TWI755321B - Anti-shedding and anti-seismic fixing components for thin building material panels - Google Patents

Abstract

The invention is an anti-falling and anti-seismic fixing component of a thin building material board body, which includes a fixing piece or a fixing piece and a combination piece. The fixing part on the fixing piece is used for fixing to the wall. The joint part on the fixing piece or the joint part on the joint piece is used for combining with the transverse groove of the thin building material board body. In this way, an actual clamping and bonding structure is formed between the thin building material board and the wall, not only through cement mortar, so the bonding strength between the thin building material board and the wall can be strengthened, thereby resisting thermal expansion and cold. Shrinkage and earthquake, so as to prevent the thin building material board from separating and falling off from the wall. In addition to retaining the original construction method of the thin building material board, this creation can further cooperate with fixing components to achieve double protection, making the thin building material board more difficult to separate from the wall.

Description

Anti-shedding and anti-seismic fixing components for thin building material panels

The invention relates to a building material component, especially a fall-proof and earthquake-resistant fixing component for a thin building material board body.

Among the existing thin building material boards, there is a Ding Hanging brick, which is mostly used for building exterior walls or cylindrical surface collage, edge closing, edging, and gardening or landscape planning, among which the most common is Ding Hanging. There are multiple horizontal grooves on the back of the Ding Hanging Brick (that is, the side attached to the wall), so that the cement mortar on the wall can penetrate into the horizontal grooves of the Ding Hanging Brick, so as to increase the stability of the Ding Hanging Brick on the wall. sex.

However, due to the drastic changes in the global climate in recent years, the temperature difference between day and night has changed greatly, so the bricks on the walls often fall off, and there are even events such as tile rain that seriously threaten the lives of households and pedestrians.

The reason for the occurrence of the above dangerous events is that the building materials such as diced hanging bricks in the prior art are only adhered to the wall through cement mortar, that is to say, the diced hanging bricks and the wall are only glued and there is no actual clamping structure. Therefore, the bonding force between the hanging brick and the wall is not strong enough. Therefore, due to multiple reasons such as poor building materials, unreliable construction methods, repeated thermal expansion and contraction in the weather, or earthquakes, it is easy to cause the hanging brick to be damaged. The walls were separated, which led to the above-mentioned incidents that seriously threatened the lives of residents and pedestrians.

In view of this, the construction methods and building materials in the prior art really need to be improved, so as to prevent and prevent the occurrence of the above dangerous situations.

In view of the aforementioned shortcomings and deficiencies of the prior art, the present invention provides an anti-falling and anti-seismic fixing component for a thin building material board, which enables the thin building material board such as the thin building material board to further have a practical clip-fixing combination in addition to sticking. Therefore, the bonding force is strong enough to prevent the separation of thin building materials from the wall, and further avoid events such as tile rain that seriously threaten the safety of homes and pedestrians.

In order to achieve the above-mentioned creative purpose, the technical means used in this creation is to design an anti-shedding and anti-seismic fixing component for a thin building material board, which is used to be embedded in a cement mortar, and used to be fixed on a wall, and used to connect with the building materials. Combined with the transverse grooves of at least one thin building material board body, the thickness of the at least one thin building material board body is 5 mm to 20 mm; the anti-falling and anti-vibration fixing assembly of the thin building material board body comprises: at least one fixing piece, each of which is at least 5 mm to 20 mm thick. A fixing part is formed by bending a thin rod body, and includes an embedded part, which is used to be embedded in the cement mortar and fixed to the wall by the cement mortar; a joint part, which is used for connecting with one of the The transverse grooves of the thin building material board body are combined.

