Multifunctional electric pole mechanical property detection platform

Abstract

The invention discloses a multifunctional electric pole mechanical property detection platform, and relates to the field of electric pole processing and production, and the multifunctional electric pole mechanical property detection platform comprises a first limiting movement mechanism, a second limiting movement mechanism and a detection mechanism, the first limiting movable mechanism comprises a first sliding base, a first clamping mechanism used for limiting and clamping an electric pole is arranged at the top end of the first sliding base in a lifting movable mode, and the first clamping mechanism is connected to a first movable pedestal; and the second limiting movable mechanism comprises a second sliding base, a second clamping mechanism used for limiting and clamping the electric pole is arranged at the top end of the second sliding base in a lifting movable mode, and the second clamping mechanism is connected to a second movable pedestal. Through the detection platform, the detection process and time can be saved, and the detection efficiency is improved; and moreover, the detection platform can detect multiple mechanical properties of the electric pole, so that the cost for purchasing equipment is saved, and the cost is favorably saved.

Description

Technical Field

[0001] The present invention relates to the field of pole processing and production, and specifically to a multifunctional detection platform for the mechanical properties of poles. Background Art

[0002] Poles are core components used to support overhead lines in infrastructure such as power and communication. They mainly undertake the function of supporting equipment such as conductors and cross arms. Common materials include wood, concrete, steel, etc. Electric power is transmitted over long distances by erecting conductors, and they are widely distributed in urban, rural and outdoor environments. Currently, the mainstream poles are mainly made of concrete, and their durability and load-bearing capacity are significantly better than traditional wooden poles and iron poles, making them the first choice for modern power grid construction.

[0003] After the pole is processed and manufactured, it is necessary to detect its mechanical properties, including strength and load-bearing capacity, stiffness and anti-deformation ability, crack resistance performance, etc. When detecting the mechanical properties of poles, in the existing detection platform devices, one detection platform device can only detect the mechanical properties of one or two poles. If multiple mechanical properties need to be detected, it is necessary to move them to different devices for separate detection, which is not only time-consuming and laborious, but also has low efficiency and increased costs. Summary of the Invention

[0004] The purpose of the present invention is achieved through the following technical solutions: A multifunctional detection platform for the mechanical properties of poles, including a first limiting and movable mechanism and a second limiting and movable mechanism that can be relatively movable; The first limiting and movable mechanism includes a first sliding base, the first sliding base is slidably arranged, and a first clamping mechanism for limiting and clamping the pole is arranged on the top of the first sliding base in a vertically movable manner. The first clamping mechanism is connected to a first movable pedestal, and a first limiting structure for limiting the pole is arranged on the first movable pedestal; The second limiting and movable mechanism includes a second sliding base, the second sliding base is slidably arranged, and a second clamping mechanism for limiting and clamping the pole is arranged on the top of the second sliding base in a vertically movable manner. The second clamping mechanism is connected to a second movable pedestal, and a second limiting structure for limiting the pole is arranged on the second movable pedestal; A detection mechanism for moving and detecting the pole is arranged between the first limiting and movable mechanism and the second limiting and movable mechanism.

[0005] Preferably, the bottom end of the first sliding base is connected with a first electric steel roller driven by a motor, and the first electric steel roller is in rolling fit with a steel guide rail anchored to the ground; The bottom end of the second sliding base is connected with a second electric steel roller driven by a motor, and the second electric steel roller is in rolling fit with a steel guide rail anchored to the ground.

[0006] Preferably, both sides of the top end of the first sliding base are respectively connected with a first hydraulic lifting rod, and the other end of the first hydraulic lifting rod is connected with a first movable plate through a first connecting beam, and the first movable plate is driven to lift by the first hydraulic lifting rod; One end of the first movable plate close to the electric pole is connected with a first electric rotary pedestal, and a first movable pedestal that can be driven to rotate by the first electric rotary pedestal is connected to the first electric rotary pedestal.

