Belt conveyor arranged on a continuously sloping terrain

Abstract

The utility model discloses a belt conveyer, especially discloses a belt conveyer arranged on continuous variable-slope topography, belongs to material conveying equipment design and manufacture installation technical field. Provide a kind of belt conveyer arranged on continuous variable-slope topography that can be adapted to various topography slope appearance installation. The belt conveyer includes belt conveyer body, the belt conveyer further include composite support adjusting installation system, and the belt conveyer body is arranged on continuous variable-slope topography through the composite support adjusting installation system and the slope face of corresponding position and the foundation of corresponding position are adapted. At least the arrangement height of each variable-slope topography position belt conveyer body is adjusted and determined through composite support adjusting installation system.

Description

Technical Field

[0001] This utility model relates to a belt conveyor, and more particularly to a belt conveyor arranged on continuously changing slope terrain, belonging to the field of material conveying equipment design, manufacturing and installation technology. Background Technology

[0002] Belt conveyors are powerful tools for transporting stones. They can quickly transport stones from one end to the other. However, existing belt conveyors are only suitable for a limited range of applications and can only be installed and used in flat areas. When facing continuously changing slopes, the belt conveyor is difficult to install quickly and securely on such terrains because the areas it supports are at different heights and the foundations have varying hardness. Utility Model Content

[0003] The technical problem to be solved by this utility model is to provide a belt conveyor that can be installed on various terrain slopes and arranged on continuously changing slope terrain.

[0004] The technical solution adopted to solve the above-mentioned technical problems is: a belt conveyor arranged on a continuously changing slope terrain, including a belt conveyor body, and the belt conveyor also includes a composite support adjustment and installation system. The belt conveyor body is arranged on the continuously changing slope terrain in accordance with the slope surface and the foundation at the corresponding positions through the composite support adjustment and installation system; at least the arrangement height of the belt conveyor body at each slope terrain position is determined by adjusting the composite support adjustment and installation system.

[0005] Furthermore, the belt conveyor body includes a conveyor belt, a conveyor support frame, and a conveyor drive motor. The conveyor belt is movably arranged on the conveyor support frame, and the power output end of the conveyor drive motor is connected to the conveyor belt through the conveyor support frame. The belt conveyor body is fixedly connected to the corresponding position of the composite support adjustment and installation system through the conveyor support frame at the corresponding position.

[0006] The preferred embodiment of the above scheme is that the composite support adjustment and installation system includes six or more composite support adjustment and installation frames. Along the length direction, each side edge of the belt conveyor body is supported on the corresponding slope surface of the continuous slope terrain by at least three sets of composite support adjustment and installation frames. The installation height of the belt conveyor body at at least the slope terrain location is determined by adjusting the composite support adjustment and installation frames arranged at the corresponding positions.

[0007] Furthermore, each set of composite support adjustment mounting frames includes a foundation connection component and a lifting adjustment mounting component. The lower end of the lifting adjustment mounting component is arranged on the foundation of the continuously changing slope terrain at a specified position through the foundation connection component, and the upper end of the lifting adjustment mounting component is hinged to the corresponding position of the belt conveyor body.

[0008] The preferred embodiment of the above scheme is that the foundation connection component includes a base plate and a foundation connector. The foundation connector is connected to the lower end of the lifting and adjusting installation component through the base plate, and the base plate is arranged in the foundation at the corresponding position through the foundation connector.

[0009] Furthermore, the foundation connector includes connecting bolts, a support plate, and a reinforcing column. The base plate and the support plate are provided with mutually compatible connecting holes. The reinforcing column is arranged on the support plate. The support plate is detachably connected as a whole through the connecting holes and connecting bolts. The reinforcing column is inserted into the foundation with a cover layer. Alternatively, the foundation connector includes connecting bolts and connecting holes are provided on the base plate. The base plate is arranged on the rock foundation through the connecting bolts and connecting holes.

[0010] The preferred embodiment of the above scheme is that the lifting and adjusting installation assembly includes a connecting part group and a threaded support adjusting part group. The upper end of the threaded support adjusting part group is hinged to the upper belt conveyor body through the connecting part group, and the lower end of the threaded support adjusting part group is supported on the base plate.

