Lifting device capable of repeatedly utilizing manual hole digging pile

Abstract

The utility model discloses a lifting device capable of repeatedly utilizing a manual hole digging pile. The lifting device comprises control equipment and a lifting frame base, and the lifting frame base is arranged on the periphery of a pile hole. The lower ends of the lifting frames are connected with the corresponding embedded connecting pieces respectively; the lifting frame top cover is connected to the top of the lifting frame, and the lower end of the lifting frame top cover is connected with a central suspension stress cross beam; the sliding device is connected to the central suspension stress cross beam; the hoisting assembly is connected to the sliding device; the protection assembly is arranged on the outer side below the lifting frame; the safety protection equipment is arranged at the hoisting frame base; and the sliding device and the hoisting assembly are both connected with the control equipment. The device is ingenious in design, safe and reliable, the labor burden of operators can be greatly reduced, the efficiency can be improved, the life safety of the operators can be ensured, accidents can be avoided, the stability of the device can be improved, and the working efficiency can be improved.

Description

Technical Field

[0001] This utility model relates to a lifting device, specifically a lifting device for reusable manually excavated bored piles, belonging to the technical field of construction auxiliary products. Background Technology

[0002] Generally speaking, anti-slide piles are a particularly effective retaining structure in highway construction, especially common in southwestern my country. However, in mountainous areas with narrow, uneven terrain, severe conditions, and weak foundations, large construction equipment often cannot reach the sites. In such cases, manually excavated bored piles are usually used for construction.

[0003] Existing hoisting equipment mostly consists of simple lifting frames (using concrete counterweights) that, in conjunction with electric winches, bring slag buckets and excavated soil from the bottom of manually excavated pile holes to the surface. When the winch lifts the excavated soil to the hole opening, the slag buckets must be manually lifted from the center of the pile hole to the outside before unloading. Construction workers have to operate back and forth near the edge of the pile hole, which is unsafe.

[0004] Although existing structures are equipped with devices specifically for lifting and dumping construction waste, they are either too complex and time-consuming to install and dismantle, or their functions are too limited and cannot meet the actual construction needs. Furthermore, existing structures have low flexibility, poor protective functions, and poor stability during the lifting of construction waste, making them generally inconvenient.

[0005] Therefore, the key to solving the above-mentioned technical problems lies in developing a safe, reliable, practical, and reusable lifting device for manually excavated bored piles. Summary of the Invention

[0006] In view of the many defects and shortcomings existing in the above-mentioned background technology, this utility model has made improvements and innovations, with the aim of providing a cleverly designed, safe and reliable reusable lifting device for manually excavated piles, which can greatly reduce the labor burden of operators and improve efficiency.

[0007] Another objective of this invention is that by incorporating safety protection equipment, not only can the safety of workers be ensured and accidents avoided, but the stability of the device can also be improved, work efficiency increased, and losses reduced after an accident.

[0008] To solve the above problems and achieve the above-mentioned invention objectives, this utility model provides a reusable lifting device for manually excavated bored piles, achieved through the following design structure and technical solution:

[0009] A lifting device for reusable manually excavated bored piles includes a control device comprising:

[0010] Lifting frame base (1) is set on the periphery of pile hole (8), and multiple pre-embedded connectors (11) are provided on lifting frame base (1).

[0011] The lower end of the lifting frame (2) is connected to the corresponding pre-embedded connector (11);

[0012] The top cover (3) of the lifting frame is connected to the top of the lifting frame (2), and the lower end of the top cover (3) of the lifting frame is connected to the central suspension load-bearing crossbeam (31).

[0013] Sliding device (4), which is connected to the central suspended load-bearing crossbeam (31);

[0014] The lifting assembly (5) is connected to the sliding device (4);

[0015] Protective component (6) is located on the outside of the lifting frame (2) below;

[0016] Safety protection equipment (7) is installed at the base (1) of the lifting frame;

[0017] The sliding device (4) and the lifting assembly (5) are both connected to the control equipment.

[0018] Preferably, the lifting frame (2) includes:

[0019] Several columns (21) are provided, and the lower end of each column (21) can be detachably installed on the corresponding pre-embedded connector (11);

[0020] Inclined support rod (22), the inclined support rod (22) is inclinedly connected to the inner side of each column (21) on the corresponding side by bolt assembly;

[0021] Among them, the two ends of the column (21) are symmetrically connected with column connecting plates.

