, the fixing sleeve 1820 is rotatably provided with a pole 1821, the end of the pole 1821 close to the interception net 1802 is provided with a conductive column 1822, the side wall of the conductive column 1822 is circumferentially provided with a plurality of metal blades 1823, the end of the conductive column 1822 is provided with a rotation sensor 1824, the center of the adjusting baffle 1814 is provided with an angle sensor, the rotation sensor 1824, the angle sensor and the driving motor 1817 are electrically connected, when the interception net 1802 in different air chamber areas is attached with different degrees of dust, the airflow pushes the metal blades 1823 to rotate through the interception net 1802, so that the metal blades 1823 drive the conductive column 1822 to rotate synchronously, the rotation rate of the conductive column 1822 is detected through the rotation sensor 1824, when the rotation rate of the conductive column 1822 is reduced, the rotation sensor 1824 can control the driving motor 1817 to operate, so that the driving gear 1818 drives the adjusting baffle 1814 to rotate, the overlapping area of the adjusting air hole 1815 and the fixed air hole 1812 is gradually increased, and when the rotation angle of the adjusting baffle 1814 detected through the angle sensor meets the requirement, the driving motor 1817 is controlled to stop operating, so that the overlapping degree of the adjusting air hole 1815 and the fixed air hole 1812 can be positively and negatively feedback controlled according to the amount of dust on the interception net 1802, and different air chambers can be independently regulated and controlled according to the amount of dust on the interception net 1802 in the corresponding area.
[0026] The rotation sensor 1824 controls the driving motor 1817 to drive the adjusting baffle 1814 to rotate at a corresponding angle under the control of the angle sensor according to the rotation speed of the conductive column 1822, so as to adjust the overlapping area of the adjusting air hole 1815 and the fixed air hole 1812.
[0027] Two magnetic plates 1901 are symmetrically installed in the air chamber. The two magnetic plates 1901 are respectively positive and negative poles. A rotary joint is installed at the end of the pole 1821 away from the conductive column 1822. A current sensor 1902 is installed on the top of the air chamber. The current sensor 1902 is connected to the rotary joint through a wire 1903. A plurality of guide rails 1904 are installed on the upper part of the port of the opening 1801 away from the cover 1803. The plurality of guide rails 1904 correspond to the air chambers one by one. Slide seats 1905 are slidably installed on the plurality of guide rails 1904. A cleaning brush 1906 is installed on the slide seat 1905. The cleaning brush 1906 is in contact with the intercepting net 1802. The guide rail 1904 is electrically connected to the current sensor 1902. When the metal blade 1823 rotates, the metal The blade 1823 can cut the magnetic flux lines between the two magnetic plates 1901, so that the generated current can enter the current sensor 1902 through the wire 1903 and be monitored. The guide rail 1904 is controlled to drive the slide 1905 to move back and forth at a speed according to the strength of the current monitored by the current sensor 1902. When there is too much dust on the interception net 1802, the rotation speed of the metal blade 1823 is reduced, and the current intensity generated by the current sensor 1902 is reduced, so that the guide rail 1904 can drive the slide 1905 to move back and forth at a faster speed, which is beneficial for the slide 1905 to drive the cleaning brush 1906 to synchronously clean the interception net 1802 at the air chamber, and it is convenient to control the cleaning frequency of the cleaning brush 1906 according to the amount of dust on the interception net 1802.
[0028] Working principle of the present invention: When lifting materials, start the servo motor 7 so that the conveyor chain 8 can drive the hopper 9 to lift and convey under the transmission of the driving gear 4, the transmission gear 6 and the driven gear 5. At the same time, the connecting hole 14 on the hopper 9 is connected to the connecting pipe 13 through the hopper shaft 15, and then the embedded shaft 11 is engaged with the card slot 10 at the upper end of the next hopper 9, so that the adjacent hoppers 9 are softly connected through the connecting pipe 13, the soft plate 12 and the embedded shaft 11 to form a continuous hopper, so that each hopper 9 is connected to each other, thereby preventing the hopper 9 from tilting and material spilling during lifting and turnover, thereby achieving the effect of preventing material leakage.