In order to achieve the above-mentioned creative purpose, the technical means used in this creation is to design an anti-shedding and anti-seismic fixing component for a thin building material board, which is used to be embedded in a cement mortar, and used to be fixed on a wall, and used to connect with the building materials. The thickness of the at least one thin building material board is 5 mm to 20 mm; the anti-falling and anti-vibration fixing component of the thin building material board includes: a fixing member, which includes a buried an entry part, which is a thin rod body extending up and down, and used to be embedded in the cement mortar and fixed to the wall by the cement mortar; at least one main connection part, which is connected to the embedded part; At least one combination piece, which is formed by bending a thin rod body, is connected to the at least one main connecting portion, and is used for combining with the transverse groove of the at least one thin building material board body; each of the at least one combination piece includes A secondary connecting part is connected with the corresponding main connecting part;

The advantage of the present invention is that the fixing part of the fixing piece is fixed on the wall, and the fixing joint part or the joint part of the joint piece is combined with the transverse groove of the thin building material board body (for example, hooked), thereby the thin The actual clamping structure is formed between the building material board and the wall, not only through cement mortar, so it can strengthen the bonding strength between the thin building material board and the wall, and then resist thermal expansion and contraction and earthquakes. This can prevent the thin building material board from falling off from the wall, and further avoid the occurrence of events such as tile rain that seriously threaten the safety of homes and pedestrians. In addition to retaining the original construction method of the thin building material board, this creation can further cooperate with fixing components to achieve double protection, making the thin building material board more difficult to separate from the wall.

The fasteners and joints in this creation can be made of stainless steel wire made of SUS-304 stainless steel by bending (not limited to this), and the fasteners are fixed on the structure with nails, and then the fasteners or joints are used. The joint part is hooked into the back of the thin building material board. This installation method is stable and reliable, without loosening or falling off, and there will be no loosening that is easily caused by traditional cement paste.

Further, in the anti-falling and anti-vibration fixing assembly of the thin building material board, each of the at least one fixing member includes a fixing portion, which and the joint portion are respectively formed at both ends of the embedded portion; one of the fixing parts The fixing part of the piece is used for fixing to the wall.

Further, the anti-falling and anti-seismic fixing component of the thin building material board body is used to combine with a plurality of transverse grooves of the thin building material board body; The pieces are arranged up and down, and the fixing part of the fixing piece at the top is used for fixing to the wall; in any two adjacent fixing pieces, the fixing part of the fixing piece at the bottom is detachably connected connected to the joint part of the fixing piece located above; the joint parts of the fixing pieces are respectively used for combining with the transverse grooves of the thin building material boards.

Further, in the anti-falling and anti-vibration fixing assembly of the thin building material board, wherein the fixing portion is bent into a ring shape, and the ring-shaped fixing portion of one of the fixing pieces is used for fixing to the fixing member through a nail. wall.

Further, in the anti-shedding and anti-seismic fixing component of the thin building material board, the fixing part is bent into a hook shape, and the hook-shaped fixing part of one of the fixing parts is used to be embedded in the cement mortar And hook the cement mortar and fix it on the wall by the cement mortar.

Further, in the anti-falling and anti-vibration fixing assembly of the thin building material board, the joint portion is bent into a hook shape, and the hook-shaped joint portion is used to hook the transverse groove of the thin building material board body. .

Further, in the anti-falling and anti-vibration fixing assembly of the thin building material board, the fixing member further includes a fixing portion formed at the top of the embedded portion and used for fixing to the wall.

Further, in the anti-falling and anti-seismic fixing component of the thin building material board, wherein, the anti-falling and anti-seismic fixing component of the thin building material board is combined with a plurality of transverse grooves of the thin building material board; the at least one The number of the main connecting parts is plural and arranged up and down; the number of the at least one connecting piece is plural, and it is connected to the main connecting parts respectively, and is used for combining with the transverse grooves of the thin building material boards.

Further, in the anti-falling and anti-vibration fixing assembly of the thin building material board, wherein each of the at least one main connecting portion of the fixing member extends obliquely upward, which is used for leaning against one of the thin building material boards obliquely upward. the underside of the body.

Furthermore, in the anti-falling and anti-vibration fixing assembly of the thin building material board, the auxiliary connecting portion of each of the at least one coupling member is bent into a hook shape, and hooks the corresponding main connecting portion.

Further, in the anti-falling and anti-vibration fixing assembly of the thin building material board, the auxiliary connecting portion of each of the at least one coupling member is bent into a ring shape, and the corresponding main connecting portion is sleeved.

Further, in the anti-falling and anti-vibration fixing assembly of the thin building material board, each of the at least one main connecting portion of the fixing member is a ring body, and is sleeved on the embedded portion so as to be movable up and down; The auxiliary connecting portion of a coupling member is bent into a hook shape, and hooks the corresponding main connecting portion.

