Combined water and soil conservation device

Abstract

The utility model relates to the technical field of combined type water and soil conservation devices, and solves the problems that the whole structure is complex, installation is inconvenient, storage is tedious, and transportation operation is not facilitated. The combined type water and soil conservation device comprises surrounding plates, the side faces of the surrounding plates are hinged to another surrounding plate through hinges, the adjacent surrounding plates are folded, rotated, stacked and stored through the hinges, and connecting assemblies are arranged on the side faces of the surrounding plates. The connecting assembly comprises a connecting groove integrally formed with the surrounding plate and a connecting plate capable of sliding along the side face of the connecting groove, a plurality of connecting holes distributed in a rectangular array mode are formed in the side face of the connecting groove, first springs are embedded in the connecting holes, and the tail ends of the first springs are fixedly connected with first limiting beans. Matched grooves are formed in the positions, corresponding to the first limiting beans, of the side face of the connecting plate, and transverse splicing of the multiple surrounding plates is achieved through clamping connection of the first limiting beans and the grooves; a sliding groove penetrating through the two ends is formed in the surrounding plate.

Description

Technical Field

[0001] This utility model relates to the technical field of combined soil and water conservation devices, specifically a combined soil and water conservation device. Background Technology

[0002] A vacuum-evacuum-capable tubular furnace disclosed in CN221031886U includes: several first rails and two second rails, with multiple first rails that can be snapped between the two second rails; each of the first rails and the two second rails is provided with a sliding groove, and each sliding groove is slidably connected to several sliding seats; each sliding seat is slidably connected to a fixed baffle, and a positioning component is provided between the fixed baffle and the sliding seat, the positioning component being able to connect and fix the fixed baffle and the sliding seat.

[0003] The device provides a combined soil and water conservation system. A movable sliding seat moves the fixed baffle connected to it, thereby adjusting the distance between the fixed baffles. Then, the sliding seat is connected and fixed to the chute by positioning bolts, thereby positioning the fixed baffles.

[0004] The technical solution in the prior art has the effect of adjustable baffle spacing, but the overall structure is complex and not easy to install quickly, and the storage is cumbersome and not conducive to transportation. Utility Model Content

[0005] To address the shortcomings of existing technologies, this utility model provides a combined soil and water conservation device that solves the problems of complex overall structure that makes installation inconvenient and quick, as well as cumbersome storage and transportation.

[0006] To achieve the above objectives, this utility model provides the following technical solution: a combined soil and water conservation device, including a surrounding panel, with another surrounding panel hinged to the side of the surrounding panel via a hinge, and adjacent surrounding panels can be folded, rotated, stacked and stored together via the hinge, and a connecting component is provided on the side of the surrounding panel;

[0007] The connecting assembly includes a connecting groove integrally formed with the surrounding panel and a connecting plate that can slide along the side of the connecting groove. The side of the connecting groove is provided with a plurality of connecting holes arranged in a rectangular array. A first spring is embedded in the connecting hole, and a first limiting bead is fixedly connected to the end of the first spring. The side of the connecting plate is provided with a matching groove corresponding to the position of the first limiting bead. The horizontal splicing of multiple surrounding panels is achieved by the engagement of the first limiting bead with the groove. The interior of the surrounding panel is provided with a sliding groove that extends through both ends, and a plug rod assembly is slidably installed in the sliding groove.

[0008] The insertion rod assembly includes an insertion rod with axially symmetrically distributed insertion holes on its surface. A second spring is installed in the insertion holes, and a second limiting bead is connected to the end of the second spring. The side of the enclosure is provided with a limiting hole that matches the shape of the second limiting bead. The position of the insertion rod is fixed by the engagement of the second limiting bead with the limiting hole.

[0009] A magnet is fixed to the top of the enclosure, and the top of the insertion rod is made of magnetic material. The insertion rod is moved so that its top is magnetically fixed to the magnet.

[0010] In a specific embodiment, the insertion holes on the insertion surface of the insertion rod assembly are symmetrically distributed on both sides of the insertion rod axis. The second spring is compressed in the insertion hole, pushing the second limiting bead to protrude outward and form an elastic engagement with the limiting hole on the side of the enclosure.