[0007] Preferably, the first limiting structure includes a first limiting guide cylinder provided with a through hole; One end of the first limiting guide cylinder is used for connecting with the first movable pedestal, one end of the electric pole is used for passing through the first limiting guide cylinder, and the end is used for abutting against the first movable pedestal, and the end of the electric pole is limited by the first limiting guide cylinder.

[0008] Preferably, the first clamping mechanism includes a first clamping cylinder a and a first clamping cylinder b; The output end of the first clamping cylinder a is connected with a clamping jaw for clamping and limiting the electric pole, the cylinder body of the first clamping cylinder a is connected with a first hydraulic telescopic rod a through a connecting plate, and the other end of the first hydraulic telescopic rod a is used for connecting with the first movable pedestal through a side plate, and the first clamping cylinder a is driven to move by the first hydraulic telescopic rod a; The output end of the first clamping cylinder b is connected with a clamping jaw for clamping and limiting the electric pole, the cylinder body of the first clamping cylinder b is connected with a first hydraulic telescopic rod b through a connecting plate, and the other end of the first hydraulic telescopic rod b is used for connecting with the first movable pedestal through a side plate, and the first clamping cylinder b is driven to move by the first hydraulic telescopic rod b.

[0009] Preferably, both sides of the top end of the second sliding base are respectively connected with a second hydraulic lifting rod, and the other end of the second hydraulic lifting rod is connected with a second movable plate through a second connecting beam, and the second movable plate is driven to lift by the second hydraulic lifting rod; One end of the second movable plate close to the electric pole is connected with a second electric rotary pedestal, and a second movable pedestal that can be driven to rotate by the second electric rotary pedestal is connected to the second electric rotary pedestal.

[0010] Preferably, the second limiting structure includes a second limiting guide cylinder provided with a through hole; One end of the second limit guiding cylinder is used to connect with the second movable pedestal. One end of the electric pole is used to pass through the second limit guiding cylinder, and the end is used to abut against the second movable pedestal, and the end of the electric pole is limited by the second limit guiding cylinder.

[0011] Preferably, the second clamping mechanism includes a second clamping cylinder a and a second clamping cylinder b; The output end of the second clamping cylinder a is connected with a clamping jaw for clamping and limiting the electric pole. The cylinder body of the second clamping cylinder a is connected with a second hydraulic telescopic rod a through a connecting plate. The other end of the second hydraulic telescopic rod a is used to connect with the second movable pedestal through a side plate, and the second clamping cylinder a is driven to move by the second hydraulic telescopic rod a; The output end of the second clamping cylinder b is connected with a clamping jaw for clamping and limiting the electric pole. The cylinder body of the second clamping cylinder b is connected with a second hydraulic telescopic rod b through a connecting plate. The other end of the second hydraulic telescopic rod b is used to connect with the second movable pedestal through a side plate, and the second clamping cylinder b is driven to move by the second hydraulic telescopic rod b.

[0012] Preferably, the detection mechanism includes a movable detection mounting seat; The movable detection mounting seat is provided with an arc groove adapted to the outer shape of the electric pole. A number of telescopically movable electric push rods are installed and connected around the arc groove. The output end rod body of the electric push rod is detachably connected with a probe for detecting the electric pole, and a signal sensor is connected to the end of the output end rod body of the electric push rod.

[0013] Preferably, one end of the movable detection mounting seat far away from the electric pole is connected with a detection telescopic hydraulic rod for driving the movable detection mounting seat to move. The other end of the detection telescopic hydraulic rod is connected with a detection lifting hydraulic rod for driving the movable detection mounting seat to lift through a connecting seat. The bottom end of the detection lifting hydraulic rod is connected with a detection electric rotary table seat for driving the detection lifting hydraulic rod to rotate. The bottom end of the detection electric rotary table seat is connected with a detection movable seat. The bottom end of the detection movable seat is connected with a detection electric steel roller driven by a motor, and the detection electric steel roller is in rolling fit with a steel guide rail anchored to the ground.

