Energy-saving plate assembly type dry hanging system

Abstract

The energy-saving plate assembly type dry hanging system structurally comprises a supporting piece connected with a wall face, the supporting piece is provided with a first combination face and a second combination face which are perpendicular to each other to form an L-shaped structure, the first combination face is used for being connected with the wall face, and the second combination face is used for being connected with the wall face. A plate fastener is integrally processed on the second combination surface from the combination surface body, the plate fastener comprises a first plug board extending upwards and a second plug board extending downwards, and the first plug board and the second plug board are used for connecting the heat insulation board; the energy-saving plate has the advantages that the number of assembled parts can be reduced, plate fasteners do not need to be assembled frequently and repeatedly, therefore, the installation efficiency is improved, procedures and cost are saved, and the connecting firmness of the energy-saving plate can be improved.

Description

Technical Field

[0001] The present application relates to the technical field of building exterior wall panel installation, and specifically to an assembled dry hanging system for energy-saving panels (thermal insulation and decorative integrated panels). Background Art

[0002] In order to achieve insulation of the exterior walls of buildings and avoid damage to the exterior walls, it is necessary to cover the outside of the building walls with insulation boards. At present, there are two ways of insulation boards: dry hanging and direct bonding on the exterior walls. The dry hanging method is more and more used due to its advantages such as easy installation, replacement, and more convenient maintenance of the exterior walls. Patent CN202120386583.1 discloses a fully-enclosed energy-saving panel assembly system, which includes a first anchor connected to the wall and a second anchor connected to the fully-enclosed energy-saving panel; the first anchor The fasteners include a wall fastener connected to the wall and a support member combined with the lower end surface of the wall fastener; the support member is in an L-shaped structure, and one side of the L-shaped structure is in contact with the wall, and the other side is in contact with the wall fastener; the second anchor member includes a plate fastener, and the plate fastener includes a middle portion in contact with the support member and a plug-in portion that is in contact with the upper and lower fully-enclosed energy-saving panels, and the plug-in portion is composed of a first plug-in portion and a second plug-in portion, and the first plug-in portion is used to be in contact with the lower fully-enclosed energy-saving panel, and the second plug-in portion is in contact with the upper fully-enclosed energy-saving panel. Although this structure can also realize dry hanging between the insulation board and the wall, it involves many assembly parts, especially the board fastener combined with the insulation board is a separate component, which needs to be fixed on the support of the first anchor first, and then the insulation board is plugged into the board fastener. This structure requires repeated drilling on the support to install the board fastener, and then the board is fixed on the board fastener. This structure not only requires more assembly steps and parts, but also inevitably prolongs the installation time of the board, reducing the construction efficiency of the energy-saving board dry hanging system; and this structure, due to the large number of parts that need to be assembled, is also prone to causing parts to fall during high-altitude operations, which not only affects the construction but also causes certain safety hazards. Utility Model Content

[0003] In view of the deficiencies in the prior art, the present application provides an assembled dry hanging system for energy-saving panels that can reduce the number of parts to be assembled, does not require frequent and repeated assembly of panel fasteners, thereby improving installation efficiency, saving steps and costs, and can also improve the connection firmness of the energy-saving panels.

[0004] The technical solution of the present application is as follows: an energy-saving panel dry-hanging system, the structure of the system includes a support member connected to the wall, the support member has a first joint surface and a second joint surface arranged perpendicular to each other to form an L-shaped structure, the first joint surface is used to connect to the wall, and the second joint surface is integrally processed from the joint surface body to form a board fastener, the board fastener includes a first plug-in plate extending upward and a second plug-in plate extending downward, and the first plug-in plate and the second plug-in plate are used to connect the insulation panel.

