Fireproof assembly for shock insulation support and shock insulation support device

Abstract

The utility model provides a fire-proof component for the shock insulation support and the shock insulation support device, the fire-proof component comprises a plurality of fire-proof inner layer plates and a plurality of fire-proof outer layer plates, the fire-proof inner layer plates are one or more layers of fire-proof rock wool plates, the fire-proof outer layer plates are one or more layers of magnesium floating bead high crystal composite fire-proof plates, the fire-proof rock wool plates are long, thin and flexible in fiber, and the fire-proof outer layer plates are made of magnesium floating bead high crystal composite fire-proof plates. The magnesium floating bead high-crystal composite fireproof plate is low in slag ball content, low in heat conductivity coefficient and excellent in heat preservation and heat insulation effect, has excellent fireproof performance and good heat insulation performance, can keep good stability in a high-temperature environment, is not prone to combustion, is high in fire endurance, effectively blocks fire spreading, can effectively reduce heat transferred to the inner layer, and is good in heat preservation and heat insulation effect. Therefore, even under the condition of external high temperature, the internal temperature of the shock insulation support can be controlled at normal temperature, and the performance of the shock insulation support product is guaranteed. In addition, the fireproof assembly has the advantages of being convenient to install, low in comprehensive cost and high in cost performance due to the fact that the number of components is relatively small.

Description

TECHNICAL FIELD

[0001] The utility model relates to building shock insulation fire prevention technical field, concretely relates to a fireproof assembly for shock insulation support and shock insulation support device. BACKGROUND

[0002] With the development and popularization and application of building shock absorption technology, shock insulation support is more and more common in construction as a shock insulation means, and one of the commonly used shock insulation supports is shock insulation rubber support, which is covered with a rubber layer on the periphery and has a rubber inner layer arranged at intervals inside, because the rubber material has natural fire disadvantage, so it is usually necessary to install a fireproof structure in practical application to protect it from fire and avoid losing its function due to fire. For example, CN216740061U discloses a fire-resistant structure of shock insulation support, wherein a three-section curtain surface is formed by using composite flexible fireproof material, and the fireproof material includes silica gel fireproof cloth, aerogel felt, heat radiation resistant heat insulation cloth and ceramic fiber blanket. Although this fire-resistant structure can play a fireproof protection role on the shock insulation rubber support, it still has many shortcomings:

[0003] Firstly, it can be seen that the number of components of the fire-resistant structure is large, and the combination between the components is complicated, so the installation process is complex and the installation efficiency is low.

[0004] Secondly, the fireproof material used in the fire-resistant structure includes aerogel felt, ceramic fiber blanket and other materials, which have high cost and affect the large-scale popularization and use of the fire-resistant structure.

[0005] Thirdly, the ceramic fiber blanket and other materials are prone to deformation and weathering during transportation, and are generally transported in a whole package, which affects the installation efficiency, and the material of the ceramic fiber blanket (with glass fiber) can cause damage to the installer during cutting.

[0006] Therefore, in order to improve the installation efficiency, protect the installer and consider the need for large-scale popularization and use, it is necessary to design a new fireproof protection structure for shock insulation support. UTILITY MODEL CONTENTS

[0007] The utility model is carried out to solve the above problems, and aims to provide a fireproof assembly for shock insulation support, which is convenient and efficient to install, has no use risk to the installer, has lower cost and is suitable for large-scale popularization and use, and a whole shock insulation support device adopting the fireproof assembly, and the utility model adopts the following technical scheme:

[0008] The utility model provides a kind of fireproof assembly for seismic support, it is arranged in the seismic support device with seismic support and fixed assembly, the upper and lower ends of the seismic support are fixed by the fixed assembly, this fireproof assembly has such technical features, it includes: multiple fireproof inner layer boards, it is arranged in the outer periphery of the seismic support;Multiple fireproof outer layer boards are arranged on the outer side of the fireproof inner layer board;And outer plate fixing piece, for the fireproof outer layer board is fixed on the seismic support and / or the fixed assembly, wherein the fireproof inner layer board includes one or more fireproof rock wool boards, and the fireproof outer layer board includes one or more magnesium floating bead high-crystal composite fireproof boards.

