Pulley roller conveying type cantilever platform frame for assembling breast board wall in place

Abstract

The invention provides a pulley rolling shaft conveying type cantilever platform frame for assembling a soil retaining plate wall in place. The pulley rolling shaft conveying type cantilever platform frame comprises a first waist beam and a chamfer formed on a protruding section at the bottom of the first waist beam. The second waist beam is formed in a multi-section type arc-shaped groove in the innermost side of the top of the second waist beam; the assembly plate is arranged between the first waist beam and the second waist beam; the adjusting structure is arranged on the outer side of the top of the second waist beam, is used for enabling the assembling plate to obliquely slide into the position between the first waist beam and the second waist beam, and comprises an adjusting support formed by connecting a vertical rod, a transverse rod, a connecting rod and an arc-shaped guide rod; and the carrier roller drum is arranged between the two arc-shaped guide rods and is used for conveying and moving the assembly plate. The retaining wall mounting method has the remarkable beneficial effects in the aspects of mounting efficiency, precision, stability, adaptability, safety and the like, solves many problems in a traditional retaining wall mounting method, and has high practical value and creativity.

Description

Technical Field

[0001] The invention relates to a pulley roller conveying type cantilever platform frame used for assembling a retaining wall in place. Background Art

[0002] As the country continues to increase its efforts to promote the transformation policy of the construction industry, my country's construction industry is developing in the direction of industrialization, intelligence, and greening. Compared with traditional cast-in-place construction, most of the building components and members of prefabricated buildings are completed in the production workshop, which reduces the loss of building materials and the generation of construction waste, reduces carbon emissions throughout the life cycle of the building, and is in line with the development direction of modernization, intelligence, and greening of the construction industry. When installing the retaining wall panels between the upper and lower raised cast-in-place beams, there are certain difficulties in installing the retaining wall panels in place due to the obstacles of the raised cast-in-place beams. The present invention solves the problem of such installation difficulties through a pulley roller conveyor cantilever platform frame, which can speed up the construction efficiency of the retaining wall panels, improve the quality of engineering construction, ensure the quality of the project, and ensure the safety of the project. Summary of the invention

[0003] The present invention provides a pulley roller conveying cantilever platform frame for assembling a retaining wall in place, which can effectively solve the above-mentioned problem.

[0004] The present invention is achieved in that:

[0005] A pulley roller conveyor cantilever platform frame for assembling a retaining wall in place, comprising:

[0006] A first waist beam, a chamfer formed on a raised section at the bottom of the first waist beam;

[0007] A second waist beam, a multi-section arc groove formed on the innermost side of the top of the second waist beam;

[0008] An assembly plate disposed between the first waist beam and the second waist beam;

[0009] An adjustment structure is arranged on the outer side of the top of the second waist beam, and is used to make the assembly plate slide obliquely into between the first waist beam and the second waist beam. The adjustment structure includes an adjustment bracket composed of a vertical rod, a horizontal rod, a connecting rod and an arc-shaped guide rod, which is arranged between the two arc-shaped guide rods and is used to assemble and fix the roller roller to transport and move the assembly plate;

[0010] The pull rod assembly arranged between the first waist beam and the adjusting structure is used for pulling and adjusting the adjusting structure.

[0011] The present invention further provides a construction method of a pulley roller conveyor cantilever platform frame for assembling a retaining wall in place, the method comprising the following steps:

[0012] S1. Measure the size and position of the cast-in-place beam, determine the installation position of the cantilever platform frame, and mark the position of the embedded parts on the cast-in-place beam;

[0013] S2. Drill holes at the marked positions and install embedded parts to fix the cantilevered combined frame;

[0014] S3, install the cantilevered combined frame on the cast-in-place beam and fix it by fixing the embedded bolts;

[0015] S4. Install the oblique support bracket and connect it to the crossbar through connecting bolts to form a stable support structure;

[0016] S5. Install the cantilever pull rod assembly to pull and adjust the adjustment structure;

[0017] S6. Install a transmission roller on the cantilevered assembly frame to transport the mobile assembly plate;

[0018] S7, installing an adjustment structure, including a vertical rod, a horizontal rod, a connecting rod and an arc-shaped guide rod, for making the assembly plate slide obliquely into between the first waist beam and the second waist beam;

[0019] S8, hoist the assembly plate onto the roller drum, and use the sliding characteristics of the roller drum to slide the assembly plate from the outside to the inside into place;

[0020] S9. Fill cement mortar into the reserved adjustment gaps between the assembly plate and the first waist beam and the second waist beam to fix the assembly plate;

[0021] S10. After the construction is completed, the cantilever platform frame shall be comprehensively inspected to ensure that it meets the design requirements and safety standards.