[0022] Preferably, the lifting frame (2) further includes a reinforcing connection assembly (23), which includes:

[0023] The first connecting seat is connected to both ends of the top cover plate frame below the top cover (3) of the lifting frame;

[0024] The second connecting seat is connected to the upper part of the column (21) located at the four corners of the lifting frame base (1);

[0025] The telescopic rod has one end detachably connected to the first connecting seat and the other end hingedly connected to the second connecting seat.

[0026] Preferably, the top cover (3) of the lifting frame includes:

[0027] The top cover frame (32) has top cover frame connecting plates that are adapted to and connected to the corresponding side columns (21) on both sides of its lower end.

[0028] The roof (33) is connected to the top of the roof frame (32);

[0029] Hanging rings (34) are connected to the four corners of the upper surface of the ceiling (33);

[0030] The central suspended load-bearing beam (31) is fixedly connected to the middle part of the ceiling (33).

[0031] Preferably, the central suspended load-bearing beam (31) is an I-beam, wherein the upper part of the I-beam is connected to multiple connecting columns that are connected to the lower part of the ceiling (33); wherein:

[0032] The central suspended load-bearing beam (31) extends out of the outside of the lifting frame top cover (3).

[0033] Preferably, the lifting frame base (1) is a square frame structure made of concrete, wherein several pre-embedded connectors (11) are symmetrically pre-embedded on both sides of the lifting frame base (1), and several fixing holes are opened on the upper part of the pre-embedded connectors (11).

[0034] Preferably, the lifting and hoisting assembly (5) includes:

[0035] The winch (51) is connected to the lower part of the sliding device (4) via a connecting plate;

[0036] Anti-disengagement device (52), which is connected to the wire rope of the winch (51);

[0037] The slag bucket (53) is connected to the hook of the anti-detachment device (52);

[0038] Among them, the winch (51) is connected to the control equipment.

[0039] Preferably, the protective component (6) includes: a protective plate (61), which is connected to the outside of several columns (21) located on both sides and one end of the lifting frame base (1);

[0040] The protective door (62) is rotatably connected to the column (21) located at the other end of the lifting frame base (1). The protective door (62) is equipped with a protective lock (63).

[0041] Preferably, the safety protection device (7) includes:

[0042] A ladder (71) is provided at one end, which is placed at the top edge of the pile hole (8), and at the other end, which extends to the bottom of the pile hole (8).

[0043] Safety alarm device (72), the safety alarm device (72) is connected to one of the columns (21);

[0044] Emergency button (73) is connected to one side of the bottom of ladder (71);

[0045] The emergency button (73) is connected to the safety alarm device (72).

[0046] Preferably, the safety protection device (7) further includes:

[0047] An air compressor (74) is installed outside the lifting frame base (1);

[0048] Air supply duct (75), one end of which is connected to air compressor (74), and the other end of which extends along the long bar of ladder (71) to the bottom of ladder (71) via a fastener;

[0049] Toxic and harmful gas detector (76) is connected to one side of the bottom of the ladder (71) and is located below the emergency button (73);

[0050] The toxic and harmful gas detector (76) is connected to the safety alarm device (72) via signal.

[0051] The working principle is: before use, the operator can open the protective door (62).

[0052] When in use, while the workers are excavating the slag in the hole, the retaining wall (9) is constructed simultaneously. When hoisting the slag from the pile hole (8), the slag bucket (53) is first placed into the hook of the anti-detachment device (52). Then, the operator uses the control equipment to control the winch (51) to drive the wire rope to lift the empty slag bucket (53) off the ground. Next, the operator uses the control equipment to control the sliding device (4) to drive the hoisting assembly (5) connected to it to the top of the pile hole (8). Then, the operator uses the control equipment to control the winch (51) to drive the wire rope to lift the empty slag bucket (53) into the pile hole (8) to fill it with slag. After the slag bucket (53) is full, the operator... Using the control equipment, the winch (51) is used to drive the wire rope to hoist the slag bucket (53) filled with slag to the top of the pile hole (8). Then, the sliding device (4) is used to move the slag bucket (53) filled with slag to the outside of the pile hole (8) for disposal. This completes one cycle of slag excavation and transportation in the pile hole (8). Finally, the operator uses the control equipment to control the sliding device (4) and the winch (51) to place the slag bucket (53) at the bottom of the pile hole (8) for slag loading. The above operation is repeated until the slag excavation and transportation in the pile hole (8) is completed. After all the construction work is completed, for construction safety, the operator only needs to close the protective door (62).

