Ship lock floating bollard embedded part supporting device and construction method thereof

Abstract

The invention provides a ship lock floating bollard embedded part supporting device and a construction method thereof.The ship lock floating bollard embedded part supporting device comprises symmetrically-arranged pre-embedded formworks, guide grooves are formed in the inward opposite sides of the pre-embedded formworks, arc parts are arranged on one sides of the guide grooves, formwork outer edges are arranged on the outer sides of the arc parts, and a detachable supporting tool is arranged between the guide grooves; the supporting tool comprises a tool support, the tool support comprises a main body part, a tightening part is arranged on one side of the main body part, an inner blocking assembly is arranged on the other side of the main body part, a plurality of telescopic tensioning assemblies are arranged on one side of the tightening part, and a plurality of telescopic supporting block frames are symmetrically arranged on the two sides of the main body part. According to the supporting device for the ship lock floating bollard embedded part, safety and controllability of the construction process are achieved through automatic supporting force adjustment and a remote monitoring system, potential safety hazards caused by frequent manual intervention are avoided, the working efficiency is improved, and the problem that a traditional supporting device for the ship lock floating bollard embedded part needs manual adjustment and demolding is solved.

Description

Technical Field

[0001] The invention relates to the field of floating mooring post construction, and in particular to an embedded component support device for a floating mooring post of a ship lock and a construction method thereof. Background Art

[0002] In modern ship engineering and water conservancy construction projects, ship locks are important water transportation facilities, and their construction quality is directly related to the safety and efficiency of water transportation. The floating mooring post of the ship lock is one of the key components of the ship lock structure and bears the main force when mooring ships. Therefore, its installation accuracy and stability are crucial.

[0003] Traditional methods for installing floating mooring posts in ship locks mostly use fixed supports or simple support devices. These methods have problems such as inaccurate positioning, poor stability, and long construction period. The construction is particularly difficult under complex geological conditions, which can easily lead to installation deviations of the mooring posts exceeding the allowable range, affecting the overall performance of the ship lock. In addition, during the construction process, construction workers are required to repeatedly enter the support device to use bolts to adjust the support. This operation method is not only inefficient, but also poses great safety hazards to construction workers.

[0004] Therefore, a device is needed that can automatically complete support and demoulding operations to reduce manual intervention, improve construction safety and efficiency, maintain good support effects without the need for manual intervention, and be equipped with a remote monitoring system to achieve real-time data feedback, thereby ensuring the safety and controllability of the entire construction process. Summary of the invention

[0005] The main purpose of the present invention is to provide a support device for embedded parts of a floating mooring post of a ship lock and a construction method thereof, which solves the problem that the support device for embedded parts of a floating mooring post of a traditional ship lock needs manual adjustment and demoulding.

[0006] In order to solve the above technical problems, the technical solution adopted by the present invention is: a support device for embedded parts of a floating bollard of a ship lock, comprising symmetrically arranged embedded templates, a guide groove is provided on the inner opposite side of the embedded template, a circular arc portion is provided on one side of the guide groove, an outer edge of the template is provided on the outer side of the circular arc portion, and a detachable supporting tool is provided between the guide grooves; The supporting tooling includes a tooling bracket, which includes a main body, a tightening part is provided on one side of the main body, an inner stop assembly is provided on the other side, and a plurality of retractable tightening assemblies are provided on one side of the tightening part; A plurality of retractable support block frames are symmetrically arranged on both sides of the main body.

[0007] In the preferred embodiment, a plurality of inner support plates are provided inside the tooling bracket, a reducer is provided on the inner support plate, and a first motor is also connected to the reducer; The reducer is a double-shaft worm gear reducer, and a plurality of lifting ears are provided on the top of the tooling bracket.

[0008] In the preferred embodiment, a plurality of support blocks are provided on the outer side of the support block frame, and the support blocks are used to abut against the embedded template; A first threaded sleeve is provided on the inner side of the support block frame, the first threaded sleeve penetrates the tooling bracket and is slidably connected to the tooling bracket. A plurality of first guide rods are also provided on the inner side of the support block frame, the first guide rods are slidably connected to the tooling bracket.

