Indoor suspended ceiling and GRG constant temperature plate

Abstract

The utility model provides a GRG constant temperature plate which comprises a GRG plate, a first pipeline used for leading in fluid is laid on the back face of the GRG plate, and a heat preservation structure used for conducting heat preservation on the first pipeline is further arranged on the back side of the GRG plate. The GRG plate is a gypsum decorative plate, the outer surface of the GRG plate is an appearance surface during hoisting, the inner surface of the GRG plate is used for being matched with a keel and the like in a hoisting mode, the back side of the GRG plate is attached to the first pipeline, meanwhile, the heat preservation structure is attached to cover the first pipeline, and when refrigerating or heating fluid is introduced into the first pipeline, the temperature in the pipeline is blocked and reflected through the heat preservation structure; according to the GRG constant-temperature plate, the pipeline temperature is dissipated through the GRG plate side, the indoor refrigerating or heating effect is achieved, due to the fact that the first pipeline is only shielded by the GRG plate, the temperature in the first pipeline can be directly dissipated through the GRG plate, energy loss is reduced, the heat exchange efficiency is maximized, meanwhile, the GRG plate can be directly used as an appearance face to be hoisted, and the assembling difficulty of the GRG constant-temperature plate is lowered. The utility model further provides an indoor suspended ceiling.

Description

Technical Field

[0001] This utility model relates to the field of decoration materials technology, and more specifically, to an indoor ceiling and a GRG constant temperature board. Background Technology

[0002] Traditional indoor temperature control involves using terminal devices to locally cool or heat a room, gradually spreading the temperature throughout the space via heat transfer to reach the target temperature. This method is prone to uneven indoor temperature and low comfort levels. An existing type of temperature-controlled suspended ceiling uses a top-to-bottom arrangement of floor slabs, insulation boards, moisture-proof boards, heat exchange boards, heat dissipation boards, and a decorative layer. While this type of ceiling utilizes radiant heat exchange via water flow, the heat dissipation process requires passing through the heat dissipation boards and then the decorative panels, reducing heat exchange efficiency.

[0003] Therefore, how to improve the heat exchange effect of suspended ceilings is a problem that urgently needs to be solved by those skilled in the art. Summary of the Invention

[0004] In view of this, the present invention provides a GRG constant temperature plate to improve the heat exchange effect of ceiling suspended ceiling; the present invention also provides an indoor suspended ceiling.

[0005] To achieve the above objectives, this utility model provides the following technical solution:

[0006] A GRG constant temperature plate includes a GRG plate, on the back of which a first pipe for fluid to flow is laid, and on the back side of the GRG plate an insulation structure for insulating the first pipe.

[0007] Optionally, the first pipeline includes multiple parallel pipelines arranged in parallel along the width direction of the GRG plate, and a loop pipeline disposed at the end of two adjacent parallel pipelines.

[0008] The first pipeline also has an inlet pipe and an outlet pipe extending on the same side or both sides of the length direction of the GRG plate.

[0009] Optionally, the back side of the GRG plate is pre-set with a paving groove for accommodating and positioning the first pipeline laid, and / or a positioning clip for locking and limiting the first pipeline laid.

[0010] Optionally, the insulation structure is a foamed insulation layer bonded to the back of the GRG plate to provide insulation and isolation for the first pipeline.

[0011] Optionally, the insulation structure is an insulation layer with a heat-reflective layer on its surface, and the heat-reflective layer of the insulation layer is attached to the first pipeline.

[0012] Optionally, the insulation layer is an aluminum plate insulation layer or an aluminum film insulation layer, and the insulation layer is provided with bonding holes for bonding with the gypsum casting of the GRG board. The bonding holes include multiple sets arranged in an array between two adjacent parallel pipes.

[0013] Optionally, mating bosses for splicing and assembling two adjacent GRG plates are also provided on both sides of the splicing direction of the GRG plate;

[0014] The two mating protrusions on both sides are respectively provided with assembly grooves and assembly protrusions, and / or the two mating protrusions on both sides are respectively provided with self-locking joints to limit the position of the two spliced ​​GRG plates.

[0015] Optionally, the GRG board is a flat GRG board, or a corner GRG board used at the corner of the wall;

[0016] The upper surface of the insulation structure is also provided with a second GRG plate pressed onto it.

[0017] An indoor ceiling includes a GRG gypsum board suspended from a wall, wherein the GRG gypsum board is a GRG thermostatic board as described in any of the above claims.