[0053] Throughout the entire implementation process described above, on the one hand, protective components (6) are installed below the lifting frame (2). The protective measures around the lifting frame (2) can prevent objects falling from a height from entering the pile hole (8). At the same time, the protective door (62) is locked when not in operation and opened during operation to facilitate the entry and exit of construction personnel and the hoisting of excavated soil, which greatly improves the safety of construction.

[0054] On the other hand, due to the presence of safety protection equipment (7), workers can deliver fresh air into the pile hole (8) through an air compressor (74) and air supply pipe (75). During construction, a ladder (71) is lowered simultaneously. At the same time, an emergency button (73) and a toxic and harmful gas detector (76) are installed at the bottom of the ladder (71). The emergency button (73) is connected to the safety alarm device (72) installed on the column (21) as a whole. When workers in the pile hole (8) notice abnormal situations such as a sudden increase in groundwater, a continuous rise in the content of toxic and harmful gases, or a collapse of the hole, they can immediately press the emergency button (73) and use the safety alarm device (72) to call for help from people outside the hole. This not only fully ensures the safety of workers and avoids accidents, but also improves the stability of the equipment, increases work efficiency, reduces losses after an accident, and contributes to the long-term development and good social image of the enterprise.

[0055] The beneficial effects of this utility model compared with the prior art are:

[0056] 1. The central suspended load-bearing crossbeam of this utility model is equipped with a sliding device, and a winch is connected to the sliding device. Under the control of the control equipment, the slag can be transported to the outside of the pile hole through the slag bucket. Compared with the previous method of hoisting slag by manual winch, it can greatly reduce the labor burden of the operators and improve efficiency. At the same time, the structure is simple, the operation is quick, and it is safe and reliable.

[0057] 2. This utility model provides a ladder for lowering the pile hole on the hole wall. The ladder is equipped with safety platforms at equal intervals. The ladder is also equipped with a toxic and harmful gas detector and an emergency button, which can call for help to people outside the pile hole in an emergency, further ensuring the safety of workers inside the hole.

[0058] 3. This utility model adopts a portal-type standardized lifting frame. The central suspended load-bearing beam on the top cover of the lifting frame is equipped with a sliding groove. The sliding device is connected to the sliding groove, and the lifting and hoisting components are connected below the sliding device. This enables the slag to be vertically lifted from the bottom of the pile hole to the opening of the pile hole, and then slid to be transported to the outside of the pile hole, which effectively improves the efficiency of slag transportation and slag removal and greatly improves the progress.

[0059] 4. The lifting frame of this utility model is equipped with a canopy on its top cover. The canopy can provide shade and shelter from rain, creating a better working environment for workers inside the hole and preventing rainwater from falling into the pile hole.

[0060] 5. The lifting frame of this utility model is also equipped with a protective component. The surrounding protection can prevent objects falling from a height from falling into the pile hole. At the same time, the protective door can be opened during operation to facilitate the entry and exit of construction personnel and the hoisting of excavated soil. When not in operation, it can be locked to prevent other personnel from accidentally falling into the pile hole.

[0061] 6. The lifting frame base of this utility model is designed with steel bars, which can effectively solve the difficulty that the lifting frame cannot withstand the overall hoisting operation load in soft geological areas, and can also block the surrounding surface water to prevent surface water from entering the hole.

[0062] 7. The lifting frame of this utility model has a simple structure, and is easy to install and dismantle. At the same time, it effectively ensures the safety of operators, greatly improves production efficiency, and all parts can be recycled and reused, which greatly reduces construction costs.

