High-clearance different-surface suspended ceiling conversion layer structure

Abstract

The utility model relates to the technical field of building decoration, in particular to a high-clearance different-face suspended ceiling conversion layer structure which comprises a conversion layer assembly fixedly connected with an indoor roof face, a suspender assembly arranged below the conversion layer assembly, a keel assembly arranged below the suspender assembly and a suspended ceiling plate assembly installed on the keel assembly. A galvanized supporting assembly is arranged between the transfer layer assembly and the suspender assembly, the galvanized supporting assembly is fixedly connected with the transfer layer assembly, the galvanized supporting assembly can be machined into a needed different-face shape, and the suspender assembly is fixedly connected with a plane section of the galvanized supporting assembly. The method has the effect that the problems that in the non-same-plane suspended ceiling construction process, the using length of the suspender exceeds the limit, different-plane construction of conversion layer construction is complex, and the construction period is long are solved.

Description

Technical Field

[0001] The present application relates to the technical field of building decoration, and in particular to a high-clearance, non-planar suspended ceiling conversion layer structure. Background Art

[0002] The ceiling is a common part of building decoration. It is also a hidden layer for electrical, ventilation and air conditioning, communication, fire protection, alarm pipeline equipment and other projects. It is classified according to the different materials of the decorative panels, such as gypsum board ceiling, mineral wool board ceiling, plywood ceiling, aluminum gusset ceiling, sound-absorbing board ceiling, etc. The ceiling link occupies a very important position in the entire building decoration, and the construction should follow the principles of saving materials, firmness, safety, beauty and practicality.

[0003] Patent document "CN202023036643.1" discloses a ceiling reinforcement device, which includes a steel bar hanger, a main keel and a gypsum board. Since the above patent is only provided with a steel bar hanger, when the equipment in the ceiling gradually increases, the span of the ceiling engineering space becomes larger and larger, and the height becomes higher and higher. During construction, technical personnel in the field of architectural decoration often encounter a situation where the elevation of the ceiling is quite different from the actual building elevation of the ceiling during ceiling decoration projects, which often makes the length of the ceiling hanger too long and exceeds a certain range. In this way, the hanger is easy to shake, which will bring certain safety hazards and do not meet the requirements of standard construction. "GB50210-2001 Code for Acceptance of Quality of Building Decoration and Renovation Projects" stipulates: The distance between the hanger and the end of the main keel shall not be greater than 300mm. When it is greater than 300mm, the hanger should be added. When the length of the hanger is greater than 1.5 m, a counter support should be set. Therefore, in decoration projects, when the elevation of the suspended ceiling is significantly different from the actual building elevation, a transfer layer will be added between the upper end of the suspended ceiling's hanger and the building roof to meet the above standards and ensure the safety of the suspended ceiling structure.

[0004] For traditional suspended ceilings that are not in the same plane, different suspension rod lengths must be set or the transition layer must be constructed on different surfaces to ensure the construction effect. Using suspension rods of different lengths will cause the suspension rod length to exceed the limit again, and the conversion layer must be constructed on different surfaces, which will complicate the construction and extend the construction period. Utility Model Content

[0005] In order to improve the problems of excessive length of hangers and complicated and long construction period of transition layer construction during the construction of suspended ceilings in non-same planes, the present application provides a high-clearance non-same-plane suspended ceiling transition layer structure.

[0006] The present application provides a high clearance different-surface ceiling conversion layer structure, which adopts the following technical solutions:

[0007] A high-clearance, uneven-surface suspended ceiling transition layer structure comprises a transition layer assembly connected and fixed to an indoor roof surface, a hanger assembly arranged below the transition layer assembly, a keel assembly arranged below the hanger assembly, and a ceiling panel assembly installed on the keel assembly; a galvanized support assembly is arranged between the transition layer assembly and the hanger assembly; the galvanized support assembly is connected and fixed to the transition layer assembly, and the galvanized support assembly can be processed into a desired uneven-surface shape; the hanger assembly is connected and fixed to a plane section of the galvanized support assembly.

