WO2024065963A1

WO2024065963A1 - Intelligent construction integrated platform and use method

Info

Publication number: WO2024065963A1
Application number: PCT/CN2022/130688
Authority: WO
Inventors: 潘寒; 廖峰; 罗凯; 彭长长; 余嘉俊; 曾庆; 王创; 周丙浩; 李中伟; 王智坚
Original assignee: 中建三局科创产业发展有限公司
Priority date: 2022-09-27
Filing date: 2022-11-08
Publication date: 2024-04-04
Also published as: CN115637859A

Abstract

An intelligent construction integrated platform and a use method. The intelligent construction integrated platform comprises an operation platform unit (1), a first support leg unit (5), and a second support leg unit (6). The first support leg unit (5) and the second support leg unit (6) are respectively mounted at the left end and the right end of the bottom of the operation platform unit (1) at an interval; the operation platform unit (1) comprises a main platform segment (2) and an auxiliary platform segment (3); a first telescopic frame mechanism (7) further comprises hinged supports (15); and a second telescopic frame mechanism (8) further comprises sliding hinged supports (16). The intelligent construction integrated platform has the functions of freely adjusting the height and freely adjusting the platform length and width, is suitable for factory construction environments having different heights, widths, and space sizes, and has the functions of flexible walking and steering, such that the requirements for free transfer and use in a construction site are met, thereby realizing safe and efficient high-altitude operation under large-range and wide-space conditions, and improving the construction quality and the operation efficiency.

Description

A smart construction integrated platform and use method

Technical Field

The present invention relates to the technical field of steel structure industrial plant construction equipment in the construction industry, and in particular to an intelligent construction integration platform and a use method thereof.

Background technique

Steel structure industrial plants are mainly composed of steel columns, steel beams, wall and roof purlins, external sealing plates and mechanical and electrical pipelines. The construction process of steel structure industrial plants requires manual connection of a large number of steel structural parts through bolts, welding and other methods.

Since steel structures are large in size and heavy in weight, and most of the working surfaces are located at high altitudes, the traditional high-altitude construction methods in the prior art are mostly completed by using conventional equipment such as self-made hanging baskets, crisscross frames, aerial vehicles, steel ladders, etc. in conjunction with cranes. However, in the actual construction process, the use of cranes for high-altitude operations often has the problems of limited actual working space, inconvenient operation, many sources of danger, and inability to effectively control accident safety, which seriously affects the construction quality and work efficiency.

Summary of the invention

The technical problem to be solved by the present invention is to provide an intelligent construction integrated platform and a use method that can realize safe and efficient high-altitude operations in a large range and wide space.

In order to solve the above technical problems, the present invention adopts the following technical solutions: an intelligent construction integrated platform, comprising a work platform unit, a first support leg unit and a second support leg unit, wherein the first support leg unit and the second support leg unit are installed at intervals at the left and right ends of the bottom of the work platform unit;

The working platform unit comprises a main platform segment and an auxiliary platform segment. The auxiliary platform segment has two groups, which are respectively hinged to the left and right ends of the main platform segment. The outward side end of the auxiliary platform segment is slidably embedded with a telescopic platform.

The first supporting leg unit and the second supporting leg unit both include a walking chassis mechanism and a ladder fence protection mechanism. The first supporting leg unit also includes a first telescopic frame mechanism, and the second supporting leg unit also includes a second telescopic frame mechanism. The first telescopic frame mechanism and the second telescopic frame mechanism both include an outer frame, an inner frame and a lifting cylinder. The first telescopic frame mechanism also includes an articulated support, and the second telescopic frame mechanism also includes a sliding articulated support.

Furthermore, the main platform segment includes a middle platform, and two first flip platforms foldably mounted on the front and rear sides of the middle platform, and a first railing is mounted on the outward side of the first flip platform;

The secondary platform segment includes a cantilever platform and two second flip platforms which are foldably installed on the front and rear sides of the cantilever platform, a second railing is installed on the outward side of the second flip platform, the middle platform is the same width as the cantilever platform, the first flip platform is the same width as the second flip platform, and the first railing is of unequal length to the second railing.