[0063] 8. Because this utility model is equipped with safety protection devices, it can not only ensure the safety of workers and prevent accidents, but also improve the stability of the device, increase work efficiency, reduce losses after accidents, and contribute to the long-term development of enterprises and a good social image. Attached Figure Description

[0064] The specific embodiments of this utility model will be further described in detail below with reference to the accompanying drawings, wherein:

[0065] Figure 1 This is one of the usage state diagrams of this utility model;

[0066] Figure 2 This is the second diagram showing the usage state of this utility model;

[0067] Figure 3 This is the third diagram showing the usage state of this utility model;

[0068] Figure 4 This is one of the overall structural schematic diagrams of this utility model;

[0069] Figure 5 This is the second schematic diagram of the overall structure of this utility model;

[0070] Figure 6 This is the third schematic diagram of the overall structure of this utility model;

[0071] Figure 7 This is a front view of the present invention;

[0072] Figure 8 This is the right view of the present invention;

[0073] Figure 9 This is an exploded view of this utility model;

[0074] Figure 10 This is a partial structural schematic diagram of the safety protection device (7) of this utility model;

[0075] In the figure, the numbers are: 1—lifting frame base, 11—embedded connector;

[0076] 2—Lifting frame, 21—Column, 22—Diagonal support rod, 23—Reinforcing connection assembly;

[0077] 3—Lifting frame top cover, 31—Central suspended load-bearing beam, 32—Top cover plate frame, 33—Ceiling, 34—Lifting ring;

[0078] 4—Sliding device;

[0079] 5—Lifting and hoisting components; 51—Wind; 52—Anti-disengagement device; 53—Slag bucket;

[0080] 6—Protective components, 61—Protective plate, 62—Protective door, 63—Protective lock;

[0081] 7—Safety protection equipment; 71—Ladder; 72—Safety alarm device; 73—Emergency button; 74—Air compressor; 75—Air supply duct; 76—Toxic and harmful gas detector.

[0082] 8—Pile hole;

[0083] 9—Wall protection. Detailed Implementation

[0084] To make the technical means, inventive features, objectives, and effects of this utility model readily understandable, the technical solution of this utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features in the embodiments of this application can be combined with each other. The present utility model will now be described in detail with reference to the accompanying drawings and embodiments.

[0085] In summary, a more specific embodiment of this utility model is as follows:

[0086] Before using the above-mentioned reusable manually excavated pile lifting device, it needs to be manufactured and installed as a backup.

[0087] Example 1

[0088] As per the instruction manual Figure 1 To be continued Figure 9 The lifting device for a reusable manually excavated bored pile, shown, includes a control device comprising:

[0089] Lifting frame base 1 is set around the pile hole 8, and multiple pre-embedded connectors 11 are provided on the lifting frame base 1;

[0090] The lower end of the lifting frame 2 is connected to the corresponding pre-embedded connector 11.

[0091] The top cover 3 of the lifting frame is connected to the top of the lifting frame 2, and the lower end of the top cover 3 of the lifting frame is connected to the central suspension load-bearing crossbeam 31.

[0092] Sliding device 4 is connected to the central suspended load-bearing crossbeam 31;

[0093] The lifting and hoisting assembly 5 is connected to the sliding device 4;

[0094] Protective component 6 is located on the outer side below the lifting frame 2;

[0095] Safety protection device 7 is installed at the base 1 of the lifting frame;

[0096] Both the sliding device 4 and the lifting assembly 5 are connected to the control equipment.

[0097] In this utility model, the control device is a commercially available existing technology product, specifically a PLC, a programmable logic controller, or a PC.

[0098] Furthermore, the lifting frame 2 includes:

[0099] Several columns 21, the lower end of each column 21 can be detachably installed on the corresponding pre-embedded connector 11;

[0100] The inclined support rod 22 is inclinedly connected to the inner side of each column 21 on the corresponding side by bolt assembly;

[0101] The two ends of the column 21 are symmetrically connected with column connecting plates.

[0102] In this utility model, the bolt assembly includes ordinary bolts and nuts, wherein the bolts are hexagonal bolts or flat-head bolts, and the nuts are hexagonal nuts or flat-head nuts; the lifting frame 2 is provided with six uprights 21 and four inclined support rods 22. Each side of the lifting frame base 1 is provided with three uprights 21, and two inclined support rods 22 are cross-connected on the inner side of the three uprights 21 on each side. The two ends of the inclined support rods 22 are respectively connected to the ends of the corresponding uprights 21 by bolt assemblies, and the middle part of the inclined support rods 22 is connected to the middle part of the middle upright by bolt assemblies.