[0011] Furthermore, the threaded support adjustment assembly includes a handle, an internal threaded cylinder, an adjusting screw, and a support stud. The two ends of the internal threaded cylinder are respectively provided with adjusting connecting threads with opposite directions of rotation. The support stud is arranged on the base plate. The adjusting screw is screwed into the internal threaded cylinder from the upper end through the adjusting connecting thread, and the support stud is screwed into the internal threaded cylinder from the lower end through the adjusting connecting thread. The upper end of the adjusting screw is hinged to the belt conveyor body through the connecting assembly, and the internal threaded cylinder is driven to rotate by the handle.

[0012] The preferred embodiment of the above scheme is that the connecting assembly includes a rotating rod, a connecting block, an adjusting block, and a connecting bolt. A fixing block is provided at the corresponding connection point of the belt conveyor body. A square nut is provided at the upper end of the adjusting screw. The connecting block arranged on the adjusting block is hinged to the fixing block through the rotating rod. The adjusting block covered by the square nut is fixedly connected to the corresponding square nut through the connecting bolt.

[0013] Furthermore, the lifting and adjusting mounting assembly consists of a hydraulic extension rod.

[0014] The beneficial effects of this utility model are as follows: The technical solution provided in this application is based on the existing belt conveyor body. By adding a composite support adjustment and installation system, the belt conveyor body is constructed and arranged on continuously changing slope terrain in accordance with the slope and foundation at the corresponding locations through the composite support adjustment and installation system. Simultaneously, during the installation of the belt conveyor body, the arrangement height of the belt conveyor body at each location on the changing slope terrain is adjusted and determined through the composite support adjustment and installation system. Thus, because the height of the belt conveyor body can be adjusted according to the changing terrain when arranged through the composite support adjustment and installation system, the belt conveyor of this application can adapt to installation on various terrain slopes to meet various installation conditions at material conveying sites. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the belt conveyor of the present invention, which is arranged on a continuously changing slope terrain. Figure 2 This is a three-dimensional structural diagram of the belt conveyor of this utility model arranged on a continuously changing slope terrain; Figure 3 for Figure 2 Enlarged view of part A; Figure 4 This is a detailed drawing of the connecting parts assembly involved in the belt conveyor of this utility model arranged on continuously changing slope terrain; Figure 5 This is a detailed drawing of the foundation connection components involved in the belt conveyor of this utility model, which is arranged on a continuously changing slope terrain.

[0016] The following are marked in the diagram: 1. Continuous slope terrain; 2. Conveyor belt; 3. Conveyor support frame; 4. Conveyor drive motor; 5. Base plate; 6. Connecting bolt; 7. Support plate; 8. Reinforcing column; 9. Handle; 10. Internal threaded cylinder; 11. Adjusting screw; 12. Support stud; 13. Rotating rod; 14. Connecting block; 15. Adjusting block; 16. Fixing block; 17. Square nut. Detailed Implementation

[0017] like Figures 1-5The diagram illustrates a belt conveyor adapted to various terrain slopes and arranged on continuously changing slope terrain, as provided by this utility model. The belt conveyor includes a conveyor body and a composite support adjustment and installation system. The conveyor body is arranged on the continuously changing slope terrain 1 in accordance with the slope and foundation at corresponding locations via the composite support adjustment and installation system; the arrangement height of the conveyor body at at least each location on the changing slope is determined by adjustment through the composite support adjustment and installation system. The technical solution provided in this application is based on an existing belt conveyor body, and the belt conveyor of this application is constructed by adding a composite support adjustment and installation system, allowing the conveyor body to be arranged on the continuously changing slope terrain in accordance with the slope and foundation at corresponding locations via the composite support adjustment and installation system; simultaneously, during the installation of the conveyor body, the arrangement height of the conveyor body at at least each location on the changing slope is determined by adjustment through the composite support adjustment and installation system. Thus, because the height of the belt conveyor body of this application can be adjusted according to the deformable terrain when arranged through the composite support adjustment installation system, the belt conveyor of this application can adapt to installation on various terrain slopes to meet various installation conditions at the material conveying site. In conjunction with the existing technology, the belt conveyor body of this application includes a conveyor belt 2, a conveyor support frame 3, and a conveyor drive motor 4. The conveyor belt 2 is movably arranged on the conveyor support frame 3, and the power output end of the conveyor drive motor 4 is connected to the conveyor belt 2 through the conveyor support frame 3. The belt conveyor body is fixedly connected to the corresponding position of the composite support adjustment installation system through the corresponding position of the conveyor support frame 3.

