Suspended ceiling structure

Abstract

The suspended ceiling structure comprises a keel frame used for being installed on a roof and a plurality of gypsum boards, the keel frame is composed of a plurality of keels arranged at intervals, and a plurality of butt joint structures are connected between each gypsum board and a limiting groove of the corresponding keel. Each butt joint structure has a fixed state and a separated state, the gypsum board and the keel are in butt joint and fixed, a magnetic control assembly is arranged on the side, facing the keel frame, of the gypsum board, and a linkage assembly is connected between the magnetic control assembly and each butt joint structure. The magnet is matched with the magnetic control assembly to control the butt joint structure to be switched between the fixed state and the separated state through the linkage assembly. The suspended ceiling has the following advantages and effects that the original attractiveness of the suspended ceiling is not affected, the structure is simple, and the installation cost is low.

Description

Technical Field

[0001] The present invention relates to the technical field of decoration construction, in particular to a suspended ceiling structure. Background Art

[0002] The suspended ceiling is a crucial element of home renovation, and its design must comprehensively consider multiple factors, including functionality, aesthetics, cost, and construction difficulty. The design of a suspended ceiling primarily serves aesthetic purposes and creates a functional space at the top of the house for the installation of piping, electrical circuits, and air ducts.

[0003] A Chinese patent with announcement number CN113445654B discloses a suspended ceiling structure, which includes a keel frame for fixing to the ceiling and a gypsum board for being fixedly connected to the keel frame. The keel frame includes several parallel transverse keels, and the distance between adjacent transverse keels is the same. It also includes a connecting mechanism for connecting the gypsum board and the transverse keels. The connecting mechanism includes a connecting sleeve vertically fixed to the middle of the gypsum board, and a rotating column and a connecting column are coaxially connected from bottom to top in the connecting sleeve. The rotating column and the connecting column are arranged at intervals. A linkage bar extending along the axis direction of the connecting column is provided near one end of the connecting column. A plug-in hole adapted to the linkage bar is provided on the rotating column. One end of the linkage bar is always located in the plug-in hole to drive the rotating column and the connecting column to rotate synchronously. A connecting block with a rectangular structure is fixed to the end of the connecting sleeve away from the gypsum board.

[0004] The above structure requires a first through-hole in the gypsum board, which is exposed to the outside world and is used to press the pressing column. This significantly detracts from the aesthetics of the suspended ceiling and negatively impacts the overall interior decoration style. Furthermore, the structure is complex and requires numerous parts, which undoubtedly significantly increases the installation cost of the suspended ceiling. These factors combined make this type of structure extremely unfeasible in practical applications and lack practical value. In light of this, the present invention has arisen. Summary of the Invention

[0005] The purpose of the present invention is to provide a suspended ceiling structure which does not affect the original aesthetics of the suspended ceiling and has a simple structure and low installation cost.

[0006] The above technical purpose of the present invention is achieved through the following technical solutions: a suspended ceiling structure, including a keel frame for installation on the roof and several gypsum boards, the keel frame is composed of several keels arranged at intervals, and each of the gypsum boards and the keel limit grooves are connected with multiple docking structures, the docking structure has a fixed state and a separated state in which the gypsum board and the keel are docked and fixed, the gypsum board is provided with a magnetic control component on the side facing the keel frame, and a linkage component is connected between the magnetic control component and each docking structure, and the magnet cooperates with the magnetic control component to control the docking structure to switch between the fixed state and the separated state through the linkage component.

[0007] By adopting this technical solution, when removing the gypsum board from the keel, a worker holds a magnet close to the gypsum board. The magnet's magnetic force penetrates the gypsum board and engages with the magnetic control component. The linkage component then controls the docking structure to switch from a fixed state to a separated state, allowing the gypsum board to be removed from the keel's retaining groove. This facilitates subsequent maintenance or installation of pipes, circuits, and air ducts. This setup eliminates the need to drill holes in the gypsum board, maintaining the original aesthetics of the ceiling, while maintaining a simple structure and reducing installation costs.

[0008] It is further configured as follows: the magnetic control component includes a control seat installed on the gypsum board and having a sliding channel, a slide seat slidably arranged in the sliding channel and reciprocating toward one side of the gypsum board, a control magnetic block fixed to the slide seat, and a first reset elastic member connecting the control magnetic block.

[0009] By adopting the above technical solution, an attractive force is generated between the magnetic block close to the control magnetic block, thereby controlling the control magnetic block to drive the slide to move along one side of the sliding channel and stretch the first reset elastic member. When the control magnetic block loses the magnetic attraction of the magnet, the control magnetic block is reset under the action of the first reset elastic member, thereby giving the magnetic control component the function of controlling the docking structure through the linkage component.