[0103] Specifically, the lifting frame 2 further includes a reinforcing connection assembly 23, which includes:

[0104] The first connecting seat is connected to both ends of the top cover plate frame below the top cover 3 of the lifting frame;

[0105] The second connecting seat is connected to the upper part of the column 21 located at the four corners of the lifting frame base 1;

[0106] The telescopic rod has one end detachably connected to the first connecting seat and the other end hingedly connected to the second connecting seat.

[0107] In this utility model, the first connecting seat is a movable connecting seat with a detachable connecting shaft, and the second is a fixed seat; the telescopic rod is a hydraulic telescopic rod.

[0108] Furthermore, the top cover 3 of the lifting frame includes:

[0109] The top cover frame 32 has top cover frame connecting plates that are adapted to and connected to the corresponding side columns 21 on both sides of its lower end.

[0110] Roof 33 is connected to the top of roof frame 32;

[0111] Hanging rings 34 are connected to the four corners of the upper surface of the ceiling 33 respectively;

[0112] The central suspended load-bearing beam 31 is fixedly connected to the middle part of the lower part of the ceiling 33.

[0113] Specifically, the central suspended load-bearing beam 31 is an I-beam, and multiple connecting columns that connect to the lower part of the ceiling 33 are connected to the upper part of the I-beam; wherein:

[0114] The central suspended load-bearing beam 31 extends out of the top cover 3 of the lifting frame.

[0115] In this utility model, a limiting pin for the limiting sliding device 4 can also be detachably connected to the I-beam.

[0116] Furthermore, the lifting frame base 1 adopts a square frame structure made of concrete, wherein several pre-embedded connectors 11 are symmetrically pre-embedded on both sides of the lifting frame base 1, and several fixing holes are opened on the upper part of the pre-embedded connectors 11.

[0117] The sliding device 4 can be controlled by a control device to move back and forth along the central suspended load-bearing beam 31.

[0118] In this utility model, each side of the lifting frame base 1 is provided with three pre-embedded connectors 11.

[0119] Furthermore, the lifting and hoisting assembly 5 includes:

[0120] Winch 51 is connected to the lower part of sliding device 4 via a connecting plate;

[0121] Anti-disengagement device 52, which is connected to the wire rope of winch 51;

[0122] The slag bucket 53 is connected to the hook of the anti-detachment device 52;

[0123] Among them, the winch 51 is connected to the control equipment.

[0124] In this utility model, the control equipment can control the winch 51, realize precise control of the winch 51, and ensure the safe and efficient operation of the equipment in terms of lifting, lowering, speed, load, etc.; the anti-disengagement device 52 includes an anti-disengagement hook and a lifting hook.

[0125] In use, while workers are excavating the excavated soil into the hole and simultaneously constructing the retaining wall 9, when hoisting the excavated soil from the pile hole 8, first, the excavated soil bucket 53 is placed into the hook of the anti-detachment hook device 52. Then, the operator uses the control equipment to control the winch 51 to drive the wire rope and lift the empty excavated soil bucket 53 off the ground. Next, the operator uses the control equipment to control the sliding device 4, which drives the connected lifting assembly 5 to lift it to the top of the pile hole 8. Finally, the operator uses the control equipment to control the winch 51 to drive the wire rope and lift the empty excavated soil bucket 53 back into the pile hole 8. Loading excavated soil: After the excavated soil bucket 53 is filled, the operator uses the control equipment to control the winch 51 to drive the wire rope to lift the full excavated soil bucket 53 to the top of the pile hole 8. Then, the operator uses the control equipment to control the sliding device 4 to move the full excavated soil bucket 53 horizontally to the outside of the pile hole 8 for disposal. This completes one cycle of excavated soil excavation and transportation in the pile hole 8. Finally, the operator uses the control equipment to control the sliding device 4 and the winch 51 to place the excavated soil bucket 53 at the bottom of the pile hole 8 for filling with excavated soil. Repeat the above operation until the excavated soil excavation and transportation in the pile hole 8 is completed.

[0126] Example 2

[0127] Example 2 has the same structure as Example 1, except that it also includes a protective component 6 located on the outside of the lower part of the lifting frame 2. The protective component 6 includes a protective plate 61, which is connected to the outside of several columns 21 located on both sides and one end of the lifting frame base 1.