[0014] The beneficial effects of the present invention are as follows: The purpose of the present invention is to provide a multifunctional detection platform for the mechanical properties of electric poles. The detection platform can realize the detection of multiple mechanical properties of electric poles; through this detection platform, not only can the detection process and time be saved, and the detection efficiency be improved; moreover, this detection platform can detect multiple mechanical properties of electric poles, saving the cost of purchasing equipment and being beneficial to cost saving. Description of the Drawings

[0015] Figure 1Schematic diagram of the overall connection effect of a multi-functional pole mechanical property detection platform of the present invention; Figure 2 Schematic diagram of the connection structure of the first limit moving mechanism of a multi-functional pole mechanical property detection platform of the present invention; Figure 3 Partial explosion schematic diagram of the connection structure of the first limit moving mechanism of a multi-functional pole mechanical property detection platform of the present invention; Figure 4 Schematic diagram of the connection structure of the second limit moving mechanism of a multi-functional pole mechanical property detection platform of the present invention; Figure 5 Partial explosion schematic diagram of the connection structure of the second limit moving mechanism of a multi-functional pole mechanical property detection platform of the present invention; Figure 6 Schematic diagram of the connection structure of the detection mechanism of a multi-functional pole mechanical property detection platform of the present invention; In the figure, 1 - first sliding base, 2 - second sliding base, 3 - detection moving seat, 11 - first moving platform seat, 12 - first hydraulic lifting rod, 13 - first moving plate, 14 - first electric rotating table, 15 - first limit guiding cylinder, 16 - first clamping cylinder a, 17 - first clamping cylinder b, 21 - second moving platform seat, 22 - second hydraulic lifting rod, 23 - second moving plate, 24 - second electric rotating table, 25 - second limit guiding cylinder, 26 - second clamping cylinder a, 27 - second clamping cylinder b, 31 - moving detection mounting seat, 32 - detection telescopic hydraulic pressure, 33 - detection lifting hydraulic rod, 34 - detection electric rotating table seat, 161 - first hydraulic telescopic rod a, 171 - first hydraulic telescopic rod b, 261 - second hydraulic telescopic rod a, 271 - second hydraulic telescopic rod b, 311 - electric push rod. Detailed implementation manners

[0016] In order to make the objectives, technical solutions and advantages of the present invention clearer and more understandable, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments.

[0017] Embodiment 1 As Figures 1 to 6 shown, a multi-functional pole mechanical property detection platform can detect multiple mechanical properties of a pole. The detection platform designed structurally includes a first limit moving mechanism and a second limit moving mechanism that can be relatively movably arranged; Among them, the first limiting and movable mechanism includes a first sliding base 1 which is slidably arranged. At the top of the first sliding base 1, a first clamping mechanism for limiting and clamping the electric pole is arranged in a vertically movable manner. The first clamping mechanism is connected to a first movable pedestal 11, and a first limiting structure for limiting the electric pole is arranged on the first movable pedestal 11. The second limiting and movable mechanism includes a second sliding base 2 which is slidably arranged. At the top of the second sliding base 2, a second clamping mechanism for limiting and clamping the electric pole is arranged in a vertically movable manner. The second clamping mechanism is connected to a second movable pedestal 21, and a second limiting structure for limiting the electric pole is arranged on the second movable pedestal 21. Moreover, a detection mechanism for detecting the movement of the electric pole is arranged between the first limiting and movable mechanism and the second limiting and movable mechanism.

[0018] In the embodiment, the electric pole is limited and fixed between the first limiting and movable mechanism and the second limiting and movable mechanism. And, by controlling the movement of the first limiting and movable mechanism and the second limiting and movable mechanism, the strength, bearing capacity, stiffness and anti-deformation ability of the electric pole are detected. And, by controlling the movement of the arranged detection mechanism, the anti-cracking performance of the electric pole is detected. Also, by replacing and installing different detection devices, other performances of the electric pole are detected.