[0018] Accordingly, as the main improvement of this application, in order to facilitate adaptation to the existing structure of the belt conveyor body and to be suitable for adjustment and installation on the continuously changing slope terrain 1, the composite support adjustment and installation system of this application includes six or more sets of composite support adjustment and installation frames. Along the length direction, each side edge of the belt conveyor body is supported on the corresponding slope surface of the continuously changing slope terrain 1 by at least three sets of composite support adjustment and installation frames. The installation height of the belt conveyor body at at least the location of the changing slope terrain is determined by adjusting the composite support adjustment and installation frames arranged at the corresponding positions. In this case, the preferred method is that each set of composite support adjustment and installation frames includes a foundation connection component and a lifting adjustment and installation component. The lower end of the lifting adjustment and installation component is arranged on the foundation of the continuously changing slope terrain at the specified position through the foundation connection component, and the upper end of the lifting adjustment and installation component is hinged to the corresponding position of the belt conveyor body. Meanwhile, to address the different geological foundations at different locations in the continuously varying slope terrain 1, the foundation connection assembly of this application includes a base plate 5 and foundation connectors. The foundation connectors are connected to the lower end of the lifting and adjusting installation assembly via the base plate 5, and the base plate 5 is arranged in the foundation at the corresponding location via the foundation connectors. More specifically, the foundation connectors include connecting bolts 6, support plates 7, and reinforcing columns 8. Interdependent connecting holes are provided on the base plate 5 and support plates 7. The reinforcing columns 8 are arranged on the support plates 7, and the support plates 7 are detachably connected as a whole via the connecting holes and connecting bolts 6. The reinforcing columns 8 are inserted into the foundation with a covering layer; or the foundation connectors include connecting bolts 6, and connecting holes are provided on the base plate 5. The base plate 5 is arranged on the rock foundation via the connecting bolts 6 and connecting holes.

[0019] Furthermore, to facilitate connection and improve the operability of installation and adjustment, the lifting and adjusting installation assembly of this application includes a connecting part group and a threaded support adjusting part group. The upper end of the threaded support adjusting part group is hinged to the upper belt conveyor body through the connecting part group, and the lower end of the threaded support adjusting part group is supported on the base plate 5. Specifically, the threaded support adjusting part group includes a handle 9, an internal threaded cylinder 10, an adjusting screw 11, and a support stud 12. The two ends of the internal threaded cylinder 10 are respectively provided with adjusting connecting threads with opposite directions. The support stud 12 is arranged on the base plate 5. The adjusting screw 11 is screwed into the internal threaded cylinder 10 from the upper end through the adjusting connecting thread, and the support stud 12 is screwed into the internal threaded cylinder 10 from the lower end. The upper end of the adjusting screw 11 is hinged to the belt conveyor body through the adjusting connecting thread via the connecting part group. The internal threaded cylinder 10 is driven to rotate by the handle 9. The connecting assembly includes a rotating rod 13, a connecting block 14, an adjusting block 15, and a connecting bolt 6. A fixing block 16 is provided at the corresponding connection point of the belt conveyor body. A square nut 17 is provided at the upper end of the adjusting screw 11. The connecting block 14 arranged on the adjusting block 15 is hinged to the fixing block 16 through the rotating rod 13. The adjusting block 15 covered by the square nut 17 is fixedly connected to the corresponding square nut 17 through the connecting bolt 6.

[0020] Of course, depending on the actual conditions of the installation site and the specific usage, the lifting and adjusting installation component of this application can also be composed of a single hydraulic extension rod.

[0021] In summary, the technical solution provided in this application also has the following advantages: 1. The support mechanism used in this belt conveyor can change the support height of the belt conveyor, thereby providing stable support for the belt conveyor on terrains of different heights. Furthermore, the support mechanism adopts different support methods when dealing with rocks and soft soil, avoiding difficulties in the installation of the belt conveyor and ensuring the installation efficiency and quality of the belt conveyor.

[0022] 2. The support mechanism used in this belt conveyor adopts a splicing assembly, which can splice different support components when facing different terrains, greatly improving the adaptability of the belt conveyor in continuous slope terrain. In addition, the splicing support mechanism facilitates the quick replacement of damaged support components, improving the replacement efficiency.