[0128] The protective door 62 is rotatably connected to the column 21 located at the other end of the lifting frame base 1. The protective door 62 is equipped with a protective lock 63.

[0129] In this utility model, several protective panels 61 are connected to the outside of several uprights 21 in a U-shape; the protective door 62 is composed of two protective fences, one end of each of the two protective fences is rotatably connected to the corresponding uprights 21 via a rotating assembly, and a protective lock 63 is connected between the two protective fences, effectively protecting the safety of workers and the environment.

[0130] When in use, the protective components 6 are installed below the lifting frame 2. The protection around the bottom of the lifting frame 2 can prevent objects falling from a height from falling into the pile hole 8. At the same time, the protective door 62 is locked when not in operation and opened during operation to facilitate the entry and exit of construction personnel and the hoisting of excavated soil, which greatly improves the safety of construction.

[0131] Example 3

[0132] Example 3 has the same structure as Example 2, the only difference being that it also includes a safety protection device 7 installed at the base 1 of the lifting frame. The safety protection device 7 includes:

[0133] Ladder 71, one end of which is set at the top edge of the pile hole 8, and the other end extends to the bottom of the pile hole 8;

[0134] Safety alarm device 72 is connected to one of the columns 21;

[0135] Emergency button 73 is connected to one side of the bottom of ladder 71;

[0136] The emergency button 73 is connected to the safety alarm device 72.

[0137] In this utility model, the emergency button 73 and the safety alarm device 72 are connected by a hard wire through an electrical signal, forming a closed-loop safety protection mechanism of "triggering emergency stop → forced shutdown → synchronous alarm", which ensures rapid response and risk control in emergency situations. The trigger signal of the emergency button 73 can directly bypass the conventional control process, ensuring that the sliding device 4 and the winch 51 stop and the alarm action are executed without delay.

[0138] Specifically, the safety protection device 7 also includes:

[0139] Air compressor 74 is installed outside the lifting frame base 1;

[0140] Air supply duct 75, one end of which is connected to air compressor 74, and the other end of which extends along the long bar of ladder 71 to the bottom of ladder 71 via a fastener;

[0141] Toxic and harmful gas detector 76 is connected to one side of the bottom of ladder 71 and is located below emergency button 73.

[0142] The toxic and harmful gas detector 76 is connected to the safety alarm device 72 via signal.

[0143] During use, the system is equipped with safety protection equipment 7. Workers can supply fresh air into the pile hole 8 through the air compressor 74 and air supply pipe 75. During construction, the ladder 71 is lowered simultaneously. At the bottom of the ladder 71, an emergency button 73 and a toxic and harmful gas detector 76 are installed. The emergency button 73 is connected to the safety alarm device 72 installed on the column 21 as a whole. When workers in the pile hole 8 notice any abnormalities such as a sudden increase in groundwater, a continuous rise in the content of toxic and harmful gases, or a collapse of the hole, they can immediately press the emergency button 73 and use the safety alarm device 72 to call for help from people outside the hole. This not only fully ensures the safety of workers and avoids accidents, but also improves the stability of the equipment, increases work efficiency, reduces losses after an accident, and contributes to the long-term development and good social image of the enterprise.

[0144] The specific production and installation steps are as follows:

[0145] Construction of the lifting frame base 1: The construction personnel first leveled the site of the manually excavated pile, then laid out the pile positions, found the center position of the pile positions, and constructed the interlocking concrete according to the drawings. At the same time, the construction of the lifting frame base 1 was started. It can be used to block surface water to prevent surface water from entering the hole, and it also serves as the overall load-bearing foundation for the lifting frame 2. During the construction of the lifting frame base 1, the pre-embedded construction of the six pre-embedded connectors 11 in the base was carried out.

[0146] Install the lifting frame 2; as time goes by, after the concrete strength of the lifting frame base 1 reaches the required level, the installers begin to install the lifting frame 2. First, install the columns 21, and gradually connect the lower ends of the six columns 21 to the pre-embedded connectors 11. Then, use the diagonal support rods 22 to connect the three columns 21 on each side with bolt assemblies. The inner side of the three columns 21 on each side is connected to two diagonal support rods 22 arranged in a cross pattern.