[0009] The fireproof assembly for seismic support provided by the utility model can also have the following technical features: each of the fireproof inner layer boards is a multilayer fireproof inner layer board, composed of one or more fireproof rock wool boards stacked in sequence, and the two adjacent fireproof rock wool boards have a glued portion; each of the fireproof outer layer boards is a multilayer fireproof outer layer board, composed of one or more magnesium floating bead high-crystal composite fireproof boards stacked in sequence, and the two adjacent magnesium floating bead high-crystal composite fireproof boards have a glued portion.

[0010] The fireproof assembly for seismic support provided by the utility model can also have the following technical features: the seismic support has an upper end plate, a middle section and a lower end plate, a plurality of rectangular grooves are formed between the upper end plate and the lower end plate, the fireproof inner layer board is a double-layer fireproof inner layer board, including a first fireproof inner layer board piece and a second fireproof inner layer board piece stacked in layers, the first fireproof inner layer board piece is embedded in the rectangular groove, and the second fireproof inner layer board piece is in contact with one side of the upper end plate and one side of the lower end plate, respectively.

[0011] The fireproof assembly for seismic support provided by the utility model can also have the following technical features: the fireproof outer layer board is a double-layer fireproof outer layer board, including a first fireproof outer layer board piece and a second fireproof inner layer board piece stacked in layers, the first fireproof outer layer board piece is in abutment with the second fireproof inner layer board piece, the fixed assembly includes an upper support pier and a lower support pier, and the first fireproof outer layer board piece is also in contact with the upper end plate and the lower end plate of the seismic support or with the upper support pier and the lower support pier.

[0012] The fireproof assembly for seismic support provided by the utility model can also have the following technical features: the double-layer fireproof outer layer board includes two double-layer outer layer unit boards, each of the double-layer outer layer unit boards includes the first fireproof outer layer board piece and the second fireproof outer layer board piece stacked in layers, the width of the first fireproof outer layer board piece is smaller than the width of the second fireproof outer layer board piece, so that one end of the double-layer outer layer unit board is in a stepped shape, the stepped ends of the two double-layer outer layer unit boards are spliced towards each other, and the other end of each of the double-layer outer layer unit boards, opposite to the stepped end, has a plurality of outer plate fixing holes.

[0013] The fireproof assembly for the shock insulation support base can also have the following technical features: the thickness of each of the first fireproof inner layer plate and the second fireproof inner layer plate is 40mm to 60mm, and the thickness of each of the first fireproof outer layer plate and the second fireproof outer layer plate is 10mm to 20mm.

[0014] The fireproof assembly for the shock insulation support base can also have the following technical features: the two adjacent multilayer fireproof inner layer plates are connected by the edge-to-face splicing mode, the two adjacent multilayer fireproof outer layer plates are connected by the edge-to-face splicing mode, and the fireproof assembly for the shock insulation support base is in the form of a cylinder completely surrounding the shock insulation support base.

[0015] The fireproof assembly for the shock insulation support base can also have the following technical features: the length of the multilayer fireproof inner layer plate is the side length of the upper end plate of the shock insulation support base minus the thickness of the multilayer fireproof inner layer plate, and the length of the multilayer fireproof outer layer plate is the side length of the upper end plate of the shock insulation support base plus the thickness of the multilayer fireproof inner layer plate.

[0016] The fireproof assembly for the shock insulation support base can also have the following technical features: the fireproof assembly further comprises a fixing support for fixing the fireproof outer layer plate, wherein the shock insulation support base has an upper end plate and a lower end plate, the fixing support comprises a plurality of fixing steel plates arranged at the side edges of the upper end plate and the lower end plate respectively, each of the fixing steel plates has a mounting hole for fixing the upper end or the lower end of the fireproof outer layer plate at the side edge of the upper end plate or the lower end plate in cooperation with the outer plate fixing member.