Furthermore, the outer frame and the inner frame are both assembled by four vertical column trusses and reinforcing ribs cross-connected between two adjacent column trusses;

An inner guide rail is vertically fixed on the inner side surface of the column truss in the outer frame, and an outer guide rail is vertically fixed on the outer side surface of the column truss in the inner frame, and a plurality of pin support plates are fixed at equal heights on both sides of the outer guide rail. Guide wheels are provided on both the inner guide rail and the outer guide rail, and the inner frame is slidably nested inside the outer frame through sliding matching between the outer guide rail and the inner guide rail.

Furthermore, the lifting cylinder is vertically installed in the inner frame, and the lifting cylinder provided in the first telescopic frame mechanism or the second telescopic frame mechanism is used to drive the inner frame to move up and down along the inner wall of the outer frame.

Furthermore, the articulated supports have two groups, which are fixedly installed at intervals on the top ends of the inner sleeves provided in the first telescopic sleeve mechanism, and the articulated supports are articulated and matched with the auxiliary platform segment located at the left end.

Furthermore, the sliding articulated supports have two groups, which are slidably installed at intervals on the top end of the inner sleeve frame provided in the second telescopic sleeve frame mechanism via linear guide rails, and the sliding articulated supports are hingedly matched with the auxiliary platform segment located at the right end.

Furthermore, it also includes a boom unit, and the first telescopic frame mechanism and the second telescopic frame mechanism also include a boom mounting seat;

The boom mounting seat is fixed inside the top end of the inner sleeve frame, and a mounting opening is provided on the cantilever platform. The boom unit has two groups, which are respectively installed on the boom mounting seat through the mounting openings on the left and right sides. A hidden opening connected to the mounting opening is also provided on the cantilever platform. The boom unit can be extended from the hidden opening and be in a state of extending upward into the air. The boom unit can also be retracted downward and be in a state of being laid flat in the hidden opening.

Furthermore, the walking chassis mechanism includes a crawler chassis, a support beam, an outrigger oil cylinder, a slewing bearing and a slewing drive module;

The support beam is fixedly supported at the bottom of the outer frame, the crawler chassis has two groups, which are installed at intervals on both sides of the bottom of the support beam, the outrigger cylinders have multiple groups, which are fixed at the four corners of the bottom of the support beam, and the bottom of the outrigger cylinders is installed with a pressure equalizing plate that can contact the ground via a piston column, the slewing bearing is centrally arranged at the bottom of the support beam, and the slewing bearing is connected to the crawler chassis as a whole, the slewing drive module is installed on the slewing bearing, and the slewing drive module includes a motor and a slewing reducer.

Furthermore, it also includes a spanning connecting frame, which includes a plurality of groups of segment brackets that are hingedly connected. The spanning connecting frame is located at the lower end of the working platform unit and is laterally hinged between two groups of outer frames that are spaced apart.

A method for using an intelligent construction integrated platform comprises the following steps:

S1: The inner frame is driven by the lifting cylinder and the sliding limit of the outer guide rail and the inner guide rail to move up and down along the outer frame nested on the periphery, so as to increase or decrease the overall height of the integrated platform;

S2: Under the restriction of the articulated structure of the articulated support and the sliding articulated support, the auxiliary platform segments located on the left and right sides are respectively released from the constraints in the horizontal angle state or different inclined angle states at the top of the inner sleeve frame, so as to adjust the horizontal angle or inclined angle of the working platform unit;

S3: The working platform unit shortens or lengthens the overall length of the integrated platform by dismantling or extending the main platform segment and the segment bracket in the middle of the spanning connection frame, and the working platform unit narrows or widens the overall width of the integrated platform by folding the first flip platform and the second flip platform inward or turning them outward;

S4: The crawler chassis moves to realize the transfer of the integrated platform between various construction stations;

S5: The outrigger oil cylinders support the ground and lift the crawler chassis off the ground, and the slewing drive module drives the slewing support to turn, and drives the crawler chassis to turn together, so as to realize the lateral rotation and longitudinal rotation of the walking chassis mechanism, thereby realizing the flexible turning of the integrated platform;

S6: Under the action of the hydraulic drive system, the boom unit realizes the lifting operation above the work platform unit. After the high-altitude operation is completed, the boom unit can be retracted into the hidden opening and laid flat.