[0018] The GRG thermostatic panel provided by this utility model includes a GRG panel with a first pipe for fluid to flow through it laid on the back. An insulation structure for insulating the first pipe is also provided on the back side of the GRG panel. The GRG panel is a gypsum board; its outer surface is the exterior surface during installation, while the inner surface is used for installation with a keel or similar structure. The back side of the GRG panel is attached to the first pipe, and the insulation structure is simultaneously attached to cover the first pipe. When a cooling or heating fluid flows through the first pipe, the insulation structure blocks and reflects the temperature inside the pipe, causing the pipe temperature to dissipate through the GRG panel, thus providing a cooling or heating effect to the room. Because the first pipe is only shielded by the GRG panel, its internal temperature can be directly dissipated through the GRG panel, reducing energy loss and maximizing heat exchange efficiency. Furthermore, the GRG panel can be directly used as the exterior surface for installation, reducing the assembly difficulty of the GRG thermostatic panel. Attached Figure Description

[0019] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0020] Figure 1 This is a cross-sectional view of the first thermal insulation structure of the GRG thermostatic plate provided in this application;

[0021] Figure 2 A schematic diagram of the piping arrangement structure of the GRG thermostatic plate provided in this application;

[0022] Figure 3 This is a schematic diagram of the second insulation structure of the GRG constant temperature plate provided in this application;

[0023] Figure 4 This is a schematic diagram of the third insulation structure of the GRG constant temperature plate provided in this application. Detailed Implementation

[0024] This utility model discloses a GRG constant temperature plate, which improves the heat exchange effect of ceiling suspended ceiling; this utility model also provides an indoor suspended ceiling.

[0025] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of the present utility model.

[0026] like Figures 1-4 As shown, Figure 1 This is a cross-sectional view of the first thermal insulation structure of the GRG thermostatic plate provided in this application; Figure 2 A schematic diagram of the piping arrangement structure of the GRG thermostatic plate provided in this application; Figure 3 This is a schematic diagram of the second insulation structure of the GRG constant temperature plate provided in this application; Figure 4 This is a schematic diagram of the third insulation structure of the GRG constant temperature plate provided in this application.

[0027] This application provides a GRG thermostatic panel, including a GRG panel 1. A first pipe 2 for fluid to flow through is laid on the back of the GRG panel 1, and an insulation structure 3 is also provided on the back side of the GRG panel 1 to insulate the first pipe 2. The GRG panel 1 is a gypsum board. When it is hoisted, its outer surface is the appearance surface, and its inner surface is used for hoisting with keel, etc. The back side of the GRG panel 1 is attached to the first pipe 2, and the insulation structure 3 is attached to cover the first pipe 2 at the same time. When a cooling or heating fluid flows through the first pipe 2, the temperature inside the pipe is blocked and reflected by the insulation structure 3, and the temperature of the pipe is dissipated through the side of the GRG panel 1, which has a cooling or heating effect on the room. Since the first pipe 2 is only shielded by the GRG panel 1, its internal temperature can be directly dissipated through the GRG panel 1, reducing energy loss and maximizing heat exchange efficiency. At the same time, the GRG panel 1 can be directly used as the appearance surface for hoisting, which reduces the assembly difficulty of the GRG thermostatic panel.

[0028] The GRG constant temperature plate provided in this embodiment is made into a radiant heating or cooling plate using GRG plate 1, first pipe 2 and insulation structure 3. It can also be called GRG radiant plate. Through radiant heat transfer, it can uniformly transfer heat or cold to the room to achieve a constant temperature effect.

[0029] In this embodiment, the first pipeline 2 includes multiple parallel pipelines 21 arranged in parallel along the width direction of the GRG plate 1, and a loop pipeline 22 disposed at the end of two adjacent parallel pipelines 21.

[0030] The first pipe 2 also has an inlet pipe 23 and an outlet pipe 24 extending from the same side or both sides of the GRG board 1 along its length. The GRG board 1 is typically a gypsum board with a certain length and width span. To ensure the heat exchange effect of the first pipe 2, a loop-shaped pipe is used to repeatedly lay the pipes on the back side of the GRG board 1 to meet the heat exchange requirements per unit area. Specifically, the first pipe 2 arranges multiple parallel pipes 21 in a parallel manner along its length or width, and connects adjacent parallel pipes 21 along the fluid flow direction using a loop-shaped pipe 22, thus connecting the multiple parallel pipes 21 in series. To facilitate pipe connection after the GRG thermostatic board is hoisted onto the wall, the first pipe 2 also has an inlet pipe 23 and an outlet pipe 24. The inlet pipe 23 and outlet pipe 24 can be arranged on the same side of the GRG board 1 or on both sides along its length, thereby meeting the series and parallel connection requirements between the GRG thermostatic boards.