[0019] Embodiment 2 Based on Embodiment 1, the bottom end of the first sliding base 1 is connected with a first electric steel roller driven by a motor, and the first electric steel roller is in rolling fit with the steel guide rail anchored to the ground. The bottom end of the second sliding base 2 is connected with a second electric steel roller driven by a motor, and the second electric steel roller is in rolling fit with the steel guide rail anchored to the ground. The first sliding base 1 and the second sliding base 2 are installed at the designed positions. The first electric steel roller of the first sliding base 1 is fitted and installed on the steel guide rail, and moreover, the second electric steel roller of the second sliding base 2 is fitted and installed on the steel guide rail. Then, by controlling the first electric steel roller to drive the first sliding base 1 to move relatively along the steel guide rail and by controlling the second electric steel roller to drive the second sliding base 2 to move relatively along the steel guide rail, the relative movement of the first sliding base 1 and the second sliding base 2 can be realized, so as to perform a "squeezing" detection on the electric pole installed and limited between the first movable pedestal 11 and the second movable pedestal 21, that is, to detect the strength and bearing capacity of the electric pole (the strength and bearing capacity detection device is the prior art and is not described in detail here).

[0020] Embodiment 3 Further, on both sides of the top end of the first sliding base 1 are respectively connected with first hydraulic lifting rods 12. The other ends of the first hydraulic lifting rods 12 are connected with a first movable plate 13 through connecting a first connecting beam, and the first movable plate 13 is driven to lift by the first hydraulic lifting rods 12; at one end of the first movable plate 13 close to the electric pole is connected with a first electric rotary pedestal 14, and on the first electric rotary pedestal 14 is connected with a first movable pedestal 11 that can be driven to rotate by the first electric rotary pedestal 14.

[0021] The first limiting structure of this setting includes a first limiting guide cylinder 15 with a through hole; one end of the first limiting guide cylinder 15 is used to connect with the first movable pedestal 11, one end of the electric pole is used to penetrate through the first limiting guide cylinder 15, and the end is used to abut against the first movable pedestal 11, and the end of the electric pole is limited by the first limiting guide cylinder 15.

[0022] Meanwhile, the first clamping mechanism includes a first clamping cylinder a 16 and a first clamping cylinder b 17; the output end of the first clamping cylinder a 16 is connected with a clamping jaw for clamping and limiting the electric pole, the cylinder body of the first clamping cylinder a 16 is connected with a first hydraulic telescopic rod a 161 through a connecting plate, and the other end of the first hydraulic telescopic rod a 161 is used to connect with the first movable pedestal 11 through a side plate, and the first clamping cylinder a 16 is driven to move by the first hydraulic telescopic rod a 161; the output end of the first clamping cylinder b 17 is connected with a clamping jaw for clamping and limiting the electric pole, the cylinder body of the first clamping cylinder b 17 is connected with a first hydraulic telescopic rod b 171 through a connecting plate, and the other end of the first hydraulic telescopic rod b 171 is used to connect with the first movable pedestal 11 through a side plate, and the first clamping cylinder b 17 is driven to move by the first hydraulic telescopic rod b 171.

[0023] Further, in the embodiment, on both sides of the top end of the second sliding base 2 are respectively connected with second hydraulic lifting rods 22. The other ends of the second hydraulic lifting rods 22 are connected with a second movable plate 23 through connecting a second connecting beam, and the second movable plate 23 is driven to lift by the second hydraulic lifting rods 22; at one end of the second movable plate 23 close to the electric pole is connected with a second electric rotary pedestal 24, and on the second electric rotary pedestal 24 is connected with a second movable pedestal 21 that can be driven to rotate by the second electric rotary pedestal 24.

[0024] The second limiting structure includes a second limiting guide cylinder 25 with a through hole; one end of the second limiting guide cylinder 25 is used to connect with the second movable pedestal 21, one end of the electric pole is used to penetrate through the second limiting guide cylinder 25, and the end is used to abut against the second movable pedestal 21, and the end of the electric pole is limited by the second limiting guide cylinder 25.

