CN220504387U - Flat-hanging type rock plate installation assembly and rock plate decoration structure using same - Google Patents

Abstract

The utility model relates to a flat-hanging type rock plate installation component and a rock plate decoration structure using the same, comprising: a transverse supporting framework which is used for being fixed on the wall surface along the transverse direction parallel to the horizontal plane; a backing metal plate for fixing on the back surface of the rock plate; the side end face of the back lining metal plate, which is opposite to the rock plate, is provided with a support tube extending along the transverse direction of the rock plate; the support tube is suitable for being carried on the top end of the transverse support framework; the metal frameworks are used for being fixed on the wall surface along the longitudinal direction perpendicular to the horizontal plane, and at least two metal frameworks are arranged on the end surface of each back metal plate, which faces away from the rock plate; and the magnetic absorption part is arranged between the back metal plate and the metal framework.

Description

Flat-hanging type rock plate installation assembly and rock plate decoration structure using same

Technical Field

The utility model relates to the technical field of building decoration, in particular to a horizontal hanging type rock plate installation component and a rock plate decoration structure using the same.

Background

The rock plate is made up by using natural stone and inorganic clay through a special process, adopting vacuum extrusion forming and automatic closed computer temp. -controlled roller kiln firing at 1300 deg.C. The rock plate has wide application range and good overall decoration effect. Because of the vivid marble lines, the utility model has the use cases in large space and home decoration, the visual effect shows the atmosphere, and the space grade is improved, thus being popular in the market.

For the decoration fixation of the rock plate in the prior art, the rock plate is directly fixed on the wall body by cement, so that the mode of assembling the rock plate has complex operation on one hand, the labor cost is high, the influence of the decoration experience of workers in the assembling process is large, the using amount of the cement can directly influence the service life of the rock plate, and the rock plate possibly has the risk of falling off from the wall surface along with the prolonged service time of the cement. On the other hand, when the rock plate needs to be dismantled, the rock plate material is damaged, so that the rock plate cannot be used continuously, the material is wasted greatly, and the damaged rock plate also forms construction waste, so that the difficulty of cleaning the construction waste is increased.

Based on the above circumstances, still another application such as CN20220318 discloses a hanging type installation assembly and a building decoration structure using the same, which realizes convenience and high efficiency in installation of the building decoration structure by cooperation of a hanging piece and a wall hanging unit. In the building decoration structure with the structure, in the process of installing the rock plate on the wall surface, the rock plate is hung through the hanging piece, and in the process, the rock plate needs to be hung into the hanging piece from the angle above the hanging piece, so that a certain space is reserved above the installation surface of the rock plate for installing the rock plate. Therefore, a certain installation space is needed above the topmost rock plate in the rock plate installation mode, if a suspended ceiling or other decorations are already made above the top of the rock plate installation surface in the decoration process, places such as families or hotels only carry out reconstruction decoration on the rock plate decoration areas, for example, common wall surfaces or wall brick wall cloths are replaced by rock plate decorations, and then original suspended ceilings or other decorations are arranged above the decoration areas, so that enough installation space cannot be provided for the rock plates positioned at the top. In this case, the hanging type decoration structure in the prior art cannot meet the actual use requirement.

Therefore, aiming at the condition that the upper side of the rock plate decoration area does not have enough space to hang the uppermost rock plate, the structure of the hanging type installation structure based on the currently adopted hanging type installation structure is still to be further improved and optimized to meet the use requirement of occasions with limited space.

Disclosure of Invention

The first object of the present utility model is to provide a horizontally hung rock board installation assembly, so as to solve the technical problem of meeting the use requirement of the corresponding scene with limited space above the rock board during installation.

The second object of the present utility model is to provide a rock board decorating structure, so as to solve the technical problem of improving the adaptability of the rock board decorating structure to different installation scenes.

The horizontal hanging type rock plate installation component is realized by the following steps:

a flat-hung rock panel installation assembly comprising:

a transverse supporting framework which is used for being fixed on the wall surface along the transverse direction parallel to the horizontal plane;

a backing metal plate for fixing on the back surface of the rock plate; the side end face of the back lining metal plate, which is opposite to the rock plate, is provided with a support tube extending along the transverse direction of the rock plate; the support tube is suitable for being carried on the top end of the transverse support framework;

the metal frameworks are used for being fixed on the wall surface along the longitudinal direction perpendicular to the horizontal plane, and at least two metal frameworks are arranged on the end surface of each back metal plate, which faces away from the rock plate;

and the magnetic absorption part is arranged between the back metal plate and the metal framework.

In an alternative embodiment of the utility model, two metal frameworks are arranged on the end surface of each back metal plate facing away from the rock plate at intervals; and

the transverse supporting framework is clamped between the two metal frameworks; or alternatively

The transverse supporting framework is arranged at the tops of the two metal frameworks.