Further, in the anti-falling and anti-vibration fixing assembly of the thin building material board, the joint portion of each of the at least one joint member is bent to have an upper pressing section and a lower pressing section that are parallel to each other, and the joint portion is inserted into the joint. The upper and lower pressing sections are pressed against the upper and lower inner wall surfaces of the transverse groove respectively.

Further, in the anti-falling and anti-vibration fixing assembly of the thin building material board, the fixing member includes a fixing portion formed at the bottom end of the embedded portion and used for fixing to the wall.

A: Wall

B: Thin building material board

B1: Horizontal groove

B2: Longitudinal groove

C: Cement mortar

10: Fixing parts

11: Fixed part

12: Joint

13: Embedding part

10A: Fixing parts

11A: Fixed part

12A: Buried part

13A: Main connector

20A: Combination piece

21A: Sub-connector

22A: junction

221A: Upper pressing segment

222A: Lower pressing segment

223A: Retreat segment

23A: Main body

13B: Main connector

20B: Bonding pieces

21B: Sub-connector

10C: Fasteners

11C: Lower fixing part

12C: Buried part

13C: Main connector

20C: Bonding piece

21C: Sub-connector

10D: Fasteners

11D: Fixed part

12D: Joint

13D: Buried part

FIG. 1 is a schematic diagram of the connection between the first embodiment of the present invention and the thin building material board.

FIG. 2 is a schematic diagram of the connection of the fixing member of the first embodiment of the present invention.

FIG. 3 is a schematic diagram of a thin building material board fixed with a fixing member in the first embodiment of the present invention.

FIG. 4 is a schematic diagram of a thin building material board fixed with two fixing parts in the first embodiment of the present invention.

FIG. 5 is a side sectional view of the first embodiment of the present invention when the thin building material board is fixed to the wall.

FIG. 6 is a schematic diagram of the connection between the second embodiment of the present invention and the thin building material board.

FIG. 7 is a schematic diagram of connecting a plurality of thin building material boards according to the second embodiment of the present invention.

FIG. 8 is a side sectional view of the second embodiment of the present invention when the thin building material board is fixed to the wall.

Fig. 9 is a schematic diagram of an embodiment of the second embodiment of the present invention, in which the joint portion of the joint member is bent into a C-shape and fitted into the transverse groove of the thin building material board.

Fig. 9A is a schematic diagram of the usage mode of the joint part of the present invention without a retracted section and the thin building material board body has a longitudinal groove.

FIG. 10 is a schematic diagram of the connection between the third embodiment of the present invention and the thin building material board.

FIG. 11 is a schematic diagram of the connection between the fourth embodiment of the present invention and the thin building material board.

FIG. 12 is a schematic diagram of the connection between the fifth embodiment of the present invention and the thin building material board.

The technical means adopted by the present creation to achieve the predetermined creation purpose are further described below in conjunction with the drawings and preferred embodiments of the present creation.

Please refer to FIG. 1 and FIG. 5 , the anti-shedding and anti-seismic fixing components of the thin building material board of the present invention are used to be embedded in a cement mortar C, and used to be fixed on a wall A, and used to connect with a plurality of thin building material boards. The lateral groove B1 of B is combined. Specifically, the thickness of the thin building material board body B is 5 mm to 20 mm, and in the first embodiment, it is a small hanging brick, but in other embodiments, it is not limited to this, as long as the thickness is 5 mm A thin building material board with a thickness of 20 mm is sufficient; and, in the first embodiment, the transverse groove B1 is a transverse groove used by the brick itself to be combined with the cement mortar, but in other embodiments, it can also be in other Additional grooves cut out in the body of thin building materials of various types.

In the first embodiment, the anti-falling and anti-vibration fixing component of the thin building material board includes a plurality of fixing pieces 10 , and each fixing piece 10 is formed by bending a thin rod body.