[0022] The beneficial effects of the present invention are:

[0023] (1) The present invention enables the assembly plate to slide obliquely along a predetermined path into the space between the first waist beam and the second waist beam by adjusting the arc guide rod and the roller in the structure, which significantly reduces the time of manual handling and adjustment. The close cooperation between the multi-section arc groove and the arc guide rod ensures the precise positioning of the assembly plate during the sliding process, avoiding the cumbersome steps of multiple adjustments in the traditional lifting method. The design of the roller not only reduces the friction resistance, but also makes the movement of the assembly plate more efficient. At the same time, the adjustment function of the pull rod assembly and the telescopic rod further improves the installation accuracy and adapts to different construction requirements. At the same time, the oblique support rod, the connecting tripod and the pull rod assembly in the adjustment structure work together to significantly enhance the stability of the overall structure. The oblique support rod is fixed by bolts to ensure that the adjustment structure will not tilt or deform during the construction process, and the pulling action of the pull rod assembly further stabilizes the adjustment structure. In addition, the sliding installation process of the assembly plate reduces the risks of high-altitude operations and manual handling, reduces the safety risks during the construction process, and makes the entire construction process safer and more reliable.

[0024] (2) The design of the multi-section arc groove and the adjustment structure in the present invention enables the device to adapt to wall structures of different shapes and sizes, especially in the construction of arc walls or inclined walls. The height and width of the adjustment structure can be flexibly adjusted by the telescopic rod and the pull rod assembly to meet the needs of various construction scenarios. At the same time, the sliding conveying of the roller drum and the precise guidance of the adjustment structure reduce the need for manual handling and adjustment, reduce the labor intensity of construction personnel, and reduce human errors.

[0025] (3) In the present invention, after the assembly plate is in place, cement mortar is injected through the grouting ports and channels reserved on the assembly plate to fill the seams, which not only enhances the sealing of the overall structure but also improves the connection strength. The chamfer design and the setting of the pad reduce the friction and collision between the assembly plate and the wall and the roller, avoid hard wear, and extend the service life of the device. These designs not only optimize the construction process, but also ensure the long-term stability and durability of the structure. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings required for use in the embodiments will be briefly introduced below. It should be understood that the following drawings only show certain embodiments of the present invention and therefore should not be regarded as limiting the scope. For ordinary technicians in this field, other related drawings can be obtained based on these drawings without paying creative work.

[0027] Figure 1 It is the front view of the present invention.

[0028] Figure 2 It is a schematic diagram of the three-dimensional state of the regulating structure of the present invention.

[0029] Figure 3 It is a front view of the regulating structure of the present invention.

[0030] Figure 4 It is a schematic diagram of the connection between the arc-shaped guide rod and the roller drum of the present invention.

[0031] Figure 5 It is a schematic diagram of assembling the assembly plate of the present invention with the first waist beam and the second waist beam.

[0032] Figure 6 It is a front view of the present invention.

[0033] Description of Figure Numbers:

[0034] 10. First waist beam; 100. Chamfer;

[0035] 20. Second waist beam; 30. Embedded parts; 40. Tie rod assembly;

[0036] 50. Adjustment structure; 500. Vertical rod; 501. Horizontal rod; 502. Connecting rod; 503. Oblique supporting rod; 5030. Connecting hole; 504. Connecting bracket; 5040. Hollow part; 5041. Bolt; 505. Arc guide rod; 5050. Through hole; 5051. Bearing; 506. Roller; 5060. Roller; 507. Telescopic rod; 508. Side wing connecting plate; 509. Connecting bolt; 510. Locking nut;

[0037] 60. Multi-section arc groove;

[0038] 70, assembly plate; 700, pad;

[0039] 80. Adjust the seam. DETAILED DESCRIPTION

[0040] In order to make the purpose, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention. Therefore, the following detailed description of the embodiments of the present invention provided in the drawings is not intended to limit the scope of the invention claimed for protection, but merely represents selected embodiments of the present invention.