[0147] Fabricate and install the top cover 3 of the lifting frame; installers weld the cover frame 32 to the canopy 33 on site, then pass the connecting column of the central suspension load beam 31 over the cover frame 32, and weld multiple connecting columns on the central suspension load beam 31 to the lower end of the canopy 33 to form a whole; then install four lifting rings 34 around the top of the canopy 33; then, operators use a crane to lift the whole structure to the top of the six columns 21 and connect them together with bolt assemblies; and install reinforcing connecting assemblies 23 on the columns 21 around the top of the lifting frame base 1 to further reinforce the top cover frame 32;

[0148] Install the sliding device 4; the installers use a crane to lift the sliding device 4 and the lifting assembly 5 to the bottom of the central suspension load beam 31, connect the sliding device 4 to the sliding groove on the central suspension load beam 31, and then use pins to fix the sliding device 4.

[0149] Install protective components 6; install a protective door 62 on the side where the hoisting frame transports excavated soil and construction personnel enter and exit, and install a protective lock 63 on the protective door 62 to lock it when not in use; install protective plates 61 on the other three sides.

[0150] Install safety protection equipment 7; installers install safety alarm device 72 on the column 21 in the middle of one side.

[0151] The specific steps for using it are:

[0152] During operation, while workers are excavating the excavated soil into the hole, a retaining wall 9 is constructed simultaneously. Fresh air is supplied to the pile hole 8 via an air compressor 74 and an air supply pipe 75, and a ladder 71 is lowered concurrently. An emergency button 73 and a toxic gas detector 76 are installed at the bottom of the ladder 71. The emergency button 73 is integrated with a safety alarm device 72. If workers inside the pile hole 8 notice any abnormalities such as a sudden increase in groundwater, a continuous rise in the content of toxic gases, or a hole collapse, they can immediately press the emergency button 73 and use the safety alarm device 72 to call for help from personnel outside the hole. The pile hole 8 is then hoisted... When handling excavated soil, first, place the excavated soil bucket 53 into the hook of the anti-detachment device 52. After filling the excavated soil bucket 53, use the control equipment to control the winch 51 to drive the wire rope to lift the full excavated soil bucket 53 to the top of the pile hole 8. Then, use the control equipment to control the sliding device 4 to move the full excavated soil bucket 53 horizontally to the outside of the pile hole 8 for disposal. This completes one cycle of excavated soil removal and transportation within the pile hole 8. Subsequently, with the control equipment controlling the sliding device 4 and the winch 51 in coordination, the excavated soil bucket 53 is placed at the bottom of the pile hole 8 for filling with excavated soil. Finally, repeat the above operations until the excavated soil removal and transportation within the pile hole 8 is completed.

[0153] After use, the specific dismantling steps are as follows: First, remove the slag bucket 53, fix the wire rope and anti-detachment device 52, and remove and set aside the ladder 71, emergency button 73, air supply pipe 75, toxic and harmful gas detector 76, etc. Then, disassemble the air compressor 74 from the column 21; then, use a crane to fix the four lifting rings 34 around the top of the canopy frame 6, and then disassemble the bolt assembly and reinforcing connection assembly 23 on the column 21 and the top cover frame 32; after dismantling, hoist the central suspended load-bearing beam 31, the top cover frame 32, the winch 51, the canopy 33, etc. to one side, and then gradually dismantle the column 21, the diagonal support rod 22, the protective plate 61, and the protective door 62; finally, after breaking the lifting frame base 1, remove the embedded connector 11, thus completing the dismantling operation. All parts on the lifting frame 2 can be reused.

[0154] 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 in any other way. Any person skilled in the art may make changes or modifications to the above-disclosed technical content to create equivalent embodiments. However, any simple modifications, equivalent changes, and modifications made to the above embodiments based on the technical essence of this utility model without departing from its technical solution shall still fall within the protection scope of this utility model.