[0011] In one specific embodiment, when the top end of the insertion rod is magnetically fixed to the magnet, the insertion rod is completely retracted into the groove of the enclosure, and the second limiting bead is separated from the limiting hole.

[0012] In a specific embodiment, the rectangular array of connecting holes on the side of the connecting groove are arranged at equal intervals along the length of the connecting groove, and the first limiting bead is locked at multiple points with the groove on the side of the connecting plate by the elastic extension and contraction of the first spring.

[0013] In one specific embodiment, the second limiting bead is configured to compress the second spring and exit the limiting hole when pressed by an external force, thereby releasing the sliding restriction of the insertion rod, allowing the insertion rod to move along the slide groove to the target position and then re-engage with the corresponding limiting hole through the second limiting bead.

[0014] In one specific embodiment, the hinge is fixedly connected to the middle of the side of the panel, and adjacent panels are flipped and folded through the rotation axis of the hinge, so that multiple panels are stacked and stored after being folded.

[0015] Compared with the prior art, this utility model provides a combined soil and water conservation device, which has the following beneficial effects:

[0016] In the technical solution disclosed in this utility model, the hinge structure on the side of the enclosure panel enables the flipping, folding, and stacking of adjacent enclosure panels for storage, reducing the overall space occupied by the device and improving transportation convenience; the sliding cooperation between the connecting plate and the connecting groove in the connecting assembly, combined with the elastic engagement of the first limiting bead and the groove, enables the rapid lateral splicing of multiple enclosure panels without the need for additional fasteners; the insertion rod assembly fixes the position of the insertion rod by the elastic engagement of the second limiting bead and the limiting hole on the side of the enclosure panel, allowing the insertion rod to slide and adjust the insertion depth according to the terrain requirements to enhance the stability of soil and water conservation; the magnetic material at the top of the insertion rod and the magnetic attraction of the magnet at the top of the enclosure panel enable the insertion rod to be completely stored inside the sliding groove, avoiding the insertion rod being exposed during transportation and causing structural interference; the multi-point locking mechanism formed by the rectangular array connecting holes on the side of the connecting groove and the first limiting bead ensures that the spliced ​​enclosure panels can maintain reliable connection strength under different length requirements.

[0017] With the connecting component and insert rod assembly provided by this utility model, the hinges on the side of the enclosure panel connect adjacent enclosure panels via hinge shafts. During operation, multiple enclosure panels can be flipped and folded along the hinge rotation axis, allowing adjacent enclosure panels to be stacked and fitted together to form a compact stacked storage state, reducing transportation or storage space. The connecting component slides the connecting plate of another enclosure panel into the side of the connecting groove, so that the groove on the side of the connecting plate contacts the first limiting bead at the end of the first spring in the connecting groove. After the first spring is compressed and contracts, it rebounds and drives the first limiting bead to embed into the groove to complete the elastic snap-fit, realizing the rapid horizontal splicing of multiple enclosure panels without the need for additional fasteners. The insert rod assembly presses the second limiting bead on the surface of the insert rod to compress the second spring and disengage it from the limiting hole on the side of the enclosure panel. Then, after sliding the insert rod to the target insertion depth, the second limiting bead is released, and the second spring pushes it back into the corresponding limiting hole to fix the position of the insert rod, adapting to different The terrain meets the requirements for soil and water conservation. When the insertion rod needs to be stored, it is pushed to the top of the chute so that its magnetic tip is attracted and fixed to the magnet on the top of the enclosure. At this time, the insertion rod is completely hidden in the chute and the second limiting bead is separated from the limiting hole. The rectangular array of connecting holes on the side of the connecting groove is evenly distributed along the length direction, so that when the connecting plate is inserted into different positions, the first limiting bead forms a multi-point locking through the elastic expansion and contraction of the groove, ensuring the structural stability after the enclosure is spliced. When multiple enclosures are folded and stored, they are simultaneously flipped and stacked through the rotation axis of the hinge. Combined with the storage state of the insertion rod, a modular unit is formed, which is convenient for centralized transportation or stacked storage to improve the efficiency of repeated deployment of the device. It solves the problem of low installation efficiency caused by complex structure in the prior art, significantly improves the deployment convenience of soil and water conservation device, overcomes the defects of traditional device storage being cumbersome and occupying a lot of space, and makes the overall structure easy to transport and reuse, reducing operation and maintenance costs. Attached Figure Description

