Telescopic movable scaffold overturn-preventing early warning device

Abstract

The utility model discloses a telescopic movable scaffold anti-overturning early warning device which comprises a scaffold vertical rod, a connecting vertical rod is arranged on one side of the scaffold vertical rod, a splicing transverse rod is arranged at the bottom of one side of the connecting vertical rod, and a splicing inclined rod is arranged at the top of one side of the connecting vertical rod. Splicing hoop rings are tightly adjusted on the outer sides of the connecting vertical rod, the outer sides of the splicing transverse rods and the outer sides of the splicing inclined rods, and the splicing transverse rod located at the tail end is fixedly connected with a supporting stand column. And the splicing cross rods and the splicing inclined rods are fixed through the splicing hoop rings after being adjusted to proper positions, so that the bottom of the movable scaffold is reinforced, the scaffold can be kept stable after being heightened by actively increasing the supporting area of the bottom of the scaffold, and the use stability and safety of the scaffold are effectively improved.

Description

Technical Field

[0001] This utility model relates to the field of mobile scaffolding technology, specifically a retractable mobile scaffolding anti-tipping early warning device. Background Technology

[0002] Mobile scaffolding refers to various supports erected on construction sites to facilitate worker operations and solve vertical and horizontal transportation. It has the characteristics of simple assembly and disassembly, good load-bearing capacity, and safe and reliable use. Its development speed is very fast. Among various new types of scaffolding, mobile scaffolding was the earliest developed and has the largest usage.

[0003] However, currently, the use of scaffolding requires the erection of two or more layers of mobile scaffolding. As the erection height increases, the center of gravity of the scaffolding gradually shifts upward, and its bottom support is insufficient, making it very easy for it to tip over. Utility Model Content

[0004] This utility model provides a retractable mobile scaffolding anti-tipping early warning device, which can effectively solve the problem mentioned in the background art that when using mobile scaffolding, two or more layers need to be erected. As the erection height increases, the center of gravity of the scaffolding gradually shifts upward, and its bottom support is insufficient, making it very easy to cause a tipping accident.

[0005] To achieve the above objectives, this utility model provides the following technical solution: a retractable mobile scaffolding anti-tipping early warning device, including scaffolding uprights, wherein a telescopic splicing adjustment mechanism is provided on one side of the scaffolding uprights;

[0006] The telescopic splicing adjustment mechanism includes a connecting upright, a splicing horizontal bar, a splicing diagonal bar, a splicing hoop, a supporting column, a threaded support rod, and splicing bolts;

[0007] A connecting upright is provided on one side of the scaffold upright, a splicing horizontal bar is provided at the bottom of one side of the connecting upright, and a splicing diagonal bar is provided at the top of one side of the connecting upright. The connecting upright, the splicing horizontal bar and the splicing diagonal bar are all tightly adjusted with splicing hoops on their outer sides. The splicing horizontal bar at the end is fixedly connected to a supporting column. A threaded support rod is installed in the middle of the bottom surface of the supporting column. The top of the connecting upright and the supporting column are both connected by splicing bolts.

[0008] Preferably, each group of splicing horizontal bars and splicing diagonal bars consists of three bars. The splicing horizontal bars are spliced ​​together by splicing hoops, the splicing diagonal bars are spliced ​​together by splicing hoops, and the connecting uprights and supporting columns are spliced ​​to the corresponding splicing horizontal bars by splicing bolts.

[0009] Preferably, an end balance detection mechanism is provided at the end of the splicing diagonal bar;

[0010] The end balance detection mechanism includes a splicing rubber plug, a connecting disc, a splicing arc-shaped seat, a connecting block, an infrared distance sensor, and an alarm indicator light;

[0011] The end of the splicing diagonal rod is tightly clamped with a splicing plug, and the end of the splicing plug is glued with a connecting disc. A splicing arc-shaped seat is fixedly connected to the middle of one side of the connecting disc. A connecting block is rotatably installed at the end of the splicing arc-shaped seat through a connecting bolt. An infrared distance sensor is fixedly installed in the middle of the bottom surface of the connecting block, and an alarm indicator light is fixedly connected in the middle of the top surface of the connecting block.

[0012] Preferably, the outer side of the splicing plug and the inner wall of the splicing diagonal rod are tightly slidably fitted together, and the signal output terminal of the infrared distance sensor is connected to the signal input terminal of the alarm indicator light.