[0017] The utility model provides a kind of shock insulation support base device, and the device has the following technical features: it comprises: shock insulation support base;And fireproof assembly, it is arranged in the outer periphery of the shock insulation support base, wherein the fireproof assembly is the fireproof assembly for the shock insulation support base described above.

[0018] The utility model has the following effects and advantages:

[0019] According to the fireproof assembly and the isolation support device, the fireproof assembly comprises a plurality of fireproof inner layer plates and a plurality of fireproof outer layer plates, wherein the fireproof inner layer plates are one or more layers of fireproof rock wool plates, and the fireproof outer layer plates are one or more layers of magnesium bead high-crystal composite fireproof plates; the fireproof rock wool plate is fine, long and flexible, has low slag ball content and low thermal conductivity, and has excellent heat preservation and insulation effect; the magnesium bead high-crystal composite fireproof plate has excellent fireproof performance and good heat insulation performance, can maintain good stability under high-temperature environment, is not easy to burn, has high fire resistance limit, effectively blocks the spread of fire, and can effectively reduce heat transfer to the inner layer, so that the temperature in the isolation support device can be controlled at room temperature even under high-temperature external conditions, and the performance of the isolation support product is ensured. BRIEF DESCRIPTION OF DRAWINGS

[0020] Figure 1 is a side view of the isolation support device in the embodiment of the utility model;

[0021] Figure 2 is a top view of the isolation support device in the embodiment of the utility model;

[0022] Figure 3 is Figure 1 an enlarged view of the inner part of the middle frame A;

[0023] Figure 4 is a structure diagram of the double-layer fireproof inner layer plate in the embodiment of the utility model;

[0024] Figure 5 is Figure 4 a sectional view of the B-B section;

[0025] Figure 6 is a structure diagram of the double-layer outer layer unit plate in the embodiment of the utility model;

[0026] Figure 7 is Figure 6 a sectional view of the C-C section;

[0027] Figure 8 is a sectional view of the fireproof assembly in the embodiment of the utility model.

[0028] REFERENCE SIGNS:

[0029] Isolation bearing device 10; Isolation bearing 11; Upper end steel plate 111; Lower end steel plate 112; Internal steel plate 113; Internal rubber layer 114; External rubber layer 115; Fixing assembly 12; Upper pier 121; Lower pier 122; End plate fixing piece 123; Isolation bearing fireproof assembly 13; Double-layer fireproof inner layer plate 132; First fireproof inner layer plate piece 1321; Second fireproof inner layer plate piece 1322; Double-layer fireproof outer layer plate 133; Double-layer outer layer unit plate 133A; First fireproof outer layer plate piece 1331; Second fireproof outer layer plate piece 1332; Outer plate fixing hole 1333; Outer plate fixing piece 134. DETAILED DESCRIPTION

[0030] In order to make the technical means, creative features, purposes and effects realized by the utility model easy to understand, the isolation bearing fireproof assembly and the isolation bearing device of the utility model are specifically described below in combination with embodiments and drawings.

[0031] In the description of the utility model, it should be pointed out that the directions or position relationships indicated by the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer" and the like are based on the directions or position relationships shown in the drawings, and are only for the convenience of describing the utility model and simplifying the description, and do not indicate or imply that the devices or elements referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as a limitation on the utility model. In addition, the terms "first", "second", "third" are only for the purpose of description, and cannot be understood as indicating or implying relative importance.

[0032] <EMBODIMENT>

[0033] Figure 1 is a side view of the isolation bearing device in this embodiment, Figure 2 is a top view of the isolation bearing device in this embodiment, Figure 1 and Figure 2 all show a partially cutaway structure.

[0034] As shown in Figure 1 and Figure 2 , the isolation bearing device 10 includes an isolation bearing 11 (isolation bearing body), a fixing assembly 12 for fixing the isolation bearing, an isolation bearing fireproof assembly 13 (hereinafter referred to as fireproof assembly 13) arranged on the periphery of the isolation bearing 11, which plays a fireproof protection role for the isolation bearing 11.

