Intelligent power distribution transformer complex terrain self-adaptive erecting device

Abstract

The application relates to the technical field of transformers, and discloses an intelligent power distribution transformer complex terrain self-adaptive erecting device, which comprises a supporting column, the outer portion of the supporting column is fixedly connected with a first supporting plate, the top end of the first supporting plate is fixedly connected with a transformer body, the outer portion of the transformer body is arranged outside the supporting column, the outer portion of the supporting column is fixedly connected with a second supporting plate, the top end of the second supporting plate is fixedly connected with a power distribution box, the outer portion of the power distribution box is arranged outside the supporting column, the inner portion of the supporting column is provided with a stabilizing mechanism, and the stabilizing mechanism comprises a sliding assembly II, an auxiliary assembly and a locking assembly. When the local foundation is lifted, the second sliding column is stably locked in the soil, the locking mechanism is sequentially triggered by the impact force generated by the terrain change, external energy or manual intervention is not needed, and the stability and reliability during long-term use are guaranteed.

Description

Technical Field

[0001] This invention relates to the field of transformer technology, specifically to an intelligent distribution transformer adaptive erection device for complex terrain. Background Technology

[0002] In power distribution network engineering, distribution transformers are usually mounted on outdoor towers with the help of support columns to achieve voltage reduction and distribution of power. In order to ensure the safe operation of transformers and supporting distribution boxes, the support columns must have sufficient structural strength and anti-overturning capacity, and at the same time, they must be able to adapt to the installation requirements under different geological conditions.

[0003] Existing adaptive erection devices for transformers in complex terrain environments often experience uneven uplift or settlement of the foundation soil due to seasonal frost heave, expansion caused by precipitation, or geological creep. Such terrain changes directly affect the anchoring components at the bottom of the support column, causing the support column to tilt or shift, which in turn affects the levelness of the transformer body and the distribution box and the reliability of electrical connections. Summary of the Invention

[0004] This invention provides an intelligent adaptive erection device for distribution transformers in complex terrain, which solves the problem that existing adaptive erection devices for distribution transformers in complex terrain environments cause the support columns to tilt or shift, thereby affecting the levelness of the transformer body and the distribution box and the reliability of electrical connections.

[0005] To achieve the above objectives, the present invention provides the following technical solution: an intelligent adaptive erection device for distribution transformers in complex terrain, comprising a support column, a first support plate fixedly connected to the outside of the support column, a transformer body fixedly connected to the top of the first support plate, the transformer body being disposed outside the support column, a second support plate fixedly connected to the outside of the support column, a distribution box fixedly connected to the top of the second support plate, the distribution box being disposed outside the support column, and a stabilizing mechanism disposed inside the support column, the stabilizing mechanism comprising a sliding component two, an auxiliary component, and a locking component, the sliding component two being disposed outside the support column, the auxiliary component being disposed outside the sliding component two, and the locking component being disposed outside the sliding component two.

[0006] By adopting the above technical solution, the support column, as the vertical core bearing base of the entire pole-mounted power distribution device, has excellent structural rigidity and resistance to deformation and wind load. It is suitable for long-term outdoor installation conditions and provides stable support for the power distribution equipment to be erected off the ground. This not only saves a lot of ground installation space, but also avoids electrical safety hazards caused by ground water or contact with foreign objects.

[0007] Preferably, the second sliding component includes a first sliding post, the outside of which is disposed inside the support post. A first locking rod is slidably connected inside the first sliding post. A first limiting elastic element is disposed between the first locking rod and the first sliding post. A pressing rod is slidably connected inside the first sliding post. A first magnet group is disposed between the pressing rod and the first sliding post. A second sliding post is slidably connected inside the first sliding post. One end of the first locking rod is disposed inside the support post. The outside of the pressing rod is slidably connected to the inside of the support post and the second sliding post.

[0008] Preferably, the auxiliary component includes a sliding rod, the outside of which is slidably connected to the inside of the second sliding post, and a second limiting elastic element is provided between the sliding rod and the second sliding post.