[0013] Preferably, the outer sides of both the splicing crossbar and the splicing diagonal bar are covered with an elastic auxiliary limiting mechanism;

[0014] The elastic auxiliary limiting mechanism includes a connecting inclined plate, a supporting strip, and a connecting elastic band;

[0015] The sides of the splicing crossbar and the splicing diagonal bar are symmetrically provided with connecting diagonal plates. Support strips are evenly and equidistantly bonded to the sides of the connecting diagonal plates. Both ends of the connecting diagonal plates are fixedly connected with connecting elastic bands.

[0016] Preferably, the side of the connecting inclined plate is in close contact with the splicing crossbar and the splicing inclined bar, and the outer side of the connecting elastic band is in close contact with the splicing crossbar and the splicing inclined bar.

[0017] Compared with the prior art, the advantages of this utility model are: the structure of this utility model is scientific and reasonable, and it is safe and convenient to use.

[0018] 1. A telescopic splicing adjustment mechanism is installed. The support frame is formed by splicing horizontal bars, splicing diagonal bars, and supporting columns. By twisting the threaded support rods, the bottom end is made to fit tightly with the ground to provide auxiliary support to the bottom of the supporting columns. When it is necessary to expand the support area at the bottom of the scaffolding uprights, the length of the horizontal bars (splitting the horizontal bars) and diagonal bars (splitting the diagonal bars) can be adjusted by loosening the splicing hoops. The two ends of the diagonal bars can swing along the ends of the connecting uprights and supporting columns through the splicing bolts. After the splicing horizontal bars and diagonal bars are adjusted to the appropriate position, they are fixed by the splicing hoops, thereby strengthening the bottom of the mobile scaffolding. By actively increasing the bottom support area of ​​the scaffolding, the scaffolding remains stable even when it is raised, effectively improving the stability and safety of the scaffolding.

[0019] 2. An end balance detection mechanism is installed. The connecting disc and its components are snapped to the end of the splicing diagonal rod through splicing plugs. The tilt angle of the connecting block is adjusted by the splicing arc seat, so that the infrared distance sensor can be installed horizontally at the end of the splicing diagonal rod. When the scaffolding shakes, it will cause the splicing diagonal rod to swing, which will cause the infrared distance sensor to tilt and swing. When the infrared distance sensor swings, it will detect the change in the distance between the bottom surface and the ground. The flashing of the alarm indicator light will remind the scaffolding that it has slipped, so that the staff can find the problem of the scaffolding in time and eliminate it, which will further improve the safety of the scaffolding.

[0020] 3. An elastic auxiliary limiting mechanism is set up, which limits the sides of the splicing horizontal bars and splicing diagonal bars by connecting inclined plates, flexibly binds the splicing horizontal bars and splicing diagonal bars by connecting elastic bands, and reinforces the sides of the connecting inclined plates by supporting strips, so as to prevent misalignment between the splicing horizontal bars and splicing diagonal bars, thereby effectively improving the stability of each component during the scaffolding adjustment process. Attached Figure Description

[0021] The accompanying drawings are provided to further understand the present invention and form part of the specification. They are used together with the embodiments of the present invention to explain the present invention and do not constitute a limitation thereof.

[0022] In the attached diagram:

[0023] Figure 1 This is a schematic diagram of the structure of this utility model;

[0024] Figure 2 This is a schematic diagram of the telescopic splicing adjustment mechanism of this utility model;

[0025] Figure 3 This is a schematic diagram of the end balance detection mechanism of this utility model;

[0026] Figure 4 This is a schematic diagram of the elastic auxiliary limiting mechanism of this utility model;

[0027] Numbered in the diagram: 1. Scaffold uprights;

[0028] 2. Telescopic splicing adjustment mechanism; 201. Connecting upright; 202. Splicing horizontal bar; 203. Splicing diagonal bar; 204. Splicing hoop; 205. Supporting column; 206. Threaded support rod; 207. Splicing bolt;

[0029] 3. End balance detection mechanism; 301. Splicing rubber plug; 302. Connecting disc; 303. Splicing arc-shaped seat; 304. Connecting block; 305. Infrared distance sensor; 306. Alarm indicator light;

[0030] 4. Elastic auxiliary limiting mechanism; 401. Connecting inclined plate; 402. Support strip; 403. Connecting elastic band. Detailed Implementation

[0031] The preferred embodiments of the present invention will be described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are for illustration and explanation only and are not intended to limit the present invention.