[0009] In the preferred embodiment, the first threaded sleeve is threadedly connected to the output shaft of the reducer, and when the output shaft rotates, the support block frame is driven to telescopically move; A limit plate is also provided on the support block frame, and the limit plate is deeply inserted into the guide groove. The limit plate is used to limit the lateral movement distance of the support tooling.

[0010] In a preferred embodiment, the support block is made of hard rubber, and a pressure sensor is provided inside the support block. The pressure sensor is used to monitor the pressure value between the support block and the embedded template.

[0011] In the preferred embodiment, a second motor is further provided below the reducer, and the second motor is arranged below the bracket of the reducer; A protruding outer support plate is also provided on one side of the inner support plate facing the tensioning assembly. A plurality of vertical plates are provided on the outer support plate. A guide sleeve is provided on the vertical plate. The second motor is rotatably connected to the guide sleeve.

[0012] In a preferred embodiment, the tensioning assembly includes a pressing plate, and a plurality of pressing blocks are provided on one side of the pressing plate, and the pressing blocks are used to abut against the outer edge of the template; A plurality of wedge blocks are provided between the clamping blocks, the wedge blocks are used to abut against the arc portion 102, a second threaded sleeve is provided between the wedge blocks, the second threaded sleeve penetrates the tooling bracket, the second threaded sleeve is slidably connected to the tooling bracket, and second guide rods are further provided on both sides of the second threaded sleeve, the second guide rods are slidably connected to the tooling bracket; The second threaded sleeve is threadedly connected to the output shaft of the second motor, and when the output shaft of the second motor rotates, the tensioning assembly is driven to telescopically move; The material of the clamping block and the wedge block is hard rubber. A pressure sensor is arranged inside the clamping block. The pressure sensor is used to monitor the pressure value between the clamping block and the outer edge of the template.

[0013] In the preferred embodiment, the inner block assembly includes a plane template, and detachable corner templates are symmetrically arranged on both sides of the plane template, and multiple hinge seats are arranged between the corner templates, and electric pull rods are arranged between the hinge seats; A plurality of inner retaining brackets are also provided on one side of the tooling bracket, and the inner retaining brackets are fixedly connected to the electric pull rod, and both sides of the inner retaining assembly are tightly fitted with the embedded template.

[0014] In the preferred embodiment, a retractable sealing block is provided on the outward edge of the corner template, and an electric push rod is provided on one side of the sealing block. The electric push rod is used to drive the sealing block to retract and move, and the sealing block is used to fit the embedded template.

[0015] A construction method for the embedded support device of a floating mooring post for a ship lock, the method comprising: S1. Arrange two pre-embedded templates vertically at the preset ground position and pre-fix them; S2. Use a crane to place the support device on the flat concrete surface between two pre-buried formworks; S3, start the second motor to drive the clamping block on the tensioning assembly to press against the outer edge of the template, and the wedge block to press against the arc part; S4, stopping the second motor when the value of the pressure sensor in the pressing block reaches a preset value; S5, turning on the first motor to drive the support block to press against one side of the guide groove, and stopping the first motor when the value of the pressure sensor of the support block reaches a preset value; S6, start the electric push rod in the inner stop assembly to make the sealing block close to the embedded formwork and start pouring concrete; S7, after pouring is completed and curing is carried out, when the curing reaches the stage where the formwork can be removed, the electric push rod in the inner stop assembly is started to separate the sealing block from the embedded formwork, and the electric pull rod is started to elastically deform the corner formwork and the plane formwork and separate them from the concrete; S8. Start the first motor to separate the support block from the embedded template, start the second motor to separate the clamping block from the outer edge of the template, and use the crane to lift the support tooling to the next stage of construction. S9. Repeat steps S3-S8 to complete the construction of embedded parts of the floating mooring post of the ship lock.