[0009] Preferably, the locking assembly includes a first locking plate, the outside of which is rotatably connected to the inside of a second sliding column, a second magnet assembly is fixedly connected to the inside of the first locking plate and the second sliding column, and a third limiting elastic member is provided on the outside of the top end of the first locking plate, one end of which is disposed inside the second sliding column.

[0010] Preferably, the extrusion rod is provided with a sliding component, the outer side of which is disposed inside the second sliding column, and the first sliding column is provided with a fixing component.

[0011] Preferably, the fixing component includes a first supporting elastic member, the top end of which is disposed inside the first sliding column, and a third locking rod is disposed at the bottom end of the first supporting elastic member, the outside of which is slidably connected to the inside of the first sliding column.

[0012] Preferably, the sliding component includes a sliding block, one end of which is disposed inside the extrusion rod, the outside of which is slidably connected to the inside of the second sliding column, and a locking groove is provided inside the sliding block.

[0013] Preferably, the support column is provided with an auxiliary mechanism inside, the auxiliary mechanism including a driving component and a sealing component, the driving component being disposed outside the support column and the sealing component being disposed outside the support column.

[0014] Preferably, the drive assembly includes an electric push rod, the outside of which is fixedly connected to the inside of the support column, the output end of which is fixedly connected to a support frame, the outside of which is slidably connected to the inside of the support column, the bottom end of which is fixedly connected to a second locking plate, and a third magnet assembly is provided between the support frame and the support column.

[0015] Preferably, the sealing assembly includes a sliding baffle, the outer side of which is slidably connected to the inside of the support column, a second supporting elastic element is provided at the bottom end of the sliding baffle, the bottom end of the second supporting elastic element is provided inside the support column, and one side of the sliding baffle is provided outside the third magnet assembly.

[0016] By adopting the above technical solution, when the complex terrain causes the foundation soil to rise, the impact force is transmitted to the stabilizing mechanism, causing the first sliding column to move upward relative to the second sliding column more quickly. After the first locking plate loses its limit, it rotates and penetrates the soil under the drive of the second magnet group and the third limiting elastic element. At the same time, the squeezing rod slides downward under the obstruction of the support column and pushes the sliding rod to make the first locking plate completely embedded in the soil, completing the stable anchoring of the second sliding column. During the downward movement of the squeezing rod, its angle pushes the sliding block to move outward, so that the locking groove enters the first sliding column. The third locking rod is first pushed and compressed by the first supporting elastic element to retract. After the locking groove is in place, the first supporting elastic element pushes the third locking rod to lock into the locking groove, realizing the rigid locking of the first sliding column and the second sliding column. At the same time, after the auxiliary mechanism is started, the electric push rod drives the support frame to move downward to overcome the repulsive force of the third magnet group, and drives the second locking plate to re-penetrate the soil to maintain the vertical stability of the support column. Moreover, the upper and lower sliding baffles close automatically under the action of the second supporting elastic element to keep the gap sealed and dustproof, thereby realizing the adaptive and stable erection of the transformer body in complex terrain.

[0017] This invention provides an intelligent adaptive erection device for distribution transformers in complex terrain. It has the following advantages: 1. This invention, through the setting of a stabilizing mechanism, when the foundation is raised, the impact causes the first sliding column to move upward faster than the second sliding column. The first locking plate loses the limitation of the first sliding column and rotates outward to penetrate the soil under the action of the second magnet group and the third limiting elastic element. At the same time, the squeezing rod slides downward due to the obstruction of the support column, overcoming the adsorption force of the first magnet group and pushing the sliding rod to squeeze the first locking plate so that it is completely embedded in the soil. The first and second limiting elastic elements provide buffering and reset, thereby achieving the effect of the second sliding column being stably locked in the soil. This locking mechanism relies entirely on the impact force generated by the terrain change to trigger sequentially, without the need for external energy or manual intervention, ensuring the stability and reliability of long-term use.

[0018] 2. This invention, by setting up a sliding component and a fixed component, when the pressing rod moves down, its angle pushes the sliding block outward, causing the locking groove to enter the first sliding column. The sliding block first pushes the third locking rod to compress the first support elastic element and retract it. After the locking groove is in place, the first support elastic element pushes the third locking rod to lock into the locking groove, thereby achieving the effect of locking the connection between the first sliding column and the second sliding column after the sliding is completed. This locking process is entirely triggered by the movement sequence of the mechanism itself, without relying on external power or manual operation. It can automatically complete the locking and maintenance in complex terrain, reducing the workload of on-site installation and subsequent maintenance.