[0025] Moreover, the second clamping mechanism includes a second clamping cylinder a26 and a second clamping cylinder b27. The output end of the second clamping cylinder a26 is connected with a claw for clamping and limiting the electric pole. The cylinder block of the second clamping cylinder a26 is connected with a second hydraulic telescopic rod a261 through a connecting plate. The other end of the second hydraulic telescopic rod a261 is used to connect with the second movable pedestal 21 through a side plate, and the second clamping cylinder a26 is driven to move by the second hydraulic telescopic rod a261. The output end of the second clamping cylinder b27 is connected with a claw for clamping and limiting the electric pole. The cylinder block of the second clamping cylinder b27 is connected with a second hydraulic telescopic rod b271 through a connecting plate. The other end of the second hydraulic telescopic rod b271 is used to connect with the second movable pedestal 27 through a side plate, and the second clamping cylinder b27 is driven to move by the second hydraulic telescopic rod b271.

[0026] In this way, when the mechanical properties of the electric pole need to be detected (including strength and bearing capacity, stiffness and anti-deformation ability, crack resistance), the electric pole is lifted by a lifting device between the first limit moving mechanism and the second limit moving mechanism of the detection platform. By adjusting and controlling the first sliding base 1 to move towards one end of the electric pole, one end of the electric pole passes through the first clamping cylinder a16 and the first clamping cylinder b17 of the first clamping mechanism and is placed in the first limit guiding cylinder 15, and the end of the electric pole abuts against the first movable pedestal 11, so that the first limit guiding cylinder 15 limits one end of the electric pole. Then, by adjusting and controlling the first hydraulic telescopic rod a161 to drive the first clamping cylinder a16 to move towards one side of the electric pole to a suitable position, and then by adjusting and controlling the first clamping cylinder a16 to drive the claw installed on the first clamping cylinder a16 to clamp and stabilize the side wall of the electric pole. Similarly, by adjusting and controlling the second sliding base 2 to move towards one end of the electric pole, one end of the electric pole passes through the second clamping cylinder a26 and the second clamping cylinder b27 of the second clamping mechanism and is placed in the second limit guiding cylinder 25, and the end of the electric pole abuts against the second movable pedestal 21, so that the second limit guiding cylinder 25 limits one end of the electric pole. Then, by adjusting and controlling the second hydraulic telescopic rod a261 to drive the second clamping cylinder a26 to move towards one side of the electric pole to a suitable position, and then by adjusting and controlling the second clamping cylinder a26 to drive the claw installed on the second clamping cylinder a26 to clamp and stabilize the side wall of the electric pole.

[0027] First: After adjusting and controlling the first limit moving mechanism and the first limit moving mechanism to clamp and limit the electric pole stably, then adjust and control: the first electric rotating pedestal 14 rotates, the second electric rotating pedestal 24 does not move, or the first electric rotating pedestal 14 does not move, the second electric rotating pedestal 24 rotates, or the first electric rotating pedestal 14 and the second electric rotating pedestal 24 rotate in opposite directions; use the existing technology installed, that is, the equipment used to detect the stiffness and anti-deformation ability of the electric pole, to detect the mechanical properties of the stiffness and anti-deformation ability of the electric pole. Second: After adjusting and controlling the first limit moving mechanism and the first limit moving mechanism to clamp and limit the electric pole stably, then adjust and control: the first electric rotating pedestal 14 moves relatively towards the second electric rotating pedestal 24 and the second electric rotating pedestal 24 does not move, or the first electric rotating pedestal 14 does not move, the second electric rotating pedestal 24 moves relatively towards the first electric rotating pedestal 14, or the first electric rotating pedestal 14 and the second electric rotating pedestal 24 move relatively; use the existing technology installed, that is, the equipment used to detect the strength and bearing capacity of the electric pole, to detect the mechanical properties of the strength and bearing capacity of the electric pole.