[0008] By adopting the above technical scheme, when installing the uneven surface ceiling of a large space, the height of the ceiling can be adjusted by arranging the conversion assembly and the galvanized support assembly on the roof surface, and the galvanized support assembly arranged can process the required uneven surface structure, and subsequently, according to the uneven surface effect of the galvanized support assembly, the ceiling panel assembly can be directly fixed on the galvanized support assembly or the hanger assembly and the keel assembly can be arranged on the galvanized support assembly, and the ceiling panel assembly can be installed on the corresponding keel assembly, thereby avoiding the use of longer hangers. In addition, the galvanized support assembly arranged makes it easier to process the required uneven surface and shortens the construction period.

[0009] Optionally, the galvanized support assembly includes a base member connected to the conversion layer assembly and a horizontal member and a special-shaped member arranged below the base member, the base member includes a plurality of parallel transverse hot-dip galvanized channel steels and a plurality of parallel longitudinal hot-dip galvanized channel steels, the plurality of transverse hot-dip galvanized channel steels and the plurality of longitudinal hot-dip galvanized channel steels are cross-fixed to each other, the horizontal member is the horizontal part on the galvanized support assembly, and the special-shaped member is the special-shaped part on the galvanized support assembly.

[0010] By adopting the above technical solution, the base parts can be better connected and fixed to the conversion layer components, which is beneficial to the setting of horizontal parts and special-shaped parts. On the basis of the base parts, the special-shaped parts are used to set the uneven surface effects required by this application under the base parts, which reduces the steps of constructing uneven surfaces and makes the construction of special-shaped parts simpler.

[0011] Optionally, the length directions of the multiple transverse hot-dip galvanized channel steels are arranged along the length direction of the conversion layer assembly, and connecting I-beams are arranged at the ends of the transverse hot-dip galvanized channel steels, the length direction of the connecting I-beams is the same as the length direction of the longitudinal hot-dip galvanized channel steels, the ends of the transverse hot-dip galvanized channel steels are installed and fixed on the connecting I-beams, and the connecting I-beams are fixed to the conversion layer assembly.

[0012] By adopting the above technical solution, the overall strength of the large-span transverse hot-dip galvanized channel steel is improved by setting the connecting I-beam, thereby avoiding the connection between two adjacent transverse hot-dip galvanized channel steels from bending downward during the subsequent installation steps.

[0013] Optionally, the horizontal parts and special-shaped parts both include a plurality of parallel transverse hot-dip galvanized angle steels and a plurality of parallel longitudinal hot-dip galvanized angle steels, the plurality of transverse hot-dip galvanized angle steels and the plurality of longitudinal hot-dip galvanized angle steels are cross-fixed to each other and form a grid structure, and the horizontal parts and special-shaped parts both include a plurality of vertically arranged hot-dip galvanized angle steel hangers, the upper ends of the hot-dip galvanized angle steel hangers are fixed to the base parts, and the lower ends are fixed to the transverse hot-dip galvanized angle steels or the longitudinal hot-dip galvanized angle steels.

[0014] By adopting the above technical scheme, when setting the effect of eccentricity, the transverse hot-dip galvanized angle steel and the longitudinal hot-dip galvanized angle steel on the horizontal member are used as the ceiling structure at the plane, and the transverse hot-dip galvanized angle steel on the special-shaped member is set to the required angle according to the design, and the longitudinal hot-dip galvanized angle steel is installed on the inclined transverse hot-dip galvanized angle steel, so as to install the structure of the eccentric ceiling, and the horizontal member and the special-shaped member are fixed to the base member by the hot-dip galvanized angle steel hanger.

[0015] Optionally, the hot-dip galvanized angle steel hangers above the horizontal members have the same length, the hot-dip galvanized angle steel hangers above the special-shaped members have different lengths, and the transverse hot-dip galvanized angle steels on the special-shaped members are arranged tilted according to the special-shaped structure of the special-shaped ceiling.

[0016] By adopting the above technical solution, hot-dip galvanized angle steel hangers of different lengths are arranged above the horizontal parts and special-shaped parts, so as to adjust the special-shaped effect of the ceiling and reduce the length of the hangers. In addition, the galvanized support components are arranged to reduce the distance between the conversion layer components and the ceiling panel components, making it more convenient to process different special-shaped structures.

[0017] Optionally, the hanger assembly is arranged below the horizontal member, and the hanger assembly includes multiple vertically arranged galvanized hangers, the upper ends of the galvanized hangers are fixed to the horizontal member, and the lower ends are equipped with hangers connected to the keel assembly, and the lengths of the multiple galvanized hangers are the same.