[0010] It is further configured as follows: the control magnetic block is connected to the control seat through a first reset elastic member, and a limit plate is provided on the side of the first reset elastic member facing away from the gypsum board to limit the movement of the control magnetic block facing away from the gypsum board, and the limit plate is provided with an adsorption hole corresponding to the position of the control magnetic block.

[0011] By adopting this technical solution, after removing a gypsum board, the provided limit plate can be used to engage the adsorption holes, allowing the removed gypsum board to be adsorbed under any gypsum board on the steel keel, thereby allowing the control magnetic block to be adsorbed and fixed to the steel keel. This eliminates the operational risks associated with workers on ladders carrying gypsum boards down the ladder to place them, and also prevents the risk of damage to gypsum boards placed on the ground. This makes the operation more convenient for workers and avoids the safety hazards associated with moving gypsum boards up and down ladders.

[0012] It is further configured as follows: the docking structure includes a docking seat fixed to the gypsum board and a docking plug-in block slidably arranged on the docking seat along the horizontal direction and used to be inserted into the limiting groove.

[0013] By adopting the above technical solution, when the docking plug is inserted into the limiting groove, the gypsum board is fixed on the keel, and when the docking plug leaves the limiting groove, the gypsum board is separated from the keel.

[0014] It is further configured that: the linkage assembly includes a linkage rope with one end connected to the docking plug-in block, the other end passing through the control seat and connected to the slide seat, and a second reset elastic member connected to the docking plug-in block.

[0015] By adopting the above technical solution, the control magnetic block drives the slide to move when it is attracted by the magnet, and the connecting rope can be used to pull the docking block to move in the opposite limit slot, so as to achieve the separation of the gypsum board and the keel. When the control magnetic block loses the attraction of the magnet, the docking block is reset under the action of the second reset elastic member to control the docking block to be inserted into the limit slot, so as to achieve the fixation of the gypsum board and the keel.

[0016] It is further configured as follows: a first through hole is formed on the control seat for the linkage rope to pass through, the first through hole passes through the end of the gypsum board opposite to the control seat in the radial direction of the linkage rope to form an opening for the linkage rope to be installed into the first through hole, and when the first reset elastic member is fixed to the control seat, the linkage rope is restricted from passing through the opening of the first through hole.

[0017] By adopting the above technical solution, this setting structure can conveniently install the linkage rope into the control seat, making the assembly operation more convenient, and utilizing the installed first reset elastic member to restrict the linkage rope from leaving the first through hole, thereby ensuring the feasibility and reliability of the setting structure.

[0018] It is further configured as follows: the control seat is made of elastic material, the outer ring of the control seat is provided with a fixing hoop for fixing the first reset elastic member, the fixing hoop is located between the first through hole and the first through hole opening, and the fixing hoop is embedded in the outer peripheral wall of the control seat, and the first reset elastic member is located between the fixing hoop and the control seat.

[0019] By adopting the above technical solution, the first through-hole extending through the control base forms an elastic, retractable gap on the control base. When the fixing hoop is fitted onto the control base, the elasticity imparted by the elastic, retractable gap allows for a secure connection between the fixing hoop and the control base, thereby conveniently securing the first resilient member to the control base. This arrangement facilitates the installation of both the linkage rope and the first resilient member.

[0020] It is further configured as follows: a second through hole is provided on the sliding seat for the linkage rope to pass through, the second through hole penetrates the sliding seat radially along the linkage rope toward one end of the gypsum board to form an opening for the linkage rope to be installed into the second through hole, the first through hole and the second through hole are arranged in correspondence with each other, and one end of the linkage rope located inside the sliding seat is connected to a limiting block, and the diameter of the limiting block is greater than the width of the second through hole.

[0021] By adopting the above technical solution, the setting of the limit block enables the movable slide to drive the linkage rope to move, thereby pulling the linkage rope; and then the second through hole is set to pass through the slide, which can realize convenient assembly and linkage of the linkage rope and the slide, making the assembly operation more convenient.

[0022] It is further configured as follows: the first resetting elastic member is a rubber sheet, the rubber sheet is fixedly connected to the control magnetic block and is clamped by the control seat and the fixing hoop.

[0023] By adopting the above technical solution, this arrangement method can realize convenient assembly and fixation of the first resetting elastic member, with a simple structure and lower cost.

