Geotechnical engineering slope reinforcing device

Abstract

The utility model relates to the technical field of geotechnical engineering slope reinforcement, in particular to a geotechnical engineering slope reinforcement device which comprises a rock-soil slope and an interconnection assembly, the surface of the rock-soil slope is covered with a reinforcement frame, the interconnection assembly is arranged on the reinforcement frame, and the reinforcement frame is connected together through the interconnection assembly. The interconnection assembly comprises an upper sealing plate, a containing frame, a spring, sliding blocks and a lock head, the containing frame is arranged at the lower end of the upper sealing plate, the spring is installed in the containing frame, the sliding blocks are connected to the two ends of the spring, and the lock head is connected to the end, away from the spring, of each sliding block. The device is provided with a rapid installation structure, transportation can be conducted in a bulk mode, the transportation cost is reduced, meanwhile, due to the bulk mode, the gravity of each part is too small, manual carrying can be conducted, the installation cost is reduced, meanwhile, due to the installation mode of being inserted into the ground, equipment installation is more stable, and the stability of the equipment is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of geotechnical engineering slope reinforcement, in particular to a geotechnical engineering slope reinforcement device. Background Art

[0002] Slope reinforcement refers to measures to improve the stability of open-pit mine slopes. It improves slope stability by setting up slope angle retaining walls under the slope angle of the slope fracture zone, setting up anti-slide piles in the local fracture zone or on the slope, and injecting grout into the rock strata with open joints and fissures. These measures are beneficial to safety and can increase the slope angle and reduce the amount of stripping work.

[0003] The patent with publication number CN218933161U and titled "A geotechnical engineering slope reinforcement device" includes a reinforcement plate arranged on the inclined surface of the slope, and a plurality of planting grooves are evenly distributed on the side of the reinforcement plate close to the slope. A diversion block corresponding to each planting groove is detachably connected on the side of the reinforcement plate away from the slope, and the projection of each diversion block on the vertical plane is triangular. A collecting groove is provided on the top of each diversion block, and each collecting groove is conductively connected to the corresponding planting groove. The utility model uses plants to protect the mountain slope, and at the same time can increase the stability of the connection between the mechanical structure and the mountain slope, so that the reinforcement structure is not easy to loosen, thereby ensuring the reinforcement effect and facilitating use.

[0004] Before use, the above-mentioned device adopts a pre-processing method to form the reinforcement plate and the planting trough into a whole, and then transports them to the designated location for installation. This integrated transportation method will occupy a large area of ​​the transport vehicle, which will cause a certain amount of space waste and cause transportation difficulties. At the same time, the weight of the integrated type is too large and requires an auxiliary crane to install it, which indirectly increases the installation cost. Therefore, in view of the above-mentioned defects, the present application proposes a geotechnical engineering slope reinforcement device. Utility Model Content

[0005] The purpose of the utility model is to provide a geotechnical engineering slope reinforcement device to solve the problems raised in the above background technology.

[0006] To achieve the above-mentioned purpose, the utility model provides the following technical solution: it includes a rock and soil slope and an interconnection component, the surface of the rock and soil slope is covered with a reinforcement frame, the interconnection component is on the reinforcement frame, and the interconnection component connects the reinforcement frame together, the interconnection component includes an upper sealing plate, a receiving frame, a spring, a sliding block and a locking head, and a receiving frame is provided at the lower end of the upper sealing plate, a spring is installed inside the receiving frame, and sliding blocks are connected to both ends of the spring, and the end of the sliding block away from the spring is connected to the locking head.

[0007] Preferably, the reinforcement frame includes a reinforcement long frame and a reinforcement short frame, and a reinforcement short frame is connected between the two reinforcement long frames.

[0008] Preferably, a ground connection assembly is installed in the middle of the reinforced short frame, and the ground connection assembly and the reinforced short frame are rotatably connected via a bearing.

[0009] Preferably, the ground connection assembly includes a connecting screw rod, a pressing head and a rotating connecting plate, and the pressing head is installed at one end of the connecting screw rod away from the reinforcement short frame, and the rotating connecting plate is arranged inside the connecting screw rod.

[0010] Preferably, the ground connection assembly also includes a rotating rod, a hexagonal socket and a connecting sleeve, and the interior of the rotating connecting plate is connected to the rotating rod, and the rotating rod is provided with a hexagonal socket at one end close to the reinforcement short frame, and the connecting sleeve is connected to the end of the rotating rod away from the reinforcement short frame.

[0011] Preferably, the ground connection assembly also includes a connecting inner ball, a connecting rotating rod and a deflecting weight, and the inner part of the connecting outer sleeve is connected to the connecting inner ball, and the side of the connecting inner ball away from the connecting outer sleeve is connected to the connecting rotating rod, and the outer part of the connecting rotating rod is connected to the deflecting weight.