[0016] The present invention provides a support device for embedded parts of a floating mooring post of a ship lock and a construction method thereof, which have the following beneficial effects: the device can significantly improve the installation accuracy and stability, shorten the construction period, and achieve safe and controllable construction process through automatic adjustment of the supporting force and a remote monitoring system, thereby avoiding the potential safety hazards caused by frequent manual intervention and improving work efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] The present invention will be further described below in conjunction with the accompanying drawings and embodiments: Figure 1 It is a schematic diagram of the hoisting of the supporting tooling of the present invention; Figure 2 It is a partial schematic diagram of the supporting tooling of the present invention; Figure 3 It is a partial schematic diagram of the interior of the supporting tooling of the present invention; Figure 4 It is a partial view of the embedded template of the present invention; Figure 5 It is a schematic diagram of temporary support of the embedded formwork of the present invention; Figure 6 It is a top view of the supporting tooling of the present invention after casting; Figure 7 It is a top view of the supporting tooling of the present invention inside the embedded template; Figure 8 It is an independent axonometric view of the support tooling of the present invention; Fig. 9 is a cross-sectional view of the supporting tooling of the present invention; Fig.10 is a partial cross-sectional view of the support tooling of the present invention; Fig.11 is a cross-sectional view of the supporting tooling of the present invention in another direction; Fig.12 It is a partial cross-sectional view of the supporting tooling of the present invention from another direction; Fig.13 is an isometric view of the inner baffle assembly of the present invention; Fig.14 It is a schematic diagram of the operation of the sealing block of the present invention.

[0018] In the figure: embedded template 1; template outer edge 101; arc portion 102; guide groove 103; supporting tooling 2; tooling body 3; tooling bracket 301; tightening portion 302; main body 303; lifting ear 304; support block frame 305; limit plate 306; support block 307; inner support plate 308; reducer 309; first motor 310; outer support plate 311; vertical plate 312; guide sleeve 313; inner block bracket 314; first threaded sleeve 315; first guide rod 316; second motor 317; inner block assembly 4; corner template 401; plane template 402; hinge seat 403; electric pull rod 404; sealing block 405; electric push rod 406; tensioning assembly 5; pressure plate 501; clamping block 502; wedge block 503; second threaded sleeve 504; second guide rod 505. DETAILED DESCRIPTION

[0019] Example 1 like Figure 1-14 As shown, a support device for embedded parts of a floating bollard of a ship lock comprises symmetrically arranged embedded templates 1, a guide groove 103 is provided on the inner opposite side of the embedded template 1, a circular arc portion 102 is provided on one side of the guide groove 103, a template outer edge 101 is provided on the outer side of the circular arc portion 102, and a detachable supporting tool 2 is provided between the guide grooves 103; The supporting tool 2 includes a tool support 301, and the tool support 301 includes a main body 303, a tightening portion 302 is provided on one side of the main body 303, and an inner stop assembly 4 is provided on the other side, and a plurality of retractable tensioning assemblies 5 are provided on one side of the tightening portion 302; A plurality of retractable support block frames 305 are symmetrically disposed on both sides of the main body 303 .

[0020] In the preferred embodiment, a plurality of inner support plates 308 are provided inside the tooling bracket 301, and a reducer 309 is provided on the inner support plate 308, and a first motor 310 is also connected to the reducer 309; The reducer 309 is a double-shaft worm gear reducer, and a plurality of lifting ears 304 are provided on the top of the tooling bracket 301 .

[0021] In the preferred embodiment, a plurality of support blocks 307 are provided on the outer side of the support block frame 305, and the support blocks 307 are used to abut against the embedded template 1; A first threaded sleeve 315 is provided on the inner side of the support block frame 305 , and the first threaded sleeve 315 passes through the tooling bracket 301 and is slidably connected to the tooling bracket 301 . A plurality of first guide rods 316 are also provided on the inner side of the support block frame 305 , and the first guide rods 316 are slidably connected to the tooling bracket 301 .

[0022] In the preferred embodiment, the first threaded sleeve 315 is threadedly connected to the output shaft of the reducer 309, and when the output shaft rotates, the support block frame 305 is driven to telescopically move; A limit plate 306 is also provided on the support block frame 305 . The limit plate 306 is inserted deep into the guide groove 103 . The limit plate 306 is used to limit the lateral movement distance of the support tooling 2 .

