Large-scale hydraulic turnover plow
Technical Field
The invention belongs to the technical field of hydraulic machinery, and particularly relates to a large hydraulic turnover plow.
Background
The hydraulic turnover plow is composed of a traction frame, a ploughshare, an auxiliary wheel, a hydraulic cylinder and the like, the whole turnover plow is fixed on agricultural equipment through the traction frame when in use, the ploughshare is pricked into soil, the ploughshare is enabled to leave the ploughed ground after soil turning in the soil along with the advancing of the agricultural equipment with the traction frame, the type of the ploughshare can be changed under the control of the turnover of the hydraulic cylinder, and the soil turning is smoothed or reprocessed under the traction of the agricultural equipment.
When the hydraulic turnover plow moves forward in a traction way, the auxiliary wheels arranged on the opposite sides of the hydraulic turnover plow move forward synchronously, the auxiliary wheels are positioned on the opposite sides of the ploughshare, and the ploughshare plays a role in balancing assistance when the ploughshare moves forward in a turnover way, however, soil after the ploughshare turns over the ground can be adhered to the auxiliary wheels, so that the wheel diameter of the auxiliary wheels is increased, the auxiliary wheels can cause imbalance of the ploughshare when moving forward in an auxiliary way, the conventional cleaning mode is manual cleaning, the labor intensity of the cleaning mode is high, and the efficiency is lower.
Disclosure of Invention
Aiming at the problems in the prior art, the invention provides the following technical scheme:
The utility model provides a large-scale hydraulic pressure upset plough, includes the traction frame, the rear end switching of traction frame has the plow frame, the traction frame with be connected with the pneumatic cylinder between the plow frame, be fixed with above the plow frame and go up the plow share, be fixed with below the plow frame and go up the upper auxiliary wheel assembly of plow share opposite side above the plow frame, be fixed with above the plow frame and be in the symmetry go up the lower auxiliary wheel assembly of plow share opposite side, go up the auxiliary wheel assembly and be in including the welding last welded pipe on the plow frame, still including fixing go up the upper auxiliary wheel on welded pipe top, still including fixing down the lower auxiliary wheel of bottom under welded pipe, the auxiliary wheel assembly is still including installing go up welded pipe with the guide bracket on the welded pipe down, install the actuating lever on the guide bracket on the welded pipe, the bottom of going up the actuating lever is fixed with the symmetry and is in down the lower blade, the upper and lower auxiliary wheel assembly is in the welded pipe, the upper and lower blade assembly is close to be connected with the sprocket on the upper and lower blade, the upper and lower blade assembly is close to the sprocket, the upper and lower blade assembly is connected with the sprocket.
Further preferably, the sprocket assembly comprises a driving shaft installed on the upper welded pipe and the lower welded pipe, a driving sprocket installed on the two driving shafts, a driven sprocket installed on a rotating shaft where the upper auxiliary wheel and the lower auxiliary wheel are located, and a chain connected between the driving sprocket and the upper auxiliary wheel in a driving manner, wherein an eccentric wheel is installed on the two driving shafts, an upper driving wheel capable of being contacted with the eccentric wheel is installed at the top end of the upper driving rod, and a lower driving wheel capable of being contacted with the eccentric wheel is installed at the bottom end of the lower driving rod.
Further preferably, the guide seat is provided with a through hole, the upper driving rod and the lower driving rod pass through and are assembled in the through hole, the upper driving rod and the lower driving rod are welded with a baffle, the upper driving rod and the lower driving rod are sleeved with a spring, a stepped hole is formed in the through hole, the spring is filled in the stepped hole, and two ends of the spring are elastically connected between the baffle and the hole bottom of the stepped hole.
Further preferably, the lower shovel plate faces one face of the lower auxiliary wheel, a first inclined face inclined in the tangential direction of the outer circular face of the lower auxiliary wheel is formed, the upper shovel plate faces one face of the upper auxiliary wheel, and a second inclined face inclined in the tangential direction of the outer circular face of the upper auxiliary wheel is formed.
Further preferably, the first inclined plane and the second inclined plane are provided with a discharge channel along the inclined direction thereof.
Further preferably, a weight-reducing cavity is arranged inwards from the outer surfaces of the upper auxiliary wheel and the lower auxiliary wheel, weight-reducing holes are formed in the weight-reducing cavity to the inner surfaces of the upper auxiliary wheel and the lower auxiliary wheel, and the weight-reducing holes are at least three in an annular array.