[0005] By adopting the above structure, this dry hanging system only needs one support structure to realize the fixing and plugging of the insulation board, and there is no need to additionally set up separate wall fasteners and separate plate fasteners. This structure directly fits and connects the first joint surface of the support with the wall, and then plugs the insulation board into the plate fastener integrally set on the second joint surface, so that the board can be effectively hung and fixed on the wall, thereby saving the wall fastener and the wall installation process, and also saving the installation process between the separate plate fastener and the support, effectively saving materials, and more importantly, simplifying the installation process, greatly improving the installation efficiency; and in the high-altitude operation process, there are fewer parts to assemble, and it is not easy to cause safety hazards caused by the falling of high-altitude parts during the installation process; in addition, the plate fastener of the present application is integrally formed on the support, and when the support and the wall are tightly combined, the plate fastener also realizes an indirect and stable combination with the wall, so that the overall support fixes the plate more firmly, compared with the existing separately set plate fasteners. The method of connecting the panel with the support piece and then connecting the panel fastener with the support piece is more stable; moreover, the side surface of the insulation board of the present application is plugged and fastened with the panel fastener, and the upper and lower sides are supported by the support piece, that is, the side wall of the insulation board is entirely fitted and supported with the joint surface of the support piece (converted from the traditional point support to the surface support of the present application), so that a firm connection is formed with the support piece. As long as the support piece is not loose, the firm connection between the insulation board and the wall surface can be guaranteed, and the effect of not falling off the wall surface for life can be achieved; in addition, since the joint surface of one side of the support piece is fitted and connected with the wall surface, the present application can be anchored at any position within the length range of the support piece, and there is no need to find a suitable position on the wall surface for drilling holes for anchoring because the anchor piece used as a transition connecting piece in the prior art is used. This method not only limits the efficiency of drilling holes and anchoring, but also has strict requirements on the wall surface; however, since the entire support piece of the present application is a whole and can be drilled and anchored at any position within its length range, it can achieve connection with the wall surface, so it is more convenient and efficient.

[0006] Furthermore, an anchor is provided between the support and the wall, and the anchor has at least two coupling surfaces, one of which is used to connect to the wall, and the other is used to connect to the second coupling surface of the support. With this structure, an anchor is added, and the assembly distance and gap between the insulation board and the wall can be adjusted more flexibly, thereby improving the flatness of the installation of the insulation board. At the same time, there is no need to use a separate plate fastener, so it is still possible to effectively save material costs, simplify the installation process, and improve the connection firmness between the support and the wall.

[0007] Furthermore, the anchor has a third joint surface connected to the wall and a fourth joint surface connected to the support, the third joint surface is provided with a first mounting hole, the fourth joint surface is provided with a second mounting hole, the length of the first mounting hole is extended horizontally, and the length of the second mounting hole is extended longitudinally in a direction perpendicular to the wall; with this structure, the installation position can be adjusted within a limited range of the length adjustment of the mounting hole according to the specific wall fixing position requirements, thereby ensuring the flatness of the installation between the anchor and the wall.

[0008] Furthermore, the extension length of the fourth joint surface along the direction perpendicular to the wall is not less than the extension length of the second joint surface of the support connected thereto; by adopting this structure, the L-shaped support can be given a travel range for adjusting forward and backward relative to the wall, so that the installed insulation board maintains the flatness of the outer layer.

[0009] Furthermore, the support members are arranged in parallel in the vertical direction along the height direction of the wall, and an insulation board is arranged between every two adjacent support members, and the lower bottom surface of the insulation board is supported on the joint surface of the corresponding support member, and the upper bottom surface is against the joint surface of the corresponding support member; with this structure, it can be connected to the support member through the plug-in board, and its stability can be achieved through the supporting force, and the insulation board and the support member can achieve surface-to-surface support, which is more stable.

[0010] Furthermore, the first plug-in board and / or the second plug-in board are triangular or square plug-in boards. This structure can be adapted to the assembly of different thermal insulation boards.

[0011] Furthermore, when the first plug-in board and / or the second plug-in board is triangular, the insulation board body is directly plugged in and connected by the plug-in board; that is, when it is a triangular plug-in board structure, its triangular plug-in board has a sharp tip, which can be more easily inserted into the insulation board body to achieve a tighter plug-in connection therewith; at this time, the insulation board generally has its insulation material exposed and is not wrapped, so as to facilitate the plug-in of the plug-in board.

[0012] Furthermore, when the first plug-in board and / or the second plug-in board is a square plug-in board, a pre-buried hole is provided on the body of the insulation board, and an embedded part is provided in the pre-buried hole. The embedded part has a plug-in hole for plugging in the square plug-in board, and the inner contour of the plug-in hole is matched with the outer contour of the plug-in board. With this structure, there is no need to drill holes on site, which facilitates the rapid assembly of the board and the dry hanging system. This method is particularly suitable for the insulation board structure covered with insulation material.

