Enhanced glass magnesium fireproof plate for integrated house

Abstract

The invention relates to the technical field of glass magnesium boards, and discloses an enhanced glass magnesium fireproof board for an integrated house, the enhanced glass magnesium fireproof board comprises a first glass magnesium board, a second glass magnesium board and a frame assembly, two splicing mechanisms are arranged on the close sides of the first glass magnesium board and the second glass magnesium board, and each splicing mechanism comprises two storage grooves; the two storage grooves are formed in the close sides of the first magnesium oxide board and the second magnesium oxide board correspondingly, movable plates are slidably connected to the inner sides of the left and right storage grooves correspondingly, a V-shaped clamping block is fixedly connected to one side of the left movable plate, and a V-shaped groove is formed in one side of the right movable plate. The magnesium oxide board is connected with the frame assembly through the splicing mechanism and the assembling mechanism, and the splicing mode is matched with the high-strength characteristic of a reinforced fiber layer in the board, so that the tensile resistance and the shear resistance of the whole structure are remarkably improved; and the assembly mode is cooperated with the nano-composite gel system of the core layer and the functional filler layer, so that the board is endowed with excellent fireproof and thermal insulation properties, and the stability in a complex environment is effectively guaranteed.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of glass magnesium plate, in particular to an enhanced glass magnesium fireproof plate for integrated house. BACKGROUND

[0002] Under the background of rapid development of building industrialization, integrated house is widely used in temporary buildings, post-disaster reconstruction, high-end residences and other fields due to its modular assembly, short construction period and reusability. As the core enclosure material of integrated house, fireproof glass magnesium plate has become the market mainstream choice due to its non-combustibility and low cost. However, with the improvement of building safety standards and the diversification of application scenarios, the limitations of traditional fireproof glass magnesium plate in performance and structural design are increasingly highlighted.

[0003] At present, the fireproof glass magnesium plate on the market mainly uses magnesium oxide-magnesium chloride-water ternary system as the cementing material, and is reinforced with glass fiber mesh cloth. The surface is treated by simple coating. In terms of structural design, the plate splicing mainly uses glue bonding or metal connecting piece fixing, and the assembly method relies on bolts or welding, which leads to low construction efficiency and loose connection parts. In terms of materials, ordinary glass magnesium plate has problems such as halogen return efflorescence, poor water resistance and obvious strength decay at high temperature; the surface coating has poor adhesion, and it is difficult to resist environmental erosion such as ultraviolet rays, acid and alkali corrosion for a long time.

[0004] In actual application scenarios, these problems seriously restrict the safety and service life of integrated house. For example, in the humid south or humid environment such as kitchen and bathroom, the traditional glass magnesium plate will cause strength decline, deformation and mildew due to water absorption; in densely populated buildings such as hospitals and schools, the fireproof performance of ordinary plate can only meet the basic fire safety standards, and it is difficult to form effective barrier in fire; and under the demand of rapid installation of prefabricated buildings, the complex assembly structure leads to low construction efficiency and increases labor cost. Therefore, the present application provides an enhanced glass magnesium fireproof plate for integrated house to solve the problems in the prior art. SUMMARY

[0005] In view of the deficiencies of the prior art, the present application provides an enhanced glass magnesium fireproof plate for integrated house, which solves the problems mentioned in the background art.

[0006] To achieve the above objectives, the present invention is implemented through the following technical solutions: an enhanced glass magnesium fireproof board for integrated houses, comprising a glass magnesium board 1, a glass magnesium board 2 and a frame assembly, two sets of splicing mechanisms are provided on the adjacent sides of the glass magnesium board 1 and the glass magnesium board 2, the splicing mechanism includes two receiving grooves, the two receiving grooves are respectively opened on the adjacent sides of the glass magnesium board 1 and the glass magnesium board 2, the inner sides of the two receiving grooves on the left and right sides are slidably connected with movable plates, one side of the movable plate on the left is fixedly connected with a V-shaped block, and one side of the movable plate on the right is opened with a V-shaped groove, the outer side of the V-shaped block is engaged with the inner side of the V-shaped groove, the inner side of the receiving groove is fixedly connected with two springs 1, and one end of the two springs 1 is fixedly connected to the outer side of the movable plate.