[0018] By adopting the above technical solution, before installing the ceiling panel, the actual height of the ceiling can be determined by setting the hanger assembly, and the ceiling panel can be installed to the correct position through the hanger assembly, and the horizontal position between the keel assembly on the horizontal member and the ceiling panel can be conveniently adjusted.

[0019] Optionally, the keel assembly includes multiple parallel transverse light steel keels and multiple parallel longitudinal light steel keels, the multiple transverse light steel keels and the multiple longitudinal light steel keels are cross-fixed to each other, and the ceiling panel assembly is installed on the transverse light steel keels and the longitudinal light steel keels.

[0020] By adopting the above technical solution, the light steel keel grid structure can be easily and quickly fixed to the keel assembly.

[0021] Optionally, the ceiling panel assembly includes a plurality of aluminum panels laid on the keel assembly and the special-shaped parts.

[0022] By adopting the above technical solution, the aluminum veneer on the keel assembly is laid flat on the light steel keel. Since there is no keel assembly on the special-shaped part, the aluminum veneer can be directly fixed on the galvanized support assembly.

[0023] Optionally, the special-shaped member and the aluminum single plate are fixed by setting angle brackets.

[0024] By adopting the above technical solution, the set angle code can quickly fix the aluminum single plate on the horizontal hot-dip galvanized angle steel and the longitudinal hot-dip galvanized angle steel.

[0025] Optionally, the keel assembly and the aluminum veneer are fixed by setting up multiple groups of hooking keel assemblies, the hooking keel assembly includes a hooking keel hanger slidably set on the keel assembly, a hooking keel cooperating with the hooking keel hanger is set between the hooking keel hanger and the aluminum veneer, and the hooking keel is connected and fixed to the hooking keel hanger and the aluminum veneer.

[0026] By adopting the above technical solution, the upper end of the hooking keel can be inserted into the hooking keel hanger, and the lower end can be hooked on the edge of the aluminum veneer, so that the aluminum veneer can be fixed to the keel assembly through the set hooking keel piece. When the interior of the ceiling needs to be inspected later, the aluminum veneer can be easily and quickly removed, and the electromechanical equipment inside the ceiling can be inspected.

[0027] In summary, the present application includes at least one of the following beneficial technical effects:

[0028] 1. This solution uses a conversion layer assembly and a galvanized support assembly to form an overall action layer in the ceiling space of the roof. Then, according to the required eccentric effect, a hanger assembly and a keel assembly are set, or the hanger assembly and the keel assembly may not be set, and the ceiling board can be directly installed on the galvanized support assembly. In this way, the construction can be conveniently carried out under the premise of improving stability, and the eccentric design effect can be guaranteed;

[0029] 2. The uneven ceiling transition layer structure of the present application includes a transition layer assembly, a galvanized support assembly, a hanger assembly and a keel assembly. When the length of the ceiling hanger is too long and exceeds a certain range, a transition layer assembly is used to connect the hanger assembly, and then the hanger assembly is connected to the keel assembly, thereby reducing the occurrence of hanger shaking, improving safety, and meeting the requirements of standard construction; in addition, the transition layer assembly of the present application also includes ceiling corner codes and hooking keel assemblies, which are produced in a processing plant or on-site. No fire or electric welding is required during installation, avoiding fire prevention requirements for construction site operations, especially in work areas with high fire prevention requirements; no local anti-corrosion treatment is required after installation, and it has the advantages of being simple, fast, and convenient, as well as energy-saving, environmentally friendly, and recyclable. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] Figure 1 It is a schematic diagram of the overall structure of an embodiment of the present application.

[0031] Figure 2 yes Figure 1 A magnified schematic diagram of center A.

[0032] Figure 3 yes Figure 1 A magnified schematic diagram of point B in the middle.

[0033] Figure 4 yes Figure 1 Enlarged schematic diagram of point C in the middle.