In an alternative embodiment of the utility model, the support tube is provided on top of the side end surface of the backing metal plate facing away from the rock plate.

In an alternative embodiment of the utility model, at least one small plug-type electromagnetic lock is arranged in the supporting tube; and

and a lock hole for inserting a lock tongue of the small plug type electromagnetic lock is formed in the top wall of the transverse supporting framework.

In an alternative embodiment of the present utility model, one surface of the magnetic absorption member is provided with an adhesive layer, and the adhesive layer is used for bonding with the metal framework; and

the surface of the magnetic absorption part, which is away from the adhesive layer, is suitable for being magnetically absorbed and connected with the back metal plate.

The rock plate decorating structure is realized by the following steps:

a rock laminate decorative structure comprising: the rock plate and the plurality of horizontal hanging rock plate installation components and the plurality of inclined inserting rock plate installation components are respectively connected with the rock plate; wherein the method comprises the steps of

The plurality of flat-hanging rock plate installation components are spliced in a column manner; and

the inclined inserting type rock plate installation components are spliced below the horizontal hanging type rock plate installation components in a row-column matrix mode.

In an alternative embodiment of the present utility model, the oblique insertion type rock panel installation assembly includes:

a metal lining plate for fixing on the back surface of the rock plate; a plurality of inclined plugboards which are bent and extended back to one side of the rock plate are integrally formed on the metal lining plate at intervals;

the longitudinal frameworks are used for being fixed on the wall surface, and at least two longitudinal frameworks are arranged on the end face of each metal lining plate, which faces away from the rock plate; the end face of each longitudinal framework facing the rock plate is provided with a plugging hole which is suitable for one-to-one plugging of a plurality of inclined plugging plates; and

and the magnetic adsorption strip is arranged between the metal lining plate and the longitudinal framework.

In an alternative embodiment of the present utility model, a hollowed-out opening is formed on the metal lining plate corresponding to each of the inclined plugboards.

In an alternative embodiment of the present utility model, each of the inclined plugboards is formed into an acute angle structure with respect to the corresponding hollowed-out opening; and

the angle of the acute angle structure formed by each inclined plugboard relative to the corresponding hollowed-out opening is the same;

the angle of the acute angle structure formed by each inclined plugboard relative to the corresponding hollow opening is 30-50 degrees.

In an alternative embodiment of the present utility model, the transverse supporting framework, the metal framework and the longitudinal framework are all suitable for being fastened on the wall surface through screws; and

and the transverse supporting framework, the metal framework and the longitudinal framework are provided with adapting holes for adapting screws.

Compared with the prior art, the embodiment of the utility model has the following beneficial effects: according to the horizontal hanging type rock plate installation component and the rock plate decoration structure using the same, for the rock plate of the horizontal hanging type rock plate installation component, the support pipes connected with the rock plate are erected on the horizontal support framework, so that the horizontal support framework forms support for the rock plate at an angle parallel to a wall surface, and then the metal framework and the magnetic absorption parts are used for carrying out magnetic absorption on the metal plate and the corresponding rock plate, so that the absorption perpendicular to the angle of the wall surface is formed; on this basis, when this flat-hung rock-board installation component is applied in rock-board decoration structure, the rock-board of the oblique plug-in rock-board installation component that lies in flat-hung rock-board installation component below still can form the bottom sprag to the rock-board in the flat-hung rock-board installation component, and under this structure, to the rock-board in the flat-hung rock-board installation component, fix the rock-board through three different dimensionalities. Based on the structure, the rock plate and the corresponding back metal plate only need to be directly hung on the transverse supporting framework in a horizontal mode at an angle perpendicular to the wall surface, and the rock plate is not required to be fixed in an oblique inserting or vertical hanging mode, so that the horizontal hanging type rock plate installation component can be used as a rock plate on the top layer when applied to a rock plate decoration structure, has low requirement on the installation space, and can meet the use requirement of a scene with limited space above the rock plate when the rock plate is installed.

Moreover, to the inclined insertion type rock board installation component, the rock board realizes the stores pylon to the rock board through fixing the inclined grafting mode between the metal welt of its back and vertical skeleton, so only need again on the metal welt through simple mould trompil and turn over to form inclined plugboard under the structure, again on vertical skeleton drilling adapt the grafting of inclined plugboard can, this kind of grafting complex mode on the one hand assemble convenient high-efficient, on the other hand makes vertical skeleton more reliable and stable to the supporting effect of rock board. The assembling structure of the direct plug-in fit has low requirement on the die, and can be completed by adopting a general metal tapping die such as general laser tapping equipment, so that the decoration using cost of the rock plate decoration can be comprehensively reduced by reducing the production cost of the assembling structure on the basis of not reducing the production cost of the rock plate. Moreover, for the oblique plugging matching mode, the manpower and material resources are greatly reduced in the operation process, and the dependence on the manual operation experience is low, so that the assembly threshold is low.