Please refer to FIG. 1 , FIG. 2 , and FIG. 5 , each fixing member 10 includes a fixing portion 11 , a connecting portion 12 , and an embedded portion 13 . The embedded part 13 is used for being embedded in the cement mortar C, and is fixed to the wall A by the cement mortar C. As shown in FIG. The fixing portion 11 and the connecting portion 12 are respectively formed at two ends of the embedded portion 13 , and the fixing portion 11 of one of the fixing members 10 is used for fixing to the wall A. Specifically, in the first embodiment, the fixing portion 11 is bent into a ring shape (it can be a ring shape of various shapes such as O-shaped, U-shaped, C-shaped, etc., not limited to the whole circle), and is It is fixed to the wall A through a nail; but in other embodiments, it is not limited to this. The joint portion 12 is used for combining with the transverse groove B1 of one of the thin building material boards B. As shown in FIG. Specifically, in the first embodiment, the joint portion 12 is bent into a hook shape, and the hook-shaped joint portion 12 is used to hook the transverse groove B1 of the thin building material board body B; This is limited, for example, the joint portion 12 may also be a piece, and the shape is matched with the lateral groove B1 of the thin building material board body B and fitted into the lateral groove B1.

The aforementioned plurality of fixing members 10 are arranged up and down. Among the fixing members 10 , the fixing portion 11 of the uppermost fixing member 10 is used for fixing to the wall A. In any two adjacent fixing members 10 , the fixing portion 11 of the lower fixing member 10 is detachably connected to the connecting portion 12 of the upper fixing member 10 . The joint portions 12 of the fixing members 10 are respectively used for combining with the transverse grooves B1 of the thin building material boards B. As shown in FIG.

In other words, in the first embodiment, the fixing member 10 is connected to each other in a chain shape through the ring-shaped fixing portion 11 and the hook-shaped connecting portion 12 in sequence, and all the hook-shaped connecting portions 12 respectively hook the thin building materials. The horizontal groove B1 of the board body B, and the uppermost ring-shaped fixing part 11 of the chain shape is fixed on the wall A by nails, so that the thin building material boards B are respectively fixed to the wall by the fixing parts 10 A on. In addition, please refer to FIG. 3 and FIG. 4 , in the first embodiment, it is actually a many-to-many implementation, but in other embodiments, only the fixing member 10 can be used to fix a thin building material board body B without connecting In a chain, that is, a one-to-one implementation. Moreover, each thin building material board body B can be hooked by only one fixing member 10 As shown in FIG. 3 ; however, each thin building material board body B can also be hooked by two fixing members 10 at the same time, as shown in FIG. 4 .

Please refer to FIG. 6 , FIG. 7 , and FIG. 8 , in the second embodiment, the anti-falling and anti-seismic fixing component of the thin building material board body includes a fixing member 10A and a plurality of connecting members 20A.

The fixing member 10A includes a fixing portion 11A, an embedded portion 12A, and a plurality of main connecting portions 13A. The embedded portion 12A is a thin rod body extending up and down, and is used to be embedded in the cement mortar C and fixed to the wall A by the cement mortar C. As shown in FIG. The fixing portion 11A is used for fixing to the wall A, and is provided at the top end of the embedded portion 12A. The main connecting portion 13A is a thin rod body and is disposed on the embedded portion 12A and is arranged up and down. Specifically, in the second embodiment, one end of each main connecting portion 13A is connected to the embedded portion 12A and extends upwardly obliquely, but in other embodiments, it is not limited to this, for example, a hook body or a ring body can also be used.

The connecting pieces 20A are respectively connected to the main connecting portions 13A, and are used to be combined with the transverse grooves B1 of the thin building material boards B, respectively. Each coupling member 20A is formed by bending a thin rod body, and includes a secondary connecting portion 21A, a coupling portion 22A, and a main body portion 23A. The main body portion 23A extends straight up and down, and the auxiliary connecting portion 21A and the coupling portion 22A are respectively connected to the upper and lower ends of the main body portion 23A. The auxiliary connecting portion 21A is connected to the corresponding main connecting portion 13A, and specifically in the second embodiment, the auxiliary connecting portion 21A is bent into a hook shape, and hooks the corresponding main connecting portion 13A downward. The joint portion 22A is used to be combined with the transverse groove B1 of the corresponding thin building material board body B, and specifically in the second embodiment, the joint portion 22A is bent into a hook shape, and hooks the horizontal groove of the thin building material board body B. trench B1, but not limited to this in other embodiments.