[0034] Explanation of the accompanying drawings: 1. Transfer layer assembly; 11. Galvanized horizontal rod; 12. Galvanized longitudinal rod; 13. Galvanized vertical rod; 14. Galvanized diagonal rod; 2. Galvanized support assembly; 21. Basic member; 211. Horizontal hot-dip galvanized channel steel; 212. Longitudinal hot-dip galvanized channel steel; 213. Connecting I-beam; 22. Horizontal member; 23. Special-shaped member; 24. Horizontal hot-dip galvanized angle steel; 25. Longitudinal hot-dip galvanized angle steel; 26. Hot-dip galvanized angle steel hanger; 3. Hanger assembly; 31. Galvanized hanger; 32. Hanging piece; 4. Keel assembly; 41. Horizontal light steel keel; 42. Longitudinal light steel keel; 5. Ceiling panel assembly; 51. Aluminum veneer; 6. Hooking keel assembly; 61. Hooking keel hanger; 62. Hooking keel. DETAILED DESCRIPTION

[0035] The following is combined with Figure 1-4 This application is described in further detail.

[0036] The embodiment of the present application discloses a high-clearance, non-planar suspended ceiling conversion layer structure.

[0037] Reference Figure 1A high-clearance non-planar suspended ceiling conversion layer structure includes a conversion layer component 1 fixed on the indoor roof surface, a galvanized support component 2, a suspension rod component 3, a keel component 4 and a ceiling panel component 5 are sequentially arranged below the conversion layer component 1, the galvanized support component 2 is connected and fixed to the conversion layer component 1, a non-planar special-shaped structure is processed below the conversion layer component 1 through the arranged galvanized support component 2, the ceiling panel component 5 is directly installed on the galvanized support component 2 at the special-shaped position, the suspension rod component 3, the keel component 4 and the ceiling panel component 5 are sequentially connected to the plane section on the galvanized support component 2 from top to bottom, the galvanized support component 2 is arranged, the non-planar suspended ceiling is conveniently processed, and the use of suspension rods is reduced.

[0038] Reference Figure 1 and Figure 2 The conversion layer component 1 includes a plurality of horizontally arranged galvanized horizontal rods 11 and a plurality of longitudinally arranged galvanized longitudinal rods 12. The length direction of the galvanized horizontal rods 11 is the same as the width direction of the building, and the length direction of the galvanized longitudinal rods 12 is the same as the length direction of the building. The plurality of galvanized horizontal rods 11 are divided into two upper and lower groups, and the plurality of galvanized horizontal rods 11 in each group are evenly distributed along the length direction of the building. The galvanized longitudinal rods 12 are arranged between two adjacent galvanized horizontal rods 11 and fixed to the two galvanized horizontal rods 11. The plurality of galvanized horizontal rods 11 and the plurality of galvanized longitudinal rods 12 form two upper and lower grid-like frame structures. A plurality of galvanized vertical rods 13 and a plurality of galvanized oblique rods 14 are respectively arranged between the upper and lower grid-like frame structures. The upper ends of the galvanized vertical rods 13 are connected to the galvanized horizontal rods in the upper structure. The galvanized vertical rod 13 is fixed to the galvanized horizontal rod 11 or the galvanized longitudinal rod 12 in the lower structure, and the upper and lower groups of grid frame structures are connected into an integral structure by the galvanized vertical rod 13. A pair of galvanized diagonal rods 14 are symmetrically arranged between two adjacent galvanized vertical rods 13. The upper ends of the galvanized diagonal rods 14 are fixed to the galvanized horizontal rods 11 in the upper grid frame structure, and the lower ends of the galvanized diagonal rods 14 are fixed to the connection points of the galvanized horizontal rods 11 and the galvanized longitudinal rods 12 in the lower grid frame structure. The galvanized diagonal rods 14 can increase the strength of the conversion layer assembly 1, thereby increasing the steel structure strength of the conversion layer assembly 1 itself. In addition, the conversion layer assembly 1 is fixed to the ceiling of the house by the expansion bolts.