[0019] 3. By setting up an auxiliary mechanism, when the second locking plate moves down with the support frame and overcomes the repulsive force of the third magnet group to re-enter the soil, the sliding baffle located below the support frame is pressed down and compresses the second support elastic element to seal downwards. At the same time, the upper sliding baffle, having lost the support of the support frame, automatically slides down and closes under the elastic force of the second support elastic element. This achieves the effect of keeping the gaps on both the upper and lower sides of the support frame blocked after sliding. In complex terrains with heavy dust, rain, or severe sandstorms in the field, this sealing design effectively reduces the risk of external environmental corrosion to internal precision components, reduces the probability of failure caused by foreign object intrusion, thereby extending the service life of the auxiliary mechanism and reducing the frequency and cost of later maintenance. Attached Figure Description

[0020] Figure 1 This is a perspective view of the present invention; Figure 2 This is a schematic diagram of the support column of the present invention; Figure 3 for Figure 2 Enlarged view of point A in the middle; Figure 4 for Figure 2 Enlarged view of point B in the middle; Figure 5 for Figure 2 Enlarged view of point C in the middle; Figure 6 This is a schematic diagram of the extrusion rod of the present invention; Figure 7 This is a schematic diagram of the support frame of the present invention; Figure 8 for Figure 7 Enlarged diagram of point D in the middle.

[0021] Among them, 1. Support column; 2. First support plate; 3. Transformer body; 4. Second support plate; 5. Distribution box; 6. Stabilizing mechanism; 7. Sliding component one; 8. Fixing component; 9. Auxiliary mechanism; 61. Sliding assembly two; 611. First sliding post; 612. First locking rod; 613. First limiting elastic element; 614. Pressing rod; 615. First magnet assembly; 616. Second sliding post; 62. Auxiliary component; 621. Sliding rod; 622. Second limiting elastic element; 63. Locking assembly; 631. First locking plate; 632. Second magnet assembly; 633. Third limiting elastic element; 71. Sliding block; 72. Locking slot; 81. First supporting elastic element; 82. Third locking rod; 91. Drive assembly; 911. Electric actuator; 912. Support frame; 913. Second locking plate; 914. Third magnet assembly; 92. Sealing assembly; 921. Sliding baffle; 922. Second support elastic element. Detailed Implementation

[0022] The technical solution of the present invention will now be clearly and completely described with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0023] Please see the appendix Figure 1 - Appendix Figure 3 This invention provides an intelligent adaptive erection device for distribution transformers in complex terrain, comprising a support column 1, a first support plate 2 fixedly connected to the outside of the support column 1, a transformer body 3 fixedly connected to the top of the first support plate 2, the transformer body 3 being disposed outside the support column 1, a second support plate 4 fixedly connected to the outside of the support column 1, a distribution box 5 fixedly connected to the top of the second support plate 4, the distribution box 5 being disposed outside the support column 1, and a stabilizing mechanism 6 disposed inside the support column 1. The stabilizing mechanism 6 includes a sliding component 61, an auxiliary component 62, and a locking component 63. The sliding component 61 is disposed outside the support column 1, the auxiliary component 62 is disposed outside the sliding component 61, and the locking component 63 is disposed outside the sliding component 61.

[0024] Specifically, the support column 1 is used to support and fix the first support plate 2 and the second support plate 4. Supporting short rods are fixedly connected to the bottom ends of the four corners on both sides of the first support plate 2 and the second support plate 4. The other end of the supporting short rods is fixed to the support column 1, so that the first support plate 2 and the second support plate 4 are kept on the same horizontal plane. The first support plate 2 is used to support and fix the transformer body 3, and the second support plate 4 is used to support and fix the distribution box 5. The transformer body 3 and the distribution box 5 are connected by wires to realize the transmission and distribution of electrical energy. To clearly show the core structure of the present invention, the connecting wires are omitted in the drawings and are not shown.