The beneficial effects of the present invention are embodied in:

In the present invention, the integrated platform is constructed by combining a supporting sleeve, an operating platform and an electro-hydraulic control system. It not only has the function of freely adjusting the height and the length and width of the platform, and is suitable for factory construction environments of different heights, widths and space sizes, but also has the function of flexible walking and turning, which can meet the needs of free transfer and use at the construction site, realize safe and efficient high-altitude operations under large-scale and wide-space conditions, and improve construction quality and operating efficiency.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is an isometric view of the overall structure of an embodiment of the present invention.

2 is a front view of the overall structure of an embodiment of the present invention when the boom unit is in extended operation and the crawler chassis is in a longitudinal walking state.

3 is a front view of the overall structure of an embodiment of the present invention, in which the boom unit is retracted and laid flat, and the crawler chassis is moving laterally.

FIG. 4 is a top view of a work platform unit according to an embodiment of the present invention.

FIG. 5 is a side view of a sub-platform segment according to an embodiment of the present invention.

FIG. 6 is a side view of a main platform segment according to an embodiment of the present invention.

FIG. 7 is an isometric view of an outer coat rack according to an embodiment of the present invention.

FIG. 8 is an isometric view of the internal structure of the first telescopic sleeve mechanism according to an embodiment of the present invention.

FIG. 9 is an isometric view of the internal structure of the second telescopic sleeve mechanism according to an embodiment of the present invention.

FIG. 10 is a side view of the internal structure of the first telescopic sleeve mechanism according to an embodiment of the present invention.

11 is a side view of the internal structure of the second telescopic sleeve mechanism according to an embodiment of the present invention.

FIG. 12 is an axonometric view of a walking chassis mechanism according to an embodiment of the present invention.

The components in the attached drawings are marked as follows: 1. working platform unit; 2. main platform segment; 201. middle platform; 202. first flip platform; 203. first railing; 3. auxiliary platform segment; 301. cantilever platform; 302. second flip platform; 303. telescopic platform; 304. installation opening; 305. hidden opening; 306. second railing; 4. boom unit; 5. first supporting leg unit; 6. second supporting leg unit; 7. first telescopic frame Structure; 8. Second telescopic sleeve mechanism; 9. Walking chassis mechanism; 901. Crawler chassis; 902. Support beam; 903. Outrigger cylinder; 904. Pressure plate; 905. Slewing bearing; 906. Slewing drive module; 10. Ladder fence protection mechanism; 11. Crossing connecting frame; 12. Outer frame; 13. Inner frame; 14. Boom mounting seat; 15. Articulated support; 16. Sliding articulated support; 1601. Linear guide; 17. Lifting cylinder.

Detailed ways

The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. It should be noted that, in addition, if there are descriptions involving "first", "second", etc. in the embodiments of the present invention, the descriptions of "first", "second", etc. are only used for descriptive purposes, and cannot be understood as indicating or implying their relative importance or implicitly indicating the number of technical features indicated. Therefore, the features defined as "first" and "second" may explicitly or implicitly include at least one of the features. In addition, the devices or equipment involved in the present invention are all available through purchase in the prior art.

See Figures 1 to 12.

The present invention provides an intelligent construction integrated platform, comprising a work platform unit 1, a first support leg unit 5 and a second support leg unit 6, wherein the first support leg unit 5 and the second support leg unit 6 are installed at intervals at the left and right ends of the bottom of the work platform unit 1;

The working platform unit 1 comprises a main platform segment 2 and an auxiliary platform segment 3. The auxiliary platform segment 3 has two groups, which are respectively hinged to the left and right ends of the main platform segment 2. The outward side end of the auxiliary platform segment 3 is slidably embedded with a telescopic platform 303.

The first supporting leg unit 5 and the second supporting leg unit 6 both include a walking chassis mechanism 9 and a ladder fence protection mechanism 10. The first supporting leg unit 5 also includes a first telescopic frame mechanism 7, and the second supporting leg unit 6 also includes a second telescopic frame mechanism 8. The first telescopic frame mechanism 7 and the second telescopic frame mechanism 8 both include an outer frame 12, an inner frame 13 and a lifting cylinder 17. The first telescopic frame mechanism 7 also includes an articulated support 15, and the second telescopic frame mechanism 8 also includes a sliding articulated support 16.