[0007] Preferably, two fixing blocks are fixedly connected to the outer side of the glass magnesium board 1, and an insertion rod is fixedly connected to the outer side of the fixing block. A slot is provided on the inner side of the right receiving groove, and the outer side of the insertion rod is engaged with the inside of the slot.

[0008] Preferably, sealing grooves are provided on the outer sides of the first and second glass magnesium boards, and sealing strips are provided on the inner sides of the two sealing grooves.

[0009] Preferably, the frame assembly includes two transverse keels, four vertical keels are fixedly connected to the inner sides of the two transverse keels, two outer frame keels are arranged on the outer sides of the four vertical keels, and two outer frame keels are arranged on the inner sides of the four vertical keels.

[0010] Preferably, two assembly mechanisms are provided on the outer side of the outer frame keel, and the assembly mechanism includes a mounting block, the outer side of the mounting block is fixedly connected to the outer side of the outer frame keel, and two combination grooves are provided on the outer side of the glass magnesium board 1 and the glass magnesium board 2, and the outer side of the mounting block is engaged with the inner side of the combination groove.

[0011] Preferably, two cavities are provided on the inner side of the mounting block, an inclined surface block is slidably connected to the inner side of the cavity, two clamping grooves are provided on the inner side of the combination groove, and the outer side of the inclined surface block is clamped in the inner side of the clamping groove.

[0012] Preferably, a second spring is fixedly connected to the inner wall of the cavity, and one end of the second spring is fixedly connected to the outer side of the ramp block.

[0013] Preferably, a composite layer structure is provided inside the first and second glass magnesium boards, and the composite layer structure includes a core layer, one side of the core layer is bonded to the outer side of the frame assembly, the other side of the core layer is provided with a reinforcing fiber layer, one side of the reinforcing fiber layer is provided with a filler layer, one side of the filler layer is provided with a transition layer, one side of the transition layer is provided with a waterproof membrane, one side of the waterproof membrane is provided with a fireproof expansion layer, and one side of the fireproof expansion layer is provided with a protective layer.

[0014] Preferably, the core layer is composed of nano-magnesium hydroxide, silica sol and modified magnesium chloride materials, the reinforcing fiber layer is composed of basalt fiber mesh cloth, aramid short fibers and bamboo fiber materials, and the filler layer is composed of aerogel particles, expanded perlite and surface-modified graphene powder materials.

[0015] Preferably, the transition layer is a silane coupling agent material, the waterproof membrane is a nano-titanium dioxide modified silicone acrylic emulsion material, the fireproof expansion layer is composed of ammonium polyphosphate, pentaerythritol and melamine materials, and the protective layer is composed of graphene modified acrylic resin and nano-zinc oxide antibacterial powder material.

[0016] The present invention provides an enhanced glass magnesium fireproof board for integrated housing.

[0017] Beneficial effects:

[0018] 1. The glass magnesium board of the present invention is connected to the frame assembly through a splicing mechanism and an assembly mechanism. The splicing method is combined with the high strength characteristics of the reinforced fiber layer inside the board to significantly improve the tensile and shear resistance of the overall structure; the assembly method is coordinated with the nano-composite gelling system of the core layer and the functional filler layer to ensure the convenience of installation while giving the board excellent fire resistance and thermal insulation properties, effectively ensuring stability in complex environments.