[0025] Please see the appendix Figure 2 - Appendix Figure 4 The sliding assembly 61 includes a first sliding post 611, the outside of which is disposed inside the support post 1. A first locking rod 612 is slidably connected inside the first sliding post 611. A first limiting elastic element 613 is disposed between the first locking rod 612 and the first sliding post 611. A pressing rod 614 is slidably connected inside the first sliding post 611. A first magnet assembly 615 is disposed between the pressing rod 614 and the first sliding post 611. A second sliding post 616 is slidably connected inside the first sliding post 611. One end of the first locking rod 612 is disposed inside the support post 1, and the outside of the pressing rod 614 is slidably connected to the support post 1 and the support post 616. The interior of the second sliding column 616; the auxiliary component 62 includes a sliding rod 621, the outside of which is slidably connected to the interior of the second sliding column 616, and a second limiting elastic member 622 is provided between the sliding rod 621 and the second sliding column 616; the locking component 63 includes a first locking plate 631, the outside of which is rotatably connected to the interior of the second sliding column 616, and a second magnet group 632 is fixedly connected between the first locking plate 631 and the interior of the second sliding column 616, and a third limiting elastic member 633 is provided on the outside of the top end of the first locking plate 631, and one end of the third limiting elastic member 633 is provided inside the second sliding column 616.

[0026] Specifically, the support column 1 supports the sliding of the first sliding column 611, which in turn supports the sliding of the first locking rod 612, the pressing rod 614, and the second sliding column 616. Furthermore, the first sliding column 611 supports the extension and retraction of the first limiting elastic member 613. The first sliding column 611 and the pressing rod 614 also support and fix the first magnet assembly 615. The first magnet assembly 615 consists of two magnet blocks that attract each other through opposite magnetic properties, preventing the pressing rod 614 from sliding downwards arbitrarily. The pressing rod 614 has a protruding protrusion that slides inside the first sliding column 611, preventing the pressing rod 614 from sticking to the first magnet assembly 615 on the support column 1. The attraction force between the two first magnet groups 615 becomes too large. Simultaneously, the second sliding post 616 supports the sliding rod 621 for sliding, and also supports the extension and retraction of the second limiting elastic member 622 and the third limiting elastic member 633. Furthermore, the second sliding post 616 supports the sliding of the first locking plate 631 and fixes the second magnet group 632. The second magnet group 632 consists of two magnet blocks. These two magnet blocks repel each other through like-pole magnetism. One magnet block is fixed inside the second sliding post 616, and the other magnet block is fixed on the first locking plate 631. The second magnet group 632 will cause the first locking plate 631 to rotate, causing the first locking plate 631 to press against the first sliding post 611. Meanwhile, one end of the third limiting elastic member 633 is fixed to the first locking plate 631, and the other end is fixed to the second sliding column 616. The third limiting elastic member 633 is in a stretched state. However, the third limiting elastic member 633 can assist the first locking plate 631 in rotating. When the soil inside rises, the impact force generated by the soil will drive the second sliding column 616 and the first sliding column 611 to slide upward. During the upward sliding of the first sliding column 611, it will drive the extrusion rod 614 to slide synchronously. Then, the extrusion rod 614 will slide with the assistance of the support column 1, which will cause the extrusion rod 614 to break through the magnetic force of the first magnet group 615 and continue to slide. The first sliding column 611 is subjected to a greater impact force than the second sliding column 616. The first sliding post 611 slides upward faster than the second sliding post 616, causing the first locking plate 631 to lose its support. The second magnet group 632 and the third limiting elastic member 633 assist the first locking plate 631 in rotating, causing the first locking plate 631 to insert into the soil. At the same time, the second sliding post 616 will be resisted. As the first sliding post 611 continues to slide upward, it will squeeze the compression rod 614 to slide downward. The compression rod 614 will squeeze the sliding rod 621 to slide. However, during the sliding process, the sliding rod 621 will squeeze the second limiting elastic member 622 to compress and squeeze the first locking plate 631 to rotate, so that the first locking plate 631 is inserted into the soil and the second sliding post 616 is locked in the soil.