[0013] Furthermore, the insulation board material of the insulation board (i.e. the insulation material therein) is one of ceramic foam board (foamed ceramic insulation board), ceramsite autoclaved wall board (autoclaved ceramic concrete wall board), rock wool board, cement foam board, homogeneous board, Baiyun real gold board (Baiyun insulation real gold board), graphite composite board, EPS foam board, graphite foam board, XPS extruded board, floating floor sound insulation board (floating sound insulation floor), thermosetting composite polystyrene foam board (thermosetting composite polystyrene insulation foam board), polyurethane board, and phenolic board.

[0014] Furthermore, the thermal insulation board is prepared by using rock wool strips as the inner core, covering the mesh cloth and then sewing the thread.

[0015] Furthermore, an adhesive is provided between the insulation board and the support member; adopting this structure can further enhance the firmness of the connection between the insulation board and the dry hanging system, thereby achieving a more stable combination of the insulation board and the dry hanging system. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 Schematic diagram of the structure of the energy-saving panel dry-hanging system of Example 1 of the present application.

[0017] Figure 2 Schematic diagram of the structure of the energy-saving panel dry hanging system combined with the wall in Example 1 of the present application.

[0018] Figure 3 Schematic diagram of the structure of the energy-saving panel dry hanging system combined with the wall and the insulation panel in Example 1 of the present application.

[0019] Figure 4 A structural schematic diagram of a side view of the energy-saving panel dry hanging system in Example 1 of the present application combined with a wall and an insulation panel.

[0020] Figure 5 Schematic diagram of the structure of the energy-saving panel dry-hanging system of Example 2 of the present application.

[0021] Figure 6 A structural schematic diagram of the assembly diagram of the energy-saving panel dry-hanging system of Example 2 of the present application.

[0022] Figure 7Schematic diagram of the structure of the energy-saving panel dry hanging system combined with the wall in Example 2 of the present application (a piece of insulation board).

[0023] Figure 8 Schematic diagram of the structure of the energy-saving panel dry hanging system of Example 2 of the present application after the insulation panels and the wall are installed.

[0024] Fig. 9 Figure 8 Structural schematic diagram of a cross-sectional view.

[0025] Fig.10 Schematic diagram of the structure of the energy-saving panel dry hanging system combined with the wall in Example 2 of the present application (two insulation panels).

[0026] Fig.11 Schematic diagram of the structure of the energy-saving panel dry-hanging system in Example 3 of the present application combined with the wall and the insulation panel (the plug-in board is square).

[0027] Fig.12 Schematic diagram of the structure of the energy-saving panel dry hanging system combined with the wall in Example 3 of the present application.

[0028] Fig.13 A schematic diagram of the visible structure of the embedded parts of the insulation board of Example 3 of the present application.

[0029] Fig.14 Schematic diagram of the structure of the combination of the support member and the insulation board in Example 3 of the present application.

[0030] Fig.15 A structural schematic diagram of an assembly diagram of a dry hanging system in Example 3 of the present application.

[0031] Fig.16 The present application provides a schematic diagram of the structure of an insulation board.

[0032] Fig.17 A schematic structural diagram of another insulation board of the present application.

[0033] Fig.18 Schematic diagram of the structure of the insulation board covered with aluminum plate in this application.

[0034] As shown in the attached drawings: a. Wall, a1. Insulation board, a2. Embedded hole, a3. Embedded part, 1. Support part, 101. First joint surface, 102. Second joint surface, 2. Plate fastener, 201. First plug-in board, 202. Second plug-in board, 3. Anchor, 301. Third joint surface, 302. Fourth joint surface, 303. First mounting hole, 304. Second mounting hole, 4. Aluminum plate. DETAILED DESCRIPTION

[0035] The present application is further described in detail below with specific embodiments, but the present application is not limited to the following specific embodiments.

[0036] Example 1

[0037] This embodiment does not provide a separate anchor, and directly connects the two joint surfaces of the support member to the wall and the insulation board. The support member here is an L-shaped angle iron structure, which can be made of metal, such as aluminum or stainless steel.