Drawings

The utility model will be further described with reference to the drawings and examples.

Fig. 1 shows a schematic diagram of a matching structure of a backing metal plate and a support tube of a horizontally hung rock plate installation assembly according to an embodiment of the present utility model;

fig. 2 shows a schematic diagram of a matching structure of a support tube and a transverse support skeleton of a horizontal hanging type rock plate installation assembly according to an embodiment of the present utility model;

fig. 3 is a schematic structural view of a flat-hanging rock board installation assembly in a column-type splicing state according to an embodiment of the present utility model;

fig. 4 is a schematic structural view of an oblique insertion type rock plate installation assembly of a rock plate decoration structure according to an embodiment of the present utility model;

fig. 5 shows a schematic diagram of a matching structure of a metal back plate and a rock plate of an oblique-insertion rock plate mounting assembly of a rock plate decoration structure according to an embodiment of the present utility model;

fig. 6 shows a schematic structural view of a metal back plate of an oblique insertion type rock plate installation assembly of a rock plate decoration structure provided by an embodiment of the present utility model;

FIG. 7 is a schematic view showing a use state structure of an inclined insert plate of an inclined insert type rock plate mounting assembly of a rock plate decoration structure according to an embodiment of the present utility model;

FIG. 8 is a schematic view of a partially cut-away structure of an obliquely inserted rock laminate mounting assembly of a rock laminate ornamental structure provided by an embodiment of the utility model;

FIG. 9 is a schematic view of a partial top view of an obliquely inserted rock laminate mounting assembly of a rock laminate ornamental structure provided by an embodiment of the utility model;

FIG. 10 is a schematic view showing a matching structure of a transverse supporting framework and a metal framework in an implementation case of a rock plate decoration structure according to an embodiment of the present utility model;

fig. 11 is an enlarged view of a portion a of fig. 10;

fig. 12 is a schematic diagram showing a distribution structure of magnetic adsorbing members of a rock plate decoration structure according to an embodiment of the present utility model;

fig. 13 is a schematic diagram showing a matching structure of a transverse supporting framework and a metal framework of a rock plate decoration structure provided by an embodiment of the utility model under another implementation condition;

fig. 14 shows a schematic diagram of a matching structure of an extruded sheet and a longitudinal skeleton of an obliquely inserted rock plate installation assembly of a rock plate decoration structure according to an embodiment of the present utility model.

In the figure: the magnetic force-absorbing device comprises a transverse supporting framework 100, a lock hole 101, a supporting tube 200, backing metal plates 300 and Fan Zheban, a magnetic absorption part 400, a metal framework 500, a small plug pin type electromagnetic lock 600, a lock tongue 601, a longitudinal framework 1, a plug hole 11, an adapting hole 12, a metal lining plate 2, an inclined plug plate 21, a hollowed-out opening 22, a rock plate 3, a high-strength structural colloid 4, a magnetic absorption strip 5, a connecting framework 6 and an extruded sheet 7.

Detailed Description

The utility model will now be described in further detail with reference to the accompanying drawings. The drawings are simplified schematic representations which merely illustrate the basic structure of the utility model and therefore show only the structures which are relevant to the utility model.

Example 1:

referring to fig. 1 to 3, the present embodiment provides a flat-hung rock board installation assembly, including: a transverse support frame 100 for being fixed on a wall surface along a transverse direction parallel to a horizontal plane, a back metal plate 300 for being fixed on the back surface of the rock plate 3, and a support tube 200 which is arranged on the side end surface of the back metal plate 300 facing away from the rock plate 3 and extends along the transverse direction of the rock plate 3; the support tube 200 is adapted to be mounted on top of the lateral support frame 100.

The backing metal plate 300 is generally rectangular in shape to fit the rock plate 3, and the backing metal plate 300 is a plate-like structure having a certain thickness and smooth on both sides.

The back side of the panel 3 refers in particular to the end face of the panel 3 facing away from its decorative face. The back metal plate 300 integrally covers the back surface of the rock plate 3, so that on one hand, the firmness of the connection structure formed by the rock plate 3 and the back metal plate 300 is improved, and on the other hand, the structural strength of the rock plate 3 can be enhanced through the integral cover structure.

For the fixing between the rock plate 3 and the backing metal plate 300, for example, an alternative case is that the backing metal plate 300 is bonded to the back surface of the rock plate 3 by high-strength structural adhesive. The high-strength structural colloid can be polyurethane glue, and the polyurethane glue has high overall cost performance, long service life and good bonding effect, and belongs to environment-friendly glue.