[0039] Reference Figure 1 , Figure 2 and Figure 3The galvanized support assembly 2 includes a base member 21 connected and fixed to the conversion layer assembly 1, and a horizontal member 22 and a special-shaped member 23 arranged below the base member 21. The base member 21 includes a plurality of parallel transverse hot-dip galvanized channel steels 211 and a plurality of parallel longitudinal hot-dip galvanized channel steels 212. The plurality of transverse hot-dip galvanized channel steels 211 and the plurality of longitudinal hot-dip galvanized channel steels 212 are arranged perpendicular to each other and are connected and cross-fixed to form a grid structure. The width direction of the building is provided with a plurality of transverse hot-dip galvanized channel steels 211, and the length direction of the plurality of hot-dip galvanized channel steels is the same as the width direction of the building. Between two adjacent hot-dip galvanized channel steels, the plurality of hot-dip galvanized channel steels 211 are arranged perpendicular to each other and are cross-fixed to each other to form a grid structure. Connecting I-beams 213 are arranged between the ends of the hot-dip galvanized channel steels and between the hot-dip galvanized channel steels and the inner walls of the building. Multiple connecting I-beams 213 are fixed to the galvanized horizontal rods 11 on the conversion layer assembly 1, and the length direction of the connecting I-beams 213 is the same as the length direction of the longitudinal hot-dip galvanized channel steels 212. The ends of the transverse hot-dip galvanized channel steels 211 can be overlapped on the connecting I-beams 213. The setting of the connecting I-beams 213 improves the overall strength of the large-span transverse hot-dip galvanized channel steels 211, thereby preventing the connection between two adjacent transverse hot-dip galvanized channel steels 211 from bending downward and deforming during the subsequent installation steps.

[0040] Reference Figure 1 , Figure 3 and Figure 4 The horizontal member 22 and the special-shaped member 23 both include a plurality of parallel transverse hot-dip galvanized angle steels 24 and a plurality of parallel longitudinal hot-dip galvanized angle steels 25. The plurality of transverse hot-dip galvanized angle steels 24 and the plurality of longitudinal hot-dip galvanized angle steels 25 are cross-fixed to each other and form a grid structure. The grid structure on the horizontal member 22 is parallel to the grid structure on the base member 21. The transverse hot-dip galvanized angle steels 24 on the special-shaped member 23 are tilted and tilted to fit the special shape of the special-shaped ceiling structure, so that the transverse hot-dip galvanized angle steels 24 on the special-shaped member 23 and the transverse hot-dip galvanized angle steels 24 on the horizontal member 22 are arranged at an angle. The horizontal member 22 and the special-shaped member 23 both include It includes multiple vertically arranged hot-dip galvanized angle steel hangers 26, the upper ends of the hot-dip galvanized angle steel hangers 26 are fixed to the longitudinal hot-dip galvanized channel steel 212 by bolts, and the lower ends are fixed to the transverse hot-dip galvanized angle steel 24 by bolts. The lengths of the hot-dip galvanized angle steel hangers 26 above the horizontal parts 22 are all the same, and the lengths of the hot-dip galvanized angle steel hangers 26 on the special-shaped parts 23 are different, and the corresponding lengths are set according to the structure of the special-shaped ceiling. Therefore, by setting the galvanized support component 2, the distance between the conversion layer component 1 and the ceiling panel component 5 is reduced, avoiding the need to use a longer length of hangers, and the set galvanized support component 2 is more convenient for processing different special-shaped structures.

[0041] Reference Figure 1 and Figure 3The hanger assembly 3 is arranged below the horizontal member 22, and includes a plurality of vertically arranged galvanized hangers 31, and the plurality of galvanized hangers 31 are evenly distributed along the length direction of the transverse hot-dip galvanized angle steel 24 and the longitudinal hot-dip galvanized angle steel 25. The upper end of the galvanized hanger 31 is fixed to the transverse hot-dip galvanized angle steel 24, and the lower end of the galvanized hanger 31 is provided with a hanger 32 connected to the keel assembly 4. The set hanger 32 is more convenient to connect with the keel assembly 4, and the lengths of the plurality of galvanized hangers 31 below the horizontal member 22 are all the same.

[0042] Reference Figure 1 , Figure 3 and Figure 4 The keel assembly 4 includes a plurality of parallel transverse light steel keels 41 and a plurality of parallel longitudinal light steel keels 42. The plurality of transverse light steel keels 41 and the plurality of longitudinal light steel keels 42 are cross-fixed to each other, and the transverse light steel keels 41 and the longitudinal light steel keels 42 are arranged in parallel with the transverse hot-dip galvanized angle steels 24 and the longitudinal hot-dip galvanized angle steels 25 on the horizontal member 22. The hanger 32 is connected to the transverse light steel keel 41, and the two are slidably matched. During the installation process, the positions of the galvanized hanger 31 and the hanger 32 remain fixed, and the position of the transverse light steel keel 41 can be adjusted on the hanger 32.