For example, the joint portion 22A can also be bent to have an upper pressing section 221A and a lower pressing section 222A that are parallel to each other, in other words, the joint section 22A is bent into a C-shape and fitted into the corresponding thin building material plate body B In the transverse groove B1, the upper pressing section 221A and the lower pressing section 222A are pressed against the upper and lower inner wall surfaces of the transverse groove B1 respectively, as shown in FIG. 9 . In addition, in the embodiment of FIG. 9 , the joint portion 22A is further bent to have a retracted section 223A, the retracted section 223A is connected to the pressing section 221A, and extends to the outside of the lateral groove B1 and then connected to the main body portion 23A; but in other In the embodiment, the joint portion 22A can also be As long as there is no retraction section 223A, it is also possible that the thin building material plate body B has a longitudinal groove B2 connected to the transverse groove B1, and the main body 23A is directly arranged in the longitudinal groove B2 and directly connected to the upper pressing section 221A, such as shown in Figure 9A.

In addition, in the second embodiment, the imaginary plane on which the auxiliary connecting portion 21A is located is perpendicular to the imaginary plane on which the connecting portion 22A is located, that is to say, the auxiliary connecting portion 21A hooks the main connecting portion 13A to the side, and the connecting portion 22A is facing the main connecting portion 13A. The front hooks the horizontal groove B1 of the thin building material board body B; but in other embodiments, it is not limited to this. That is, the auxiliary connecting part 21A hooks backward and the connecting part 22A hooks forward, but the two are staggered, or the auxiliary connecting part 21A and the connecting part 22A are located on the same imaginary plane and hook forward and backward respectively.

Furthermore, in the second embodiment, the main connecting portion 13A of the fixing member 10A extends obliquely upward, and is inserted between the two adjacent thin building material boards B up and down, and is used for leaning against and supporting obliquely upward. The bottom side of the thin building material board body B located above, and the main connecting portion 13A abuts against the top edge of the thin building material board body B located below at the same time, and the thin building material board body is sandwiched with the joint portion 22A of the coupling member 20A. B, in order to achieve the best fixing effect; however, other embodiments are not limited to the above, that is, the main connecting portion 13A does not necessarily need to be inserted between the two thin building material boards B.

The second embodiment of the above-mentioned creation uses a fixing piece 10A and a plurality of connecting pieces 20A to combine the plurality of thin building material boards B with the wall A, but in other embodiments, only one fixing piece 10A can be combined with one combination piece. 20A is used to combine a thin building material board B to the wall A; that is to say, the number of the main connecting part 13A of the fixing piece 10A, the connecting piece 20A, and the hooked and fixed thin building material board B can be only one.

Please refer to FIG. 10 , the structure of the third embodiment of the present invention is substantially the same as that of the second embodiment, the difference is that, in the third embodiment, the auxiliary connecting parts 21B of the coupling parts 20B are bent into a circle shape, and the A corresponding main connection portion 13B is provided.

Please refer to FIG. 11 , the structure of the fourth embodiment of the present invention is substantially the same as that of the second embodiment, the difference is that in the fourth embodiment, each main connecting portion 13C is a ring body sleeved on the embedded portion 12C extending up and down , and the secondary connecting portion 21C of each coupling member 20C is a hook body that is the same as the second embodiment to hook the corresponding main connecting portion 13C. Moreover, in the fourth embodiment, each main connecting portion 13C can move up and down relative to the embedded portion 12C, thereby facilitating adjustment of the up and down position, but at the same time, it can also prevent the thin building material board body B from falling forward relative to the wall A and falling off; In other embodiments, it is not limited to this. In addition, the fixing member 10C includes a lower fixing portion 11C in the fourth embodiment. The lower fixing portion 11C is formed at the bottom end of the embedded portion 12C, and is bent into a circle shape and used for fixing to the wall A through a nail, that is, It is said that in the fourth embodiment, the upper and lower ends of the fixing member 10C are nailed to the wall A, but in other embodiments, the lower fixing portion 11C may not be provided.