[0029] When the lower hopper 3 is discharging, the air pump 1807 is started, and the suction pipe 1808 can absorb the dust in the lower hopper 3 through the connecting pipe 1806 and the air outlet 1805, and the inhaled air flow can be filtered through the interception net 1802. At the same time, the air pump 1807 can transport the inhaled air flow to the annular exhaust pipe 1809 through the air supply pipe 1810, so that the annular exhaust pipe 1809 can spray air flow downward to form an air flow dust-proof layer.
[0030] When the interception net 1802 at the air chamber is attached with dust, the driving motor 1817 can be started according to the air permeability of the interception net 1802 at the air chamber, and through the meshing of the driving teeth 1818 and the ring teeth 1816, the ring teeth 1816 can drive the adjusting baffle 1814 to rotate, so that the adjusting baffle 1814 drives the adjusting air holes 1815 to rotate synchronously, thereby controlling the overlapping area of the adjusting air holes 1815 and the fixed air holes 1812, improving the air intake and air pressure of the air chamber, and thereby ensuring the stable flow of the airflow.
[0031] When the interception net 1802 in different air chamber areas is attached with different amounts of dust, the airflow pushes the metal blade 1823 to rotate through the interception net 1802, so that the metal blade 1823 drives the conductive column 1822 to rotate synchronously, and the rotation rate of the conductive column 1822 is detected by the rotation sensor 1824. When the rotation rate of the conductive column 1822 decreases, the rotation sensor 1824 can control the driving motor 1817 to operate, so that the driving teeth 1818 drive the adjusting baffle 1814 to rotate, and the overlapping area of the adjusting air holes 1815 and the fixed air holes 1812 is gradually increased. When the rotation angle of the adjusting baffle 1814 detected by the angle sensor meets the requirements, the driving motor 1817 is controlled to stop operating, so that the overlapping degree of the adjusting air holes 1815 and the fixed air holes 1812 can be positively feedback controlled according to the amount of dust on the interception net 1802, and different air chambers can be independently regulated and controlled according to the amount of dust on the interception net 1802 in the corresponding area.
[0032] When the metal blade 1823 rotates, the metal blade 1823 can cut the magnetic induction lines between the two magnetic plates 1901, so that the current formed can enter the current sensor 1902 through the wire 1903 and be monitored. The reciprocating movement rate of the sliding seat 1905 driven by the guide rail 1904 is controlled according to the strength of the current monitored by the current sensor 1902. When the amount of dust on the interception net 1802 is too much, the rotation speed of the metal blade 1823 decreases, and the current sensor 1902 monitors the decrease of the current intensity, so that the reciprocating movement rate of the sliding seat 1905 driven by the guide rail 1904 can be increased, which is conducive to the synchronous cleaning of the interception net 1802 at the air chamber by the cleaning brush 1906 driven by the sliding seat 1905.
[0033] It will be apparent to those skilled in the art that the application is not limited to the details of the above-exemplified embodiments and that the present application can be implemented in other particular forms without departing from the spirit or essential characteristics of the present application. The embodiments should therefore be considered in all respects as illustrative and not restrictive, the scope of the application being indicated by the appended claims rather than by the above description, and all changes which come within the meaning and range of equivalency of the claims are therefore intended to be embraced therein. No reference signs in the claims should be considered as limiting the scope of the claims with respect to the figures of the patent document.
Claims
1. A Z-type bucket elevator with anti-leakage function, characterized by: The Z-type bucket elevator with a material leakage prevention function comprises a lifting body (1), a feeding bin (2) is installed on the input end of the lifting body (1), and a discharging bin (3) is installed on the output end of the lifting body (1), a driving gear (4), a transmission gear (6) and a driven gear (5) are symmetrically installed in the lifting body (1), and a conveying chain (8) is sleeved on the driving gear (4), the transmission gear (6) and the driven gear (5) on the same side. A servo motor (7) is installed on the lifting body (1), and the output shaft of the servo motor (7) is connected to the driving gear (4). The conveying chain (8) is connected to the driving gear (4). ) is provided with a plurality of hoppers (9), the tops of the plurality of hoppers (9) are provided with a slot (10), an embedded shaft (11) is embedded in the slot (10), a soft board (12) is installed on the embedded shaft (11), a connecting pipe (13) is installed on the soft board (12), and a connecting hole (14) is opened at the bottom of the plurality of hoppers (9), the connecting hole (14) is aligned with the adjacent connecting pipe (13), and the aligned connecting holes (14) and the connecting pipe (13) are penetrated by the hopper shaft (15) and fixed by a shaft sleeve (16), and the shaft sleeve (16) is connected to the conveying chain (8) through a connecting shaft (17).