[0032] Example: Figure 1-4 As shown, this utility model provides a technical solution: a retractable mobile scaffolding anti-tipping early warning device, including a scaffolding upright 1, and a telescopic splicing adjustment mechanism 2 is provided on one side of the scaffolding upright 1;

[0033] The telescopic splicing adjustment mechanism 2 includes a connecting upright 201, a splicing horizontal bar 202, a splicing diagonal bar 203, a splicing hoop 204, a supporting column 205, a threaded support rod 206, and a splicing bolt 207;

[0034] A connecting upright 201, 120cm long, is installed on one side of the scaffold upright 1. A splicing horizontal bar 202, 50cm long, is installed at the bottom of one side of the connecting upright 201. A splicing diagonal bar 203, 80cm long, is installed at the top of one side of the connecting upright 201. Splicing hoops 204 are tightly adjusted on the outer sides of the connecting upright 201, the splicing horizontal bar 202, and the splicing diagonal bar 203. The splicing horizontal bar 202 at the end is fixedly connected to a supporting column 2. 05. The length of the support column 205 is 60cm. A threaded support rod 206 is installed in the middle of the bottom surface of the support column 205 via threads. The top of the connecting column 201 and the support column 205 are both connected by splicing bolts 207. Each set of splicing horizontal bars 202 and splicing diagonal bars 203 is provided with three bars. The connecting column 201, splicing horizontal bars 202, splicing diagonal bars 203 and support column 205 are all 42mm galvanized steel. The splicing horizontal bars 202 are spliced ​​together by splicing clamps 204, and the splicing diagonal bars 203 are connected by... The scaffolding is spliced ​​together using splicing collars 204. The connecting uprights 201 and support columns 205 are then spliced ​​with the corresponding splicing horizontal bars 202 using splicing bolts 207. The splicing horizontal bars 202, splicing diagonal bars 203, and support columns 205 together form a support frame. Twisting the threaded support rods 206 ensures a tight fit between its bottom end and the ground, providing auxiliary support to the bottom of the support columns 205. When it is necessary to increase the support area at the bottom of the scaffolding uprights 1, the splicing collars 204 can be loosened to allow for splicing of the horizontal bars 202. The length of the horizontal bar and the diagonal bar formed by splicing the horizontal bar and the diagonal bar formed by splicing the diagonal bar 203 can be adjusted, and the two ends of the diagonal bar can swing along the ends of the connecting upright 201 and the supporting column 205 through the splicing bolt 207. After the splicing horizontal bar 202 and the splicing diagonal bar 203 are adjusted to the appropriate position, they are fixed by the splicing hoop 204, thereby realizing the reinforcement of the bottom of the mobile scaffold. By actively increasing the bottom support area of ​​the scaffold, the scaffold can remain stable even after it is raised, effectively improving the stability and safety of the scaffold.

[0035] An end balance detection mechanism 3 is provided at the end of the splicing diagonal bar 203;

[0036] The end balance detection mechanism 3 includes a splicing rubber plug 301, a connecting disc 302, a splicing arc seat 303, a connecting block 304, an infrared distance sensor 305, and an alarm indicator light 306;

[0037] A splicing plug 301 is tightly engaged at the end of the splicing diagonal rod 203. A connecting disc 302 is adhered to the end of the splicing plug 301. A splicing arc-shaped seat 303 is fixedly connected to the middle of one side of the connecting disc 302. A connecting block 304 is rotatably mounted on the end of the splicing arc-shaped seat 303 via a connecting bolt. An infrared distance sensor 305 is fixedly mounted on the middle of the bottom surface of the connecting block 304. An alarm indicator light 306 is fixedly connected to the middle of the top surface of the connecting block 304. The outer side of the splicing plug 301 and the inner wall of the splicing diagonal rod 203 are tightly slidably fitted together. The signal output terminal of the infrared distance sensor 305 is interconnected with the signal input terminal of the alarm indicator light 306. The splicing plug 301 transmits signals to the infrared distance sensor 305. The connecting disc 302 and its components are snapped onto the end of the splicing diagonal bar 203. The tilt angle of the connecting block 304 is adjusted by the splicing arc seat 303, so that the infrared distance sensor 305 can be horizontally installed at the end of the splicing diagonal bar 203. When the scaffolding shakes, it will cause the splicing diagonal bar 203 to swing, which will cause the infrared distance sensor 305 to tilt and swing. When the infrared distance sensor 305 swings, it will detect the change in the distance between the bottom surface and the ground. The flashing of the alarm indicator light 306 will remind the scaffolding that it has slipped, so that the staff can find the problem of the scaffolding in time and eliminate it, further improving the safety of the scaffolding.