Claims

1. A lifting device for a reusable manual hole pile comprising a control device, characterized in that, It comprises: The lifting frame base (1) is arranged at the periphery of the pile hole (8), and a plurality of pre-buried connecting pieces (11) are arranged on the lifting frame base (1); The lifting frame (2) is connected with the corresponding pre-buried connecting piece (11) at the lower end; The lifting frame top cover (3) is connected at the top of the lifting frame (2), and the lower end of the lifting frame top cover (3) is connected with the central suspension stress beam (31); The sliding device (4) is connected to the central suspension stress beam (31); The hoisting assembly (5) is connected to the sliding device (4); The protection assembly (6) is arranged below the lifting frame (2) outside; The safety protection equipment (7) is arranged at the lifting frame base (1); Wherein, the sliding device (4) and the hoisting assembly (5) are connected with the control equipment.

2. A reusable artificial bored pile lifting device according to claim 1, characterized in that, The lifting frame (2) comprises: A plurality of vertical columns (21), each vertical column (21) is detachably installed above the corresponding pre-buried connecting piece (11); The inclined support rod (22) is inclinedly connected to the inner side of each vertical column (21) on the corresponding side by means of the bolt assembly; Wherein, the two ends of the vertical column (21) are symmetrically connected with the vertical column connecting plate.

3. A reusable device for lifting a cast-in-place pile according to claim 2, wherein The lifting frame (2) further comprises a reinforcing connecting assembly (23), which comprises: The first connecting seat is connected to the top cover plate frame at the lower end of the lifting frame top cover (3); The second connecting seat is connected to the upper part of the vertical column (21) at the four corners of the lifting frame base (1); The telescopic rod is detachably connected to the first connecting seat at one end and is hingedly connected to the second connecting seat at the other end.

4. A reusable device for lifting a cast-in-place pile according to claim 1, wherein The lifting frame top cover (3) comprises: The top cover plate frame (32) is connected with the top cover plate frame connecting plate which is adaptively connected with the corresponding side vertical column (21) at the lower end of both sides; The ceiling (33) is connected to the top end of the top cover plate frame (32); The lifting ring (34) is connected to the upper surface of the ceiling (33) at the four corners; Wherein, the central suspension stress beam (31) is fixedly connected below the middle part of the ceiling (33).

5. A reusable device for lifting a cast-in-place pile according to claim 1 or 4, wherein The central suspension stress beam (31) is an I-beam, wherein the upper part of the I-beam is connected with a plurality of connecting columns connected below the ceiling (33); wherein: The central suspension stress beam (31) extends outside the lifting frame top cover (3).

6. A reusable device for lifting a cast-in-place pile according to claim 1, wherein The lifting frame base (1) is a square frame structure formed by pouring concrete, wherein a plurality of pre-buried connecting pieces (11) are symmetrically pre-buried on both sides of the lifting frame base (1), and a plurality of fixing holes are formed in the upper part of the pre-buried connecting piece (11).

7. A reusable artificial bored pile lifting device according to claim 1, characterized in that, The hoisting assembly (5) comprises: The winch (51) is connected below the sliding device (4) through the connecting plate; The anti-unhooking device (52) is connected to the steel wire rope of the winch (51); The slag bucket (53) is connected with the hook of the anti-unhooking device (52) together. The winch (51) is connected with the control device.

8. A reusable artificial bored pile lifting device according to claim 1, characterized in that, The protection assembly (6) comprises: protection plates (61) connected outside the several vertical columns (21) on both sides and above one end of the lifting frame base (1); A protection door (62) is rotationally connected to the vertical column (21) on the other end of the lifting frame base (1), and the protection door (62) is provided with a protection lock (63).

9. A reusable artificial bored pile lifting device according to claim 1, characterized in that, The safety protection equipment (7) comprises: A cat ladder (71) is erected at one end on the top edge of the pile hole (8) and extends to the bottom of the pile hole (8) at the other end; A safety alarm device (72) is connected to one of the vertical columns (21); An emergency button (73) is connected to one side of the bottom of the cat ladder (71); The emergency button (73) is connected with the safety alarm device (72).

10. A reusable artificial bored pile lifting device according to claim 9, characterized in that, The safety protection equipment (7) further comprises: An air compressor (74) is arranged outside the lifting frame base (1); A blast pipe (75) is connected at one end with the air compressor (74), and at the other end extends to the bottom of the cat ladder (71) through a fixing member along the long rod of the cat ladder (71); A toxic and harmful gas detector (76) is connected to one side of the bottom of the cat ladder (71) and below the emergency button (73); The toxic and harmful gas detector (76) is signal connected with the safety alarm device (72).

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