Please refer to FIG. 12 , the structure of the fifth embodiment of the present invention is substantially the same as that of the first embodiment, the difference is that in the fifth embodiment, the fixing member 10D is not connected in a chain shape, and the fixing portion 11D is bent into a hook and the hook-shaped fixing portion 11D of the fixing member 10D is used to be embedded in the cement mortar, hook the cement mortar, and be fixed to the wall by the cement mortar. However, the fixing part 10D of the present invention may not have the fixing part 11D, but only have the embedded part 13D and the joint part 12D, so that it is only embedded in the cement mortar through the embedded part 13D and fixed to the wall by the cement mortar.

This creation is mainly used for 2-Ding Hanging, that is, Ding-hanging bricks with a width of 22.7 cm, a height of 6 cm and a thickness of 0.9-1.3 cm; For any thin building material panels with a thickness of 5mm to 20mm. In addition, the fixing member 10 and the connecting member of the present invention can preferably be a rod body or a wire body, and can be formed by bending a metal rod body or a metal wire body. In the first embodiment, the thin Stainless steel wire is bent, but not limited to this. When using, this creation is used together with cement mortar, and this creation is fixed on the wall A and buried in the cement mortar, so that the thin building material board B is fixed to the wall A by this creation and adhered to the wall A by the cement mortar, so as to achieve The double fixing effect increases the bonding strength between the thin building material board body B and the wall A. this In addition, this method can first hook the fixing member 10 or the fixing member 10 and the connecting member to the thin building material board body B on the ground, and then pull multiple thin building material board bodies B to the wall A for construction. At this time, it can be four or more pieces. The thin building material board B is constructed to the wall A as a unit; or the fixing member 10 can be nailed to the wall A first, and then the thin building material board B is constructed to the wall A piece by piece.

The advantage of the present invention is that the fixing part 11 of the fixing part 10 is fixed on the wall A, and the joint part 12 of the fixing part 10 is combined with the transverse groove B1 of the thin building material board body B, or the fixing part 10 is combined The sub-connecting part 21 of the part 12 is connected to the joint part and then combined with the transverse groove B1 of the thin building material board body B through the joint part 12 of the joint piece, so that the actual clamping is formed between the thin building material board body B and the wall A. The combined structure is not only pasted through cement mortar, so it can strengthen the bonding strength between the thin building material board B and the wall A, thereby resisting thermal expansion and contraction and earthquakes, thus preventing the thin building material board B and the wall A. Separate and fall off, and further prevent the occurrence of such events as tile rain that seriously threaten the safety of homes and pedestrians. In addition to retaining the original construction method of the thin building material board body B, this creation can further cooperate with fixing components to achieve double protection, so that the thin building material board body B is more difficult to separate from the wall A.

The above is only a preferred embodiment of the creation, and does not limit the creation in any form. Although the creation has been disclosed as a preferred embodiment, it is not intended to limit the creation. Those of ordinary knowledge, within the scope of the technical solution of the creation, can make some changes or modifications to equivalent embodiments with equivalent changes by using the technical content disclosed above, provided that the content that does not depart from the technical solution of the creation is based on the technical content of the invention. The technical essence of the creation Any simple modifications, equivalent changes and modifications made to the above embodiments still fall within the scope of the technical solution of the creation.

A: Wall

B: Thin building material board

B1: Horizontal groove

C: Cement mortar

10: Fixing parts

11: Fixed part

12: Joint

13: Embedding part

Claims (15)