[0028] Embodiment 4 Furthermore, the detection mechanism provided includes a movable detection mounting seat 31; the movable detection mounting seat 31 is provided with an arc groove adapted to the outer shape of the electric pole, and a number of telescopically movable electric push rods 311 are installed and connected around the arc groove. The output end rod body of the electric push rod 311 is detachably connected with a probe for detecting the electric pole, and a signal sensor is connected to the end of the output end rod body of the electric push rod 311. One end of the movable detection mounting seat 31 away from the electric pole is connected with a detection telescopic hydraulic rod 32 for driving the movable detection mounting seat 31 to move. The other end of the detection telescopic hydraulic 32 is connected through a connecting seat with a detection lifting hydraulic rod 33 for driving the movable detection mounting seat 31 to move up and down. The bottom end of the detection lifting hydraulic rod 33 is connected with a detection electric rotating pedestal 34 for driving the detection lifting hydraulic rod 33 to rotate. The bottom end of the detection electric rotating pedestal 34 is connected with a detection movable seat 3, and the bottom end of the detection movable seat 3 is connected with a detection electric steel roller driven by a motor. The detection electric steel roller is in rolling fit with the steel guide rail anchored to the ground.

[0029] In an embodiment, by adjusting the control to detect the lifting hydraulic rod 33 and the detecting electric rotating pedestal 34 to drive the movable detection mounting seat 31 to move to a suitable position, and placing the electric pole in the arc groove formed in the movable detection mounting seat 31 and adapted to the outer shape of the electric pole; then adjusting the probe on the electric push rod 311 to be in "elastic contact" with the outer wall of the electric pole; subsequently, by controlling the movement of the detection movable seat 3, the probe is moved in a contact manner along the length direction of the electric pole. Through the cooperation of the probe and the signal sensor, the surface parameters of the electric pole are transmitted to the existing detection equipment for detecting the anti-cracking performance in the form of electrical signals, etc., and the anti-cracking performance of the electric pole is evaluated and judged through comparison and analysis. It should be noted here that detection probes for detecting the flatness, perpendicularity, etc. of the electric pole can also be installed and connected to the electric push rod 311, and the relevant performance of the electric pole can also be detected on this detection platform according to the above operation method.

Claims

1. A multifunctional detection platform for the mechanical properties of electric poles, characterized in that, It includes a first limit moving mechanism and a second limit moving mechanism that can be relatively movably arranged; The first limit moving mechanism includes a first sliding base, the first sliding base is slidably arranged, and a first clamping mechanism for limiting and clamping the electric pole is arranged on the top end of the first sliding base in a liftable manner. The first clamping mechanism is connected to a first movable pedestal, and a first limit structure for limiting the electric pole is arranged on the first movable pedestal; The second limit moving mechanism includes a second sliding base, the second sliding base is slidably arranged, and a second clamping mechanism for limiting and clamping the electric pole is arranged on the top end of the second sliding base in a liftable manner. The second clamping mechanism is connected to a second movable pedestal, and a second limit structure for limiting the electric pole is arranged on the second movable pedestal; A detection mechanism for moving detection of the electric pole is arranged between the first limit moving mechanism and the second limit moving mechanism.

2. The multifunctional electric pole mechanical property detection platform according to claim 1, characterized in that, The bottom end of the first sliding base is connected with a first electric steel roller driven by a motor, and the first electric steel roller is in rolling fit with a steel guide rail anchored to the ground; The bottom end of the second sliding base is connected with a second electric steel roller driven by a motor, and the second electric steel roller is in rolling fit with a steel guide rail anchored to the ground.

3. The multifunctional pole mechanical property detection platform according to claim 2, characterized in that, Both sides of the top end of the first sliding base are respectively connected with a first hydraulic lifting rod, and the other end of the first hydraulic lifting rod is connected with a first movable plate through a first connecting beam to drive the first movable plate to lift through the first hydraulic lifting rod; One end of the first movable plate close to the electric pole is connected with a first electric rotating pedestal, and a first movable pedestal that can be driven to rotate by the first electric rotating pedestal is connected to the first electric rotating pedestal.

4. The multifunctional mechanical property detection platform for electric poles according to claim 3, wherein The first limit structure includes a first limit guiding cylinder arranged with a through center; One end of the first limit guiding cylinder is used for connecting with the first movable pedestal, one end of the electric pole is used for passing through the first limit guiding cylinder, and the end is used for abutting against the first movable pedestal to limit the end of the electric pole through the first limit guiding cylinder.