2. The Z-type bucket elevator with anti-leakage function according to claim 1, characterized in that: The plurality of hoppers (9) are connected one by one, and the connecting shaft 17 is fixedly connected to the conveying chain 8 and the shaft sleeve 16 respectively.
3. The Z-type bucket elevator with anti-leakage function according to claim 1, characterized in that: The lower part of both sides of the discharge bin (3) is provided with an opening (1801), an interception net (1802) is installed in the opening (1801), a cover (1803) is installed at the outer end of the opening (1801), a plurality of partitions (1804) are installed in the cover (1803), and a plurality of air chambers are formed in the cover (1803) through the partitions (1804), and an air outlet (1802) is provided on one side of the plurality of air chambers away from the opening (1801). 805), an air connection pipe (1806) is installed on the air outlet (1805), an air pump (1807) is installed on the lower material bin (3), the input end of the air pump (1807) is connected to the air connection pipe (1806) through an air suction pipe (1808), and an annular exhaust pipe (1809) is installed at the bottom of the lower material bin (3), and the annular exhaust pipe (1809) is connected to the output end of the air pump (1807) through an air supply pipe (1810).
4. The Z-type bucket elevator with anti-leakage function according to claim 3, characterized in that: A fixed baffle (1811) is installed on the air outlet (1805), a plurality of fixed air holes (1812) are provided on the fixed baffle (1811) in a circumferential array, and a rotating ring (1813) is rotatably installed on the fixed baffle (1811), an adjusting baffle (1814) is installed on the rotating ring (1813), a plurality of adjusting air holes (1815) are provided on the adjusting baffle (1814) in a circumferential array, and a ring gear (1816) is sleeved on the adjusting baffle (1814), a driving motor (1817) is installed in the air chamber, and a driving gear (1818) is installed on the output shaft of the driving motor (1817), and the driving gear (1818) is meshed with the ring gear (1816).
5. The Z-type bucket elevator with anti-leakage function according to claim 4, characterized in that: The plurality of fixed air holes (1812) and the plurality of regulating air holes (1815) are of the same size and correspond one to one. In an initial state, the regulating air holes (1815) and the fixed air holes (1812) are staggered.
6. The Z-type bucket elevator with anti-leakage function according to claim 5, characterized in that: A fixing rod (1819) is installed at the bottom of the air chamber, a fixing sleeve (1820) is installed at the end of the fixing rod (1819), a pole (1821) is rotatably installed in the fixing sleeve (1820), a conductive column (1822) is installed at the end of the pole (1821) close to the interception net (1802), a plurality of metal blades (1823) are installed in a circular array on the side wall of the conductive column (1822), and a rotation sensor (1824) is installed at the end of the conductive column (1822), an angle sensor is installed at the center of the adjustment baffle (1814), and the rotation sensor (1824), the angle sensor and the drive motor (1817) are electrically connected.
7. The Z-type bucket elevator with anti-leakage function according to claim 6, characterized in that: The rotation sensor (1824) causes the driving motor (1817) to drive the adjustment baffle (1814) to rotate at a corresponding angle under the control of the angle sensor according to the rotation speed of the conductive column (1822), thereby adjusting the overlap surface between the adjustment pore (1815) and the fixed pore (1812).
8. The Z-type bucket elevator with leakage prevention function according to claim 7, characterized in that: Two magnetic plates (1901) are symmetrically installed in the air chamber, and the two magnetic plates (1901) are positive and negative magnetic poles respectively. A rotary joint is installed at the end of the pole (1821) away from the conductive column (1822). A current sensor (1902) is installed on the top of the air chamber, and the current sensor (1902) is connected to the rotary joint through a wire (1903). A plurality of guide rails (1904) are installed on the upper part of the port of the opening (1801) away from the cover (1803). The plurality of guide rails (1904) correspond to the air chamber one by one. A slide seat (1905) is slidably installed on the plurality of guide rails (1904), and a cleaning brush (1906) is installed on the slide seat (1905). The cleaning brush (1906) is in contact with the interception net (1802), and the guide rail (1904) is electrically connected to the current sensor (1902).