[0035] The isolation bearing 11 is a rubber isolation bearing, which comprises an upper end steel plate 111, a lower end steel plate 112, a core material (not shown in the figure), an internal steel plate 113, an internal rubber layer 114, and an external rubber layer 115. The upper end steel plate 111 and the lower end steel plate 112 are both flange plates in the shape of rectangular plates, the internal steel plate 113 and the internal rubber layer 114 are arranged in a stack with a spacing, and the external rubber layer 115 is wrapped around the outer periphery of the stacked internal steel plate 113 and the internal rubber layer 114 to form a generally cuboid-shaped middle section. The longitudinal cross-sectional dimension of the middle section is smaller than the dimension of the two flange plates, so that a recess is formed around the outer periphery of the middle section between the two flange plates. The recess can be regarded as four rectangular grooves that are connected. The middle section has a through hole in the middle, and the core material is fixed in the through hole.

[0036] The fixing assembly 12 comprises an upper pier 121, a lower pier 122, and a plurality of end plate fixing members 123. The isolation bearing 11 is installed between the upper pier 121 and the lower pier 122. The upper end steel plate 111 of the isolation bearing 11 is fixed to the upper pier 121 by the plurality of end plate fixing members 123, and the lower end steel plate 112 is fixed to the lower pier 122 by the plurality of end plate fixing members 123. The end plate fixing members 123 comprise bolts, sleeves, etc. In addition, an abutting end plate and a concrete grouting layer (not shown in the figure) are respectively arranged between the upper pier 121 and the upper end steel plate 111 and between the lower pier 122 and the lower end steel plate 112.

[0037] The structure of the isolation bearing 11 and the fixing assembly 12 is a prior art, and will not be described in detail.

[0038] The fireproof assembly 13 comprises a fixed support (not shown in the figure), a double-layer fireproof inner layer plate 132, a double-layer fireproof outer layer plate 133, and a plurality of outer plate fixing members 134.

[0039] The fixed support comprises a plurality of L-shaped fixed steel plates, which are respectively arranged at the side edges of the upper end steel plate 111 and the lower end steel plate 112 of the isolation bearing 11 to form the support framework of the fireproof inner layer plate and the fireproof outer layer plate. Each fixed steel plate extends first in the horizontal direction from the side edge of the upper end steel plate 111 or the lower end steel plate 112, and then extends in the height direction of the isolation bearing 11 towards the outside, so as to be substantially attached to the edge portion of the upper pier 121 or the lower pier 122. An installation hole is formed on the outer end portion of each fixed steel plate.

[0040] In this embodiment, the fixed steel plates are welded to the side edges of the upper end steel plate 111 and the lower end steel plate 112. Six fixed steel plates are welded to each edge portion of the upper end steel plate 111 and the lower end steel plate 112, that is, there are a total of 24 fixed steel plates for the four edge portions. The six fixed steel plates on each edge portion are arranged at equal intervals.

[0041] Figure 4 is a structural diagram of the double-layer fireproof inner layer plate in this embodiment;Figure 5 is Figure 4 a sectional view of the B-B section, Figure 4 and Figure 5 annotated with some dimensions, all in mm, as are the dimensions annotated in the other figures.

[0042] As shown in Figure 4 and Figure 5 , the double-layer fireproof inner panel 132 includes a first fireproof inner panel piece 1321 and a second fireproof inner panel piece 1322, both of which are rectangular plates and are stacked in the thickness direction, with an adhesive layer formed between them, i.e., the two fireproof inner panels are fixed with glue. In this embodiment, the glue is professional glue. The face direction of the double-layer fireproof inner panel 132 is parallel to the height direction of the seismic isolation bearing 11.

[0043] The first fireproof inner panel piece 1321 is fitted into the rectangular groove on one side of the seismic isolation bearing 11, with one side of its outer surface abutting one side of the outer rubber layer 115 of the seismic isolation bearing 11, and with its upper and lower ends abutting the lower surface of the upper end steel plate 111 and the upper surface of the lower end steel plate 112, respectively.