[0012] Compared with the prior art, the beneficial effects of the utility model are:

[0013] 1. The device can realize the quick connection of the reinforcement frame through the interconnection components, so that the equipment presents a single rod shape during transportation. When the rod shape is stacked for transportation, there is less space in the middle, which will maximize the use of the space inside the transportation device. At the same time, the weight of a single rod is small, and the installer can carry it to the designated location manually, and does not need a crane or other lifting device for auxiliary installation, thereby reducing the installation cost. At the same time, the lock head is popped out by the spring to lock it, and then the upper sealing plate is used for upper sealing, which can make the interconnection components unable to be disassembled after installation, thereby preventing them from being stolen and causing the equipment to disperse.

[0014] 2. The equipment is installed on the rock slope by rotating and inserting the connecting screw rod. This installation method is relatively convenient. The characteristics of the connecting screw rod make it easier to enter the soil. When the connecting screw rod is installed, the rotating rod is driven by an external rotating device to rotate forward and reverse, so that the connecting rotating rod is affected by the eccentric weight block to swing left and right, and the eccentric weight block hits the connecting screw rod to cause vibration, so that the soil covers the connecting screw rod more tightly, ensuring the tightness of the installation of the connecting screw rod. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 This is the overall diagram of the utility model;

[0016] Figure 2 This is a schematic diagram of the cross-sectional structure of a rock and soil slope of the utility model;

[0017] Figure 3This is a schematic diagram of the cross-sectional structure of the interconnection component of the utility model;

[0018] Figure 4 This is a schematic diagram of the cross-sectional structure of the ground connection component of the utility model;

[0019] Figure 5 It is a schematic diagram of the enlarged structure of the connecting jacket of the utility model.

[0020] In the figure: 1. rock slope; 2. reinforcement frame; 201. reinforcement long frame; 202. reinforcement short frame; 3. interconnection assembly; 301. upper cover plate; 302. receiving frame; 303. spring; 304. sliding block; 305. locking head; 4. ground connection assembly; 401. connecting screw rod; 402. lower pressure head; 403. rotating connecting plate; 404. rotating rod; 405. hexagonal socket; 406. connecting sleeve; 407. connecting inner ball; 408. connecting rotating rod; 409. weight block. DETAILED DESCRIPTION

[0021] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0022] See also Figure 1 and Figure 3 The utility model provides a technical solution: comprising a rock slope 1 and an interconnection component 3, the surface of the rock slope 1 is covered with a reinforcement frame 2, the interconnection component 3 is on the reinforcement frame 2, and the interconnection component 3 connects the reinforcement frame 2 together, the interconnection component 3 comprises an upper sealing plate 301, a receiving frame 302, a spring 303, a sliding block 304 and a lock 305, and the lower end of the upper sealing plate 301 is provided with a receiving frame 302, the interior of the receiving frame 302 is installed with a spring 303, and both ends of the spring 303 are connected to the sliding block 304, and the end of the sliding block 304 away from the spring 303 is connected to the lock 305;

[0023] The interconnection component 3 can be used to quickly connect the reinforcement frame 2, so that the equipment is presented in a single rod shape during transportation. The rod shape has less space in the middle when it is stacked for transportation, thereby maximizing the use of the space inside the transportation device. At the same time, the weight of a single rod is small, and the installer can carry it to the specified location manually, and does not need a crane or other lifting device for auxiliary installation, thereby reducing the installation cost. At the same time, the lock head 305 is popped out by the spring 303 to lock it, and then the upper sealing plate 301 is used to seal it, so that the interconnection component 3 cannot be disassembled after installation, thereby preventing it from being stolen and causing the equipment to disperse.

[0024] like Figure 1 and Figure 2 As shown, the reinforcement frame 2 includes a reinforcement long frame 201 and a reinforcement short frame 202, and the reinforcement short frame 202 is connected between the two reinforcement long frames 201;

[0025] The interconnection assembly 3 is pressed into the grooves on the reinforced short frame 202 and the reinforced long frame 201 to achieve the connection of the interconnection assembly 3 to the reinforced short frame 202 and the reinforced long frame 201 .

[0026] like Figure 1 and Figure 4 As shown, a ground connection assembly 4 is installed in the middle of the reinforced short frame 202, and the ground connection assembly 4 and the reinforced short frame 202 are rotatably connected via a bearing.

[0027] like Figure 4 and Figure 5 As shown, the ground connection component 4 includes a connecting screw rod 401, a pressing head 402 and a rotating connecting plate 403, and the pressing head 402 is installed at the end of the connecting screw rod 401 away from the reinforcement short frame 202, and the rotating connecting plate 403 is arranged inside the connecting screw rod 401. The ground connection component 4 also includes a rotating rod 404, an inner hexagonal groove 405 and a connecting sleeve 406, and the rotating connecting plate 403 is connected to the rotating rod 404 inside, and the rotating rod 404 is provided with an inner hexagonal groove 405 at one end close to the reinforcement short frame 202, and the end of the rotating rod 404 away from the reinforcement short frame 202 is connected to the connecting sleeve 406, the ground connection component 4 also includes a connecting inner ball 407, a connecting rotating rod 408 and a deflecting weight block 409, and the connecting sleeve 406 is connected to the connecting inner ball 407 inside, and the connecting inner ball 407 is connected to the connecting rotating rod 408 on the side away from the connecting sleeve 406, and the connecting rotating rod 408 is connected to the outside of the connecting rotating rod 408.