[0024] It is further configured that: the linkage rope passes through the second reset elastic member and is fixedly connected to the docking block.

[0025] By adopting the above technical solution, this setting structure can realize the convenient assembly of the docking plug on the docking seat and form a linkage.

[0026] In summary, the present invention has the following beneficial effects: the present invention does not affect the original aesthetics of the suspended ceiling, and has a simple structure and low installation cost. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 It is a structural schematic diagram of an embodiment; Figure 2 It is a partial structural diagram of an embodiment; Figure 3 A partial exploded view of an embodiment; Figure 4 A partial cross-sectional view of an embodiment; Figure 5 is another partial exploded view of the embodiment; Figure 6 Schematic diagram of the docking structure in the embodiment.

[0028] In the figure: 1. keel; 2. gypsum board; 3. limiting groove; 4. docking structure; 41. docking seat; 42. docking plug; 5. magnetic control component; 51. control seat; 52. slide seat; 53. control magnetic block; 54. first reset elastic member; 6. linkage component; 61. linkage rope; 62. second reset elastic member; 7. limiting plate; 8. adsorption hole; 9. first through hole; 10. fixing hoop; 11. second through hole; 12. limiting block. DETAILED DESCRIPTION

[0029] The present invention will be further described in detail below with reference to the accompanying drawings.

[0030] refer to Figures 1 to 6A suspended ceiling structure includes a keel frame for fixed installation on the roof and a plurality of gypsum boards 2. The keel frame is composed of a plurality of keels 1 arranged at intervals. The keel 1 is a steel keel that can be attracted by magnets. A plurality of docking structures 4 are connected between each gypsum board 2 and the limiting groove 3 of the keel 1. The docking structure 4 has a fixed state and a separated state in which the gypsum board 2 and the keel 1 are docked and fixed. A magnetic control component 5 is provided on the side of the gypsum board 2 facing the keel frame. A linkage component 6 is connected between the magnetic control component 5 and each docking structure 4. The magnet cooperates with the magnetic control component 5 to control the docking structure 4 to switch between the fixed state and the separated state through the linkage component 6.

[0031] The magnetic control assembly 5 includes a control base 51 fixedly mounted on the gypsum board 2 and having a sliding channel, a slide 52 slidably disposed in the sliding channel and reciprocating toward one side of the gypsum board 2, a control magnet 53 fixedly mounted on the slide 52, and a first resilient member 54 connected to the control magnet 53. The control magnet 53 is connected to the control base 51 via the first resilient member 54. A limit plate 7 is provided on the side of the first resilient member 54 facing away from the gypsum board 2 to restrict the movement of the control magnet 53 away from the gypsum board 2. The limit plate 7 has an adsorption hole 8 formed in the position corresponding to the control magnet 53.

[0032] The docking structures 4 on a single gypsum board 2 are preferably four in number and located near the four corners of the board 2. The docking structures 4 include a docking seat 41 fixed to the gypsum board 2 and a docking plug 42 that slides horizontally within the docking seat 41 and is inserted into the retaining groove 3. The linkage assembly 6 includes a linkage rope 61, one end of which is connected to the docking plug 42 and the other end of which passes through the control seat 51 and is connected to the slide 52. A second return spring 62 is connected to the docking plug 42. The second return spring 62 is a rubber sheet, with both ends of the rubber sheet bonded to the docking seat 41.

[0033] The control base 51 is provided with a first through hole 9 for the linkage rope 61 to pass through. The first through hole 9 extends radially through the end of the control base 51 opposite the gypsum board 2, forming an opening for the linkage rope 61 to be installed in the first through hole 9. When the first return elastic member 54 is fixed to the control base 51, it restricts the linkage rope 61 from passing through the opening of the first through hole 9.

[0034] The control base 51 is made of an elastic material, specifically plastic. A retaining hoop 10 is mounted around the outer ring of the control base 51, securing the first resilient member 54. The retaining hoop 10 is positioned between the first through-hole 9 and its opening and is embedded in the outer wall of the control base 51. The first resilient member 54, a rubber sheet, is located between the retaining hoop 10 and the control base 51. It is bonded to the control magnet 53 and held between the control base 51 and the retaining hoop 10. The limiting plate 7 is fixedly connected to the retaining hoop 10.

[0035] The slide 52 is provided with a second through-hole 11 for the linkage cord 61 to pass through. The second through-hole 11 extends radially through the slide 52 toward one end of the gypsum board 2, forming an opening for the linkage cord 61 to be installed into the second through-hole 11. The first through-hole 9 and the second through-hole 11 are arranged in a corresponding manner. The end of the linkage cord 61 located within the slide 52 is fixedly connected to a limit block 12, the diameter of which is greater than the width of the second through-hole 11. The end of the linkage cord 61 closest to the docking plug 42 passes through a second return spring 62 and is fixedly connected to the docking plug 42.