[0044] The width of the second fireproof inner panel piece 1322 is greater than that of the first fireproof inner panel piece 1321, and the first fireproof inner panel piece 1321 is fixed in the middle of the second fireproof inner panel piece 1322 in the width direction, so the upper and lower ends of the second fireproof inner panel piece 1322 are exposed from the two sides of the first fireproof inner panel piece 1321, and the two ends in the length direction are aligned, respectively.

[0045] In this embodiment, the thickness of the first fireproof inner panel piece 1321 is 50 mm, and the thickness of the second fireproof inner panel piece 1322 is also 50 mm, i.e., the total thickness of the double-layer fireproof inner panel 132 is about 100 mm. The width (height after installation) H3 of the second fireproof inner panel piece 1322 is approximately the total height of the seismic isolation bearing 11; the width of the first fireproof inner panel piece 1321 is approximately the distance between the upper end steel plate 111 and the lower end steel plate 112 of the seismic isolation bearing 11, i.e., the width H3 of the second fireproof inner panel piece 1322 minus the thickness t of the upper end steel plate 111 and the thickness t of the lower end steel plate 112 (H3-2t). The length B2 of the first fireproof inner panel piece 1321 and the second fireproof inner panel piece 1322 is approximately 100 mm less than the side length B of the upper end steel plate 111 and the lower end steel plate 112 (B2=B-100).

[0046] In an alternative, the first fireproof inner panel 132 and the second fireproof inner panel 133 can also be made into a single piece of the overall shape as shown in Figure 4 and Figure 5 .

[0047] In this embodiment, the first fireproof inner layer plate 1321 and the second fireproof inner layer plate 1322 are both fireproof rock wool boards. The fireproof rock wool board has a fireproof grade of B1 level, belongs to the difficult-to-burn level, has long and flexible fibers, low slag ball content, low thermal conductivity, and excellent heat insulation effect.

[0048] Figure 6 is a structure diagram of the double-layer outer layer unit plate in this embodiment; Figure 7 Figure 6 is a sectional view of the A-A section in

[0049] As shown in Figure 6 and Figure 7 , the face direction of the double-layer fireproof outer layer plate 133 is also parallel to the height direction of the seismic isolation support 11. Each double-layer fireproof outer layer plate 133 is formed by combining two double-layer outer layer unit plates 133A which are the same in structure.

[0050] Each double-layer outer layer unit plate 133A includes a first fireproof outer layer plate 1331 and a second fireproof outer layer plate 1332, which are both in the shape of a rectangular plate and are stacked in the thickness direction, and a glue joint (glue layer) is formed between the two, that is, the two fireproof outer layer plates are fixed by glue, and in this embodiment, the glue is professional glue. Among them, the width of the first fireproof outer layer plate 1331 is less than that of the second fireproof outer layer plate 1332, and the lengths of the two are basically the same. In the width direction, one end of the first fireproof outer layer plate 1331 is aligned with one end of the second fireproof outer layer plate 1332, so that the other end of the second fireproof outer layer plate 1332 is exposed from the other end of the first fireproof outer layer plate 1331, and the two ends in the length direction are aligned, that is, one end of the double-layer outer layer unit plate 133A in the width direction is in the shape of a step, and the other end (the other end in the width direction) of the double-layer outer layer unit plate 133A opposite to the stepped end has a plurality of outer plate fixing holes 1333. In use, the stepped ends of the two double-layer outer layer unit plates 133A are spliced towards each other, thereby forming a double-layer fireproof outer layer plate 133 in the shape of a rectangular plate as a whole.