[0043] Reference Figure 1 , Figure 3 and Figure 4The ceiling panel assembly 5 includes a plurality of aluminum veneers 51 laid on the keel assembly 4 and the special-shaped member 23. The aluminum veneers 51 on the keel assembly 4 can be detachably fixed on the keel assembly 4, and the plurality of aluminum veneers 51 are evenly arranged on the keel assembly 4. The aluminum veneers 51 on the special-shaped member 23 are directly fixed on the transverse hot-dip galvanized angle steel 24 and the longitudinal hot-dip galvanized angle steel 25, and the aluminum veneers 51 on the special-shaped member 23 are connected to the transverse hot-dip galvanized angle steel 24 and the longitudinal hot-dip galvanized angle steel 25 by the provided angle code and bolts. The galvanized angle steel 24 is fixed to the longitudinal hot-dip galvanized angle steel 25, and the adjacent two aluminum veneers 51 on the special-shaped member 23 are connected and fixed by bolts; a splicing assembly is provided at the splicing seam between the aluminum veneer 51 on the keel assembly 4 and the aluminum veneer 51 on the special-shaped member 23, and the splicing assembly includes a splicing suspension rod connected to the transverse hot-dip galvanized angle steel 24, and a splicing channel steel is connected to the lower end of the splicing suspension rod, and a splicing channel steel and a splicing joint of the adjacent two aluminum veneers 51 are provided. A spliced ​​ceiling panel is provided, and the gaps at the splicing between the adjacent aluminum panels 51 on the keel assembly 4 and the splicing between the aluminum panels 51 on the special-shaped piece 23 and the aluminum panels 51 on the keel assembly 4 are sealed and installed through the provided splicing components; a plurality of groups of hooking keel components 6 for fixing the aluminum panels 51 are provided between the keel assembly 4 and the ceiling panel assembly 5, and the hooking keel components 6 include a pair of hooking keel hangers 61 slidably sleeved on the transverse light steel keel 41, and a hooking keel 62 is provided between the hooking keel hanger 61 and the aluminum panel 51, and the upper end of the hooking keel 62 can be plugged into the hooking keel hanger 61, and the lower end can be hooked on the edge of the aluminum panel 51, so that the aluminum panel 51 is fixed to the keel assembly 4 by the provided hooking keel 62, and when the interior of the ceiling needs to be inspected later, the aluminum panel 51 can be conveniently and quickly removed, and the electromechanical equipment inside the ceiling can be inspected.

[0044] The implementation principle of a high-clearance, non-uniform ceiling transition layer structure in an embodiment of the present application is as follows: a transition layer assembly 1 is arranged on the roof surface to initially lower the height of the ceiling, and a galvanized support assembly 2 is arranged below the transition layer assembly 1 to further lower the height of the ceiling, and the arranged galvanized support assembly 2 can be processed according to the required special-shaped ceiling shape, so that the transition layer assembly 1 and the galvanized support assembly 2 can jointly form the overall working layer of the present scheme, and a hanger assembly 3 and a keel assembly 4 are arranged according to the non-uniform effect of the processed galvanized support assembly 2, and the keel assembly 4 is only arranged on the flat galvanized support assembly 2, and the galvanized support assembly 2 at the non-uniform surface is not provided with the keel assembly 4, and the ceiling panel assembly 5 is arranged on the keel assembly 4 and the non-uniform galvanized support assembly 2.

[0045] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. A high-clearance, non-planar ceiling conversion layer structure, characterized in that: The invention comprises a conversion layer assembly (1) connected and fixed to an indoor roof surface, a suspension rod assembly (3) arranged below the conversion layer assembly (1), a keel assembly (4) arranged below the suspension rod assembly (3), and a ceiling panel assembly (5) installed on the keel assembly (4); a galvanized support assembly (2) is arranged between the conversion layer assembly (1) and the suspension rod assembly (3); the galvanized support assembly (2) is connected and fixed to the conversion layer assembly (1), and the galvanized support assembly (2) can be processed into a desired eccentric shape; the suspension rod assembly (3) is connected and fixed to the plane section of the galvanized support assembly (2).