It should be noted that, the support tube 200 in this embodiment may be disposed at a position at or slightly below the top of the side end surface of the back metal plate 300 facing away from the rock plate 3, and in this case, for the fixing manner between the support tube 200 and the back metal plate 300, a high-strength structural adhesive is used to firmly adhere and connect the support tube 200 and the bonding surface of the back metal plate 300. It is needless to say that the support tube 200 may be disposed on the side end surface of the back metal plate 300 facing away from the rock plate 3 near the top, and a fall interval corresponding to the thickness of the back metal plate 300 is formed between the top end of the support tube 200 and the top end of the back metal plate 300, in this case, in addition to the fixing manner between the support tube 200 and the back metal plate 300, the bonding surface of the support tube 200 and the back metal plate 300 may be firmly bonded by using the high-strength structural adhesive bonding, the end surface of the back metal plate 300 facing the support tube 200 integrally may be formed with a turnover plate 301 bent at 90 degrees by using the above fall interval, and the turnover plate 301 is formed in the above fall interval and is suitable for covering the top end surface of the support tube 200, and at this time, for example, but not limited to, screw reinforcement may be selectively adopted between the turnover plate 300 and the top end surfaces of the support tube 200, so that a double fixing structure is formed for the whole support tube 200 and the back metal plate 300, and the whole structure is more reliable and firm.

Furthermore, the flat-hung rock plate installation assembly further includes a metal frame 500 for being fixed to the wall surface in a longitudinal direction perpendicular to the horizontal plane, and a magnetic attraction member 400 provided between the back metal plate 300 and the metal frame 500. At least two metal skeletons 500 are provided on the end face of each backing metal plate 300 facing away from the rock plate 3. The metal skeleton 500 is made of aluminum alloy, and the back metal plate 300 is made of galvanized plate.

Based on the above structure, for example, in an alternative implementation case, two metal frameworks 500 are disposed at intervals on the end surface of each backing metal plate 300 facing away from the rock plate 3, and the two metal frameworks 500 are in parallel distribution structure. It should be noted here that, in an alternative implementation, the transverse supporting framework 100 is sandwiched between two metal frameworks 500; in an alternative embodiment, the transverse support frame 100 is provided on top of two metal frames 500. The above-mentioned situations all meet the use requirements of the present embodiment.

For the magnetic absorption member 400 of the present embodiment, a self-adhesive soft magnet in the prior art may be adopted, specifically, an adhesive layer is disposed on one surface of the magnetic absorption member 400, and the adhesive layer is used for adhering to the metal framework 500; and the side of the magnetic absorption member 400 facing away from the adhesive layer is suitable for being magnetically connected with the back metal plate 300. With this structure, when the back metal plate 300 is inserted and hung on the metal frame 500 together with the rock plate 3, the magnetic attraction effect on the back metal plate 300 can be achieved by the magnetic attraction member 400.

The magnetic absorption member 400 arranged between the metal framework 500 and the back metal plate 300 can improve the firmness and stability of the flat-hanging type rock plate installation assembly in the long-term use process; on the other hand, considering that a part of the rock plate 3 may have a slight deformation, for the rock plate 3 having a slight deformation, it may be difficult to ensure the consistency of flatness with the adjacent rock plate 3 under the condition of assembling with the metal skeleton 500, for this reason, the prior art generally knocks the rock plate 3 having a deformation to achieve the purpose of correcting flatness, but the implementation of such a knocking manner is inconvenient, and relies on the manual operation experience, while the present embodiment adopts the magnetic absorption member 400 to realize the magnetic absorption fit of the metal skeleton 500 and the backing metal plate 300, so as to improve the fit degree of the rock plate 3 and the metal skeleton 500 under the fit state, and make the flatness between the adjacent rock plates 3 higher.

In addition, in the metal framework 500 and the transverse supporting framework 100 of the present embodiment, square tubes may be used as the metal framework 500 and the transverse supporting framework 100 of the present embodiment, so that not only a good bonding effect with the wall surface but also a good bonding effect with the backing metal plate 300 may be formed.

It should be noted that, for the assembly between the metal frame 500 and the lateral support frame 100 and the wall surface, for example, an alternative case is that the metal frame 500 and the lateral support frame 100 are adapted to be fastened to the wall surface by screws; and the metal frame 500 and the lateral support frame 100 are provided with an adapting hole 12 for adapting a screw. In combination with the square metal framework 500 and the transverse supporting framework 100, the adapting holes 12 penetrate through the metal framework 500 and the transverse supporting framework 100 to be attached to the wall surface and the side wall of the backing metal plate 300, and the aperture of the adapting holes 12 on the side wall of the metal framework 500 and the transverse supporting framework 100 facing the backing metal plate 300 is larger than the adapting holes 12 on the side wall of the metal framework 500 and the transverse supporting framework 100 facing the wall surface, so that screws can be conveniently fixed on the side wall of the metal framework 500 and the transverse supporting framework 100 facing the wall surface after penetrating through the adapting holes on the side wall of the metal framework 500 and the transverse supporting framework 100 facing the backing metal plate 300.