[0019] 2. The glass magnesium board of this invention utilizes a composite layer structure design, with each material layer clearly divided and working in synergy. The core layer and fireproof expansion layer jointly enhance fire resistance; the waterproof membrane and protective layer provide waterproof, self-cleaning, and antibacterial functions; and the transition layer ensures a tight connection between the layers. Ultimately, the board integrates fire resistance, thermal insulation, antibacterial, self-cleaning, and antistatic properties. It is asbestos-free, low in chlorine, and recyclable, meeting the needs of high-end applications and extending its service life. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a front perspective view of the present invention;

[0021] Figure 2 It is a rear perspective view of the present invention;

[0022] Figure 3 It is a partial disassembly schematic diagram of the present invention;

[0023] Figure 4 It is a structural schematic diagram of the sealing groove of the present invention;

[0024] Figure 5 It is a structural schematic diagram of the splicing mechanism of the present invention;

[0025] Figure 6 It is a structural schematic diagram of the V-shaped groove of the present invention;

[0026] Figure 7 It is a schematic diagram of the splicing state of the present invention;

[0027] Figure 8 for Figure 7 Enlarged view of point A in the middle;

[0028] Figure 9 It is a structural schematic diagram of the assembly mechanism of the present invention;

[0029] Figure 10 It is a structural schematic diagram of the composite layer structure of the present invention.

[0030] Among them, 1. Glass magnesium board one; 2. Glass magnesium board two; 3. Splicing mechanism; 301. Storage slot; 302. Movable plate; 303. V-shaped card block; 304. V-shaped groove; 305. Spring one; 306. Slot; 307. Fixed block; 308. Insert rod; 309. Sealing groove; 310. Sealing strip; 4. Assembly mechanism; 401. Mounting block; 402. Cavity; 403. Inclined block; 404. Spring two; 405. Combination slot; 406. Card slot; 5. Frame assembly; 501. Horizontal keel; 502. Outer frame keel; 503. Vertical keel; 504. Transverse keel; 6. Composite layer mechanism; 601. Core layer; 602. Reinforced fiber layer; 603. Filling layer; 604. Transition layer; 605. Waterproof membrane; 606. Fireproof expansion layer; 607. Protective layer. DETAILED DESCRIPTION

[0031] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the drawings in the present specification. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0032] Please see the attached Figure 1 -Attached Figure 10An embodiment of the present invention provides an enhanced glass magnesium fireproof board for integrated housing, comprising glass magnesium board 1, glass magnesium board 2, and a frame assembly 5. Two sets of splicing mechanisms 3 are provided on adjacent sides of glass magnesium board 1 and glass magnesium board 2, respectively, with their design taking into full consideration material properties and installation requirements. The splicing mechanisms 3 include two receiving slots 301, one located on adjacent sides of glass magnesium board 1 and glass magnesium board 2, respectively. A movable plate 302 is slidably connected to the inner sides of each of the left and right receiving slots 301. A V-shaped block 303 is fixedly connected to one side of the left movable plate 302, while a V-shaped groove 304 is provided on one side of the right movable plate 302. The outer side of the V-shaped block 303 engages with the inner side of the V-shaped groove 304. Two springs 1 305 are fixedly connected to the inner side of the receiving slots 301, one end of each spring 1 305 being fixedly connected to the outer side of the movable plate 302. Two fixing blocks 307 are fixedly connected to the outside of the glass magnesium board 1. The outside of the fixing block 307 is fixedly connected to the outside of the fixing block 307. A slot 306 is provided on the inside of the right storage slot 301. The outside of the inserting rod 308 is engaged with the inside of the slot 306. This splicing method, combined with the high strength characteristics of the basalt fiber mesh cloth (upper layer) and aramid short-cut fibers in the internal reinforcing fiber layer 602 of the glass magnesium board, significantly improves the tensile and shear resistance of the overall structure after splicing. The temperature resistance of the basalt fiber mesh cloth is increased from 600°C to 1000°C, and the tensile strength is increased to 1200N / mm. The "micro-spring" structure formed by the aramid short-cut fibers increases the impact resistance by 60%, and the plate destruction work is increased from 8J to 13J, effectively ensuring the stability of the spliced ​​parts in complex environments.