[0027] Please see the appendix Figure 2 - Appendix Figure 6 The extrusion rod 614 has a sliding component 7 inside, and the exterior of the sliding component 7 is disposed inside the second sliding column 616. The first sliding column 611 has a fixing component 8 inside. The fixing component 8 includes a first supporting elastic member 81, the top end of the first supporting elastic member 81 is disposed inside the first sliding column 611, and the bottom end of the first supporting elastic member 81 is disposed with a third locking rod 82. The exterior of the third locking rod 82 is slidably connected to the interior of the first sliding column 611. The sliding component 7 includes a sliding block 71, one end of the sliding block 71 is disposed inside the extrusion rod 614, and the exterior of the sliding block 71 is slidably connected to the interior of the second sliding column 616. The interior of the sliding block 71 has a locking groove 72.

[0028] Specifically, the first sliding post 611 supports the first supporting elastic member 81 for extension and retraction, and also supports the sliding block 71 and the third locking rod 82 for sliding. The sliding block 71 has a locking groove 72 inside, which stores the third locking rod 82. The pressing rod 614 has a sliding bevel inside, and the sliding block 71 also has a bevel at one end inside the pressing rod 614. When the pressing rod 614 slides downwards, it presses the sliding block 71 to slide slowly outwards. When the second sliding post 616 slides to the predetermined position, the locking groove 72 will be inserted into the first sliding post 611, and the sliding block 71 will first squeeze the third locking rod 82 to slide. The third locking rod 82 will squeeze the first support elastic member 81 to compress it and make the third locking rod 82 slide into the first sliding post 611. When the locking groove 72 is fully inserted into the first sliding post 611, the first support elastic member 81 will drive the third locking rod 82 to slide into the locking groove 72, which can lock the second sliding post 616 inside the first sliding post 611.

[0029] Please see the appendix Figure 7 and attached Figure 8An auxiliary mechanism 9 is provided inside the support column 1. The auxiliary mechanism 9 includes a drive assembly 91 and a sealing assembly 92. The drive assembly 91 is externally located inside the support column 1, and the sealing assembly 92 is externally located inside the support column 1. The drive assembly 91 includes an electric push rod 911, which is externally fixedly connected to the inside of the support column 1. The output end of the electric push rod 911 is fixedly connected to a support frame 912, which is externally slidably connected to the inside of the support column 1. A second locking plate 913 is fixedly connected to the bottom end of the support frame 912, and a third magnet assembly 914 is provided between the support frame 912 and the support column 1. The sealing assembly 92 includes a sliding baffle 921, which is externally slidably connected to the inside of the support column 1. A second supporting elastic member 922 is provided at the bottom end of the sliding baffle 921, which is located at the bottom end of the second supporting elastic member 922 inside the support column 1. One side of the sliding baffle 921 is located outside the third magnet assembly 914.

[0030] Specifically, support column 1 is used to support and fix the electric push rod 911, and also assists the support frame 912 in sliding with the sliding baffle 921. Second locking plates 913 are fixedly connected to both ends of the support frame 912, and these plates can be inserted into the soil to maintain the verticality of the support column 1. The support frame 912 and support column 1 then support and fix the third magnet assembly 914, which is prevented from sliding downwards by the mutual repulsion of two like magnets. Simultaneously, support column 1 supports the extension and retraction of the second support elastic member 922. The sliding baffle 921 and the second support elastic member 922 are symmetrically distributed vertically and horizontally. However, the second support elastic member 922 at the top of the support frame 912 is in a compressed state. When the sliding baffle 921 loses its support, the second support elastic member 922 can drive the sliding baffle 921 to slide downward. When the auxiliary mechanism 9 drives the support frame 912 to slide downward, the support frame 912 will drive the second locking plate 913 to slide downward synchronously. The second locking plate 913 can be inserted into the soil. When the support frame 912 slides downward, it will overcome the repulsive force generated by the two third magnet groups 914. When the support frame 912 slides downward, it will squeeze the sliding baffle 921 to slide downward synchronously and squeeze the second support elastic member 922 for compression. At the same time, the sliding baffle 921 at the top of the support frame 912 will slide downward under the push of the second support elastic member 922, which can prevent dust from entering through gaps after the support frame 912 slides.