Based on the above structure, in an alternative embodiment, in order to further improve the firmness and long-term stability of the assembled state of the rock plate 3, the following design is further made in this embodiment:

at least one small-sized latch type electromagnetic lock 600 is provided in the support pipe 200; and a locking hole 101 into which the locking bolt 601 of the small-sized latch type electromagnetic lock 600 is inserted is formed in the top wall of the transverse supporting frame 100. Based on this structure, when the support pipe 200 is mounted on the top end of the lateral support frame 100 in place, the reliability of the connection structure formed between the rock plate 3 and the lateral support frame 100 in the dimension perpendicular to the wall surface can be increased by inserting the lock tongue 601 of the small-sized plug-type electromagnetic lock 600 into the lock hole 101. The small-sized plug-type electromagnetic lock 600 may be any well-known technology in the prior art, and the structure and the use principle of this embodiment will not be described in detail. It should be noted that, the use of the small-sized plug-type electromagnetic lock 600 requires an electrical connection wire, and the wire can be directly wired on the back of the rock plate 3 to facilitate the plugging of the power supply.

To sum up, for the flat-hanging type rock plate installation assembly of the present embodiment, the support tube 200 connected with the rock plate 3 is hung on the transverse support skeleton 100, so that the transverse support skeleton 100 forms a support for the rock plate 3 at an angle parallel to the wall surface, and then the metal skeleton 500 and the magnetic absorption member 400 are used for magnetically absorbing the backing metal plate 300 and the corresponding rock plate 3, thereby forming absorption perpendicular to the wall surface; on this basis, when the flat-hung type rock plate installation component is applied to the rock plate 3 decoration structure, the rock plate 3 of the inclined plug-in type rock plate 3 installation component positioned below the flat-hung type rock plate installation component also forms the bottom support for the rock plate 3 in the flat-hung type rock plate installation component, and in this structure, the rock plate 3 is fixed through three different dimensions for the rock plate 3 in the flat-hung type rock plate installation component. Based on this structure, the rock plate 3 and the corresponding back metal plate 300 only need to be directly hung on the transverse supporting framework 100 at an angle perpendicular to the wall surface, and the rock plate 3 does not need to be fixed by oblique insertion or up-down hanging, so the horizontal hanging type rock plate installation component can be used as the rock plate 3 on the top layer when applied to the rock plate 3 decoration structure, has low requirement on the installation space, and can meet the use requirement of the corresponding scene with limited space above the rock plate 3 when the rock plate 3 is installed.

Example 2:

referring to fig. 1 to 14, on the basis of the flat-hung type rock plate installation assembly of embodiment 1, the present embodiment provides a rock plate ornamental structure including a rock plate 3 and a plurality of flat-hung type rock plate installation assemblies and a plurality of inclined type rock plate installation assemblies respectively connected with the rock plate 3; wherein the plurality of flat-hanging rock plate installation components are spliced in a column manner; the inclined inserting type rock plate installation components are spliced below the horizontal hanging type rock plate installation components in a row-column matrix mode.

Specifically, that is to say that a plurality of flat hanging rock board installation component and a plurality of oblique plug hanging rock board installation component are equivalent to the installation unit that corresponds a rock board 3, and a plurality of installation units combine actual fitment scene to satisfy the user demand through the mode of concatenation, in the in-process of concatenation, a plurality of oblique plug hanging rock board installation component not only splice along the line, but also splice along the row. The plurality of flat-hanging type rock plate installation components are only spliced in a column mode and are used for forming the top of the integral rock plate decoration structure, so that even if barriers similar to other structures such as a suspended ceiling exist above a rock plate decoration scene, the flat-hanging type rock plate installation components are not affected to be assembled at an angle perpendicular to a wall surface, and the rock plate decoration structure of the embodiment can be suitable for occasions with limited tops of the decoration scene.

Next, description will be given of an oblique insertion hanging type rock board installation assembly adopted in this embodiment, and in an alternative embodiment, the oblique insertion hanging type rock board installation assembly includes: a longitudinal skeleton 1 for fixing on a wall surface and a metal lining board 1 for fixing on the back surface of a rock plate 3, wherein the metal lining board 1 is suitable for being hung on the longitudinal skeleton 1.

For the longitudinal skeleton 1 of the present embodiment, the use characteristics and requirements thereof may be directly referred to the metal skeleton 500 of embodiment 1, and the metal skeleton 500 and the longitudinal skeleton 1 may be directly used without distinction in actual use. Similarly, the metal backing plate 2 may be directly used as the backing metal plate 300 of embodiment 1 in terms of material and shape. Of course, in order to meet the use requirement of the inclined inserting and hanging type rock plate installation assembly, the following structure is added to the structure of the metal lining plate 2 and the longitudinal framework 1, and the general purpose only means that the general purpose can be realized without distinction before the machining.

Furthermore, the metal lining board 2 adopted in this embodiment is also designed as follows:

a plurality of inclined plugboards 21 which are bent and extended back to one side of the rock plate 3 are integrally formed on the metal lining plate 2 at intervals; the dimensions of the corresponding metal lining plates 2 are different in combination with the different dimensions of the rock plates 3, and therefore the number of the inclined insertion plates 21 provided on the metal lining plates 2 is also different, and this embodiment is not limited in any way.