[0038] As attached Figure 1-4 As shown, an energy-saving panel dry-hanging system of the present application, an energy-saving panel dry-hanging system, the structure of the system includes a support member 1 connected to the wall surface a, the support member 1 has a first joint surface 101 and a second joint surface 102 which are perpendicularly arranged to form an L-shaped structure (the L-shaped support member extends into a long strip along the length direction, and its two joint surfaces are perpendicular to each other to form an L-shaped structure, and the extension widths of the two joint surfaces can be equal or unequal), the first joint surface 101 is used to connect to the wall surface (the two are abutted, fitted or connected by bolts, etc.), and the second joint surface 102 is integrally processed from the joint surface body to form a plate fastener 2 (that is, an integrated plate fastener is directly formed by stamping, cutting, bending or pouring on the joint surface body, without the need for additional preparation of the plate fastener, and then connected to the support member through a connecting component), the plate fastener 2 includes a first plug-in board 201 extending upward and a second plug-in board 202 extending downward, and the first plug-in board 201 and the second plug-in board 202 are used to connect to the insulation board a1.

[0039] The support member 1 described in the present application can be arranged in multiple strips along the wall surface in the horizontal and vertical directions, and can be arranged according to the specific area of ​​the exterior wall surface; Figure 3 As shown, as an example, each insulation board a1 is located between two upper and lower adjacent support members 1, and since the board fastener 2 is directly integrally formed on a joint surface of the support member 1, after the insulation board is plugged into the first plug-in board 201 and the second plug-in board 202, its lower bottom surface is completely supported by the joint surface of the support member below, and the two are tightly fitted to achieve surface support, and its upper top surface is fitted and abutted against the lower surface of the joint surface of the support member above, and the plug-in board is plugged in the middle, so that the insulation board can be very firmly connected to the support member. As long as the support member and the wall are not separated, the insulation board can remain connected to the wall, thereby improving the connection firmness and achieving the effect of not falling off the wall for life.

[0040] As an example, the attached Figure 4As shown, the method of directly connecting a joint surface of the support member to the wall surface in the present application can increase the fitting area between the support member 1 and the wall surface a, and holes can be punched and anchored within the area range of the joint surface of the support member 1 to achieve its connection with the wall surface, while the prior art requires the separate provision of anchors, and then the connection to the wall surface through the anchors, and then the connection to the support member through the anchors. This method not only forms rivet head protrusions on the joint surface of the support member, but these protrusions will cause point support between the insulation board and the support member when the insulation board is connected, and the supporting force is much smaller than the surface support of the present application; and because the number of separate anchors is large, the connection time is long, and the area of ​​the separate anchors is small, which is inconvenient In order to move the plate, it is necessary to find a relatively flat position on the wall to connect it, which increases the difficulty of the work. In addition, more importantly, the prior art needs to treat the plate fastener as a separate component, and then connect it to the support and the insulation board respectively. Since the plate fastener and the support need to be connected with bolts, screws and other connecting parts, they are prone to loosening. However, the present application integrates the plate fastener into the support, and the two are a whole. There is no need to set up the plate fastener separately, saving materials and installation procedures. More importantly, it can also achieve a larger area of ​​fitting and covering between the insulation board and the support, effectively improving the connection firmness of the overall insulation board, making it not easy to fall off or loosen, and reducing safety hazards.

[0041] In this embodiment, the plug-in board presents a triangular structure and can be conveniently inserted into the insulation material layer of the insulation board. The specific insulation board (i.e., the insulation material layer therein) is a ceramic foam board (foamed ceramic insulation board), ceramsite autoclaved wallboard (autoclaved ceramic concrete wallboard), rock wool board, cement foam board, homogeneous board, Baiyun real gold board (Baiyun insulation real gold board), graphite composite board, EPS foam board, graphite foam board, XPS extruded board, floating floor sound insulation board (floating sound insulation floor), thermosetting composite polystyrene foam board (thermosetting composite polystyrene insulation foam board), polyurethane board, phenolic board; this triangular plug-in board structure can be connected with Fig.16 The insulation board connection of this structure shown; Fig.16 The structure shown may be a calcium silicate board insulation board structure, and it is also possible to groove the hard material layer on the upper layer of the silicate cover plate to achieve plug-in connection with the triangular plug-in board.