[0051] In this embodiment, the thickness of the first fireproof outer layer plate 1331 is 14 mm, and the thickness of the second fireproof outer layer plate 1332 is also 14 mm, that is, the total thickness of the double-layer fireproof outer layer plate 133 is about 36 mm. The length of the first fireproof outer layer plate 1331 and the second fireproof outer layer plate 1332 is the side length of the upper end steel plate 111 plus 28 mm, the width (height after installation) H2 of the first fireproof outer layer plate 1331 is the total height H of the seismic isolation support 11 divided by 2 minus 25 mm (H2 = H / 2-25), and the width of the second fireproof outer layer plate 1332 is the width H2 of the first fireproof outer layer plate 1332 plus 50 mm. After splicing, the width of the double-layer fireproof outer layer plate 133 is the total height H of the seismic isolation support 11 plus 200 mm.​

[0052] In an alternative, the double-layer outer layer unit plate 133A can also be made into a monolithic plate with an overall shape as shown in Figure 6 and Figure 7 .

[0053] In this embodiment, each double-layer outer layer unit plate 133A has four outer plate fixing holes 1333 arranged at equal intervals along its length direction, with an interval less than or equal to 300 mm, and the distance from the outer plate fixing hole 1333 to one end of the double-layer outer layer unit plate 133A in the width direction is 50 mm. Each outer plate fixing hole 1333 is a counterbore for setting a gasket.

[0054] As shown in Figure 1 , during installation, the distance between the upper end of the double-layer fireproof outer layer plate 133 and the upper end of the shock isolation support 11 is 100 mm, and the distance between the lower end of the double-layer fireproof outer layer plate 133 and the lower end of the shock isolation support 11 is 100 mm.

[0055] In this embodiment, both the first fireproof outer layer plate member 1331 and the second fireproof outer layer plate member 1332 are magnesium-based floating bead high-crystal composite fireproof plates, which are excellent fireproof building materials. They are mainly composed of magnesium-based materials, floating beads, and glass fiber cloth. Among them, the magnesium-based material provides good fire resistance and certain strength; the floating bead is a hollow micro glass bead with the characteristics of light weight, heat insulation, and heat preservation; the glass fiber cloth serves as a reinforcing material to increase the strength and toughness of the fireproof plate. The magnesium-based floating bead high-crystal composite fireproof plate has excellent fireproof performance and can maintain good stability at high temperatures, is not easy to burn, has a high fire resistance limit, and can effectively block the spread of fire when on fire. Moreover, it also has good heat insulation performance. The hollow structure of the floating bead and the characteristics of the material itself make the magnesium-based floating bead high-crystal fireproof plate have excellent heat insulation effect, which can effectively reduce the heat transfer to the double-layer fireproof inner layer plate 132.

[0056] The magnesium-based floating bead high-crystal composite fireproof plate used in this embodiment has a fireproof grade of A1, a thickness of about 28 mm, can withstand a high temperature of 1300℃, and has a fire resistance limit of more than 3 hours.

[0057] The outer plate fixing member 134 includes a bolt, a nut and a gasket. The bolt passes through the outer plate fixing hole 1333 on the double-layer fireproof outer layer plate 133, the mounting hole on the fixing steel plate, and the gasket is embedded in each outer plate fixing hole 1333. The nut is sleeved on the bolt, so as to fix the double-layer fireproof outer layer plate 133 on the side edge of the upper end steel plate 111 and the lower end steel plate 112 of the seismic support 11. Optionally, the upper support 121 and the lower support 122 also have corresponding mounting holes, and the bolt also passes through the mounting hole thereon. After the double-layer fireproof outer layer plate 133 is fixed by the outer plate fixing member 134, the double-layer fireproof outer layer plate 133 will press the inner double-layer fireproof inner layer plate 132 on one side of the seismic support 11, that is, the inner fireproof rock wool board does not need additional fixing members.

[0058] Figure 8 is a sectional view of the fireproof assembly in the embodiment, and the overall assembly structure is shown for convenience, Figure 8 The double-layer fireproof inner layer plate and the double-layer fireproof outer layer plate are respectively shown as single plates in the figure.