In one embodiment, the main platform segment 2 includes a middle platform 201, two first flip platforms 202 foldably mounted on the front and rear sides of the middle platform 201, and first railings 203 are mounted on the outward sides of the first flip platforms 202;

The auxiliary platform segment 3 includes a cantilever platform 301, two second flip platforms 302 foldably mounted on the front and rear sides of the cantilever platform 301, a second railing 306 is mounted on the outward side of the second flip platform 302, the middle platform 201 is of the same width as the cantilever platform 301, the first flip platform 202 is of the same width as the second flip platform 302, and the first railing 203 is of unequal length to the second railing 306. With this design, the working platform unit 1 can not only shorten or lengthen the overall length by disassembling or extending the main platform segment 2, and retracting or extending the telescopic platform 303, but also narrow or widen the overall width by folding the first flip platform 202 and the second flip platform 302 inward or flipping outward, so as to meet the use of factories with different spaces and area sizes.

In one embodiment, the outer frame 12 and the inner frame 13 are both assembled by four vertical column trusses and reinforcing ribs cross-connected between two adjacent column trusses;

An inner guide rail is vertically fixed on the inner side surface of the column truss in the outer frame 12, and an outer guide rail is vertically fixed on the outer side surface of the column truss in the inner frame 13, and a plurality of pin support plates are fixed at equal heights on both sides of the outer guide rails at intervals, and guide wheels are provided on both the inner guide rail and the outer guide rail. The inner frame 13 is slidably nested inside the outer frame 12 through sliding matching between the outer guide rail and the inner guide rail. With such a design, the guide wheels are multiple groups facing the side, the top and the bottom to ensure smooth sliding matching between the outer guide rail and the inner guide rail. The pin support plate contacts the column truss of the outer frame 12 during sliding, thereby increasing the structural strength of the inner frame 13. The first telescopic frame mechanism 7 and the second telescopic frame mechanism 8 are both longitudinally arranged at the bottom of the working platform unit 1, and are both adjusted by the up and down sliding of the inner frame 13 inside the outer frame 12 to achieve overall height adjustment to meet the needs of aerial operations at different heights.

In one embodiment, the jacking oil cylinder 17 is vertically installed in the inner frame 13, and the jacking oil cylinder 17 provided in the first telescopic frame mechanism 7 or the second telescopic frame mechanism 8 is used to drive the inner frame 13 to move up and down along the inner wall of the outer frame 12. In this design, the jacking oil cylinder 17 is fixed to the inside of the inner frame 13 through the mounting seat and the support frame, and the jacking oil cylinder 17 serves as the driving power source of the inner frame 13, ensuring that the inner frame 13 can move up and down smoothly inside the outer frame 12.

In one embodiment, the articulated supports 15 have two groups, which are fixedly installed at intervals on the top of the inner frame 13 provided in the first telescopic frame mechanism 7, and the articulated supports 15 are articulated and matched with the auxiliary platform segment 3 located at the left end. In this design, under the restriction of the articulated structure of the articulated supports 15, the auxiliary platform segment 3 located at the top of the first telescopic frame mechanism 7 can release the rotational freedom in the tilted state, so as to achieve the adjustment of the horizontal angle or tilt angle of the working platform unit 1.

In one embodiment, the sliding hinge support 16 has two groups, which are slidably installed at intervals on the top of the inner frame 13 provided in the second telescopic frame mechanism 8 via linear guide rails 1601, and the sliding hinge support 16 is hingedly matched with the auxiliary platform segment 3 located at the right end. In this design, under the restriction of the sliding hinge structure of the sliding hinge support 16 and the linear guide rail 1601, the auxiliary platform segment 3 located at the top of the second telescopic frame mechanism 8 can release the rotational freedom and sliding freedom in the tilted state, so as to achieve the adjustment of the horizontal angle or tilt angle of the working platform unit 1.

In one embodiment, the lifting cylinders 17 in the first telescopic frame mechanism 7 and the second telescopic frame mechanism 8 can be independently telescopically driven to meet the inclination angle requirements of the working platform unit 1.