[0042] In addition, the plug board structure of the embodiment of the present application can also be as shown in the attached Figure 11-15 The square plug-in board structure shown can be flexibly adjusted according to the specific type of energy-saving board.

[0043] Example 2

[0044] This embodiment provides a separate anchoring piece, through which an indirect connection between the supporting member and the wall surface is achieved.

[0045] As attached Figure 5-10As shown, an anchor 3 is further arranged between the support member 1 described in the present application and the wall a, and the anchor 3 has at least two bonding surfaces, one of which is used to connect with the wall a, and the other is used to connect with the second bonding surface 102 of the support member 1. With this structure, an anchor is added, and the assembly distance and gap between the insulation board and the wall can be more flexibly adjusted to improve the flatness of the insulation board installation. At the same time, there is no need to use a separate plate fastener, so it is still possible to effectively save material costs and simplify the installation process.

[0046] Specifically, the anchor 3 described in the present application has a third coupling surface 301 connected to the wall a and a fourth coupling surface 302 connected to the support 1, the third coupling surface 301 is provided with a first mounting hole 303, the fourth coupling surface 302 is provided with a second mounting hole 304, the length of the first mounting hole 303 is extended horizontally, and the length of the second mounting hole 304 is extended longitudinally in a direction perpendicular to the wall; that is, the first mounting hole extends along the left and right length directions, and the second mounting hole extends along the front and back directions perpendicular to the wall direction; by adopting this structure, the installation position can be adjusted within a limited range of the length adjustment range of the mounting hole according to the needs of the specific wall fixing position, thereby ensuring the flatness of the installation between the anchor and the wall.

[0047] Example 3

[0048] As attached Figure 11-15 As shown, in this embodiment, the plug-in board used is a square plug-in board, and the insulation board uses the embedded part a3 (firstly, the embedded hole a2 is opened on the insulation board, and then the embedded part is inserted into the embedded hole, and an adhesive can be applied between the embedded part and the embedded hole to make the two firmly bonded; at the same time, the embedded part a3 is opened to facilitate the plug-in of the plug-in board) to form the plug-in hole, which is convenient and quick to assemble; this method is suitable for the insulation board structure with hard insulation material that is not easy to plug in; Figure 17-18 That is, it is suitable for the square plug-in board structure, and embedded parts are set on the insulation board in advance. Fig.18 A layer of aluminum plate 4 material is covered on the insulation board, and a socket structure is directly opened on the aluminum plate 4; embedded parts can be set on the body of the insulation board corresponding to the socket structure, or the insulation board can be directly inserted into the insulation board through a triangular plug-in plate; the above-mentioned aluminum plate structure directly opens a plug-in hole, and then the plug-in plate is plugged into the plug-in hole of the aluminum plate, which can effectively realize the connection of the entire plate without causing the aluminum plate and the insulation board to separate.

[0049] As attached Figure 1-6As shown, the extension length of the fourth bonding surface 302 described in the present application along the direction perpendicular to the wall a is not less than the extension length of the second bonding surface 102 of the support member 1 connected thereto; that is, the size of the fourth bonding surface of the present application must be not less than the length of the second bonding surface 102 of the support member 1 extending in the same direction. By adopting this structure, the L-shaped structure support can be given a travel range for adjusting forward and backward relative to the wall, so that the insulation board maintains the flatness of the outer layer after installation.

[0050] As attached Figure 2-3 As shown in 7-10, the support members 1 described in the present application are arranged in parallel in the vertical direction along the height direction of the wall a, and an insulation board a1 is arranged between every two adjacent support members 1, and the lower bottom surface of the insulation board a1 is supported on the second joint surface of the corresponding support member 1; the multiple support members cooperate with each other up and down to fix the insulation board between the two, and can be connected to the support member through a plug-in board, and its stability can also be achieved through supporting force.