[0023] In a preferred embodiment, the support block 307 is made of hard rubber, and a pressure sensor is provided inside the support block 307 . The pressure sensor is used to monitor the pressure value between the support block 307 and the embedded template 1 .

[0024] In the preferred embodiment, a second motor 317 is further provided below the reducer 309, and the second motor 317 is arranged below the bracket of the reducer 309; A protruding outer support plate 311 is further provided on the side of the inner support plate 308 facing the tensioning assembly 5 . A plurality of vertical plates 312 are provided on the outer support plate 311 . A guide sleeve 313 is provided on the vertical plate 312 . The second motor 317 is rotatably connected to the guide sleeve 313 .

[0025] In the preferred embodiment, the tensioning assembly 5 includes a pressing plate 501, and a plurality of pressing blocks 502 are provided on one side of the pressing plate 501, and the pressing blocks 502 are used to abut against the outer edge 101 of the template; A plurality of wedge blocks 503 are provided between the clamping blocks 502, and the wedge blocks 503 are used to abut against the arc portion 102. A second threaded sleeve 504 is provided between the wedge blocks 503, and the second threaded sleeve 504 penetrates the tooling bracket 301, and the second threaded sleeve 504 is slidably connected to the tooling bracket 301. Second guide rods 505 are also provided on both sides of the second threaded sleeve 504, and the second guide rods 505 are slidably connected to the tooling bracket 301; The second threaded sleeve 504 is threadedly connected to the output shaft of the second motor 317, and when the output shaft of the second motor 317 rotates, the tensioning assembly 5 is driven to move telescopically; The material of the pressing block 502 and the wedge block 503 is hard rubber. A pressure sensor is provided inside the pressing block 502 . The pressure sensor is used to monitor the pressure value between the pressing block 502 and the outer edge 101 of the template.

[0026] In the preferred embodiment, the inner block assembly 4 includes a plane template 402, and detachable corner templates 401 are symmetrically arranged on both sides of the plane template 402. A plurality of hinge seats 403 are arranged between the corner templates 401, and an electric pull rod 404 is arranged between the hinge seats 403. Both ends of the electric pull rod 404 are hinged to the hinge seats 403. A plurality of inner block brackets 314 are further provided on one side of the tooling bracket 301 . The inner block brackets 314 are fixedly connected to the electric pull rod 404 . Both sides of the inner block assembly 4 are tightly fitted to the embedded template 1 .

[0027] In the preferred embodiment, a retractable sealing block 405 is provided on the outward edge of the corner template 401, and an electric push rod 406 is provided on one side of the sealing block 405. The electric push rod 406 is used to drive the sealing block 405 to retract and move. The sealing block 405 is used to fit the embedded template 1. After the sealing block 405 is retracted, there is a gap between the corner template 401 and the embedded template 1.

[0028] A construction method for the embedded support device of a floating mooring post for a ship lock, the method comprising: S1, vertically arranging two pre-embedded templates 1 at a preset ground position and pre-fixing them; S2. Use a crane to place the support tooling 2 on the poured and leveled concrete surface between the two embedded formworks 1; S3, start the second motor 317 to drive the pressing block 502 on the tensioning assembly 5 to press against the outer edge 101 of the template, and the wedge block 503 to press against the arc portion 102; S4, waiting for the value of the pressure sensor in the pressing block 502 to reach a preset value and then stopping the second motor 317; S5, turning on the first motor 310 to drive the support block 307 to press against one side of the guide groove 103, and stopping the first motor 310 when the value of the pressure sensor of the support block 307 reaches a preset value; S6, start the electric push rod 406 in the inner block assembly 4 to make the sealing block 405 close to the embedded template 1 and start pouring concrete; S7, after pouring is completed and curing is carried out, when the curing reaches the stage where the form can be removed, the electric push rod 406 in the inner block component 4 is started to separate the sealing block 405 from the embedded formwork 1, and the electric pull rod 404 is started to elastically deform the corner formwork 401 and the plane formwork 402 and separate from the concrete; S8, start the first motor 310 to separate the support block 307 from the embedded template 1, start the second motor 317 to separate the clamping block 502 from the template outer edge 101, and use the crane to hoist the support tooling 2 to the next stage of construction S9. Repeat steps S3-S8 to complete the construction of embedded parts of the floating mooring post of the ship lock.