[0018] The accompanying drawings, which are included to provide a further understanding of this application and form part of this application, illustrate exemplary embodiments of this application and are used to explain this application, but do not constitute an undue limitation of this application. In the drawings:

[0019] Figure 1 This is a schematic diagram of the overall structure of this utility model;

[0020] Figure 2 This is a schematic diagram of the connecting component structure of this utility model;

[0021] Figure 3 This is a schematic diagram of the insert assembly structure of this utility model;

[0022] Figure 4 This is a schematic diagram of the disassembled structure of this utility model.

[0023] In the diagram: 1. Enclosure panel; 2. Hinge; 3. Connecting assembly; 31. Connecting groove; 32. Connecting plate; 33. First spring; 34. First limit bead; 4. Insert rod assembly; 41. Insert rod; 42. Second spring; 43. Second limit bead; 5. Magnet. Detailed Implementation

[0024] The following will describe in detail the implementation of this application with reference to the accompanying drawings and embodiments, so that the implementation process of how this application uses technical means to solve technical problems and achieve technical effects can be fully understood and implemented accordingly.

[0025] Figures 1-4 In one embodiment of this utility model, a combined soil and water conservation device includes a surrounding panel 1, with another surrounding panel 1 hinged to the side of the surrounding panel 1 via a hinge 2. The adjacent surrounding panels 1 can be folded, rotated, stacked, and stored together via the hinge 2. A connecting component 3 is provided on the side of the surrounding panel 1.

[0026] The specific problem addressed by this embodiment is to solve the issues of complex overall structure that makes quick installation inconvenient, cumbersome storage, and unfavorable transportation operations. This utility model utilizes the hinge 2 hinge structure on the side of the enclosure 1 to achieve the flipping, folding, and stacking of adjacent enclosures 1 for storage, reducing the overall space occupied by the device and improving transportation convenience; the sliding cooperation between the connecting plate 32 and the connecting groove 31 in the connecting assembly 3, combined with the elastic engagement of the first limiting bead 34 and the groove, enables the rapid lateral splicing of multiple enclosures 1 without the need for additional fasteners; the insertion rod assembly 4 fixes the position of the insertion rod 41 by the elastic engagement of the second limiting bead 43 and the limiting hole on the side of the enclosure 1, allowing the insertion rod 41 to slide and adjust the insertion depth according to terrain requirements to enhance soil and water conservation stability; the magnetic material at the top of the insertion rod 41 and the magnetic attraction of the magnet 5 at the top of the enclosure 1 can completely store the insertion rod 41 inside the groove, avoiding the insertion rod 41 being exposed during transportation and causing structural interference; the multi-point locking mechanism formed by the rectangular array connecting holes on the side of the connecting groove 31 and the first limiting bead 34 ensures that the spliced ​​enclosure 1 can maintain reliable connection strength under different length requirements.