In one embodiment, it further includes a boom unit 4, and the first telescopic frame mechanism 7 and the second telescopic frame mechanism 8 both include a boom mounting seat 14;

The boom mounting seat 14 is fixed to the top of the inner sleeve frame 13. The cantilever platform 301 is provided with a mounting opening 304. The boom unit 4 has two groups, which are respectively installed on the boom mounting seat 14 through the mounting openings 304 on the left and right sides. The cantilever platform 301 is also provided with a hidden opening 305 connected with the mounting opening 304. The boom unit 4 can extend out of the hidden opening 305 and be in a state of extending upward. The boom unit 4 can also be retracted downward and be in a state of being laid flat in the hidden opening 305. With this design, under the action of the hydraulic drive system, the boom unit 4 can meet the lifting requirements when installing larger steel structures, and provide workers with a large area of high-altitude continuous working surface and steel structure lifting equipment at the same time. After the high-altitude operation is completed, the boom unit 4 can be retracted into the hidden opening 305 and laid flat to avoid collision with the factory building, thereby ensuring the passability or stability and safety of the integrated platform when walking or driving.

In one embodiment, the walking chassis mechanism 9 includes a crawler chassis 901, a support beam 902, an outrigger cylinder 903, a slewing bearing 905 and a slewing drive module 906;

The support beam 902 is fixedly supported at the bottom of the outer frame 12, the crawler chassis 901 has two groups, which are installed at intervals on both sides of the bottom of the support beam 902, the outrigger cylinders 903 have multiple groups, which are fixed at the four corners of the bottom of the support beam 902, and the bottom of the outrigger cylinders 903 is installed with a pressure equalizing plate 904 that can contact the ground via a piston column, the slewing bearing 905 is centrally arranged at the bottom of the support beam 902, and the slewing bearing 905 is connected to the crawler chassis 901 as a whole, the slewing drive module 906 is installed on the slewing bearing 905, and the slewing drive module 906 includes a motor and a slewing reducer. Designed in this way, the crawler chassis 901 includes a hydraulic drive motor and a travel reducer. The crawler chassis 901 drives the integrated platform to move smoothly between various construction stations by walking. The outrigger cylinders 903 support the ground and lift the crawler chassis 901 off the ground. The slewing drive module 906 drives the slewing support 905 to turn, and drives the crawler chassis 901 to turn together, so as to realize the lateral rotation or longitudinal rotation of the travel chassis mechanism 9, thereby realizing the flexible turning and transfer of the integrated platform, which is easy and efficient.

In one embodiment, the ladder fence protection mechanism 10 has multiple groups, which are vertically spaced and distributed on the outward side of the outer frame 12. With this design, the operator can climb the ladder fence protection mechanism 10 at different heights and climb up and down the integrated platform easily and conveniently.

In one embodiment, a spanning connection frame 11 is further included, and the spanning connection frame 11 includes a plurality of groups of segment brackets connected by hinges. The spanning connection frame 11 is located at the lower end of the work platform unit 1 and is laterally hinged between two groups of the outer frames 12 arranged at intervals. In this design, by removing or expanding the segment brackets of the spanning connection frame 11, the length of the spanning connection frame 11 can be changed to meet the construction requirements of a factory building with a narrower span. At the same time, the spanning connection frame 11 also plays a role in enhancing the overall structural strength of the integrated platform.

S1: The inner frame 13 is driven by the lifting cylinder 17 and the sliding limit of the outer guide rail and the inner guide rail to move up and down along the outer frame 12 nested on the periphery, so as to increase or decrease the overall height of the integrated platform;

S2: Under the restriction of the articulated structure of the articulated support 15 and the sliding articulated support 16, the auxiliary platform segments 3 located on the left and right sides are respectively released from the constraints in the horizontal angle state or in the different inclined angle states at the top of the inner sleeve frame 13, so as to adjust the horizontal angle or the inclined angle of the working platform unit 1;

S3: The working platform unit 1 shortens or lengthens the overall length of the integrated platform by dismantling or extending the main platform segment 2 and the segment bracket in the middle of the spanning connecting frame 11, and the working platform unit 1 narrows or widens the overall width of the integrated platform by folding the first flip platform 202 and the second flip platform 302 inward or flipping outward;