[0031] In this embodiment, the back side of the GRG board 1 is pre-set with a paving groove 11 for accommodating and positioning the laid first pipe 2, and / or a positioning clip for locking and limiting the laid first pipe 2. The GRG board 1 is a decorative board made of gypsum material. The back side is assembled to form a GRG constant temperature board by laying the first pipe 2 and the insulation structure 3. When assembling the GRG board 1, the first pipe 2 and the insulation structure 3, the insulation structure 3 and the first pipe 2 can be fixed in the mold by pouring, and then liquid gypsum is laid on the insulation structure. After shaping, they are assembled into one piece. Alternatively, GRG boards can be directly cast and molded, while a trough for installing the first pipeline can be cast and molded on the back side of the GRG board. After the GRG is shaped, the first pipeline can be installed by laying it according to the direction of the trough and positioning it with positioning clips. The insulation structure can be fixed to the GRG board by adhesive or screws, thus completing the assembly of the GRG board, the first pipeline and the insulation structure.

[0032] In this embodiment, the insulation structure 3 is a foamed insulation layer bonded to the back of the GRG board to provide thermal insulation and isolation for the first pipeline. The foamed insulation layer is a commonly used insulation structure. When bonding the back of the GRG board 1, the GRG board is placed in the mold using a foaming and shaping mold, and the first pipeline is laid on the back. Foaming and shaping can be achieved by direct injection, thus wrapping and positioning the first pipeline on the back of the GRG board.

[0033] In this embodiment, the insulation structure 301 is an insulation layer with a heat-reflective layer on its surface, which is attached to the first pipe 2. One side of the GRG plate 1 is indoors. By setting a heat-reflective layer on the surface of the insulation structure, the temperature change in the first pipe due to the presence of cold water, hot water, or hot air will reflect the heat or cold energy of the insulation layer to the GRG plate side, reducing the energy loss of the insulation structure.

[0034] Specifically, the insulation layer is an aluminum plate insulation layer or an aluminum film insulation layer. Adhesion holes 302 are provided on the insulation layer for bonding with the gypsum board via gypsum casting. Multiple sets of adhesion holes 302 are arranged in an array between two adjacent parallel pipes. The aluminum plate insulation layer has good heat and cold insulation effects, allowing energy to be further dissipated from the GRG board 1 side. Due to the metallic material of the aluminum plate, to ensure the bonding strength between the aluminum plate insulation layer and the GRG gypsum board, adhesion holes 302 are provided on the aluminum plate insulation layer. These adhesion holes 302 are through holes arranged in the thickness direction of the aluminum plate, and multiple sets of through holes are arranged in an array. Each set is located between two parallel pipes. The GRG board 1 is then fixed to the aluminum plate insulation layer by casting. When liquid gypsum flows to the surface of the aluminum plate insulation layer, it simultaneously flows into the adhesion holes. The contact points between the gypsum and the adhesion holes form an auxiliary bonding structure, improving the connection stability between the GRG board and the aluminum plate.

[0035] The insulation layer can also be made of aluminum film. The aluminum film insulation layer has good flexibility. It is a structural layer that uses the reflective properties of aluminum foil to achieve the effect of heat insulation. It can improve the heat insulation performance of the first pipeline cooling or heating structure, so that heat can be better dissipated to the GRG plate side.

[0036] In this embodiment, mating bosses for splicing and assembling two adjacent GRG boards are also provided on both sides of the splicing direction of the GRG boards.

[0037] The two mating bosses on both sides are respectively provided with assembly grooves and assembly bosses, and / or the two mating bosses on both sides are respectively provided with self-locking joints to limit the position of the two spliced ​​GRG plates.

[0038] When GRG panels are installed indoors, they are arranged in parallel, with adjacent GRG panels forming the top or side of the installation by butt joint at the edges. To ensure the flatness of the surface of the spliced ​​GRG panels, a butt joint is provided on the back side of the GRG panels. The butt joint includes two butt joints located in the width direction of the GRG panels. One butt joint has an assembly boss arranged along the length direction, and the other butt joint has a butt joint groove arranged along the length direction. During splicing, the two GRG panels are spliced ​​into one piece by the butt joint groove and the butt joint boss.