[0038] Both the splicing crossbar 202 and the splicing diagonal bar 203 are covered with an elastic auxiliary limiting mechanism 4 on their outer sides;

[0039] The elastic auxiliary limiting mechanism 4 includes a connecting inclined plate 401, a supporting strip 402, and a connecting elastic band 403;

[0040] Both the horizontal and diagonal braces 202 and 203 are symmetrically equipped with connecting inclined plates 401. Support strips 402 are evenly and equidistantly bonded to the sides of the connecting inclined plates 401. Connecting elastic bands 403 are fixedly connected to both ends of the connecting inclined plates 401. The sides of the connecting inclined plates 401 are tightly fitted to the horizontal and diagonal braces 202 and 203, and the outer side of the connecting elastic bands 403 is also tightly fitted to the horizontal and diagonal braces 202 and 203. The connecting inclined plates 401 limit the movement of the sides of the horizontal and diagonal braces 202 and 203, the connecting elastic bands 403 flexibly bind the horizontal and diagonal braces 202 and 203, and the support strips 402 reinforce the sides of the connecting inclined plates 401 to prevent misalignment between the various sets of horizontal and diagonal braces 202 and 203, thereby effectively improving the stability of each component during scaffolding adjustment.

[0041] The working principle and usage process of this utility model are as follows: In practical application, when processing the bottom of the scaffolding, the connecting uprights 201 are first bound to the side of the scaffolding uprights 1 using splicing hoops 204. Then, the components on the side of the connecting uprights 201 are installed onto the side of the scaffolding. The splicing horizontal bars 202, splicing diagonal bars 203, and supporting columns 205 are then spliced ​​together to form a support frame. Finally, the threaded support rods 206 are twisted to ensure their bottom ends are tightly fitted to the ground, providing auxiliary support to the bottom of the supporting columns 205. This process is repeated when the support area at the bottom of the scaffolding uprights 1 needs to be increased. When the scaffold is expanded, the length of the horizontal bar formed by splicing the horizontal bar 202 and the diagonal bar formed by splicing the diagonal bar 203 can be adjusted after loosening the splicing hoop 204. The two ends of the diagonal bar can swing along the ends of the connecting upright 201 and the supporting column 205 through the splicing bolt 207. After the splicing horizontal bar 202 and the splicing diagonal bar 203 are adjusted to the appropriate position, they are fixed by the splicing hoop 204, thereby strengthening the bottom of the mobile scaffold. By actively increasing the bottom support area of ​​the scaffold, the scaffold can remain stable even after it is raised, effectively improving the stability and safety of the scaffold.

[0042] When it is necessary to inspect the condition of the scaffolding, the connecting disc 302 and its components are snapped onto the end of the splicing diagonal bar 203 by the splicing plug 301. Then, the tilt angle of the connecting block 304 is adjusted by the splicing arc seat 303, so that the infrared distance sensor 305 can be horizontally installed at the end of the splicing diagonal bar 203. When the scaffolding shakes, it will cause the splicing diagonal bar 203 to swing, which will cause the infrared distance sensor 305 to tilt and swing. When the infrared distance sensor 305 swings, it will detect the change in the distance between the bottom surface and the ground, and then the flashing of the alarm indicator light 306 will remind the scaffolding that it has slipped, so that the staff can find and eliminate the problem of the scaffolding in time, which will further improve the safety of the scaffolding.

[0043] When adjusting the auxiliary splicing horizontal bars 202 and splicing diagonal bars 203, after loosening the splicing hoop 204, the sides of the splicing horizontal bars 202 and splicing diagonal bars 203 can be limited by the connecting inclined plate 401, and the splicing horizontal bars 202 and splicing diagonal bars 203 can be flexibly bound by the connecting elastic band 403. Then, the sides of the connecting inclined plate 401 are reinforced by the support strip 402 to prevent misalignment between the splicing horizontal bars 202 and splicing diagonal bars 203, thereby effectively improving the stability of each component during the scaffolding adjustment process.