In addition, the inclined insert plate 21 on the metal lining plate 2 is specifically formed by directly forming a hole in the metal lining plate 2 and then folding the same, that is, the inclined insert plate 21 is a part of the metal lining plate 2, and according to the structure, after the inclined insert plate 21 is formed, a hollowed-out opening 22 is formed on the metal lining plate 2 corresponding to each inclined insert plate 21.

Based on the above, it should be further noted that each of the inclined insertion plates 21 is formed in an acute angle structure with respect to the corresponding hollow opening 22; and the angle of the acute angle structure formed by each inclined plugboard 21 relative to the corresponding hollowed-out opening 22 is the same. The angle of the acute angle structure formed by each inclined plugboard 21 relative to the corresponding hollow opening 22 is 30-50 degrees, and the inclined plugboards 21 under the angle meet the use requirement of the embodiment.

For the assembly between the longitudinal skeletons 1 and the metal lining plates 2, insertion holes 11 suitable for one-to-one insertion of a plurality of inclined insertion plates 21 are provided in the end face of each longitudinal skeleton 1 facing the rock plate 3. With this structure, the metal lining plate 2 together with the rock plate 3 can be inserted into the insertion hole 11 in a gradually inclined downward manner in an obliquely upward direction directly with respect to the insertion hole 11, thereby achieving the hanging of the rock plate 3 and the metal lining plate 2 on the longitudinal frame 1.

In addition, considering the balanced support of each rock plate 3 in the inclined insertion hanging rock plate installation assembly, at least two longitudinal frameworks 1 are arranged on the end surface of each metal lining plate 2 facing away from the rock plate 3 in the embodiment. Preferably, at least two longitudinal frameworks 1 arranged on each metal lining plate 2 are in parallel distribution structure.

Based on the above structure, in order to further improve the firmness and stability of the inclined inserting and hanging type rock plate installation assembly in the long-term use process, the magnetic adsorption strips 5 are further arranged between the metal lining plates 2 and the longitudinal frameworks 1 in the embodiment. The magnetic adsorption strips 5 cover the end faces of the whole longitudinal framework 1 except for the plug holes 11, so that the magnetic attraction matching area between the longitudinal framework 1 and the metal lining plate 2 is increased as much as possible. The magnetic attraction strip 5 and the magnetic attraction piece 400 of embodiment 1 can be directly used in common, and the details thereof will not be described herein.

Here, from the viewpoint of simplified production and assembly, in this embodiment, every two adjacent longitudinal skeletons 1 of the inclined inserting and hanging type rock plate installation component are integrally connected, and the metal skeletons 500 of the horizontal hanging type rock plate installation component are integrally connected with the adjacent longitudinal skeletons 1 of the inclined inserting and hanging type rock plate installation component, so that in terms of the decoration height of the rock plate 3 made by a common family, one longitudinal skeleton 1 (metal skeleton 500) can be adopted for each column, and of course, for the case that the overall height is higher in certain decoration scenes, each column can be spliced by two or more longitudinal skeletons 1. In addition, for every two adjacent in-line oblique insertion-hanging type rock plate installation assemblies, the longitudinal frameworks 1 are integrally connected, and every two adjacent in-line horizontal hanging type rock plate installation assemblies, namely, two adjacent in-line oblique insertion-hanging type rock plate installation assemblies can adopt only three longitudinal frameworks 1, and the width of the longitudinal frameworks 1 sharing two rock plates 3 is larger than that of the other two longitudinal frameworks 1; that is, only three metal backbones 500 may be used for two horizontally hung rock plate installation assemblies adjacent in a column, and the width of the metal backbones 500 sharing two rock plates 3 is greater than that of the other two metal backbones 500.

Based on the above situation, in order to further improve the stability of the usage state of the two adjacent longitudinal frameworks 1 or the two metal frameworks 500 on the wall surface, the following design is further made in this embodiment:

at least two connecting frameworks 6 extending along the row are also arranged between every two adjacent columns of the longitudinal frameworks 1 or the metal frameworks 500 at intervals. The connecting frame 6 can be selected to have the same structure as the longitudinal frames 1 and the metal frames 500, the difference is only the length, the connecting frame 6 can be directly clamped between two adjacent longitudinal frames 1 or two metal frames 500, and the matching gap between the connecting frame 6 and the longitudinal frames 1 or the metal frames 500 can be optionally hooked by adopting the high-strength structural colloid 4. In addition, the connecting framework 6 can be provided with magnetic adsorption strips 5 to strengthen the firmness of the connecting structure formed between the magnetic adsorption strips and the metal lining plate 2.