[0033] Both glass magnesium board 1 and glass magnesium board 2 are provided with sealing grooves 309 on their exteriors. Sealing strips 310 are installed inside these grooves, further enhancing waterproofing. This sealing design works synergistically with the nano-titanium dioxide-modified silicone-acrylic emulsion material of the underlying waterproof membrane 605. Once formed, the silicone-acrylic emulsion achieves a water contact angle of ≥110°, increasing water resistance by three times. The nano-titanium dioxide creates a photocatalytic effect under ultraviolet light, decomposing organic pollutants on the surface and achieving self-cleaning functionality, fully protecting the internal structure of the board.

[0034] The frame assembly 5 comprises two horizontal keels 501, with four vertical keels 503 fixedly connected to their inner sides. Two outer frame keels 502 are located outside the four vertical keels 503, and two outer frame keels 502 are also located inside the four vertical keels 503. Two assembly mechanisms 4 are located outside the outer frame keels 502. These assembly mechanisms 4 comprise mounting blocks 401, the outer sides of which are fixedly connected to the outer sides of the outer frame keels 502. Both the glass magnesium board 1 and the glass magnesium board 2 have two assembly slots 405 on their outer sides, with the outer sides of the mounting blocks 401 engaging with the inner sides of the assembly slots 405. Two cavities 402 are provided on the inner side of the mounting block 401, and a ramp block 403 is slidably connected to the inner side of the cavity 402. Two clamping grooves 406 are provided on the inner side of the combination groove 405, and the outer side of the ramp block 403 is clamped in the inner side of the clamping groove 406. A spring 2 404 is fixedly connected to the inner wall of the cavity 402, and one end of the spring 2 404 is fixedly connected to the outer side of the ramp block 403. This assembly method works in conjunction with the nanocomposite gelling system of the core layer 601 and the functional filler layer 603. The core layer 601 uses a material combination of nano-magnesium hydroxide + silica sol + modified magnesium chloride. Nano-magnesium hydroxide decomposes and absorbs heat during combustion, releasing crystalline water to dilute oxygen, and simultaneously generates a magnesium oxide ceramic layer to block heat transfer. The thermal conductivity of the aerogel particles in the functional filler layer 603 is as low as 0.013W / (m·K), which reduces the thermal conductivity of the board from 0.25W / (m·K) to 0.12W / (m·K), improving the thermal insulation performance by 50%. While ensuring installation convenience, it gives the board excellent fire resistance and thermal insulation properties.