[0044] Finally, it should be noted that the above description is merely a preferred embodiment of this utility model and is not intended to limit the utility model. Although the utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the protection scope of this utility model.

Claims

1. A telescopic mobile scaffold anti-overturning early warning device, comprising a scaffold upright rod (1), characterized in that: The scaffold vertical rod (1) is provided with a telescopic splicing type adjusting mechanism (2) on one side; The telescopic splicing type adjusting mechanism (2) comprises a connecting vertical rod (201), a splicing cross rod (202), a splicing inclined rod (203), a splicing hoop (204), a supporting column (205), a threaded supporting rod (206) and a splicing bolt (207); The connecting vertical rod (201) is provided with a splicing cross rod (202) on one side at the bottom, and a splicing inclined rod (203) is arranged at the top position on one side of the connecting vertical rod (201); the outer sides of the connecting vertical rod (201), the splicing cross rod (202) and the splicing inclined rod (203) are closely adjusted with the splicing hoop (204); the splicing cross rod (202) located at the end is fixedly connected with the supporting column (205); the threaded supporting rod (206) is threadedly installed on the bottom surface of the supporting column (205); and the splicing bolt (207) is connected at the top of the connecting vertical rod (201) and the supporting column (205).

2. The telescopic mobile scaffold anti-overturning early warning device according to claim 1, characterized in that, Each group of the splicing cross rod (202) and the splicing inclined rod (203) is provided with three rods; the splicing cross rods (202) are spliced by the splicing hoop (204); the splicing inclined rods (203) are spliced by the splicing hoop (204); and the connecting vertical rod (201) and the supporting column (205) are spliced with the corresponding splicing cross rod (202) by the splicing bolt (207).

3. The telescopic mobile scaffold anti-overturning early warning device according to claim 1, characterized in that, The splicing inclined rod (203) is provided with an end balance detection mechanism (3) at the end; The end balance detection mechanism (3) comprises a splicing rubber plug (301), a connecting disc (302), a splicing arc-shaped seat (303), a connecting square block (304), an infrared distance sensor (305) and an alarm indicating lamp (306); The splicing rubber plug (301) is closely clamped at the end of the splicing inclined rod (203); the splicing rubber plug (301) is bonded with the connecting disc (302) at the end; the connecting disc (302) is fixedly connected with the splicing arc-shaped seat (303) on one side at the middle; the splicing arc-shaped seat (303) is rotatably installed with the connecting square block (304) through a connecting bolt at the end; the infrared distance sensor (305) is fixedly installed on the bottom surface of the connecting square block (304) at the middle; and the alarm indicating lamp (306) is fixedly connected on the top surface of the connecting square block (304) at the middle.

4. The telescopic mobile scaffold anti-overturning early warning device according to claim 3, characterized in that, The outer side of the splicing rubber plug (301) and the inner wall of the splicing inclined rod (203) are closely and slidably attached; and the signal output end of the infrared distance sensor (305) and the signal input end of the alarm indicating lamp (306) are connected with each other.

5. The telescopic mobile scaffold anti-overturning early warning device according to claim 1, characterized in that, The outer sides of the splicing cross rod (202) and the splicing inclined rod (203) are covered with an elastic auxiliary limiting mechanism (4); The elastic auxiliary limiting mechanism (4) comprises a connecting inclined plate (401), a supporting small strip (402) and a connecting elastic belt (403). The splicing horizontal rod (202) and the splicing inclined rod (203) are symmetrically provided with the connecting inclined plates (401) on the sides, the connecting inclined plates (401) are uniformly and equidistantly bonded with the supporting strips (402) on the sides, and the connecting inclined plates (401) are fixedly connected with the connecting elastic bands (403) at the two ends.

6. The telescopic mobile scaffold anti-overturning early warning device according to claim 5, characterized in that, The connecting inclined plates (401) are tightly attached between the splicing horizontal rod (202) and the splicing inclined rod (203), and the outer sides of the connecting elastic bands (403) are tightly attached between the splicing horizontal rod (202) and the splicing inclined rod (203).

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