[0027] The connecting assembly 3 includes a connecting groove 31 integrally formed with the surrounding panel 1 and a connecting plate 32 that can slide along the side of the connecting groove 31. The side of the connecting groove 31 is provided with a plurality of connecting holes arranged in a rectangular array. A first spring 33 is embedded in the connecting hole, and a first limiting bead 34 is fixedly connected to the end of the first spring 33. The side of the connecting plate 32 is provided with a matching groove corresponding to the position of the first limiting bead 34. The horizontal splicing of multiple surrounding panels 1 is achieved by the engagement of the first limiting bead 34 with the groove. The interior of the surrounding panel 1 is provided with a sliding groove that extends through both ends. The insert rod assembly 4 is slidably installed in the sliding groove. The insert rod assembly 4 includes an insert rod 41. The surface of the insert rod 41 is provided with axially symmetrically distributed insertion holes. A second spring 42 is installed, and the end of the second spring 42 is connected to a second limiting bead 43. The side of the enclosure 1 is provided with a limiting hole that matches the shape of the second limiting bead 43. The position of the insertion rod 41 is fixed by the snap-fit ​​between the second limiting bead 43 and the limiting hole. A magnet 5 is fixedly provided at the top of the enclosure 1. The top of the insertion rod 41 is made of magnetic material. By moving the insertion rod 41, its top is magnetically fixed to the magnet 5. In this specific embodiment, the insertion holes on the surface of the insertion rod 41 of the insertion rod assembly 4 are symmetrically distributed on both sides of the axis of the insertion rod 41. The second spring 42 is in a compressed state in the insertion hole, pushing the second limiting bead 43 to protrude outward and form an elastic snap-fit ​​with the limiting hole on the side of the enclosure 1. The hinges 2 on the side of the enclosure 1 connect adjacent enclosures 1 via hinge shafts. During operation, multiple enclosures 1 can be rotated and folded 180 degrees along the rotation axis of the hinges 2, allowing adjacent enclosures 1 to be stacked and fitted together to form a compact stacked storage state, reducing transportation or storage space. The connecting assembly 3 slides the connecting plate 32 of another enclosure 1 into the side of the connecting groove 31, so that the groove on the side of the connecting plate 32 contacts the first limiting bead 34 at the end of the first spring 33 in the connecting groove 31. After the first spring 33 is compressed and contracts, it rebounds and drives the first limiting bead 34 to embed into the groove to complete the elastic snap-fit, realizing the rapid horizontal splicing of multiple enclosures 1 without the need for additional fasteners. The insertion rod assembly 4 presses the second limiting bead 43 on the surface of the insertion rod 41 to compress the second spring 42 and disengage it from the limiting hole on the side of the enclosure 1. Then, the insertion rod 41 is slid to the target insertion depth and released. The second limiting bead 43 is pushed by the second spring 42 to re-engage into the corresponding limiting hole to fix the position of the insertion rod 41, adapting to the water and soil conservation needs of different terrains; when the insertion rod 41 needs to be stored, the insertion rod 41 is pushed to move to the top of the slide groove so that its magnetic top end is attracted and fixed to the magnet 5 on the top of the enclosure 1. At this time, the insertion rod 41 is completely hidden in the slide groove and the second limiting bead 43 is separated from the limiting hole; the rectangular array of connecting holes on the side of the connecting groove 31 is evenly distributed along the length direction, so that when the connecting plate 32 is inserted into different positions, the first limiting bead 34 can form a multi-point locking by elastically stretching and adapting to the groove, ensuring the structural stability of the enclosure 1 after splicing; when multiple enclosures 1 are folded and stored, they are synchronously flipped and stacked by the rotation axis of the hinge 2, forming a modular unit in combination with the storage state of the insertion rod 41, which is convenient for centralized transportation or stacked storage to improve the efficiency of repeated deployment of the device.

[0028] In this specific embodiment, the hinge 2 is fixedly connected to the middle of the side of the panel 1, and the adjacent panels 1 are flipped and folded through the rotation axis of the hinge 2. After multiple panels 1 are folded, they are stacked and stored in a stacked state.

[0029] During operation, the edge of the panel 1 is held and force is applied to rotate it 180 degrees around the axis of the hinge 2, so that adjacent panels 1 are completely fitted and stacked. When multiple panels 1 are folded, they are magnetically attracted to the inserted rod 41 in the storage state by the magnet 5 at the top of the panel 1 to maintain the stacking alignment, forming a compact modular unit. This structure makes the overall thickness of the device after folding similar to that of a single panel 1, greatly reducing the volume for easy transportation and storage. At the same time, the hinge points of the hinges 2 between the panels 1 are evenly stressed in the stacked state, avoiding deformation of the folded parts. The modular storage unit can be directly stacked and transported or loaded in batches, significantly improving the efficiency of disassembly, assembly and deployment when reused.

[0030] Working principle: The side panels 1 are hinged by the side hinges 2 to form a folding structure. During operation, they are rotated 180 degrees around the hinge 2 axis to make adjacent side panels 1 overlap and fit together. Combined with the magnetic attraction of the top magnet 5 and the storage state insertion rod 41, they are kept aligned to form a compact modular storage unit. When splicing horizontally, the connecting plate 32 of one side panel 1 is inserted into the connecting groove 31 of another side panel 1. The first spring 33 pushes the first limiting bead 34 to lock into the groove on the side of the connecting plate 32 to complete the elastic locking, realizing the rapid extension of multiple side panels 1. Assembly; During soil and water conservation operations, press the second limiting bead 43 on the surface of the insert rod 41 to disengage it from the limiting hole on the side of the enclosure 1. After sliding the insert rod 41 along the groove to the target depth, the second spring 42 rebounds and drives the second limiting bead 43 to re-engage into the limiting hole to fix the insert rod 41. The enclosure 1 is then firmly supported by inserting the insert rod 41 into the ground. During disassembly, reverse the operation to release the connection between the connecting component 3 and the insert rod component 4. Fold the enclosure 1 and use the magnet 5 to attract the insert rod 41 to complete the storage, forming an integrated structure that can be repeatedly transported and deployed.