[0051] As attached Figure 1-2 As shown in , 8-9, the first plug board 201 and / or the second plug board 202 described in the present application are triangular or square plug boards ( Figure 5 The 201 mark indicates the direction plug-in board, and Fig.11 The embedded hole a1 of the insulation board is connected with the embedded hole a1 of the insulation board. The structure can be adapted to the assembly of different insulation boards. Specifically, when the first plug-in board 201 and / or the second plug-in board 202 is a triangle, the insulation board a1 is directly connected with the plug-in board (such as the attached Fig.10 The figure shows an insulation board with exposed flexible insulation material, which can be easily inserted into the inner wall of the board body through the tip of the triangular plug-in board to achieve connection); that is, when it is a triangular plug-in board structure, its triangular plug-in board has a sharp tip, which can be more easily inserted into the insulation board body to achieve a more secure plug-in connection therewith; specifically, when the first plug-in board 201 and / or the second plug-in board 202 are square plug-in boards, the insulation board a1 body is provided with a pre-buried hole a2, and the contour of the pre-buried hole a2 is mutually adapted to the outer contour of the plug-in board; with this structure, as shown in the attached Fig.11 As shown, when the insulation board has a hard outer surface and the triangular plug-in board is not easy to insert, a pre-embedded hole can be set on the insulation board in advance, and an embedded part can be set in the pre-embedded hole, and the connection is achieved by inserting the square plug-in board into the socket of the embedded part; the present application can set triangular or square plug-in boards on the same support member, and can also set triangular and square plug-in boards at the same time.

[0052] As an example, the insulation board a1 described in this application is an insulation board with rock wool as the inner core, as shown in the attached Figure 10-11As shown, both can be insulation board structures with rock wool as the inner core, one is exposed and the other is coated inside.

[0053] As an example, the insulation board a1 described in the present application is an insulation board prepared by using rock wool strips as the inner core and covering it with a wrapping layer material such as a mesh cloth, and then setting a sewing line; specifically, this insulation board can be a six-sided fully covered energy-saving board, which includes a plurality of rock wool strips arranged side by side inside, and the upper and lower surfaces and left and right side surfaces formed by the side-by-side direction of the rock wool strips are covered with a wrapping layer (a structure such as a mesh cloth), and the two joints formed by the wrapping layer are overlapped or contacted with each other; a sewing line extending along the thickness direction of the rock wool board is arranged on the wrapping layer, and the sewing line penetrates the rock wool strip and is connected to the wrapping layer; the sewing line extends along the length and / or width direction of the rock wool strip, and is parallel to the long side or wide side of the rock wool board strip; adopting this structure, a more uniform sewing force can be provided for the board formed by the rock wool strips, so that the strength of the rock wool board is effectively improved.

[0054] It should be noted that, in the present application, when the insulation board is plugged and fixed between two upper and lower adjacent support members, a layer of adhesive can be applied between the joint surface of the insulation board and the support member, so that the insulation board and the support member can be more firmly connected; and the adhesive forms a bonding layer to fill the gap between the anchor member and the support member surface when the anchor member is anchored, so that the contact surface of the insulation board is a flat adhesive surface; in addition, when the anchor member is used in the present application, the support member is flipped at a certain angle, please refer to the attached Figure 5-15 As shown, the joint surface of the support member where the plug board is set is perpendicular to the wall, the other side of the joint surface is in contact with the wall, and the surface in contact with the wall can be provided with rivets to connect with the wall, so as to achieve a more stable connection with the wall.

[0055] The most important innovation of the technical solution of the present application is that the plate fasteners are directly and integrally provided on the supporting parts. This method simplifies the complicated process of the prior art of separately providing the plate fasteners and then assembling them with the supporting parts. Moreover, the plate fastener structure integrated with the supporting parts is more solid and is particularly suitable for the assembly of energy-saving panels on the exterior walls of high buildings, so that the energy-saving panels can be more firmly combined with the wall and the dry hanging system, achieving a lifelong non-detachable effect.

[0056] In particular, the present application does not use anchors, but directly adopts the combination of supports and walls. Since the energy-saving board is fixed between the upper and lower supports, and there are no structures such as rivets, the upper and lower surfaces of the energy-saving board can be tightly fitted with the combining surfaces of the supports, respectively, to achieve the effect of surface support, with stronger wrapping strength and a more stable connection between the two.

[0057] The upper plug board and the lower plug board of the present application can be attached Figure 1-15 The group of two plug-in board structures in opposite directions shown can also be provided with upper and lower plug-in board structures spaced apart according to the structure of the specific insulation board.