[0039] Furthermore, to facilitate the assembly of the spliced ​​GRG boards, self-locking connectors can be installed on the mating bosses. One mating boss has a mating plug, and the other mating boss has a mating socket. The two GRG boards are positioned by the insertion and mating of the plug and socket.

[0040] In this embodiment, the GRG board 1 is a flat GRG board, or a corner GRG board (12) used at the corner of the wall; a second GRG board is also provided on the upper surface of the insulation layer. Indoor installation has different installation environments. For example, for the GRG board installation structure of the roof or wall, a flat GRG board can be used and laid on the flat wall or roof to achieve aesthetics and flatness. For the corner position where the roof and the side wall meet, a corner GRG board is used. The GRG board includes a horizontal part and a vertical part 12. The horizontal part and the vertical part 12 can adopt a transition structure of bending right angle or bending arc to achieve the aesthetic design of the corner position of the indoor ceiling.

[0041] GRG constant temperature panels can be constructed by directly laying a foamed insulation layer on the surface of the GRG panel, with the foamed insulation layer serving as the inner surface insulation structure of the GRG constant temperature panel. For GRG panels with a heat-reflective layer and aluminum heat-conducting fins, a further layer of GRG panel is laid on the upper surface of the aluminum heat-reflective layer and heat-conducting fins, forming a press-fit structure with two layers of GRG panels and an insulation layer in between, thereby improving heat dissipation capacity.

[0042] Based on the GRG thermostatic board provided in the above embodiments, this utility model also provides an indoor ceiling, including a GRG gypsum board suspended on the wall, wherein the GRG board provided on the indoor ceiling is the GRG thermostatic board provided in the above embodiments.

[0043] Since the indoor ceiling uses the GRG thermostatic board described in the above embodiment, please refer to the above embodiment for the beneficial effects brought by the GRG thermostatic board to the indoor ceiling.

[0044] The above description of the disclosed embodiments enables those skilled in the art to make or use the present invention. Various modifications to these embodiments will be readily apparent to those skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the present invention. Therefore, the present invention is not to be limited to the embodiments shown herein, but is to be accorded the widest scope consistent with the principles and novel features disclosed herein.

Claims

1. A GRG constant temperature plate, characterized in that, The device includes a GRG plate, on the back of which a first conduit for fluid transmission is laid, and an insulation structure for insulating the first conduit is also provided on the back side of the GRG plate. On both sides of the GRG board splicing direction, there are also mating bosses for splicing and assembling two adjacent GRG boards. The two mating protrusions on both sides are respectively provided with assembly grooves and assembly protrusions, and / or the two mating protrusions on both sides are respectively provided with self-locking joints to limit the position of the two spliced ​​GRG plates; The upper surface of the insulation structure is also provided with a second GRG plate pressed onto it.

2. The GRG constant temperature plate according to claim 1, characterized in that, The first pipeline includes multiple parallel pipelines arranged in parallel along the width direction of the GRG plate, and loop pipelines disposed at the ends of two adjacent parallel pipelines. The first pipeline also has an inlet pipe and an outlet pipe extending on the same side or both sides of the length direction of the GRG plate.

3. The GRG constant temperature plate according to claim 2, characterized in that, The back side of the GRG plate is pre-set with a paving groove for accommodating and positioning the first pipeline, and / or a positioning clip for locking and limiting the first pipeline.

4. The GRG thermostat panel of claim 3, wherein, The insulation structure is a foamed insulation layer bonded to the back of the GRG plate to provide thermal insulation and isolation for the first pipeline.

5. The GRG thermostat panel of claim 3, wherein, The insulation structure is an insulation layer with a heat-reflective layer on its surface, and the heat-reflective layer of the insulation layer is attached to the first pipeline.

6. The GRG thermostat panel of claim 5, wherein, The insulation layer is an aluminum plate insulation layer or an aluminum film insulation layer. The insulation layer has bonding holes for bonding with the gypsum casting of the GRG board. The bonding holes include multiple sets arranged in an array between two adjacent parallel pipes.

7. The GRG thermostat panel of claim 1, wherein, The GRG board is a flat GRG board, or a corner GRG board used at the corner of the wall.

8. A suspended ceiling comprising a GRG gypsum board suspended from a wall, characterised in that, The GRG gypsum board is the GRG thermostatic board as described in any one of claims 1-7.

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