[0041] In the description of the present invention, the terms "first" and "second" are used for descriptive purposes only and should not be understood as indicating or implying relative importance or implicitly indicating the number of the indicated technical features. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of the features. In the description of the present invention, the meaning of "plurality" is two or more, unless otherwise clearly and specifically defined.

[0042] Reference Figure 1-6 As shown, a pulley roller conveyor cantilever platform frame for assembling a retaining wall in place comprises:

[0043] The first waist beam 10 has a chamfer 100 formed on the raised section at the bottom of the first waist beam 10; the design of the chamfer 100 can effectively reduce the friction resistance of the assembly plate 70 during the sliding installation process, while avoiding hard collision between the assembly plate 70 and the first waist beam 10, thereby extending the service life of the wall.

[0044] The second waist beam 20 has a multi-section arc groove 60 formed on the innermost side of the top of the second waist beam 20;

[0045] In one embodiment, in order to illustrate the importance of the multi-segment arc groove 60, the present invention further describes it as follows:

[0046] Example 1: Single-stage arc groove

[0047] Shape: The single-section arc groove consists of a continuous arc with a radius of 80mm and a length of 1000mm;

[0048] Groove depth and width: Groove depth is 15mm, groove width is 20mm;

[0049] Surface treatment: The inner surface of the arc groove is polished to ensure its smoothness;

[0050] Function: The single-stage arc groove provides basic guidance for the sliding of the assembly plate 70;

[0051] Application scenarios: Suitable for the construction of straight walls or curved walls with small curvature;

[0052] Advantages: simple structure, easy processing and installation, and can meet basic guidance requirements in straight wall construction;

[0053] Disadvantages: In the construction of curved walls with large curvatures, the single-section curved groove cannot adapt to complex curvature changes, which may cause the assembly plate 70 to get stuck or offset when sliding; in the construction of inclined walls, the guiding effect of the single-section curved groove is poor, and it is difficult to ensure the precise installation of the assembly plate 70.

[0054] Embodiment 2: Multi-section arc groove 60

[0055] Shape: The multi-section arc groove 60 is composed of three arc sections, each of which has a radius of 80 mm and a length of 300 mm, and the sections are connected by smooth transitions;

[0056] Groove depth and width: Groove depth is 15mm, groove width is 20mm;

[0057] Surface treatment: The inner surface of the arc groove 60 is treated with a coating to ensure its smoothness;

[0058] Function: The multi-section arc groove 60 provides precise guidance for the sliding of the assembly plate 70 and enhances the stability of the overall structure;

[0059] Application scenarios: Suitable for the construction of curved walls with large curvatures, inclined walls and high-precision retaining walls;

[0060] Advantages: The multi-section design can adapt to complex arc changes, ensuring that the assembly plate 70 will not get stuck or offset during the sliding process; in the construction of inclined walls, the segmented design of the multi-section arc groove 60 can adapt to different inclination angles, ensuring the precise installation of the assembly plate 70; through smooth transition connection, the multi-section arc groove 60 can reduce friction with the arc guide rod 505 and extend the service life;

[0061] Disadvantages: The structure is relatively complex, and the processing and installation are difficult. The cost is slightly higher than that of the single-stage arc groove.

[0062]

[0063]

[0064] Through comparative analysis, it can be seen that the multi-section arc trough 60 has significant advantages in guiding accuracy, stability, friction reduction, etc., and is especially suitable for complex arcs, inclined walls and high-precision construction scenes. Although its structural complexity and cost are relatively high, the technical advantages and application value it brings are better than those of the single-section arc trough; while the single-section arc trough is suitable for simple straight wall construction, but it has greater limitations in complex scenes. In summary, the design of the multi-section arc trough 60 not only improves construction efficiency and accuracy, but also broadens the application scope of retaining wall installation technology.