[0035] Both glass magnesium board 1 and glass magnesium board 2 are internally provided with a composite layer structure 6, which includes a core layer 601. One side of core layer 601 is bonded to the outer side of frame assembly 5. The other side of core layer 601 is provided with a reinforcing fiber layer 602. A filler layer 603 is provided on one side of reinforcing fiber layer 602. A transition layer 604 is provided on one side of filler layer 603. A waterproof membrane 605 is provided on one side of transition layer 604. A fireproof expansion layer 606 is provided on one side of waterproof membrane 605. A protective layer 607 is provided on one side of fireproof expansion layer 606. Core layer 601 is composed of nano-magnesium hydroxide, silica sol, and modified magnesium chloride. The silica sol modification introduces a silicon-oxygen bond (-Si-O-Si-) network structure, which forms an interpenetrating network with magnesium gel. This reduces the water absorption of the board, solves the problem of halogen back frosting in traditional glass magnesium boards, and improves high-temperature strength. The reinforcing fiber layer 602 is composed of basalt fiber mesh, aramid short fibers and bamboo fiber materials. The bamboo fiber (bottom layer) uses its natural antibacterial properties (inhibition rate of E. coli ≥ 90%) and low density (density 0.6g / cm 3), reducing the weight of the board and improving the moisture and mildew resistance of the contact layer between the substrate and the ground. The filler layer 603 is composed of aerogel particles, expanded perlite and surface-modified graphene powder materials. The surface-modified graphene is modified with a coupling agent and evenly dispersed in the gel system to form a conductive and thermal conductive network, which improves the conductive performance by 10 times (volume resistivity ≤10 6 Ω·cm), dissipating static electricity to prevent dust absorption while enhancing the overall stiffness of the panel (increasing the elastic modulus by 25%). Transition layer 604 is a silane coupling agent material containing methoxy (-OCH3) and epoxy (-CH(CH2)O) groups. The methoxy groups condense with the hydroxyl (-OH) groups on the substrate surface to form covalent bonds, while the epoxy groups react with the coating resin, increasing the coating's adhesion from the current level 0 (cross-hatch method) to level 5B (ISO2409 standard), ensuring a tight bond between the layers. Waterproof membrane 605 is a nano-titanium dioxide-modified silicone acrylic emulsion material, offering both waterproofing and self-cleaning properties. Fireproof expansion layer 606 is composed of ammonium polyphosphate, pentaerythritol, and melamine. When exposed to fire (≥250°C), ammonium polyphosphate decomposes to produce phosphoric acid and ammonia. The phosphoric acid dehydrates the pentaerythritol into char, and the melamine foams to form a fluffy charcoal layer (expansion ratio 50-80 times). The charcoal layer has a thermal conductivity of ≤0.2W / (m·K), effectively blocking heat transfer to the substrate and keeping the temperature of the non-fired surface of the board ≤180°C within 120 minutes. Protective layer 607 is composed of graphene-modified acrylic resin and nano-zinc oxide antibacterial powder. Graphene oxide flakes (aspect-to-thickness ratio ≥1000) are evenly distributed throughout the coating, forming a UV shield and increasing the coating's aging resistance from 500 hours to 1500 hours. The nano-zinc oxide powder (particle size 50nm) releases zinc ions upon contact with bacteria, disrupting cell membranes and achieving an antibacterial rate of ≥99% (against Staphylococcus aureus), making it suitable for clean environments such as hospitals and food processing plants.

[0036] Specifically, first, two cross keels 501 are installed on the indoor ceiling and floor with expansion bolts, four vertical keels 503 are installed on the inner side of two outer frame keels 502, and four vertical keels 503 are installed between two cross keels 501. Then, glass magnesium plate one 1 and glass magnesium plate two 2 are installed on the outside of the frame assembly 5. First, the outer sides of the glass magnesium plate one 1 and the glass magnesium plate two 2 are attached, and the glass magnesium plate one 1 is slightly higher than the glass magnesium plate two 2. At this time, the fixed block 307 will extrude the movable plate 302 in the glass magnesium plate two 2 to retract, and then the glass magnesium plate one 1 and the glass magnesium plate two 2 will be in the same plane. At this time, the plug rod 308 will be clamped into the plug slot 306, and the V-shaped clamping block 303 will be clamped into the V-shaped slot 304. In this way, the glass magnesium plate one 1 and the glass magnesium plate two 2 are spliced. In this process, the nano magnesium hydroxide in the board interior core layer 601 and the ammonium polyphosphate, pentaerythritol, and melamine materials in the fireproof expansion layer 606 synergistically play a fireproof role, forming a multi-layer fireproof barrier from the inside of the board to the surface, with a fire resistance limit of 4.5 hours, meeting the fireproof partition requirements of super high-rise buildings.