[0023] The technical solution of this application will be further described below through specific embodiments: The purpose of this utility model is to provide a belt conveyor for crossing continuously changing slope terrain, so as to solve the problem mentioned in the background art that existing belt conveyors are difficult to quickly and securely install on continuously changing slope terrain due to the uneven height of the supported areas and the different hardness of the supporting materials in the supported areas.

[0024] To achieve the above objectives, this utility model provides the following technical solution: a belt conveyor for traversing continuously changing slope terrain, comprising a belt support frame, a belt body movably connected to the surface of the belt support frame, a support mechanism at the bottom of the belt support frame, the support mechanism including a fixing block, the fixing block being fixedly connected to the bottom of the belt support frame, a rotating rod rotatably connected to the surface of the fixing block, a connecting block fixedly connected to the surface of the rotating rod, an adjusting block fixedly connected to the surface of the connecting block, a square nut engaging at the bottom of the adjusting block, a first bolt threaded onto the square nut, a screw fixedly connected to the bottom of the square nut, an internally threaded cylinder threaded onto the surface of the screw, a handle fixedly connected to the surface of the internally threaded cylinder, a stud threaded to the bottom of the internally threaded cylinder, a base plate fixedly connected to the bottom of the stud, a support plate contacting the bottom of the base plate, a reinforcing pile fixedly connected to the bottom of the support plate, a second bolt perforated on the surface of the base plate, and a locking nut threaded onto the surface of the second bolt.

[0025] The connecting block rotates on the surface of the fixed block via a rotating rod. The connecting block drives the adjusting block to rotate at the bottom of the belt support frame. A limit groove is provided at the bottom of the adjusting block, and the square nut is inserted into the limit groove of the adjusting block.

[0026] The adjusting block has a circular hole on one side of the limiting groove. The first bolt passes through the circular hole of the adjusting block and is threadedly connected to the square nut on the limiting groove of the adjusting block. The first bolt restricts the position of the square nut on the adjusting block.

[0027] The bottom of the internally threaded cylinder has a threaded groove, and the stud is threadedly connected to the threaded groove of the internally threaded cylinder. The base plate is installed at the bottom of the internally threaded cylinder through the stud, and the internally threaded cylinder drives the base plate to rise and fall by rotating on the screw.

[0028] The base plate has multiple sets of limiting holes on its surface, and the limiting holes on the base plate are evenly distributed in a circle. The support plate has circular holes on its surface, and the circular holes on the support plate are evenly distributed in a circle. The base plate and the support plate are the same size.

[0029] The base plate can rotate at the bottom of the internally threaded cylinder via a stud, and the rotation of the base plate makes the circular hole of the base plate correspond to the circular hole of the support plate.

[0030] The second bolt passes through the circular holes of both the base plate and the support plate. The locking nut, in conjunction with the second bolt, limits the base plate and the support plate together. The reinforcing pile is limited to the bottom of the base plate by the support plate.

[0031] Example 1 like Figure 1-5 The image shown is a specific embodiment provided by this utility model: A belt conveyor for traversing continuously varying slope terrain includes a belt support frame, a belt body movably connected to the surface of the belt support frame, and a support mechanism at the bottom of the belt support frame. The support mechanism includes a fixed block fixedly connected to the bottom of the belt support frame, a rotating rod rotatably connected to the surface of the fixed block, a connecting block fixedly connected to the surface of the rotating rod, an adjusting block fixedly connected to the surface of the connecting block, a square nut engaged at the bottom of the adjusting block, a first bolt threaded onto the square nut, a screw rod fixedly connected to the bottom of the square nut, and an internally threaded cylinder threaded onto the surface of the screw rod. The surface is fixedly connected to a handle, the bottom of the internally threaded cylinder is threadedly connected to a stud, the bottom of the stud is fixedly connected to a base plate, the bottom of the base plate is in contact with a support plate, the bottom of the support plate is fixedly connected to a reinforcing pile, a second bolt is perforated on the surface of the base plate, and a lock nut is threaded on the surface of the second bolt. This support mechanism can adjust the support height, thus providing effective support at different heights. Furthermore, when the entire support structure is assembled, it can use different methods to provide support when facing soft soil and rocks, thereby achieving effective and stable support for the entire belt conveyor.