[0065] The assembly plate 70 is arranged between the first waist beam 10 and the second waist beam 20. The end of the assembly plate 70 in contact with the roller 506 is provided with a pad 700. The pad 700 can reduce friction and protect the surface of the assembly plate 70. The assembly plate 70 is made of high-strength concrete or composite material, with a thickness of about 50mm to 100mm. A steel mesh can be arranged inside to enhance the bending strength. The specific thickness can be set according to actual needs.

[0066] Furthermore, a grouting port and a channel are reserved on the assembly plate 70 and are connected with the adjustment joint 80, so as to cooperate with the adjustment joint 80 to realize the filling of cement mortar and enhance the stability of the overall structure.

[0067] The adjusting structure 50 disposed on the outer side of the top of the second waist beam 20 is used to make the assembly plate 70 slide obliquely into between the first waist beam 10 and the second waist beam 20. The adjusting structure 50 includes an adjusting bracket composed of a vertical rod 500, a horizontal rod 501, a connecting rod 502 and an arc-shaped guide rod 505, which is disposed between the two arc-shaped guide rods 505 and is used to assemble and fix the roller drum 506 to transport the moving assembly plate 70; the pull rod assembly 40 disposed between the first waist beam 10 and the adjusting structure 50 is used to pull and adjust the adjusting structure 50; the bottom of the horizontal rod 501 is provided with an oblique support rod 503, and the connecting holes 5030 at one end of the oblique support rod 503 are symmetrically arranged at equal intervals; The bottom of the crossbar 501 is also provided with a connecting bracket 504 for connecting with the oblique support rod 503, a hollow part 5040 arranged at one end of the connecting bracket 504 and plugged with the oblique support rod 503, and a bolt 5041 arranged on the hollow part 5040 and installed corresponding to the connecting hole 5030; a through hole 5050 is formed on the side where the arc-shaped guide rod 505 is connected to the roller cylinder 506, and a bearing 5051 is arranged inside the through hole 5050, and the bearing 5051 is connected to the roller 5060 arranged in the middle of the roller cylinder 506; a telescopic rod 507 is connected between any two crossbars 501, so as to facilitate the left and right movement of the adjustment frame and control the spacing when the assembly plate 70 is assembled. Among them, an elastic member (not shown in the figure) is arranged between the roller 5060 and the through hole 5050. The advantage of such a setting is that the roller cylinder 506 can have a downward pressure fine adjustment function after being subjected to force, so as to facilitate the sliding of the assembly plate 70.

[0068] Furthermore, the elastic member may be made of a highly elastic material, such as rubber, polyurethane or spring steel, to ensure good elasticity and durability.

[0069] According to the size of the assembly plate 70 and the wall height, the lengths of the telescopic rod 507 and the oblique support rod 503 are adjusted to make the adjustment structure 50 adapt to the construction requirements. The pull rod assembly 40 fixes the adjustment structure 50 on the wall to ensure its stability. The assembly plate 70 is hoisted onto the roller drum 506 and gravity is used to slide it along the arc guide rod 505 to be installed in place. After the assembly plate 70 is installed, cement mortar is filled through the adjustment seam 80 and the filling port to enhance the stability of the overall structure. After the construction is completed, the adjustment structure 50 is disassembled and transported to the next construction area for reuse.

[0070] A wing connecting plate 508 for connecting with the tie rod assembly 40 is provided on one side of the vertical rod 500, and an adjustment gap 80 for filling with cement mortar after assembly is reserved between the first waist beam 10 and the assembly plate 70. The adjustment gap 80 has a width A, which is 20 mm ≤ A ≤ 50 mm.

[0071] The other ends of the oblique support rod 503 and the connecting bracket 504 are respectively provided with a connecting bolt 509 and a locking nut 510 for mounting with the connecting rod 502 .