[0029] A specific implementation of a ship lock floating bollard embedded component support device and a construction method thereof is as follows: 1. Preparation stage: Template pre-fixing S1: First, two embedded templates 1 are arranged vertically at a preset ground position and pre-fixed with temporary supports. The temporary supports include but are not limited to multiple angle steels, steel cable pulling and manual hoist fixing to ensure that the position of the template is accurate. A guide groove 103 is provided on the inner side of the embedded template 1, and a circular arc portion 102 is provided on one side of the guide groove 103. The outer side of the circular arc portion 102 is provided with a template outer edge 101.

[0030] 2. Install the support tooling: The support tooling is put in place S2: a crane is used to place the support tooling 2 on the poured and leveled concrete surface between two embedded formworks 1. The support tooling 2 includes a tooling bracket 301. A plurality of lifting ears 304 are provided on the top of the tooling bracket 301 for easy lifting.

[0031] 3. Adjustment of tensioning components: Start the tensioning assembly S3: Start the second motor 317, and drive the second threaded sleeve 504 to rotate through the output shaft of the second motor 317, thereby pushing the pressure plate 501 and the pressure block 502 on the tensioning assembly 5 to move toward the outer edge 101 of the template, so that the pressure block 502 is close to the outer edge 101 of the template, and the wedge block 503 is close to the arc portion 102. The tensioning assembly 5 includes a pressure plate 501, a pressure block 502, a wedge block 503, a second threaded sleeve 504 and a second guide rod 505, wherein the pressure block 502 and the wedge block 503 are made of hard rubber, and a pressure sensor is provided inside to monitor the pressure value between the pressure block 502 and the outer edge 101 of the template.

[0032] Pressure monitoring and adjustment S4: When the pressure value detected by the pressure sensor in the pressing block 502 reaches a preset value, the second motor 317 is stopped to ensure the stability and reliability of the tensioning assembly 5 .

[0033] 4. Support block frame adjustment: Start the support block frame S5: Turn on the first motor 310, and drive the reducer 309 to rotate through the output shaft of the first motor 310. The output shaft of the reducer 309 is threadedly connected with the first threaded sleeve 315, thereby pushing the support block frame 305 to move to one side of the guide groove 103, so that the support block 307 is close to the embedded template 1. The inner side of the support block frame 305 is provided with a first threaded sleeve 315 and a first guide rod 316, and the first guide rod 316 is slidably connected with the tooling bracket 301 to ensure the smooth movement of the support block frame 305. The material of the support block 307 is hard rubber, and a pressure sensor is provided inside to monitor the pressure value between the support block 307 and the embedded template 1.

[0034] Pressure monitoring and adjustment S5: When the pressure value detected by the pressure sensor in the support block 307 reaches a preset value, the first motor 310 is stopped to ensure the stability and reliability of the support block frame 305.

[0035] 5. Adjustment of inner block components: Start the inner block component S6: Start the electric push rod 406 in the inner block component 4, so that the sealing block 405 is close to the embedded template 1 to ensure the sealing of the inner block component 4. The inner block component 4 includes a plane template 402, a corner template 401, a hinge seat 403, an electric pull rod 404 and a sealing block 405. Removable corner templates 401 are symmetrically arranged on both sides of the plane template 402, a plurality of hinge seats 403 are arranged between the corner templates 401, and an electric pull rod 404 is arranged between the hinge seats 403. A plurality of inner block brackets 314 are also arranged on one side of the tooling bracket 301. The inner block bracket 314 is fixedly connected to the electric pull rod 404 to ensure that both sides of the inner block component 4 are tightly fitted with the embedded template 1. An electric push rod 406 is arranged on one side of the sealing block 405 to drive the sealing block 405 to telescopic movement.