[0028] The equipment is installed on the rock slope 1 by rotating and inserting the connecting screw rod 401. This installation method is relatively convenient. The characteristics of the connecting screw rod 401 make it easier to enter the soil. After the connecting screw rod 401 is installed, the rotating rod 404 is driven to rotate forward and reverse through an external rotating device, so that the connecting rotating rod 408 is affected by the eccentric weight block 409 to swing left and right, and the eccentric weight block 409 hits the connecting screw rod 401 to cause vibration, so that the soil is more tightly covered on the connecting screw rod 401, ensuring the tightness of the installation of the connecting screw rod 401.

[0029] Working principle: firstly, place the reinforcement short frame 202 at the designated position, and then insert it into the groove on the connecting screw rod 401 through the external rotating drive structure, and then drive the connecting screw rod 401 to rotate, and insert the connecting screw rod 401 into the rock slope 1 through the structure of the lower pressure head 402 and the connecting screw rod 401 to fix the reinforcement short frame 202, and then insert the driving structure into the hexagonal groove 405 to drive the rotating rod 404 to rotate, thereby driving the connecting rotating rod 408 to rotate through the connecting outer sleeve 406 and the connecting inner ball 407. At this time, the driving structure adopts a forward and reverse structure, which will make the connecting rotating rod 408 rely on the inertia of the eccentric weight block 409 and gravity to perform eccentric swinging motion, and the eccentric weight block 409 will hit the inner wall of the connecting screw rod 401. The connecting spiral rod 401 is vibrated, thereby vibrating and compacting the soil around the connecting spiral rod 401, which can facilitate the stability of the connecting spiral rod 401 after installation. Then, the reinforced long frame 201 is placed between the reinforced short frames 202 to facilitate the interconnection of the reinforced long frame 201 and the reinforced short frame 202. Then, the interconnection component 3 is pressed into the grooves on the reinforced short frame 202 and the reinforced long frame 201. At this time, the sliding block 304 is caused to shrink to a certain extent by the elastic sliding structure formed between the spring 303 and the receiving frame 302, and then the sliding block 304 is ejected, so that the lock 305 is inserted into the groove body of the reinforced long frame 201 and the reinforced short frame 202 to realize the interconnection of the reinforced long frame 201 and the reinforced short frame 202, forming a whole to increase the stability of the equipment.

[0030] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A geotechnical engineering slope reinforcement device, comprising a geotechnical slope (1) and an interconnection component (3), characterized in that: The surface of the rock slope (1) is covered with a reinforcement frame (2), the interconnection component (3) is on the reinforcement frame (2), and the interconnection component (3) connects the reinforcement frame (2), the interconnection component (3) comprises an upper sealing plate (301), a receiving frame (302), a spring (303), a sliding block (304) and a lock (305), and the lower end of the upper sealing plate (301) is provided with a receiving frame (302), a spring (303) is installed inside the receiving frame (302), and both ends of the spring (303) are connected to the sliding block (304), and the end of the sliding block (304) away from the spring (303) is connected to the lock (305); The reinforcement frame (2) comprises a reinforcement long frame (201) and a reinforcement short frame (202), and the reinforcement short frame (202) is connected between the two reinforcement long frames (201); A ground connection assembly (4) is installed in the middle of the reinforced short frame (202), and the ground connection assembly (4) and the reinforced short frame (202) are rotatably connected via a bearing; The ground connection assembly (4) comprises a connecting screw rod (401), a pressing head (402) and a rotating connecting plate (403), wherein the pressing head (402) is installed at one end of the connecting screw rod (401) away from the reinforcement short frame (202), and the rotating connecting plate (403) is arranged inside the connecting screw rod (401); The ground connection assembly (4) further comprises a rotating rod (404), an inner hexagonal groove (405) and a connecting sleeve (406), wherein the interior of the rotating connecting plate (403) is connected with the rotating rod (404), and an inner hexagonal groove (405) is provided at one end of the rotating rod (404) close to the reinforcement short frame (202), and the connecting sleeve (406) is connected to one end of the rotating rod (404) away from the reinforcement short frame (202).

2. A geotechnical engineering slope reinforcement device according to claim 1, characterized in that: The ground connection assembly (4) further comprises a connecting inner ball (407), a connecting rotating rod (408) and a deflecting weight (409), wherein the interior of the connecting outer sleeve (406) is connected to the connecting inner ball (407), and the side of the connecting inner ball (407) away from the connecting outer sleeve (406) is connected to the connecting rotating rod (408), and the exterior of the connecting rotating rod (408) is connected to the deflecting weight (409).

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