[0031] Workflow: When complex terrain causes the foundation soil to rise, the impact force is sequentially transmitted to the first sliding column 611 and the second sliding column 616. Due to the uneven force on the two, the first sliding column 611 moves upward faster, causing the first locking plate 631, which was originally limited by the inner wall of the first sliding column 611, to suddenly lose its support. At this time, the repulsive force of the same pole of the second magnet group 632 and the tensile restoring force of the third limiting elastic element 633 jointly drive the first locking plate 631 to rotate outward, so that its tip initially penetrates into the surrounding soil. At the same time, the first sliding column 611 continues to move upward rapidly, and the relatively stationary compression rod 614 inside is pushed back by the wall of the support column 1. Forced to slide downwards and overcoming the opposite attraction of the first magnet group 615, the sliding rod 614 pushes the sliding rod 621 to slide, and the sliding rod 621 further squeezes the first locking plate 631 that has been turned out, so that it is fully unfolded and deeply embedded in the soil. During the whole process, the first limiting elastic member 613 and the second limiting elastic member 622 play a buffering and reset role respectively, ensuring that each component moves in sequence, thereby achieving the effect of the second sliding column 616 being firmly locked in the soil. This locking mechanism relies entirely on the impact force generated by the terrain change to trigger sequentially, without the need for external energy or human intervention, ensuring the stability and reliability of long-term use.

[0032] When the pressing rod 614 slides downward along the interior of the first sliding column 611 under the action of external force, the sliding angle on its inner wall and the corresponding angle at the end of the sliding block 71 generate relative compression, pushing the sliding block 71 to slowly move outward, so that the locking groove 72 in the sliding block 71 gradually enters the corresponding space of the first sliding column 611. During this process, the outward movement of the sliding block 71 will first touch the third locking rod 82, pushing the third locking rod 82 to overcome the elastic force of the first supporting elastic member 81 and retract into the interior of the first sliding column 611, making way for the complete positioning of the locking groove 72. When the pressing rod 614 descends to the predetermined position and the locking groove 72 is completely embedded in the first sliding column 611, When the first support elastic element 81, which was previously compressed, releases its restoring force, it pushes the third locking rod 82 to slide into the locking groove 72 in the opposite direction, thereby locking and securing the second sliding column 616 inside the first sliding column 611, completing the entire locking action. This achieves the effect of locking the connection between the first sliding column 611 and the second sliding column 616 after they have slid. The locking process is entirely triggered by the movement sequence of the mechanism itself, without relying on external power or manual operation. It can automatically complete the locking and maintenance in complex terrain, reducing the workload of on-site installation and subsequent maintenance, and at the same time providing a structural basis for multiple terrain adaptive adjustments.

[0033] When the auxiliary mechanism 9 is activated and drives the support frame 912 to slide downwards along the inside of the support column 1, the support frame 912 drives the second locking plates 913 fixed at both ends to move downwards simultaneously, causing the second locking plates 913 to re-insert into the soil depth to maintain the vertical stability of the support column 1. During this downward movement, the support frame 912 needs to overcome the repulsive resistance generated between the two like magnets in the third magnet group 914. At the same time, the downward movement of the support frame 912 will touch and push the sliding baffle 921 below it to move downwards simultaneously, causing the sliding baffle 921 to compress the corresponding second support elastic member 922 at the bottom. The other sliding baffle 921 located above the support frame 912, after losing the support of the support frame 912, is pushed downward by the release of the elastic force of the second support elastic element 922, which was originally in a compressed state. This can achieve the effect of keeping the gaps on both the upper and lower sides after the support frame 912 slides. In complex terrain with dust, rain or sandstorms in the field, this sealing design effectively reduces the risk of external environment to corrosion of internal precision components, reduces the probability of failure caused by foreign object intrusion, thereby extending the service life of the auxiliary mechanism 9 and reducing the frequency and cost of later maintenance.