[0072] The inner edge of the assembly plate 70 is provided with a bevel, and an obtuse angle is formed between the bevel and the roller roller 506, which can effectively reduce the friction resistance of the assembly plate 70 during the sliding installation process. At the same time, the surface of the bevel is polished or coated to ensure its smoothness and reduce the friction with the roller roller 506, so that the assembly plate 70 can slide more smoothly along the roller roller 506 to avoid jamming or jittering, and not only reduces the difficulty of installation, but also extends the service life of the roller roller 506 and the assembly plate 70.

[0073] Furthermore, the bevel design can avoid hard collision between the assembly plate 70 and the first waist beam 10 or the second waist beam 20. This is because, during the sliding installation of the assembly plate 70, the bevel acts as a buffer, reducing the impact on the wall and the assembly plate 70. Avoiding hard collision can prevent surface damage to the wall or the assembly plate 70, thereby improving the durability of the overall structure. Furthermore, the contact surface between the bevel design and the wall is tighter, which can effectively prevent cement mortar leakage. This is because the inclination angle of the bevel causes the contact surface between the assembly plate 70 and the wall to form a certain pressure, thereby enhancing the sealing effect. Therefore, when filling cement mortar, the bevel design can prevent mortar from overflowing from the joint, thereby ensuring the filling effect of the adjustment gap 80. Furthermore, the coordination of the bevel design and the roller drum 506 can ensure the precise positioning of the assembly plate 70 during the sliding installation process. This is because the guiding effect of the bevel enables the assembly plate 70 to slide along a predetermined path, thereby avoiding displacement or misalignment during the installation process, thereby improving installation accuracy, reducing the workload of subsequent adjustments, and improving construction efficiency.

[0074] Furthermore, examples of the coordination between the bevel and various structures in this case are as follows:

[0075] Example 1:

[0076] In the installation of retaining walls between cast-in-place beams, the beveled edge design enables the assembly plate 70 to pass smoothly through the raised cast-in-place beam area to avoid jamming or collision;

[0077] Example 2:

[0078] In the installation of the curved retaining wall, the coordination of the bevel design and the curved guide rod 505 enables the assembly plate 70 to slide along the curved path, adapting to complex construction conditions;

[0079] Example 3:

[0080] In the installation of high-precision retaining walls, the beveled edge design ensures the precise positioning of the assembly plate 70 and reduces the workload of subsequent adjustments.

[0081] Compared with existing flat edges or curved edges, the versatility and flexibility of the bevel edge design enables it to adapt to a variety of construction scenarios, broadening the application scope of retaining wall installation technology. It not only reduces friction and collision, but also enhances sealing and installation accuracy, reflecting the design concept of multi-functional integration.

[0082] The present invention further provides a construction method of a pulley roller conveyor cantilever platform frame for assembling a retaining wall in place, the method comprising the following steps:

[0083] S1. Measure the size and position of the cast-in-place beam, determine the installation position of the cantilever platform frame, and mark the position of the embedded part 30 on the cast-in-place beam;

[0084] In step S1, a laser rangefinder can be used to accurately measure the size and position of the cast-in-place beam, generate a three-dimensional model, and determine the optimal installation position of the cantilever platform frame;

[0085] S2, drilling holes at the marked positions and installing embedded parts 30 for fixing the cantilevered combined frame;

[0086] S3, install the cantilevered combined frame on the cast-in-place beam and fix it by fixing the embedded bolts;

[0087] In step S3, the horizontality and verticality of the cantilever assembly frame are calibrated in real time by an angle sensor to ensure its installation accuracy;

[0088] S4, installing the oblique support bracket 503, and assembling and fixing it through the connecting bolts 5041, the connecting rod (502) and the connecting bracket (504) to form a stable supporting structure;

[0089] S5, installing the cantilever pull rod assembly 40, used to pull and adjust the adjustment structure 50;

[0090] S6, installing a transmission roller 506 on the cantilevered assembly frame for conveying the mobile assembly plate 70;

[0091] S7, installing the adjustment structure 50, including a vertical rod 500, a horizontal rod 501, a connecting rod 502 and an arc-shaped guide rod 505, for making the assembly plate 70 slide obliquely into between the first waist beam 10 and the second waist beam 20;