Further preferably, the inner surfaces of the upper auxiliary wheel and the lower auxiliary wheel form ribs from between the adjacent two weight reducing holes.
Still preferably, the ribs are each provided with a rotating rod, one end of the rotating rod extends into the weight reduction cavity to be provided with a friction roller, the upper welded pipe and the lower welded pipe are welded with toothed plates, and the other end of one rotating rod is provided with an auxiliary gear.
Further preferably, the friction roller is tapered, and friction textures are formed on the friction roller along the tapered direction.
The beneficial effects of the invention are as follows:
1. The lower auxiliary wheel keeps the balance of the plow frame and assists in stably advancing the plow frame when the lower auxiliary wheel advances along the soil, the driven sprocket is driven by the shaft where the lower auxiliary wheel is positioned to rotate, the driving sprocket is driven by the driven sprocket and the chain to rotate, the lower driving wheel is pushed to rise when the protruding part on the driving sprocket rotates to be in contact with the lower driving wheel, the lower driving wheel pushes the lower driving rod to rise, the upper shovel plate is pushed to rise by the lower driving rod, and the upper shovel plate acts relative to the outer circle surface of the upper auxiliary wheel when the upper auxiliary wheel is used as an aid, and the attached clay automatically falls off to replace manual work.
When the plow frame turns 360 degrees again, the upper auxiliary wheel and the upper plow share turn downwards, the upper plow share is inserted into the soil to be responsible for turning the soil, the upper auxiliary wheel falls on the soil at the opposite side of the upper plow share to be responsible for supporting the plow frame, and the upper auxiliary wheel is assisted in the stable advancing of the plow frame. When the upper auxiliary wheel advances along the soil, the driven sprocket is driven by the shaft where the upper auxiliary wheel is positioned, the driving sprocket is driven by the driven sprocket and the chain, the eccentric wheel is driven by the shaft where the driving sprocket is positioned, when the protruding part on the eccentric wheel rotates to be in contact with the upper driving wheel, the upper driving wheel is pushed to rise, the upper driving wheel pushes the upper driving rod to rise, the lower shovel plate is pushed to rise by the upper driving rod, and when the lower shovel plate rises, the lower shovel plate acts relative to the outer circular surface of the lower auxiliary wheel, so that the lower auxiliary wheel automatically falls off as the clay attached to the lower auxiliary wheel when being used along the soil, the labor is replaced, and the working efficiency is improved.
2. At least three friction rollers are arranged in the annular array in the weight reduction cavity of the upper auxiliary wheel, the three friction rollers are equivalent to three loads arranged at three positions of the upper auxiliary wheel, and after clay at a certain outer circle position of the upper auxiliary wheel is cleaned by the upper shovel plate, the upper auxiliary wheel is eccentrically weightless and rotates, so that clay attached to other positions on the outer circle surface of the upper auxiliary wheel rotates to the shoveling position of the upper shovel plate, and the clay on the upper auxiliary wheel is thoroughly cleared along with the ascending of the upper shovel plate again. Similarly, after the clay on a certain outer circle position on the lower auxiliary wheel is cleaned by the lower shovel plate, the lower auxiliary wheel is eccentrically weightless and rotates, so that the clay attached to other positions on the outer circle surface on the lower auxiliary wheel rotates to the shoveling position of the lower shovel plate, and the clay on the lower auxiliary wheel is thoroughly cleaned along with the rising of the lower shovel plate again.
Drawings
FIG. 1 is a schematic view showing the overall structure of an embodiment;
FIG. 2 shows a schematic view of the embodiment from FIG. 1 at a second view angle;
FIG. 3 is a schematic view of an embodiment from the third perspective of FIG. 1, with a partial enlargement;
FIG. 4 shows a schematic view of an embodiment from the fourth perspective of FIG. 1;
FIG. 5 is a schematic view of an embodiment from the fifth perspective of FIG. 1;
fig. 6 is a schematic view showing a plan view of the guide seat in the embodiment shown in a cutaway.