[0034] Although embodiments of the 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 invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An intelligent adaptive erection device for distribution transformers in complex terrain, comprising a support column (1), characterized in that, The support column (1) is fixedly connected to a first support plate (2), and a transformer body (3) is fixedly connected to the top of the first support plate (2). The transformer body (3) is located outside the support column (1). The support column (1) is fixedly connected to a second support plate (4), and a distribution box (5) is fixedly connected to the top of the second support plate (4). The distribution box (5) is located outside the support column (1). The support column (1) is equipped with a stabilizing mechanism (6). The stabilizing mechanism (6) includes a sliding component two (61), an auxiliary component (62), and a locking component (63). The sliding component two (61) is located outside the support column (1). The auxiliary component (62) is located outside the sliding component two (61). The locking component (63) is located outside the sliding component two (61).

2. The intelligent distribution transformer adaptive erection device for complex terrain according to claim 1, characterized in that, The second sliding component (61) includes a first sliding post (611), the outside of which is disposed inside the support post (1). A first locking rod (612) is slidably connected inside the first sliding post (611). A first limiting elastic element (613) is disposed between the first locking rod (612) and the first sliding post (611). A pressing rod (614) is slidably connected inside the first sliding post (611). A first magnet group (615) is disposed between the pressing rod (614) and the first sliding post (611). A second sliding post (616) is slidably connected inside the first sliding post (611). One end of the first locking rod (612) is disposed inside the support post (1). The outside of the pressing rod (614) is slidably connected inside the support post (1) and the second sliding post (616).

3. The intelligent distribution transformer adaptive erection device for complex terrain according to claim 2, characterized in that, The auxiliary component (62) includes a sliding rod (621), which is externally slidably connected to the inside of a second sliding post (616), and a second limiting elastic element (622) is provided between the sliding rod (621) and the second sliding post (616).

4. The intelligent distribution transformer adaptive erection device for complex terrain according to claim 3, characterized in that, The locking assembly (63) includes a first locking plate (631), the outside of which is rotatably connected to the inside of a second sliding post (616). A second magnet assembly (632) is fixedly connected to the inside of the first locking plate (631) and the second sliding post (616). A third limiting elastic member (633) is provided on the outside of the top end of the first locking plate (631), and one end of the third limiting elastic member (633) is provided inside the second sliding post (616).

5. The intelligent distribution transformer adaptive erection device for complex terrain according to claim 2, characterized in that, The inside of the compression rod (614) is provided with a sliding component (7), the outside of which is provided inside the second sliding column (616), and the inside of the first sliding column (611) is provided with a fixing component (8).

6. The intelligent distribution transformer adaptive erection device for complex terrain according to claim 5, characterized in that, The fixing component (8) includes a first supporting elastic member (81), the top end of the first supporting elastic member (81) is disposed inside the first sliding column (611), and the bottom end of the first supporting elastic member (81) is provided with a third locking rod (82), the outside of the third locking rod (82) is slidably connected to the inside of the first sliding column (611).

7. The intelligent distribution transformer adaptive erection device for complex terrain according to claim 5, characterized in that, The sliding component 1 (7) includes a sliding block (71), one end of which is disposed inside the extrusion rod (614), the outside of which is slidably connected to the inside of the second sliding column (616), and a locking groove (72) is provided inside the sliding block (71).

8. The intelligent distribution transformer adaptive erection device for complex terrain according to claim 1, characterized in that, An auxiliary mechanism (9) is provided inside the support column (1). The auxiliary mechanism (9) includes a drive component (91) and a sealing component (92). The drive component (91) is located outside the support column (1), and the sealing component (92) is located outside the support column (1).

9. The intelligent distribution transformer adaptive erection device for complex terrain according to claim 8, characterized in that, The drive assembly (91) includes an electric push rod (911), the outside of which is fixedly connected to the inside of the support column (1). The output end of the electric push rod (911) is fixedly connected to a support frame (912), the outside of which is slidably connected to the inside of the support column (1). The bottom end of the support frame (912) is fixedly connected to a second locking plate (913), and a third magnet group (914) is provided between the support frame (912) and the support column (1).

10. The intelligent distribution transformer adaptive erection device for complex terrain according to claim 8, characterized in that, The sealing assembly (92) includes a sliding baffle (921), the outside of which is slidably connected to the inside of the support column (1). A second support elastic member (922) is provided at the bottom end of the sliding baffle (921), the bottom end of which is provided inside the support column (1). One side of the sliding baffle (921) is provided outside the third magnet assembly (914).

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