It should be noted that in an alternative embodiment, an extruded sheet 7 is provided between each adjacent two rows of longitudinal bobbins 1 and two rows of metal bobbins 500, which sheet is adapted to support the end face of the metal lining sheet 2 facing away from the rock face 3.

Regarding the design of the extruded sheet 7 herein, it is mainly used for forming a support for the end surface of the backing metal sheet 300 and the metal lining plate 2 facing away from the rock plate 3, preventing the back surface of the rock plate 3 from forming a hollow space between two adjacent columns of metal frameworks 500 and two columns of longitudinal frameworks 1 due to lack of support, and possibly causing a larger impact on the rock plate 3 due to external force when the hollow space exists on the back surface of the rock plate 3, thereby shortening the service life of the rock plate 3. In addition, the design of the extruded sheet 7 also enables protection of the front face of the rock laminate 3 during transport of the overall rock laminate ornamental structure.

For example, XPS may be used for the extruded sheet 7 of the present embodiment. The technology is characterized in that the technology is called extruded polystyrene foam plastic (XPS for short) for heat insulation, and the XPS has a perfect closed cell honeycomb structure, and the XPS board has extremely low water absorption (hardly absorbs water), low thermal conductivity, high compression resistance and ageing resistance. Here not only can form certain supportability to the back of rock plate 3 through extruded sheet 7, can strengthen the heat preservation nature of whole rock plate decorative structure moreover.

Finally, regarding the rock-board decorating structure of the present embodiment, it is also necessary to explain that, for the overall structure in which the rock-board 3 is installed, the four side end surfaces of the facing structure formed by splicing the plurality of rock-boards 3 may be flush with the corresponding end surfaces of the longitudinal skeleton 1 (metal skeleton 500), so that the longitudinal skeleton 1 (metal skeleton 500) is not seen from the front surface of the rock-board 3, and of course, the four side end surfaces of the rock-board 3 may slightly protrude from the corresponding side end surfaces of the longitudinal skeleton 1 (metal skeleton 500), so that the longitudinal skeleton 1 (metal skeleton 500) is hidden at the back surface of the rock-board 3. The above-mentioned cases all satisfy the use requirements of the present embodiment, that is, the case where the longitudinal skeleton 1 is not visible from the front face of the rock plate 3 satisfies the use requirements of the present embodiment, and the present embodiment is not limited in any way.

To sum up, for the oblique insertion hanging type rock board installation component of the present embodiment, the hanger for the rock board 3 is realized by the oblique insertion manner between the metal lining board 2 fixed on the back surface of the rock board 3 and the longitudinal skeleton 1, so that the structure is that the oblique insertion board 21 is formed by punching and folding the metal lining board 2 through a simple die, and then the insertion of the oblique insertion board 21 is adapted by drilling on the longitudinal skeleton 1. The whole assembly structure has low requirement on the die, and can be completed by adopting universal metal tapping die equipment, so that the decoration using cost of the rock plate 3 can be comprehensively reduced by reducing the production cost of the assembly structure on the basis of not reducing the production cost of the rock plate 3. Moreover, for the oblique plugging matching mode, the manpower and material resources are greatly reduced in the operation process, and the dependence on the manual operation experience is low, so that the assembly threshold is low.

Moreover, for the rock plate decoration structure of the embodiment, a procedure of sequentially installing rock plates from bottom to top is adopted in combination with a specific decoration scene, the rock plates which are not positioned on the first row on the top are all installed in an oblique inserting and hanging mode, and the rock plates positioned on the first row on the top are installed in a horizontal hanging mode, so that the convenience of installation and the firmness of the structure can be met under cooperation, and the problem that no redundant assembly operation space exists above the decoration scene can be solved.

The foregoing embodiments have been provided for the purpose of illustrating the general principles of the present utility model, and are more fully described herein with reference to the accompanying drawings, in which the principles of the present utility model are shown and described, and in which the general principles of the utility model are defined by the appended claims.

In the description of the present utility model, it should be understood that the terms "orientation" or "positional relationship" are based on the orientation or positional relationship shown in the drawings, and are merely for convenience of description and to simplify the description, rather than to indicate or imply that the apparatus or elements referred to must have a particular orientation, be constructed and operate in a particular orientation, and therefore should not be construed as limiting the utility model.

In the present utility model, unless explicitly specified and limited otherwise, the terms "mounted," "connected," "secured," and the like are to be construed broadly, and may be, for example, fixedly connected, detachably connected, or integrally formed; can be mechanically or electrically connected; can be directly connected or indirectly connected through an intermediate medium, and can be communicated with the inside of two elements or the interaction relationship of the two elements. The specific meaning of the above terms in the present utility model can be understood by those of ordinary skill in the art according to the specific circumstances.