[0036] Start pouring concrete: After ensuring that all components are adjusted in place, start pouring concrete, ensuring that the concrete is evenly distributed and avoiding the formation of bubbles and voids.

[0037] 6. Maintenance and removal: Concrete curing: After pouring, concrete curing is carried out to ensure that the concrete reaches sufficient strength. The curing time is determined according to the type of concrete and the ambient temperature.

[0038] Start the inner block assembly S7: When the curing reaches the stage where the form can be removed, start the electric push rod 406 in the inner block assembly 4 to separate the sealing block 405 from the embedded formwork 1. Start the electric pull rod 404 to elastically deform the corner formwork 401 and the plane formwork 402 and separate them from the concrete.

[0039] Removing the support block frame S8: starting the first motor 310 to reversely drive the support block frame 305 to separate the support block 307 from the embedded template 1.

[0040] Removing the tensioning assembly S9: starting the second motor 317 to reversely drive the tensioning assembly 5 to separate the pressing block 502 from the outer edge 101 of the template.

[0041] Hoisting support tooling S10: Use a crane to hoist support tooling 2 to the next stage of construction, preparing for the next installation.

[0042] 7. Repeat construction: Repeat step S11: repeat the above steps S3 to S10 until all the construction of the embedded parts of the floating mooring post of the ship lock is completed.

[0043] The above embodiments are only preferred technical solutions of the present invention and should not be regarded as limiting the present invention. The protection scope of the present invention shall be the technical solutions recorded in the claims, including equivalent replacement solutions of the technical features in the technical solutions recorded in the claims. That is, equivalent replacement improvements within this scope are also within the protection scope of the present invention.

Claims

1. A floating mooring post embedded component support device for a ship lock, comprising symmetrically arranged pre-embedded templates (1), characterized in that: A guide groove (103) is provided on the side of the embedded template (1) facing inwards, a circular arc portion (102) is provided on one side of the guide groove (103), a template outer edge (101) is provided on the outer side of the circular arc portion (102), and a detachable supporting tooling (2) is provided between the guide grooves (103); The supporting tool (2) comprises a tool support (301), the tool support (301) comprises a main body (303), one side of the main body (303) is provided with a tightening portion (302), the other side is provided with an inner stop component (4), and one side of the tightening portion (302) is provided with a plurality of retractable tensioning components (5); A plurality of retractable support block frames (305) are symmetrically arranged on both sides of the main body (303).

2. According to claim 1, a device for supporting embedded parts of a floating bollard for a ship lock, characterized in that: A plurality of inner support plates (308) are provided inside the bracket (301), a reducer (309) is provided on the inner support plates (308), and a first motor (310) is also connected to the reducer (309); The reducer (309) is a double-shaft worm gear reducer, and a plurality of lifting ears (304) are provided on the top of the tooling bracket (301).

3. According to claim 1, a floating bollard embedded component support device for a ship lock, characterized in that: A plurality of support blocks (307) are provided on the outer side of the support block frame (305), and the support blocks (307) are used to abut against the embedded template (1); A first threaded sleeve (315) is provided on the inner side of the support block frame (305), the first threaded sleeve (315) passes through the tooling bracket (301) and is slidably connected to the tooling bracket (301), and a plurality of first guide rods (316) are also provided on the inner side of the support block frame (305), the first guide rods (316) are slidably connected to the tooling bracket (301).

4. According to claim 3, a floating bollard embedded component support device for a ship lock is characterized by: The first threaded sleeve (315) is threadedly connected to the output shaft of the reducer (309), and when the output shaft rotates, the support block frame (305) is driven to telescopically move; A limit plate (306) is also provided on the support block frame (305). The limit plate (306) is inserted deep into the guide groove (103). The limit plate (306) is used to limit the lateral movement distance of the support tooling (2).

5. According to claim 4, a floating bollard embedded component support device for a ship lock, characterized in that: The support block (307) is made of hard rubber. A pressure sensor is provided inside the support block (307). The pressure sensor is used to monitor the pressure value between the support block (307) and the embedded template (1).