An anti-falling and anti-seismic fixing component of a thin building material board is used to be embedded in a cement mortar, and used to be fixed on a wall, and used to be combined with a transverse groove of at least one thin building material board. The at least one The thickness of the thin building material board is 5 mm to 20 mm; the anti-falling and anti-seismic fixing components of the thin building material board include: At least one fixing piece, each of the at least one fixing piece is formed by bending a thin rod body, and includes an embedded part, which is used to be embedded in the cement mortar and fixed to the wall by the cement mortar; A joint part is used for combining with the transverse groove of one of the thin building material boards. The anti-falling and anti-vibration fixing assembly for a thin building material board body according to claim 1, wherein each of the at least one fixing member comprises: a fixing part and the joint part are respectively formed at two ends of the embedded part; one of the fixing parts of the fixing piece is used for fixing to the wall. As claimed in claim 2, the anti-falling and anti-seismic fixing component of the thin building material board is used to be combined with a plurality of transverse grooves of the thin building material board; the number of the at least one fixing piece is plural, and the fixing pieces are up and down Arranged, the fixing part of the fixing piece located at the top is used for fixing to the wall; in any two adjacent fixing pieces, the fixing part of the fixing piece located below is detachably connected to the fixing piece located above The joint parts of the pieces; the joint parts of the fixing pieces are respectively used for combining with the transverse grooves of the thin building material boards. The anti-shedding and anti-vibration fixing assembly for a thin building material board according to claim 2 or 3, wherein the fixing portion is bent into a ring shape, and the ring-shaped fixing portion of one of the fixing members is used for fixing through a nail on this wall. The anti-falling and anti-seismic fixing assembly for a thin building material board as claimed in claim 2 or 3, wherein the fixing portion is bent into a hook shape, and the hook-shaped fixing portion of one of the fixing pieces is used to be embedded in the cement The cement mortar is hooked in the mortar and fixed on the wall by the cement mortar. The anti-falling and anti-seismic fixing assembly for a thin building material board according to any one of claims 1 to 3, wherein the joint portion is bent into a hook shape, and the hook-shaped joint portion is used to hook the thin building material board the transverse groove of the body. An anti-falling and anti-seismic fixing component of a thin building material board is used to be embedded in a cement mortar, and used to be fixed on a wall, and used to be combined with a transverse groove of at least one thin building material board. The at least one The thickness of the thin building material board is 5 mm to 20 mm; the anti-falling and anti-seismic fixing components of the thin building material board include: a fixture, which includes an embedded part, which is a thin rod body extending up and down, and is used to be embedded in the cement mortar and fixed to the wall by the cement mortar; at least one main connecting portion connected to the embedded portion; At least one combination piece, which is formed by bending a thin rod body, is connected to the at least one main connecting portion, and is used for combining with the transverse groove of the at least one thin building material plate body; each of the at least one combination piece includes a secondary connection part, which is connected to the corresponding main connection part; A joint part is used for combining with the corresponding transverse groove of the thin building material board. The anti-falling and anti-seismic fixing assembly for a thin building material board body as claimed in claim 7, wherein the fixing member further comprises A fixing part is formed on the top of the embedded part and used for fixing to the wall. The anti-falling and anti-seismic fixing component of the thin building material board body according to claim 7, wherein the anti-falling and anti-seismic fixing component of the thin building material board body is used for combining with a plurality of transverse grooves of the thin building material board body; the at least one The number of the main connecting parts is plural and arranged up and down; the number of the at least one connecting piece is plural, and it is connected to the main connecting parts respectively, and is used for combining with the transverse grooves of the thin building material boards. The anti-falling and anti-vibration fixing assembly for a thin building material board body according to claim 9, wherein each of the at least one main connecting portion of the fixing member extends obliquely upward, and is used for leaning against one of the thin building material boards obliquely upward. the underside of the body. The anti-falling and anti-seismic fixing assembly for a thin building material board body according to any one of claims 7 to 10, wherein the auxiliary connecting portion of each of the at least one joint is bent into a hook shape, and hooks the corresponding main connection. The anti-falling and anti-seismic fixing assembly for a thin building material board according to any one of claims 7 to 10, wherein the auxiliary connecting portion of each of the at least one joint is bent into a circle shape, and the corresponding main connection. The anti-falling and anti-seismic fixing assembly for a thin building material panel according to any one of claims 7 to 10, wherein, Each of the at least one main connecting portion of the fixing piece is a ring body, and is sleeved on the embedded portion so as to be movable up and down; The auxiliary connecting portion of each of the at least one combination piece is bent into a hook shape, and hooks the corresponding main connecting portion. The anti-falling and anti-seismic fixing assembly for a thin building material panel according to any one of claims 7 to 10, wherein the joint portion of each of the at least one joint is bent to have an upper pressing section and a lower pressing section that are parallel to each other The joint part is fitted into the corresponding transverse groove of the thin building material board, and the upper and lower pressing sections are pressed against the upper and lower inner walls of the transverse groove respectively. The anti-falling and anti-seismic fixing assembly for a thin building material panel according to any one of claims 7 to 10, wherein the fixing member comprises A lower fixing part is formed at the bottom end of the embedded part and used for fixing to the wall.

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