[0032] The connecting block rotates on the surface of the fixed block via a rotating rod. The connecting block drives the adjusting block to rotate at the bottom of the belt support frame. A limit groove is provided at the bottom of the adjusting block. A square nut is inserted into the limit groove of the adjusting block. The direction of the adjusting block at the bottom of the belt support frame is adjusted by rotation. Since the angle of the square nut is relatively fixed, the square nut can be easily inserted into the limit groove of the adjusting block by adjusting its direction.

[0033] A circular hole is provided on one side of the limiting groove of the adjusting block. The first bolt passes through the circular hole of the adjusting block and is threadedly connected to the square nut on the limiting groove of the adjusting block. The first bolt restricts the position of the square nut on the adjusting block. Since the positions of the screw and the square nut remain relatively unchanged, multiple sets of adjusting blocks are provided at the bottom of the belt support frame. The square nut supports the belt support frame through multiple sets of adjusting blocks, thus preventing the fixed block from rotating on the adjusting block.

[0034] The bottom of the internally threaded cylinder has a threaded groove, and the stud is threaded onto the threaded groove of the internally threaded cylinder. The base plate is installed at the bottom of the internally threaded cylinder through the stud. The internally threaded cylinder rotates on the screw to drive the base plate to rise and fall. The base plate can descend to the bottom of the internally threaded cylinder and contact the surface of the support plate, thus facilitating the connection operation between the base plate and the support plate.

[0035] The base plate has multiple sets of limiting holes on its surface, and these holes are evenly distributed in a circular pattern. The support plate has circular holes on its surface, and these holes are also evenly distributed in a circular pattern. The base plate and the support plate are the same size. Reinforcing piles are inserted into the soft soil to restrict the position of the support plate. The reinforcing piles support the base plate in the soft soil through the support plate. When facing rock, there is no need to install reinforcing piles and support plates. A flat surface is ground on the rock, and the base plate is placed on the rock surface. The base plate is then directly fixed to the rock with rock anchor bolts.

[0036] The base plate can rotate at the bottom of the internal threaded cylinder via studs. By rotating the base plate, the circular holes of the base plate and the circular holes of the support plate correspond to each other. At this time, the base plate and the support plate can be easily fixed and installed by the second bolt and the lock nut.

[0037] The second bolt passes through the circular holes in both the base plate and the support plate. The locking nut, in conjunction with the second bolt, keeps the base plate and the support plate together. The reinforcing pile is then positioned at the bottom of the base plate via the support plate. At this point, the reinforcing pile supports the internal threaded cylinder via the base plate and the support plate. The internal threaded cylinder supports the belt support frame via the screw and the adjusting block, thus providing stable and effective support for the belt conveyor on continuously changing slope terrain.

[0038] Working principle: By rotating the internal threaded cylinder on the screw, the overall height between the screw and the internal threaded cylinder is changed. When encountering soft soil, reinforcement piles are first driven into the soil to support the support plate on the ground. The base plate is then placed on the support plate, and the angle of the base plate is adjusted by rotating the base plate at the bottom of the internal threaded cylinder using a stud. A second bolt is then inserted through the circular holes in both the base plate and the support plate, and the second bolt is used to fix the base plate and support plate together. At this point, the support plate supports the internal threaded cylinder through the base plate. When encountering rock, reinforcement piles are used to directly support the base plate. With the rock anchor bolts directly fixed to the rock, the adjusting block at the bottom of the belt support frame rotates at the bottom of the belt support frame through the connecting block, rotating rod and fixing block. The adjusting block rotates so that the limiting groove of the adjusting block is aligned with the square nut, and then the first bolt passes through the circular hole of the adjusting block and is threadedly connected to the square nut. At this time, the square nut supports the belt support frame through the adjusting block. Since there are multiple sets of adjusting blocks, the rotation of the belt support frame on the adjusting block is restricted, so that the support structure can support the belt conveyor on continuously changing slope terrain.

Claims

1. A belt conveyor deployed on continuously varying slope terrain, comprising a belt conveyor body, characterized in that: The belt conveyor also includes a composite support adjustment and installation system. The belt conveyor body is arranged on the continuous variable slope terrain (1) in accordance with the slope and foundation at the corresponding location through the composite support adjustment and installation system. The arrangement height of the belt conveyor body at each variable slope location is determined by adjusting the composite support adjustment and installation system.