[0058] The insulation board described in the present application is an insulation board prepared by using rock wool strips as the inner core, covering the mesh cloth and then sewing the line, and then a six-sided wrapping layer is performed, that is, the six outer surfaces of the board are coated with a full-covering structural material layer (the full-covering structural material layer of the present application can adopt the raw materials and preparation method adopted by the sandstone texture coating described in the authorization announcement number CN109779181B, which is the existing public technology. Or commercially available real stone paint, sandstone paint, texture paint (textured sand), etc., as long as there is no mortar and putty), which is a material layer composed of non-mortar or non-putty materials; because if mortar or putty is used as the above-mentioned two-layer structure, it will inevitably cause alkali return, peeling, cracking, and powdering and detachment during use. However, the present application does not use the above-mentioned mortar and putty, which effectively avoids the occurrence of the above-mentioned defects.

[0059] During the installation process of the energy-saving panels and assembly components of the present application, the back side can be covered with adhesive to bond to the wall, or the panels can be directly dry-hung on the wall without bonding, which is convenient for replacement and repair.

Claims

1. An assembled dry hanging system for energy-saving panels, characterized by: The structure of the system includes a support member connected to the wall, the support member has a first joint surface and a second joint surface which are arranged perpendicular to each other to form an L-shaped structure, the first joint surface is used to connect to the wall, and the second joint surface is integrally processed from the joint surface body to form a plate fastener, the plate fastener includes a first plug-in plate extending upward and a second plug-in plate extending downward, and the first plug-in plate and the second plug-in plate are used to connect the insulation plate.

2. The energy-saving panel assembly dry hanging system according to claim 1 is characterized in that: An anchor is also provided between the support and the wall, and the anchor has at least two connecting surfaces, one of which is used to connect with the wall, and the other is used to connect with the second connecting surface of the support.

3. The energy-saving panel assembly dry hanging system according to claim 2 is characterized in that: The anchor has a third connecting surface connected to the wall and a fourth connecting surface connected to the support, the third connecting surface is provided with a first mounting hole, the fourth connecting surface is provided with a second mounting hole, the length of the first mounting hole is extended horizontally, and the length of the second mounting hole is extended longitudinally in a direction perpendicular to the wall.

4. The energy-saving panel assembly dry hanging system according to claim 3 is characterized in that: The extension length of the fourth joint surface along the direction perpendicular to the wall surface is not less than the extension length of the second joint surface of the support member connected thereto.

5. The energy-saving panel assembly dry hanging system according to claim 1 is characterized in that: The support members are arranged in parallel in a plurality of lines along the height direction of the wall, and an insulation board is arranged between each two adjacent support members, and the lower bottom surface of the insulation board is supported on the joint surface of the corresponding support member, and the upper bottom surface is against the joint surface of the corresponding support member.

6. The energy-saving panel assembly dry hanging system according to claim 1 is characterized in that: The first plug-in board and / or the second plug-in board are triangular or square plug-in boards.

7. The energy-saving panel assembly dry hanging system according to claim 6 is characterized in that: When the first plug-in board and / or the second plug-in board are triangular, the body of the insulation board is directly connected by the plug-in board; when the first plug-in board and / or the second plug-in board are square plug-in boards, the body of the insulation board is provided with embedded holes, embedded parts are provided in the embedded holes, and the embedded parts have plug-in holes for the square plug-in boards, and the inner contour of the plug-in holes is adapted to the outer contour of the plug-in board.

8. The energy-saving panel assembly dry hanging system according to claim 1 is characterized in that: The insulation board of the insulation board is one of ceramic foam board, ceramsite autoclaved wall, rock wool board, cement foam board, homogeneous board, Baiyun real gold board, graphite composite board, EPS foam board, graphite foam board, XPS extruded board, floating floor sound insulation board, thermosetting composite polystyrene foam board, polyurethane board, and phenolic board.

9. The energy-saving panel assembly dry hanging system according to claim 8 is characterized in that: The thermal insulation board is prepared by using rock wool strips as the inner core, covering the mesh cloth and then sewing the thread.

10. The energy-saving panel assembly dry hanging system according to claim 1 is characterized in that: Adhesive is arranged between the insulation board and the support member.

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