In the figure, 1, a traction frame, 2, a plow frame, 3, a hydraulic cylinder, 4, an upper plow share, 5, a lower plow share, 6, an upper auxiliary wheel assembly, 61, an upper welded pipe, 62, an upper auxiliary wheel, 63, an upper driving rod, 64, a lower shovel plate, 641, a first inclined plane, 65, an upper driving wheel, 7, a lower auxiliary wheel assembly, 71, a lower welded pipe, 72, a lower auxiliary wheel, 73, a lower driving rod, 74, an upper shovel plate, 741, a second inclined plane, 75, a lower driving wheel, 8, a guide seat, 81, a through hole, 82, a stepped hole, 9, a chain wheel assembly, 91, a transmission shaft, 92, a driving chain wheel, 93, a driven chain wheel, 94, a chain, 95, an eccentric wheel, 10, a baffle plate, 11, a spring, 671, a discharge channel, 672, a weight reducing cavity, 673, a weight reducing hole, 674, a rib, 12, a rotating rod, 13, a friction roller, 14, a toothed plate, 15 and an auxiliary gear are shown.
Detailed Description
In order to make the objects, technical solutions and advantages of the embodiments of the present invention more apparent, the technical solutions of the present invention will be clearly and completely described below with reference to the embodiments.
The invention provides a large hydraulic turnover plow, which comprises a traction frame 1, wherein the rear end of the traction frame 1 is connected with a plow frame 2 in a switching way, a hydraulic cylinder 3 is connected between the traction frame 1 and the plow frame 2, an upper plow share 4 is fixed on the upper surface of the plow frame 2, a lower plow share 5 is fixed below the plow frame 2, an upper auxiliary wheel assembly 6 symmetrical to the opposite side of the upper plow share 4 is fixed on the upper surface of the plow frame 2, a lower auxiliary wheel assembly 7 symmetrical to the opposite side of the lower plow share 5 is fixed on the upper surface of the plow frame 2, the upper auxiliary wheel assembly 6 comprises an upper welded pipe 61 welded on the plow frame 2, an upper auxiliary wheel 62 fixed on the top end of the upper welded pipe 61, the lower auxiliary wheel assembly 7 comprises a lower welded pipe 71 on the plow frame 2, and a lower auxiliary wheel 72 fixed on the lower bottom end of the lower welded pipe 71, the auxiliary wheel assembly 6 further comprises a guide seat 8 arranged on the upper welded pipe 61 and the lower welded pipe 71, an upper driving rod 63 is arranged on the guide seat 8 on the upper welded pipe 61, a lower shovel plate 64 is welded at the bottom end of the upper driving rod 63, the lower shovel plate 64 is close to the lower auxiliary wheel 72, a lower driving rod 73 is arranged on the guide seat 8 on the lower welded pipe 71, an upper shovel plate 74 is welded at the top end of the lower driving rod 73, the upper shovel plate 74 is close to the upper auxiliary wheel 62, chain wheel assemblies 9 are arranged on the upper welded pipe 61 and the lower welded pipe 71, the chain wheel assemblies 9 on the upper welded pipe 61 are in transmission connection between the top end of the upper driving rod 63 and the upper auxiliary wheel 62, and the chain wheel assemblies 9 on the lower welded pipe 71 are in transmission connection between the bottom end of the driving rod 73 and the lower auxiliary wheel 72.
The sprocket assembly 9 includes a driving shaft 91 mounted on the upper and lower welding pipes 61 and 71, a driving sprocket 92 mounted on the two driving shafts 91, a driven sprocket 93 mounted on the rotation shafts of the upper and lower auxiliary wheels 62 and 72, and a chain 94 drivingly connected between the driving sprocket 92 and the upper auxiliary wheel 62, eccentric wheels 95 are mounted on the two driving shafts 91, upper driving wheels 65 capable of contacting the eccentric wheels 95 are mounted on the top ends of the upper driving rods 63, and lower driving wheels 75 capable of contacting the eccentric wheels 95 are mounted on the bottom ends of the lower driving rods 73.
The lower blade 64 has a first inclined surface 641 inclined in the tangential direction of the outer circumferential surface of the lower auxiliary wheel 72 on the surface facing the lower auxiliary wheel 72, and the upper blade 74 has a second inclined surface 741 inclined in the tangential direction of the outer circumferential surface of the upper auxiliary wheel 62 on the surface facing the upper auxiliary wheel 62.