2. The high clearance eccentric ceiling conversion layer structure according to claim 1 is characterized by: The galvanized support assembly (2) comprises a base member (21) connected to the conversion layer assembly (1) and a horizontal member (22) and a special-shaped member (23) arranged below the base member (21); the base member (21) comprises a plurality of parallel transverse hot-dip galvanized channel steels (211) and a plurality of parallel longitudinal hot-dip galvanized channel steels (212); the plurality of transverse hot-dip galvanized channel steels (211) and the plurality of longitudinal hot-dip galvanized channel steels (212) are cross-fixed to each other; the horizontal member (22) is a horizontal part on the galvanized support assembly (2); and the special-shaped member (23) is a special-shaped part on the galvanized support assembly (2).

3. The high clearance eccentric ceiling conversion layer structure according to claim 2 is characterized by: The length directions of the plurality of transverse hot-dip galvanized channel steels (211) are arranged along the length direction of the conversion layer assembly (1), and a connecting I-beam (213) is arranged at the end of the transverse hot-dip galvanized channel steel (211), the length direction of the connecting I-beam (213) is the same as the length direction of the longitudinal hot-dip galvanized channel steel (212), the end of the transverse hot-dip galvanized channel steel (211) is installed and fixed on the connecting I-beam (213), and the connecting I-beam (213) is fixed to the conversion layer assembly (1).

4. The high clearance eccentric ceiling conversion layer structure according to claim 2 is characterized by: The horizontal member (22) and the special-shaped member (23) both include a plurality of parallel transverse hot-dip galvanized angle steels (24) and a plurality of parallel longitudinal hot-dip galvanized angle steels (25), wherein the plurality of transverse hot-dip galvanized angle steels (24) and the plurality of longitudinal hot-dip galvanized angle steels (25) are cross-fixed to each other and form a grid structure, and the horizontal member (22) and the special-shaped member (23) both include a plurality of vertically arranged hot-dip galvanized angle steel suspension rods (26), wherein the upper ends of the hot-dip galvanized angle steel suspension rods (26) are fixed to the base member (21), and the lower ends are fixed to the transverse hot-dip galvanized angle steels (24) or the longitudinal hot-dip galvanized angle steels (25).

5. The high clearance eccentric ceiling conversion layer structure according to claim 2 is characterized by: The hot-dip galvanized angle steel hangers (26) above the horizontal member (22) have the same length, the hot-dip galvanized angle steel hangers (26) above the special-shaped member (23) have different lengths, and the transverse hot-dip galvanized angle steels (24) on the special-shaped member (23) are arranged tilted according to the special-shaped structure of the special-shaped ceiling.

6. The high clearance eccentric ceiling conversion layer structure according to claim 1 is characterized by: The suspension rod assembly (3) is arranged below the horizontal member (22), and the suspension rod assembly (3) comprises a plurality of vertically arranged galvanized suspension rods (31), the upper ends of the galvanized suspension rods (31) are fixed to the horizontal member (22), and the lower ends are provided with suspension members (32) connected to the keel assembly (4), and the lengths of the plurality of galvanized suspension rods (31) are the same.

7. The high clearance eccentric ceiling conversion layer structure according to claim 1 is characterized by: The keel assembly (4) comprises a plurality of parallel transverse light steel keels (41) and a plurality of parallel longitudinal light steel keels (42), the plurality of transverse light steel keels (41) and the plurality of longitudinal light steel keels (42) being cross-fixed to each other, and the ceiling panel assembly (5) is mounted on the transverse light steel keels (41) and the longitudinal light steel keels (42).

8. The high clearance eccentric ceiling conversion layer structure according to claim 1 is characterized by: The ceiling panel assembly (5) comprises a plurality of aluminum veneers (51) laid on the keel assembly (4) and the special-shaped member (23).

9. The high clearance eccentric ceiling conversion layer structure according to claim 2 is characterized by: The special-shaped piece (23) and the aluminum single plate (51) are fixed by means of an angle code.

10. The high clearance eccentric ceiling transfer layer structure according to claim 1, characterized in that: The keel assembly (4) and the aluminum single plate (51) are fixed by means of a plurality of groups of hooking keel assemblies (6), wherein the hooking keel assembly (6) comprises a hooking keel hanger (61) slidably arranged on the keel assembly (4), and a hooking keel (62) cooperating with the hooking keel hanger (61) is arranged between the hooking keel hanger (61) and the aluminum single plate (51), and the hooking keel (62) is connected and fixed to the hooking keel hanger (61) and the aluminum single plate (51).

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