[0037] Next, the combined slot 405 on the outside of the glass magnesium plate one 1 and the glass magnesium plate two 2 is aligned and pushed into the mounting block 401. The inclined surface of the inclined block 403 will be extruded and retracted into the cavity 402, and then will quickly reset under the elastic force of the spring two 404. The two inclined blocks 403 will be clamped into the two clamping slots 406. Finally, the sealing strip 310 is attached to the outside of the two sealing slots 309, completing the assembly of the glass magnesium plate one 1 and the glass magnesium plate two 2. This assembly method is more integral and stable than the traditional adhesive assembly method. And because the materials used in the glass magnesium plate one 1 and the glass magnesium plate two 2 are modified by silica sol and coated with graphene, the service life of the board in an acid rain (pH = 3) and high humidity (RH = 95%) environment is extended from 10 years to more than 25 years. At the same time, the board integrates fireproofing, insulation, antibacterial, self-cleaning, and anti-static functions, is asbestos-free, low-chlorine (Cl- content ≤0.1%), recyclable (waste boards can be crushed to produce cementitious materials), meets LEED certification requirements, and is suitable for high-end scenarios such as hospitals, data centers, and prefabricated buildings.

[0038] Working principle: First, two horizontal keels 501 are installed on the indoor ceiling and floor respectively with expansion bolts, four vertical keels 503 are installed on the inner side of the two outer frame keels 502, and the four vertical keels 503 are installed between the two horizontal keels 501. Finally, two cross keels 504 are inserted into the interior of the two vertical keels 503, and then the glass magnesium board 1 and the glass magnesium board 2 are installed on the outer side of the frame assembly 5. First, fit the outer side of the glass magnesium board 1 and the glass magnesium board 2. And make the glass magnesium board 1 slightly higher than the glass magnesium board 2. At this time, the fixed block 307 will squeeze the movable plate 302 in the glass magnesium board 2 to retract, and then make the glass magnesium board 1 and the glass magnesium board 2 flush. At this time, the insertion rod 308 will be snapped into the inside of the slot 306, and the V-shaped block 303 will be snapped into the inside of the V-shaped groove 304. In this way, the glass magnesium board 1 and the glass magnesium board 2 are spliced. Then align the combination groove 405 on the outside of the glass magnesium board 1 and the glass magnesium board 2 to install When the block 401 is pushed in, the inclined surface of the inclined surface block 403 is squeezed and shrinks into the inside of the cavity 402, and then it is quickly reset under the elastic force of the spring 2 404, and the two inclined surface blocks 403 are engaged in the inside of the two card grooves 406. Finally, the sealing strip 310 is attached to the outside of the two sealing grooves 309 to complete the assembly of the glass magnesium board 1 and the glass magnesium board 2. Compared with the traditional adhesion assembly method, the integrity is stronger and the stability is better. In addition, the materials of the glass magnesium board 1 and the glass magnesium board 2 are improved to 4.5 hours through the synergy of nano-magnesium hydroxide and intumescent coating, which meets the fire zoning requirements of super high-rise buildings. The silica sol modified substrate plus graphene coating extends the service life of the board from 10 years to more than 25 years in acid rain and high humidity environments. It integrates fire prevention, heat preservation, antibacterial, self-cleaning and anti-static, and is suitable for high-end scenes such as hospitals, data centers, and prefabricated buildings. It is asbestos-free, low-chlorine, recyclable, and meets LEED certification requirements.

[0039] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. An enhanced glass magnesium fireproof board for integrated housing, comprising a glass magnesium board 1 (1), a glass magnesium board 2 (2) and a frame assembly (5), characterized in that: Two groups of splicing mechanisms (3) are provided on the adjacent sides of the glass magnesium board 1 (1) and the glass magnesium board 2 (2), and the splicing mechanisms (3) include two receiving grooves (301), which are respectively opened on the adjacent sides of the glass magnesium board 1 (1) and the glass magnesium board 2 (2). The inner sides of the two receiving grooves (301) on the left and right sides are both slidably connected with movable plates (302), one side of the movable plate (302) on the left side is fixedly connected with a V-shaped block (303), and one side of the movable plate (302) on the right side is opened with a V-shaped groove (304), the outer side of the V-shaped block (303) is engaged with the inner side of the V-shaped groove (304), and the inner side of the receiving groove (301) is fixedly connected with two springs (305), and one end of the two springs (305) is fixedly connected to the outer side of the movable plate (302).