Working principle and effect: the whole turnover plow is arranged on agricultural equipment through the traction frame 1, the agricultural equipment is used for dragging the whole turnover plow to finish the soil turnover operation, the hydraulic cylinder 3 drives the plow frame 2 during the action, and all the parts above are driven by the plow frame 2 to finish 360-degree rotation so as to be suitable for the soil covering requirement after the soil turnover (the prior art of the hydraulic turnover plow, brief description), and the hydraulic turnover plow is different from the prior art in that: when the traction frame 1 advances and under the action of the hydraulic cylinder 3, the plow frame 2 is caused to rotate the lower auxiliary wheel 72 and the lower plow share 5 downwards, the lower plow share 5 is inserted into soil to be responsible for turning soil, the lower auxiliary wheel 72 falls on the soil at the opposite side of the lower plow share 5 to be responsible for supporting the plow frame 2, when the lower plow share 5 advances to be in soil turning operation, the lower auxiliary wheel 72 keeps the balance of the plow frame 2 and assists in smooth advancing of the plow frame 2, the lower auxiliary wheel 72 also rotates when advancing along the soil, the shaft where the lower auxiliary wheel 72 is positioned rotates with the driven sprocket 93, the shaft where the driven sprocket 93 and the chain 94 are positioned rotates with the driving sprocket 92, the shaft where the driving sprocket 92 is positioned rotates with the eccentric wheel 95, when the protruding part on the eccentric wheel 95 rotates to be in contact with the lower driving wheel 75, the lower driving wheel 75 is pushed to be lifted, the lower driving rod 73 is pushed by the lower driving wheel 75 to be lifted, the upper shovel plate 74 is pushed to be lifted, the outer circle surface of the upper shovel plate 74 is operated when being lifted, the upper shovel plate 62 is automatically pulled to be in the state, the upper auxiliary wheel 62 is used as the auxiliary wheel 62, at least one of the three auxiliary rollers 62 is arranged at least one of the three auxiliary rollers 13, the three auxiliary rollers are arranged at the three friction roller arrays 13, at the three friction positions are removed, and at the three auxiliary rollers are at the three friction positions, and at the three friction roller 13 are arranged, the clay attached to the other position on the outer circumferential surface of the upper auxiliary wheel 62 is rotated to the scraping position of the upper blade 74, and the clay on the upper auxiliary wheel 62 is completely removed as the upper blade 74 rises again.
When the plough frame 2 turns 360 degrees again, the upper auxiliary wheel 62 and the upper plough share 4 turn downwards (the whole upper auxiliary wheel assembly 6 is changed from the upper part to the lower part and the whole lower auxiliary wheel assembly 7 is changed from the upper part), the upper plough share 4 is inserted into the soil to be responsible for turning the soil, and the upper auxiliary wheel 62 falls on the soil at the opposite side of the upper plough share 4 to be responsible for supporting the plough frame 2 and is assisted in the stable advancing of the plough frame 2. When the upper auxiliary wheel 62 advances along the soil, the driven sprocket 93 is driven by the shaft of the upper auxiliary wheel 62, the driving sprocket 92 is driven by the driven sprocket 93 and the chain 94, the eccentric wheel 95 is driven by the shaft of the driving sprocket 92, when the protruding part on the eccentric wheel 95 rotates to be in contact with the upper driving wheel 65, the upper driving wheel 65 is pushed to rise, the upper driving wheel 65 pushes the upper driving rod 63 to rise, the lower shovel plate 64 is pushed by the upper driving rod 63 to rise, and when the lower shovel plate 64 rises, the lower auxiliary wheel 72 acts relative to the outer circle surface of the lower auxiliary wheel 72, so that the clay attached to the lower auxiliary wheel 72 automatically falls off when the lower auxiliary wheel 72 is used as an auxiliary along the soil, thereby replacing manpower and improving the working efficiency. Similarly, after the clay at a certain outer circumferential position of the lower auxiliary wheel 72 is cleaned by the lower shovel plate 64, the lower auxiliary wheel 72 is eccentrically weightless and rotates, so that the clay attached to other positions on the outer circumferential surface of the lower auxiliary wheel 72 rotates to the shoveling position of the lower shovel plate 64, and the clay on the lower auxiliary wheel 72 is thoroughly cleaned as the lower shovel plate 64 ascends again.