In the description of the present utility model, it should be noted that, directions or positional relationships indicated by terms such as "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc., are directions or positional relationships based on those shown in the drawings, or are directions or positional relationships conventionally put in use of the inventive product, are merely for convenience of describing the present utility model and simplifying the description, and are not indicative or implying that the apparatus or element to be referred to must have a specific direction, be constructed and operated in a specific direction, and thus should not be construed as limiting the present utility model. Furthermore, the terms "first," "second," "third," and the like are used merely to distinguish between descriptions and should not be construed as indicating or implying relative importance.

Furthermore, the terms "horizontal," "vertical," "overhang," and the like do not denote a requirement that the component be absolutely horizontal or overhang, but rather may be slightly inclined. As "horizontal" merely means that its direction is more horizontal than "vertical", and does not mean that the structure must be perfectly horizontal, but may be slightly inclined.

In the present utility model, unless expressly stated or limited otherwise, a first feature may include first and second features directly contacting each other, either above or below a second feature, or through additional features contacting each other, rather than directly contacting each other. Moreover, the first feature being above, over, and on the second feature includes the first feature being directly above and obliquely above the second feature, or simply indicating that the first feature is higher in level than the second feature. The first feature being below, beneath, and beneath the second feature includes the first feature being directly below and obliquely below the second feature, or simply indicates that the first feature is less level than the second feature.

Claims (10)

1. A flat-hung rock board installation assembly, comprising:

a transverse supporting framework which is used for being fixed on the wall surface along the transverse direction parallel to the horizontal plane;

a backing metal plate for fixing on the back surface of the rock plate; the side end face of the back lining metal plate, which is opposite to the rock plate, is provided with a support tube extending along the transverse direction of the rock plate; the support tube is suitable for being carried on the top end of the transverse support framework;

the metal frameworks are used for being fixed on the wall surface along the longitudinal direction perpendicular to the horizontal plane, and at least two metal frameworks are arranged on the end surface of each back metal plate, which faces away from the rock plate;

and the magnetic absorption part is arranged between the back metal plate and the metal framework.

2. The flat-hung rock plate installation assembly according to claim 1, wherein two metal frameworks are arranged on the end surface of each back metal plate facing away from the rock plate at intervals; and

the transverse supporting framework is clamped between the two metal frameworks; or alternatively

The transverse supporting framework is arranged at the tops of the two metal frameworks.

3. The flat-hung rock plate mounting assembly of claim 2 wherein the support tube is provided on top of the side end surface of the backing metal plate facing away from the rock plate.

4. A flat-hung rock plate installation assembly according to any one of claims 1 to 3 wherein at least one small latch type electromagnetic lock is provided in the support tube; and

and a lock hole for inserting a lock tongue of the small plug type electromagnetic lock is formed in the top wall of the transverse supporting framework.

5. The flat-hung rock plate mounting assembly according to claim 1, wherein one side of the magnetic absorbing member is provided with an adhesive layer, and the adhesive layer is used for adhering to the metal framework; and

the surface of the magnetic absorption part, which is away from the adhesive layer, is suitable for being magnetically absorbed and connected with the back metal plate.

6. A rock laminate decorative structure, comprising: a rock plate and a plurality of the flat-hung rock plate mounting assemblies as defined in any one of claims 1 to 5 respectively connected to the rock plate, and a plurality of the oblique-inserted rock plate mounting assemblies; wherein the method comprises the steps of

The plurality of flat-hanging rock plate installation components are spliced in a column manner; and

the inclined inserting type rock plate installation components are spliced below the horizontal hanging type rock plate installation components in a row-column matrix mode.

7. The rock laminate trim structure of claim 6, wherein the tilt plug rock laminate mounting assembly comprises:

a metal lining plate for fixing on the back surface of the rock plate; a plurality of inclined plugboards which are bent and extended back to one side of the rock plate are integrally formed on the metal lining plate at intervals;

the longitudinal frameworks are used for being fixed on the wall surface, and at least two longitudinal frameworks are arranged on the end face of each metal lining plate, which faces away from the rock plate; the end face of each longitudinal framework facing the rock plate is provided with a plugging hole which is suitable for one-to-one plugging of a plurality of inclined plugging plates; and

and the magnetic adsorption strip is arranged between the metal lining plate and the longitudinal framework.

8. The rock plate decorating structure of claim 7, wherein the metal lining plate is provided with hollowed-out openings corresponding to each of the inclined plugboards.

9. The rock laminate trim structure of claim 7 or 8, wherein each of the ramp panels is formed in an acute angle configuration with respect to the corresponding hollowed-out opening; and

the angle of the acute angle structure formed by each inclined plugboard relative to the corresponding hollowed-out opening is the same;

the angle of the acute angle structure formed by each inclined plugboard relative to the corresponding hollow opening is 30-50 degrees.

10. The rock laminate decorative structure of claim 6, wherein the transverse support frame, the metal frame and the longitudinal frame are adapted to be fastened to a wall surface by screws; and

and the transverse supporting framework, the metal framework and the longitudinal framework are provided with adapting holes for adapting screws.