[0036] This specific embodiment is merely an explanation of the present invention and is not intended to limit the present invention. After reading this specification, those skilled in the art may make non-creative modifications to this embodiment as needed. However, as long as such modifications are within the scope of the claims of the present invention, they are protected by patent law.

Claims

1. A ceiling structure comprising a keel frame for installation on a roof and a plurality of gypsum boards (2), wherein the keel frame is composed of a plurality of keels (1) arranged at intervals, and is characterized in that: A plurality of docking structures (4) are connected between each of the gypsum boards (2) and the limiting grooves (3) of the keel (1). The docking structures (4) have a fixed state and a separated state in which the gypsum boards (2) and the keel (1) are docked and fixed. A magnetic control component (5) is provided on the side of the gypsum board (2) facing the keel frame. A linkage component (6) is connected between the magnetic control component (5) and each of the docking structures (4). The magnet cooperates with the magnetic control component (5) to control the docking structure (4) to switch between the fixed state and the separated state through the linkage component (6).

2. The ceiling structure according to claim 1, wherein: The magnetic control assembly (5) comprises a control seat (51) mounted on the gypsum board (2) and having a sliding channel, a slide seat (52) slidably arranged in the sliding channel and reciprocating toward one side of the gypsum board (2), a control magnetic block (53) fixed to the slide seat (52), and a first resetting elastic member (54) connected to the control magnetic block (53).

3. The ceiling structure according to claim 2, wherein: The control magnetic block (53) is connected to the control seat (51) via a first reset elastic member (54); a limiting plate (7) is provided on the side of the first reset elastic member (54) facing away from the gypsum board (2) to limit the movement of the control magnetic block (53) facing away from the gypsum board (2); and an adsorption hole (8) is provided on the limiting plate (7) at a position corresponding to the control magnetic block (53).

4. The suspended ceiling structure according to claim 3, wherein: The docking structure (4) comprises a docking seat (41) fixed to the gypsum board (2) and a docking plug (42) slidably arranged on the docking seat (41) in a horizontal direction and used for inserting into the limiting groove (3).

5. The suspended ceiling structure according to claim 4, characterized in that: The linkage assembly (6) comprises a linkage rope (61) having one end connected to the docking plug block (42) and the other end passing through the control seat (51) and connected to the slide seat (52), and a second reset elastic member (62) connected to the docking plug block (42).

6. The suspended ceiling structure according to claim 5, characterized in that: The control seat (51) is provided with a first through hole (9) for the linkage rope (61) to pass through. The first through hole (9) penetrates the end of the gypsum board (2) opposite to the control seat (51) in the radial direction of the linkage rope (61) to form an opening for the linkage rope (61) to be installed into the first through hole (9). When the first reset elastic member (54) is fixed to the control seat (51), the linkage rope (61) is restricted from passing through the opening of the first through hole (9).

7. The suspended ceiling structure according to claim 6, wherein: The control seat (51) is made of elastic material. The outer ring of the control seat (51) is provided with a fixing hoop (10) for fixing the first resetting elastic member (54). The fixing hoop (10) is located between the first through hole (9) and the opening of the first through hole (9). The fixing hoop (10) is embedded in the outer peripheral wall of the control seat (51). The first resetting elastic member (54) is located between the fixing hoop (10) and the control seat (51).

8. The suspended ceiling structure according to claim 6, wherein: The slide seat (52) is provided with a second through hole (11) for the linkage rope (61) to pass through. The second through hole (11) penetrates the slide seat (52) radially along the linkage rope (61) toward one end of the gypsum board (2) to form an opening for the linkage rope (61) to be installed into the second through hole (11). The first through hole (9) and the second through hole (11) are arranged in correspondence with each other. One end of the linkage rope (61) located inside the slide seat (52) is connected to a limit block (12), and the diameter of the limit block (12) is greater than the width of the second through hole (11).

9. The suspended ceiling structure according to claim 7, wherein: The first resetting elastic member (54) is a rubber sheet, which is fixedly connected to the control magnetic block (53) and clamped by the control seat (51) and the fixing hoop (10).

10. The suspended ceiling structure according to claim 5, characterized in that: The linkage rope (61) passes through the second reset elastic member (62) and is fixedly connected to the docking block (42).

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