[0031] The control method of this utility model is automatic control through a controller. The control circuit of the controller can be implemented by simple programming by those skilled in the art. The power supply is also common knowledge in the field. Since this utility model is mainly used to protect mechanical devices, the control method and circuit connection will not be explained in detail.

[0032] It should be noted that, in this document, the terms “comprising,” “including,” or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0033] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A combined water and soil conservation device comprising a fence (1), characterized in that, The side of the enclosure (1) is hinged to another enclosure (1) via a hinge (2). The adjacent enclosures (1) can be folded, rotated, stacked and stored together via the hinge (2). The side of the enclosure (1) is provided with a connecting component (3). The connecting component (3) includes a connecting groove (31) integrally formed with the enclosure (1) and a connecting plate (32) that can slide along the side of the connecting groove (31). The side of the connecting groove (31) is provided with a plurality of connecting holes arranged in a rectangular array. A first spring (33) is embedded in the connecting hole. The end of the first spring (33) is fixedly connected to a first limiting bead (34). The side of the connecting plate (32) is provided with a matching groove corresponding to the position of the first limiting bead (34). The horizontal splicing of multiple enclosures (1) is achieved by the snap-fit ​​between the first limiting bead (34) and the groove. The enclosure (1) is provided with a sliding groove that runs through both ends. The insert rod component (4) is slidably installed in the sliding groove. The insertion rod assembly (4) includes an insertion rod (41). The surface of the insertion rod (41) is provided with axially symmetrically distributed insertion holes. A second spring (42) is installed in the insertion holes. The end of the second spring (42) is connected to a second limiting bead (43). The side of the enclosure plate (1) is provided with a limiting hole that matches the shape of the second limiting bead (43). The position of the insertion rod (41) is fixed by the snap-fit ​​between the second limiting bead (43) and the limiting hole. The top of the enclosure (1) is fixed with a magnet (5), and the top of the plug (41) is made of magnetic material. By moving the plug (41), its top is magnetically fixed to the magnet (5).

2. The combined water and soil conservation device according to claim 1, characterized in that: The insertion holes on the surface of the insertion rod (41) of the insertion rod assembly (4) are symmetrically distributed on both sides of the axis of the insertion rod (41). The second spring (42) is in a compressed state in the insertion hole, pushing the second limiting bead (43) to bulge outward and form an elastic engagement with the limiting hole on the side of the surrounding plate (1).

3. The combined water and soil conservation device according to claim 1, characterized in that: When the top of the insertion rod (41) is magnetically fixed to the magnet (5), the insertion rod (41) is completely housed inside the groove of the enclosure plate (1), and the second limiting bead (43) is separated from the limiting hole.

4. The combined water and soil conservation device according to claim 1, characterized in that: The rectangular array of connecting holes on the side of the connecting groove (31) is arranged at equal intervals along the length of the connecting groove (31). The first limiting bead (34) is locked to the groove on the side of the connecting plate (32) by the elastic extension and contraction of the first spring (33).

5. The combined water and soil conservation device according to claim 1, characterized in that: The second limiting bead (43) is configured to compress the second spring (42) and exit the limiting hole when pressed by an external force, thereby releasing the sliding restriction of the insert rod (41) so that the insert rod (41) can move along the slide to the target position and then re-engage with the corresponding limiting hole through the second limiting bead (43).

6. The combined water and soil conservation device according to claim 1, characterized in that: The hinge (2) is fixedly connected to the middle of the side of the enclosure (1). Adjacent enclosures (1) are flipped and folded through the rotation axis of the hinge (2). After multiple enclosures (1) are folded, they are stacked and stored.

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