[0092] In step S7, an anti-deviating guide device is installed to ensure that the assembly plate 70 slides along a predetermined path;

[0093] S8, hoisting the assembly plate 70 onto the roller drum 506, and using the sliding characteristics of the roller drum 506, sliding the assembly plate 70 from the outside to the inside into place;

[0094] In step S8, the control system is used to automatically adjust the angle and position of the roller drum 506 to ensure that the assembly plate 70 can slide into place accurately;

[0095] S9, after the adjustment gap (80) is reserved between the assembly plate 70 and the first waist beam 10 and the second waist beam 20, the gap is filled with cement mortar to fix the assembly plate 70;

[0096] S10. After the construction is completed, the cantilever platform frame shall be comprehensively inspected to ensure that it meets the design requirements and safety standards.

[0097] Working principle:

[0098] The present invention provides a chamfer 100 on the raised section at the bottom of the first waist beam 10, and designs a multi-section arc groove 60 on the innermost side of the top of the second waist beam 20, in combination with an assembly plate 70 arranged between the first waist beam 10 and the second waist beam 20, and an adjustment structure 50 installed on the outer side of the top of the second waist beam 20, so as to achieve accurate installation of the assembly plate 70, wherein the adjustment structure 50 is composed of a vertical rod 500, a horizontal rod 501, a connecting rod 502 and an arc-shaped guide rod 505, wherein the arc-shaped guide rod 505 is connected to the roller drum 506 through a bearing 5051, so that the assembly plate 70 can slide obliquely along the arc-shaped guide rod 505 into between the first waist beam 10 and the second waist beam 20, and the horizontal rod 501 is connected to the roller drum 506 through the ... and the horizontal rod 501 is connected to the second waist beam 20. The oblique support rod 503 at the bottom of the rod 501 is fixed by connecting the foot frame 504 and the bolt 5041 to enhance the stability of the adjustment structure 50, and the telescopic rod 507 is used to adjust the spacing between the cross bars 501 and control the installation position of the assembly plate 70. The pull rod assembly 40 is connected to the vertical rod 500 through the side wing connecting plate 508 to pull and adjust the adjustment structure 50. The end of the assembly plate 70 in contact with the roller roller 506 is provided with a pad 700 to reduce friction. The inner edge of the pad 700 is designed with a bevel to form an obtuse angle with the roller roller 506 to ensure smooth sliding. An adjustment gap 80 is reserved between the assembly plate 70 and the first waist beam 10, and cement mortar is filled through the filling port to fix the assembly plate 70. The entire device realizes efficient and stable installation of the assembly plate 70 through the precise guidance and sliding conveying of the adjustment structure 50, solves the installation difficulty caused by the bulge of the cast-in-place beam, and reduces manual intervention, thereby improving construction efficiency and safety.

[0099] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. For those skilled in the art, the present invention may have various modifications and variations. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A pulley roller conveyor cantilever platform frame for assembling a retaining wall in place, characterized in that: include A first waist beam (10), and a chamfer (100) formed on a raised section at the bottom of the first waist beam (10); A second waist beam (20), a multi-segment arc groove (60) formed on the innermost side of the top of the second waist beam (20); an assembly plate (70) disposed between the first waist beam (10) and the second waist beam (20); An adjusting structure (50) is arranged on the outer side of the top of the second waist beam (20), and is used to make the assembly plate (70) slide obliquely into between the first waist beam (10) and the second waist beam (20); the adjusting structure (50) comprises an adjusting bracket composed of a vertical rod (500), a horizontal rod (501), a connecting rod (502) and an arc-shaped guide rod (505), and is arranged between the two arc-shaped guide rods (505) and is used to assemble and fix the roller drum (506) to transport and move the assembly plate (70); A pull rod assembly (40) disposed between the first waist beam (10) and the adjustment structure (50) is used to pull and adjust the adjustment structure (50).