2. The reinforced glass magnesium fireproof board for integrated housing according to claim 1, characterized in that: The outer side of the glass magnesium plate (1) is fixedly connected to two fixing blocks (307), the outer side of the fixing blocks (307) is fixedly connected to an insertion rod (308), the inner side of the right side receiving groove (301) is provided with a slot (306), and the outer side of the insertion rod (308) is engaged with the inside of the slot (306).

3. The reinforced glass magnesium fireproof board for integrated housing according to claim 2, characterized in that: The outer sides of the first glass magnesium board (1) and the second glass magnesium board (2) are both provided with sealing grooves (309), and the inner sides of the two sealing grooves (309) are provided with sealing strips (310).

4. The reinforced glass magnesium fireproof board for integrated housing according to claim 1, characterized in that: The frame assembly (5) comprises two transverse keels (501), four vertical keels (503) are fixedly connected to the inner sides of the two transverse keels (501), two outer frame keels (502) are arranged on the outer sides of the four vertical keels (503), and two outer frame keels (502) are arranged on the inner sides of the four vertical keels (503).

5. The reinforced glass magnesium fireproof board for integrated housing according to claim 4, characterized in that: Two assembly mechanisms (4) are provided on the outer side of the outer frame keel (502), and the assembly mechanism (4) includes a mounting block (401), the outer side of the mounting block (401) is fixedly connected to the outer side of the outer frame keel (502), and two combination grooves (405) are provided on the outer side of each of the glass magnesium board (1) and the glass magnesium board (2), and the outer side of the mounting block (401) is engaged with the inner side of the combination groove (405).

6. The reinforced glass magnesium fireproof board for integrated housing according to claim 5, characterized in that: Two cavities (402) are provided on the inner side of the mounting block (401), and a slope block (403) is slidably connected to the inner side of the cavity (402). Two clamping grooves (406) are provided on the inner side of the combination slot (405), and the outer side of the slope block (403) is clamped in the inner side of the clamping groove (406).

7. The reinforced glass magnesium fireproof board for integrated housing according to claim 6, characterized in that: A second spring (404) is fixedly connected to the inner wall of the cavity (402), and one end of the second spring (404) is fixedly connected to the outer side of the inclined surface block (403).

8. The reinforced glass magnesium fireproof board for integrated housing according to claim 1, characterized in that: A composite layer structure (6) is provided inside the first glass magnesium board (1) and the second glass magnesium board (2), and the composite layer structure (6) includes a core layer (601), one side of the core layer (601) is in contact with the outer side of the frame assembly (5), the other side of the core layer (601) is provided with a reinforcing fiber layer (602), one side of the reinforcing fiber layer (602) is provided with a filler layer (603), one side of the filler layer (603) is provided with a transition layer (604), one side of the transition layer (604) is provided with a waterproof membrane (605), one side of the waterproof membrane (605) is provided with a fireproof expansion layer (606), and one side of the fireproof expansion layer (606) is provided with a protective layer (607).

9. The reinforced glass magnesium fireproof board for integrated housing according to claim 8, characterized in that: The core layer (601) is composed of nano-magnesium hydroxide, silica sol and modified magnesium chloride materials, the reinforcing fiber layer (602) is composed of basalt fiber mesh cloth, aramid short fibers and bamboo fiber materials, and the filler layer (603) is composed of aerogel particles, expanded perlite and surface-modified graphene powder materials.

10. The reinforced glass magnesium fireproof board for integrated housing according to claim 8, characterized in that: The transition layer (604) is made of a silane coupling agent material, the waterproof membrane (605) is made of a nano-titanium dioxide modified silicone acrylic emulsion material, the fireproof expansion layer (606) is made of ammonium polyphosphate, pentaerythritol and melamine materials, and the protective layer (607) is made of a graphene-modified acrylic resin and nano-zinc oxide antibacterial powder material.

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