S4: The crawler chassis 901 moves to realize the transfer of the integrated platform between various construction stations;

S5: The outrigger oil cylinder 903 is lifted up by supporting the ground, so that the crawler chassis 901 is off the ground, and the slewing drive module 906 drives the slewing support 905 to turn, and drives the crawler chassis 901 to turn together, so as to realize the lateral rotation and longitudinal rotation of the walking chassis mechanism 9, and further realize the flexible turning of the integrated platform;

S6: Under the action of the hydraulic drive system, the boom unit 4 realizes the lifting operation above the work platform unit 1. After the high-altitude operation is completed, the boom unit 4 can be retracted into the hidden opening 305 and laid flat.

It should be understood that the examples and implementation modes described herein are for illustrative purposes only and are not intended to limit the present invention. Those skilled in the art may make various modifications or changes based on the examples and implementation modes. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

An intelligent construction integrated platform, characterized in that it comprises a work platform unit (1), a first supporting leg unit (5) and a second supporting leg unit (6), wherein the first supporting leg unit (5) and the second supporting leg unit (6) are installed at intervals at the left and right ends of the bottom of the work platform unit (1);

The working platform unit (1) comprises a main platform segment (2) and an auxiliary platform segment (3); the auxiliary platform segment (3) has two groups, which are respectively hinged to the left and right ends of the main platform segment (2); and a telescopic platform (303) is slidably embedded on the outward side end of the auxiliary platform segment (3);

The first supporting leg unit (5) and the second supporting leg unit (6) both comprise a walking chassis mechanism (9) and a ladder fence protection mechanism (10); the first supporting leg unit (5) also comprises a first telescopic frame mechanism (7); the second supporting leg unit (6) also comprises a second telescopic frame mechanism (8); the first telescopic frame mechanism (7) and the second telescopic frame mechanism (8) both comprise an outer frame (12), an inner frame (13) and a lifting cylinder (17); the first telescopic frame mechanism (7) also comprises an articulated support (15); and the second telescopic frame mechanism (8) also comprises a sliding articulated support (16).
The intelligent construction integrated platform according to claim 1, characterized in that: the main platform segment (2) comprises a middle platform (201), two first flip platforms (202) foldably mounted on the front and rear sides of the middle platform (201), and a first railing (203) is mounted on the outward side of the first flip platform (202);

The secondary platform segment (3) comprises a cantilever platform (301), two second flip platforms (302) foldably mounted on the front and rear sides of the cantilever platform (301), a second railing (306) being mounted on the outward side of the second flip platform (302), the middle platform (201) being of the same width as the cantilever platform (301), the first flip platform (202) being of the same width as the second flip platform (302), and the first railing (203) being of unequal length to the second railing (306).
The intelligent construction integrated platform according to claim 1, characterized in that: the outer frame (12) and the inner frame (13) are both assembled by four vertical column trusses and reinforcing ribs cross-connected between two adjacent column trusses;

An inner guide rail is vertically fixed on the inner side surface of the column truss arranged in the outer frame (12), and an outer guide rail is vertically fixed on the outer side surface of the column truss arranged in the inner frame (13), and a plurality of pin support plates are fixed at equal heights on both sides of the outer guide rails at intervals, and guide wheels are provided on both the inner guide rail and the outer guide rail. The inner frame (13) is slidably nested inside the outer frame (12) through the sliding matching between the outer guide rail and the inner guide rail.
The intelligent construction integrated platform as described in claim 1 or 3 is characterized in that: the lifting cylinder (17) is vertically installed in the inner sleeve frame (13), and the lifting cylinder (17) arranged in the first telescopic sleeve mechanism (7) or the second telescopic sleeve mechanism (8) is used to drive the inner sleeve frame (13) to move up and down along the inner wall of the outer sleeve frame (12).
The intelligent construction integrated platform as described in claim 1 is characterized in that: the articulated supports (15) have two groups, which are fixedly installed at intervals on the top of the inner sleeve (13) provided in the first telescopic sleeve mechanism (7), and the articulated supports (15) are articulated and matched with the auxiliary platform segment (3) located at the left end.
The intelligent construction integrated platform as described in claim 1 or 5 is characterized in that: the sliding articulated support (16) has two groups, which are slidably installed at intervals on the top of the inner sleeve (13) provided in the second telescopic sleeve mechanism (8) via linear guide rails (1601), and the sliding articulated support (16) is hingedly matched with the sub-platform segment (3) located at the right end.
The intelligent construction integrated platform according to claim 1 or 2, characterized in that: it also includes a boom unit (4), and the first telescopic frame mechanism (7) and the second telescopic frame mechanism (8) both include a boom mounting seat (14);