2. A pulley roller conveyor cantilever platform frame for assembling retaining wall in place according to claim 1, characterized in that: An oblique support rod (503) is provided at the bottom of the crossbar (501), and connecting holes (5030) are symmetrically arranged at equal intervals at one end of the oblique support rod (503); The bottom of the crossbar (501) is also provided with a connecting bracket (504) for connecting to the oblique support rod (503), a hollow portion (5040) provided at one end of the connecting bracket (504) and plugged into the oblique support rod (503), and a bolt (5041) provided on the hollow portion (5040) and installed corresponding to the connecting hole (5030).

3. A pulley roller conveyor cantilever platform frame for assembling retaining wall in place according to claim 1, characterized in that: A through opening (5050) is formed on one side of the arc-shaped guide rod (505) connected to the roller drum (506), and a bearing (5051) is arranged inside the through opening (5050), and the bearing (5051) is connected to a roller (5060) arranged in the middle of the roller drum (506).

4. A pulley roller conveyor cantilever platform frame for assembling a retaining wall in place according to claim 1, characterized in that: A telescopic rod (507) is connected between any two of the cross bars (501), so as to facilitate the left-right movement of the adjustment frame and control the spacing of the assembly plates (70) during assembly.

5. A pulley roller conveyor cantilever platform frame for assembling a retaining wall in place according to claim 1, characterized in that: A side connecting plate (508) for connecting to the pull rod assembly (40) is provided on one side of the vertical rod (500); an adjustment joint (80) is reserved between the first waist beam (10) and the assembly plate (70) for filling with cement mortar after assembly; a pad (700) is provided at the end of the assembly plate (70) that contacts the roller drum (506).

6. A pulley roller conveyor cantilever platform frame for assembling retaining wall in place according to claim 2, characterized in that: The other ends of the oblique support rod (503) and the connecting bracket (504) are respectively provided with connecting bolts (509) and locking nuts (510) for mounting with the connecting rod (502).

7. A pulley roller conveyor cantilever platform frame for assembling retaining wall in place according to claim 1, characterized in that: The inner edge of the assembly plate (70) is provided with a bevel, and an obtuse angle is formed between the bevel and the roller drum (506).

8. The pulley roller conveyor cantilever platform frame for assembling retaining wall in place according to claim 5, characterized in that: The adjustment gap (80) has a width A. Among them, 20mm≤A≤50mm.

9. A pulley roller conveyor cantilever platform frame for assembling retaining wall in place according to claim 5, characterized in that: A grouting port and a channel are reserved on the assembly plate (70) and are connected to the adjustment seam (80).

10. A construction method for a pulley roller conveyor cantilever platform frame for assembling a retaining wall in place, characterized in that: The method comprises a pulley roller conveyor cantilever platform frame for assembling a retaining wall in place as described in claims 1 to 9, and the method comprises the following steps: S1, measuring the size and position of the cast-in-place beam, determining the installation position of the cantilever platform frame, and marking the position of the embedded part (30) on the cast-in-place beam; S2, drilling holes at the marked positions and installing embedded parts (30) for fixing the cantilevered combined frame; S3, install the cantilevered combined frame on the cast-in-place beam and fix it by fixing the embedded bolts; S4, installing the oblique support bracket (503), and assembling and fixing it through the connecting bolts (5041), the connecting rod (502) and the connecting bracket (504) to form a stable supporting structure; S5, installing a cantilever pull rod assembly (40) for pulling and adjusting the adjustment structure (50); S6, installing a transmission roller (506) on the cantilevered assembly frame for conveying the mobile assembly plate (70); S7, installing an adjustment structure (50), comprising a vertical rod (500), a horizontal rod (501), a connecting rod (502) and an arc-shaped guide rod (505), for making the assembly plate (70) slide obliquely into between the first waist beam (10) and the second waist beam (20); S8, hoisting the assembly plate (70) onto the roller drum (506), and using the sliding characteristics of the roller drum (506), sliding the assembly plate (70) from the outside to the inside into place; S9, after the adjustment gap (80) is reserved between the assembly plate (70) and the first waist beam (10) and the second waist beam (20), the gap is filled with cement mortar to fix the assembly plate (70); S10. After the construction is completed, the cantilever platform frame shall be comprehensively inspected to ensure that it meets the design requirements and safety standards.

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