5. A multifunctional electric pole mechanical property detection platform according to claim 4, characterized in that The first clamping mechanism includes a first clamping cylinder a and a first clamping cylinder b; The output end of the first clamping cylinder a is connected with a claw for clamping and limiting the electric pole. The cylinder body of the first clamping cylinder a is connected with a first hydraulic telescopic rod a through a connecting plate, and the other end of the first hydraulic telescopic rod a is used for connecting with the first movable pedestal through a side plate to drive the first clamping cylinder a to move through the first hydraulic telescopic rod a; The output end of the first clamping cylinder b is connected with a claw for clamping and limiting the electric pole. The cylinder body of the first clamping cylinder b is connected with a first hydraulic telescopic rod b through a connecting plate, and the other end of the first hydraulic telescopic rod b is used for connecting with the first movable pedestal through a side plate to drive the first clamping cylinder b to move through the first hydraulic telescopic rod b.

6. A multifunctional mechanical property detection platform for utility poles according to claim 2, characterized in that, Both sides of the top end of the second sliding base are respectively connected with a second hydraulic lifting rod, and the other end of the second hydraulic lifting rod is connected with a second movable plate through a second connecting beam to drive the second movable plate to lift through the second hydraulic lifting rod; One end of the second movable plate close to the pole is connected to a second electric rotating pedestal, and the second electric rotating pedestal is connected to a second movable pedestal that can be driven to rotate by the second electric rotating pedestal.

7. A multifunctional mechanical property detection platform for electric poles according to claim 6, characterized in that, The second limiting structure includes a second limiting guide cylinder arranged through the center; One end of the second limiting guide cylinder is used to connect with the second movable pedestal, one end of the pole is used to pass through the second limiting guide cylinder, and the end is used to abut against the second movable pedestal, and the end of the pole is limited by the second limiting guide cylinder.

8. A multifunctional detection platform for the mechanical properties of electric poles according to claim 7, characterized in that, The second clamping mechanism includes a second clamping cylinder a and a second clamping cylinder b; The output end of the second clamping cylinder a is connected to a clamping claw for clamping and limiting the pole. The cylinder body of the second clamping cylinder a is connected to the second hydraulic telescopic rod a through a connecting plate. The other end of the second hydraulic telescopic rod a is connected to the second movable platform through a side plate. The second clamping cylinder a is driven to move by the second hydraulic telescopic rod a. The output end of the second clamping cylinder b is connected to a clamping claw for clamping and limiting the electric pole. The cylinder body of the second clamping cylinder b is connected to the second hydraulic telescopic rod b through a connecting plate. The other end of the second hydraulic telescopic rod b is used to connect to the second movable platform through a side plate, and the second clamping cylinder b is driven to move by the second hydraulic telescopic rod b.

9. A multifunctional mechanical property detection platform for electric poles according to claim 1, characterized in that, The detection mechanism includes a movable detection mounting seat; The movable detection mounting seat is provided with an arc groove adapted to the shape of the electric pole, and a number of retractable and movable electric push rods are installed and connected around the arc groove. The output end rod body of the electric push rod is detachably connected to a probe for detecting the electric pole, and the end of the output end rod body of the electric push rod is connected to a signal sensor.

10. The multifunctional electric pole mechanical property detection platform according to claim 9, characterized in that, The end of the movable detection mounting seat away from the electric pole is connected to a detection telescopic hydraulic rod for driving the movable detection mounting seat to move, and the other end of the detection telescopic hydraulic rod is connected to a detection lifting hydraulic rod for driving the movable detection mounting seat to lift and lower through a connecting seat, and the bottom end of the detection lifting hydraulic rod is connected to a detection electric rotating platform for driving the detection lifting hydraulic rod to rotate, and the bottom end of the detection electric rotating platform is connected to a detection movable seat, and the bottom end of the detection movable seat is connected to a detection electric steel roller driven by a motor, and the detection electric steel roller is rollingly adapted to a steel guide rail anchored to the ground.

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