The boom mounting seat (14) is fixed inside the top end of the inner sleeve frame (13); a mounting opening (304) is provided on the cantilever platform (301); the boom unit (4) has two groups, which are respectively installed on the boom mounting seat (14) through the mounting openings (304) on the left and right sides; a hidden opening (305) connected to the mounting opening (304) is also provided on the cantilever platform (301); the boom unit (4) can extend from the hidden opening (305) and be in a state of extending upward into the air; the boom unit (4) can also be retracted downward and be in a state of being flatly placed in the hidden opening (305).
The intelligent construction integrated platform according to claim 1, characterized in that: the walking chassis mechanism (9) includes a crawler chassis (901), a support beam (902), an outrigger cylinder (903), a slewing bearing (905) and a slewing drive module (906);

The support beam (902) is fixedly supported at the bottom of the outer frame (12); the crawler chassis (901) has two groups, which are installed at intervals on both sides of the bottom of the support beam (902); the outrigger oil cylinder (903) has multiple groups, which are fixed at the four corners of the bottom of the support beam (902), and the bottom of the outrigger oil cylinder (903) is installed with a pressure equalizing plate (904) that can contact the ground via a piston column; the slewing bearing (905) is centrally arranged at the bottom of the support beam (902), and the slewing bearing (905) is connected to the crawler chassis (901) as a whole; the slewing drive module (906) is installed on the slewing bearing (905), and the slewing drive module (906) includes a motor and a slewing reducer.
The intelligent construction integrated platform as described in claim 1 is characterized in that it also includes a spanning connecting frame (11), the spanning connecting frame (11) includes a plurality of groups of segment brackets that are hingedly connected, and the spanning connecting frame (11) is located at the lower end of the working platform unit (1) and is laterally hinged between two groups of outer frames (12) arranged at intervals.
The method for using the intelligent construction integrated platform according to any one of claims 1 to 9, characterized in that it comprises the following steps:

S1: The inner frame (13) is driven by the lifting cylinder (17) and the sliding limiter of the outer guide rail and the inner guide rail to move up and down along the outer frame (12) nested on the periphery, thereby raising or lowering the overall height of the integrated platform;

S2: Under the restriction of the articulated structure of the articulated support (15) and the sliding articulated support (16), the auxiliary platform segments (3) located on the left and right sides respectively realize the release of the constraints in the horizontal angle state or the different inclined angle states at the top of the inner sleeve frame (13), so as to realize the adjustment of the horizontal angle or the inclined angle of the working platform unit (1);

S3: The working platform unit (1) shortens or lengthens the overall length of the integrated platform by removing or extending the main platform segment (2) and the segment bracket in the middle of the spanning connection frame (11); the working platform unit (1) narrows or widens the overall width of the integrated platform by folding the first flip platform (202) and the second flip platform (302) inward or flipping them outward;

S4: the crawler chassis (901) moves to realize the transfer of the integrated platform between various construction stations;

S5: the outrigger oil cylinder (903) is supported and lifted to lift the crawler chassis (901) off the ground, and the slewing drive module (906) drives the slewing bearing (905) to turn, and drives the crawler chassis (901) to turn together, so as to realize the lateral rotation and longitudinal rotation of the walking chassis mechanism (9), thereby realizing the flexible turning of the integrated platform;

S6: Under the action of the hydraulic drive system, the boom unit (4) realizes the lifting operation above the working platform unit (1). After the high-altitude operation is completed, the boom unit (4) can be retracted into the hidden opening (305) and laid flat.