6. The embedded component support device for a floating bollard of a ship lock according to claim 2, characterized in that: A second motor (317) is also provided below the reducer (309), and the second motor (317) is arranged below the bracket of the reducer (309); A protruding outer support plate (311) is also provided on one side of the inner support plate (308) facing the tensioning assembly (5); a plurality of vertical plates (312) are provided on the outer support plate (311); a guide sleeve (313) is provided on the vertical plate (312); and a second motor (317) is rotatably connected to the guide sleeve (313).

7. The embedded component support device for a floating bollard of a ship lock according to claim 1, characterized in that: The tensioning assembly (5) comprises a pressing plate (501), and a plurality of pressing blocks (502) are provided on one side of the pressing plate (501), and the pressing blocks (502) are used to abut against the outer edge of the template (101); A plurality of wedge blocks (503) are provided between the clamping blocks (502), the wedge blocks (503) being used to abut against the arc portion 102, a second threaded sleeve (504) is provided between the wedge blocks (503), the second threaded sleeve (504) passes through the tooling bracket (301), the second threaded sleeve (504) is slidably connected to the tooling bracket (301), and second guide rods (505) are further provided on both sides of the second threaded sleeve (504), the second guide rods (505) are slidably connected to the tooling bracket (301); The second threaded sleeve (504) is threadedly connected to the output shaft of the second motor (317), and when the output shaft of the second motor (317) rotates, the tensioning assembly (5) is driven to telescopically move; The pressing block (502) and the wedge block (503) are made of hard rubber. A pressure sensor is provided inside the pressing block (502). The pressure sensor is used to monitor the pressure value between the pressing block (502) and the outer edge (101) of the template.

8. The embedded component support device for a floating bollard of a ship lock according to claim 1, characterized in that: The inner block component (4) comprises a plane template (402), and detachable corner templates (401) are symmetrically provided on both sides of the plane template (402). A plurality of hinge seats (403) are provided between the corner templates (401), and an electric pull rod (404) is provided between the hinge seats (403); A plurality of inner retaining brackets (314) are further provided on one side of the tooling bracket (301); the inner retaining brackets (314) are fixedly connected to the electric pull rod (404); and both sides of the inner retaining assembly (4) are tightly fitted to the embedded template (1).

9. The embedded component support device for a floating bollard of a ship lock according to claim 8, characterized in that: A retractable sealing block (405) is also provided on one outward edge of the corner template (401), and an electric push rod (406) is provided on one side of the sealing block (405). The electric push rod (406) is used to drive the sealing block (405) to retract and move, and the sealing block (405) is used to fit the embedded template (1).

10. The construction method of the embedded support device for a floating bollard of a ship lock according to claims 1-9, characterized in that: The method includes: S1. vertically arrange two pre-embedded templates (1) at a preset ground position and pre-fix them; S2. Use a crane to place the support tooling (2) on the poured and leveled concrete surface between the two pre-embedded formworks (1); S3, starting the second motor (317) to drive the pressing block (502) on the tensioning assembly (5) to be close to the outer edge of the template (101), and the wedge block (503) to be close to the arc portion (102); S4, waiting for the value of the pressure sensor in the pressing block (502) to reach a preset value and then stopping the second motor (317); S5, turning on the first motor (310) to drive the support block (307) to press against one side of the guide groove (103), and stopping the first motor (310) when the value of the pressure sensor of the support block (307) reaches a preset value; S6, starting the electric push rod (406) in the inner stop assembly (4) to make the sealing block (405) close to the embedded template (1) and start pouring concrete; S7, after pouring is completed and curing is performed, when the curing reaches the stage where the form can be removed, the electric push rod (406) in the inner stop assembly (4) is started to separate the sealing block (405) from the embedded formwork (1), and the electric pull rod (404) is started to cause the corner formwork (401) and the plane formwork (402) to undergo elastic deformation and separate from the concrete; S8, start the first motor (310) to separate the support block (307) from the embedded template (1), start the second motor (317) to separate the pressing block (502) from the outer edge of the template (101), and use a crane to lift the support tooling (2) to the next stage of construction S9. Repeat steps S3-S8 to complete the construction of embedded parts of the floating mooring post of the ship lock.

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