2. The belt conveyor arranged on continuously changing slope terrain according to claim 1, characterized in that: The belt conveyor body includes a conveyor belt (2), a conveyor support frame (3) and a conveyor drive motor (4). The conveyor belt (2) is movably arranged on the conveyor support frame (3). The power output end of the conveyor drive motor (4) is connected to the conveyor belt (2) through the conveyor support frame (3). The belt conveyor body is fixedly connected to the corresponding position of the composite support adjustment and installation system through the corresponding position of the conveyor support frame (3).

3. The belt conveyor arranged on continuously varying slope terrain according to claim 1 or 2, characterized in that: The composite support adjustment and installation system includes six or more composite support adjustment and installation frames. Along the length direction, each side edge of the belt conveyor body is supported on the corresponding slope surface of the continuous variable slope terrain (1) by at least three sets of composite support adjustment and installation frames. The installation height of the belt conveyor body at the variable slope terrain position is determined by adjusting the composite support adjustment and installation frames arranged at the corresponding positions.

4. The belt conveyor arranged on continuously changing slope terrain according to claim 3, characterized in that: Each set of composite support adjustment mounting frames includes a foundation connection component and a lifting adjustment mounting component. The lower end of the lifting adjustment mounting component is arranged on the foundation of the continuously changing slope terrain at a specified position through the foundation connection component, and the upper end of the lifting adjustment mounting component is hinged to the corresponding position of the belt conveyor body.

5. The belt conveyor arranged on continuously changing slope terrain according to claim 4, characterized in that: The foundation connection assembly includes a base plate (5) and a foundation connector. The foundation connector is connected to the lower end of the lifting and adjusting installation assembly through the base plate (5). The base plate (5) is arranged in the foundation at the corresponding position through the foundation connector.

6. The belt conveyor arranged on continuously changing slope terrain according to claim 5, characterized in that: The foundation connector includes connecting bolts (6), support plates (7) and reinforcing columns (8). The base plate (5) and support plates (7) are provided with mutually compatible connecting holes. The reinforcing columns (8) are arranged on the support plates (7). The support plates (7) are detachably connected as a whole through the connecting holes and connecting bolts (6). The reinforcing columns (8) are inserted into the foundation with a cover layer. Alternatively, the foundation connector includes connecting bolts (6), and the base plate (5) is provided with connecting holes. The base plate (5) is arranged on the rock foundation through the connecting bolts (6) and connecting holes.

7. The belt conveyor arranged on continuously changing slope terrain according to claim 6, characterized in that: The lifting and adjusting installation assembly includes a connector group and a threaded support adjusting group. The upper end of the threaded support adjusting group is hinged to the upper belt conveyor body through the connector group, and the lower end of the threaded support adjusting group is supported on the base plate (5).

8. The belt conveyor arranged on continuously changing slope terrain according to claim 7, characterized in that: The threaded support adjustment assembly includes a handle (9), an internal threaded cylinder (10), an adjusting screw (11), and a support stud (12). The two ends of the internal threaded cylinder (10) are respectively provided with adjusting connecting threads with opposite directions of rotation. The support stud (12) is arranged on the base plate (5). The adjusting screw (11) is screwed into the internal threaded cylinder (10) from the upper end through the adjusting connecting thread. The support stud (12) is screwed into the internal threaded cylinder (10) from the lower end through the adjusting connecting thread. The upper end of the adjusting screw (11) is hinged to the belt conveyor body through the connecting assembly. The internal threaded cylinder (10) is driven to rotate by the handle (9).

9. The belt conveyor arranged on continuously varying slope terrain according to claim 8, characterized in that: The connecting assembly includes a rotating rod (13), a connecting block (14), an adjusting block (15), and a connecting bolt (6). A fixing block (16) is provided at the corresponding connection point of the belt conveyor body. A square nut (17) is provided at the upper end of the adjusting screw (11). The connecting block (14) arranged on the adjusting block (15) is hinged to the fixing block (16) through the rotating rod (13). The adjusting block (15) covered by the square nut (17) is fixedly connected to the corresponding square nut (17) through the connecting bolt (6).

10. The belt conveyor arranged on continuously changing slope terrain according to claim 6, characterized in that: The lifting and adjusting mounting assembly consists of a hydraulic extension rod.

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