The weight reducing cavity 672 is arranged inwards from the outer surfaces of the upper auxiliary wheel 62 and the lower auxiliary wheel 72, the weight reducing cavity 672 is provided with the weight reducing holes 673 on the inner surfaces of the upper auxiliary wheel 62 and the lower auxiliary wheel 72, the weight reducing holes 673 are at least three in annular arrays, and when the upper auxiliary wheel 62 and the lower auxiliary wheel 72 are manufactured, materials are reduced, and the casting process can be completed, so that the cost is reduced. In addition, the weight reduction cavities 672 are formed in the upper and lower auxiliary wheels 62 and 72, so that not only weight reduction and cost reduction are achieved, but also ribs 674 are formed between two adjacent weight reduction holes 673 on the inner surfaces of the upper and lower auxiliary wheels 62 and 72, rotating rods 12 are mounted on the ribs 674, one ends of the rotating rods 12 extend into the weight reduction cavities 672 and are provided with friction rollers 13, toothed plates 14 are welded on the upper and lower welded pipes 61 and 71, and an auxiliary gear 15 is mounted on the other end of one rotating rod 12. The friction roller 13 is conical, and friction textures are formed on the friction roller 13 along the conical direction.
It is understood that, when the lower auxiliary wheel 72 and the upper auxiliary wheel 62 move along the soil as a support, all the friction rollers 13 are rotated, wherein the friction rollers 13 with the auxiliary gear 15 rotate the auxiliary gear 15 to the toothed plate 14, the auxiliary gear 15 rotates due to meshing with the toothed plate 14, the auxiliary gear 15 rotates with the friction rollers 13, the friction rollers 13 are positioned in the weight reducing cavities 672 of the lower auxiliary wheel 72 and the upper auxiliary wheel 62, when the lower auxiliary wheel 72 and the upper auxiliary wheel 62 move along the soil in a rotating way, the clay is inevitably adhered to the weight reducing cavities 672, the friction rollers 13 destroy the clay once rotated, the clay becomes loose in the weight reducing cavities 672, the clay becomes loose by the rotation of the friction rollers 13, the clay becomes loose by the friction textures, the weight reducing cavities 67 are opened, the cost of the upper auxiliary wheel 62 and the lower auxiliary wheel 72 is saved, and when the upper auxiliary wheel 62 and the lower auxiliary wheel 62 are not adhered to the upper end of the upper roller 62 or the lower auxiliary wheel 62, the upper end of the upper shovel 72 is not turned over, and the upper end of the upper shovel is not turned over, and the upper end of the upper and the lower auxiliary wheel 62 is not turned over, and the upper end of the upper and the upper end of the upper auxiliary wheel 62 is provided.
As shown in fig. 2 and 4, the first inclined surface 641 and the second inclined surface 741 are provided with a discharge passage 671 along the inclined direction thereof, and clay falls down through the discharge passage 671 during the shoveling operation of the lower blade 64 or the upper blade 74.
As shown in fig. 6, a through hole 81 is formed in the guide seat 8, the upper driving rod 63 and the lower driving rod 73 pass through and are assembled in the through hole 81, the baffle plate 10 is welded on the upper driving rod 63 and the lower driving rod 73, the springs 11 are sleeved on the upper driving rod 63 and the lower driving rod 73, a stepped hole 82 is formed in the through hole 81, the springs 11 are filled in the stepped hole 82, and two ends of the springs 11 are elastically connected between the baffle plate 10 and the hole bottoms of the stepped hole 82. When the upper driving rod 63 or the lower driving rod 73 ascends, the baffle plate 10 is used for pushing the spring 11 to compress and shorten, and when the protruding part on the eccentric wheel 95 rotates to be separated from the upper driving wheel 65 or the lower driving wheel 75, the spring 11 is released for a length, and the baffle plate 10 is used for pushing the upper driving rod 63 and the lower driving rod 73 to reset, so that the lower shovel plate 64 or the upper shovel plate 74 automatically completes one shovel action aiming at the outer circular surface of the upper auxiliary wheel 62 or the lower auxiliary wheel 72.
The above orientation is not intended to represent a specific orientation of each component in the present embodiment, but the present embodiment is merely for convenience of description of the embodiments, and is set by referring to the orientation in the drawings, and it is essential that the specific orientation of each component is described in terms of its actual installation and actual use and orientation that are habitual to those skilled in the art, and this is described in detail.
The above-described embodiments are provided to further explain the objects, technical solutions, and advantageous effects of the present invention in detail. It should be understood that the foregoing is only illustrative of the present invention and is not intended to limit the scope of the present invention. It should be noted that any modifications, equivalent substitutions, improvements, etc. made by those skilled in the art without departing from the spirit and principles of the present invention are intended to be included in the scope of the present invention.
The above embodiments are only for illustrating the technical solution of the present invention, and are not limiting.