[0059] As shown in Figure 8 , the adjacent two double-layer fireproof inner layer plates 132 and the adjacent two double-layer fireproof outer layer plates 133 are respectively connected by the edge-to-face splicing mode, that is, one side of one surface (one surface in the thickness direction) of each double-layer fireproof inner layer plate 132 is connected with one side end surface (one end surface in the length direction) of the adjacent double-layer fireproof inner layer plate 132, and the one side end surface (one end surface in the length direction) of the double-layer fireproof inner layer plate 132 is connected with one surface (one surface in the thickness direction) of the other adjacent double-layer fireproof inner layer plate 132. The double-layer fireproof outer layer plate 133 is also the same, and the fireproof assembly 13 formed thereby is substantially in the shape of a rectangular cylinder, which surrounds the middle section of the seismic support 11.

[0060] During installation, the double-layer fireproof inner layer plate 132 is first placed on the outer periphery of the seismic support 11, and then the double-layer fireproof outer layer plate 133 (two double-layer outer unit plates 133A) is placed outside the double-layer fireproof inner layer plate 132, and a plurality of outer plate fixing members 134 are installed to fix the double-layer fireproof outer layer plate 133, so that the installation of the fireproof assembly 13 is completed, and the installation is very convenient.

[0061] For daily inspection and maintenance of fireproofing, the main observation during daily inspection is the structure and appearance of the fireproof assembly 13, and whether the fireproof material is missing and whether the fixing bolt is loose and falls off. If the internal structure needs to be checked, the outer plate fixing member 134 (i.e. the bolt, etc.) is first removed, the double-layer fireproof outer layer plate 133 is removed, and then the double-layer fireproof inner layer plate 132 is removed from the inside. After the inspection is completed, each part is reset in sequence according to the above installation steps.

[0062] When replacing the fireproof assembly 13, the components are sequentially removed according to the above-described dismounting steps, residual materials are cleaned, and then the new fireproof assembly 13 components are sequentially installed according to the above-described mounting steps, and the outer periphery of the seismic support 11 is wrapped, and the work is completed.

[0063] The embodiment has the following effects and advantages:

[0064] According to the fireproof assembly for a seismic support and the seismic support device provided in the embodiment, the fireproof assembly includes multiple fireproof inner layer plates and multiple fireproof outer layer plates, wherein the fireproof inner layer plates are one or more layers of fireproof rock wool plates, and the fireproof outer layer plates are one or more layers of magnesium-based floating bead high-crystal composite fireproof plates. The fireproof rock wool plates have fine and flexible fibers, low slag ball content, and low thermal conductivity, and have excellent heat preservation and insulation effects. The magnesium-based floating bead high-crystal composite fireproof plates have excellent fireproof performance and good heat insulation performance, can maintain good stability at high temperatures, are not easy to burn, have a high fire resistance limit, effectively block the spread of fire, and effectively reduce the heat transfer to the inner layer, so as to ensure that the temperature inside the seismic support can be controlled at room temperature even in the case of external high temperature, thereby ensuring the performance of the seismic support product. The fireproof assembly also has the advantages of relatively fewer components, easy installation, and high cost performance.

[0065] In the embodiment, the double-layer fireproof inner layer plate is composed of two fireproof rock wool plates with different sizes, and forms a double-layer fireproof inner layer plate with stepped ends, so that the fireproof inner layer plate can be more conveniently made into the overall shape and the heat insulation effect is guaranteed. Similarly, each unit plate in the double-layer fireproof outer layer plate is composed of two magnesium-based floating bead high-crystal composite fireproof plates with different sizes, so that the unit plate can be conveniently made into the overall shape. Furthermore, the double-layer fireproof inner layer plate and the double-layer fireproof outer layer plate can be made into preformed parts, which can be directly installed during use without the need for cutting and other operations on the materials at the installation site, thereby avoiding the impact on the health of the installation personnel and protecting the installation personnel.

[0066] Further, the two fireproof rock wool plates in the double-layer fireproof inner layer plate are bonded by professional glue, and the two magnesium-based floating bead high-crystal composite fireproof plates in the double-layer fireproof outer layer plate are also bonded by professional glue, which is convenient to process and makes the plates into a whole, thereby reducing the number of components and making the installation more convenient and efficient.

[0067] Further, the double-layer fireproof outer layer plate is formed by assembling two unit plates, and the two unit plates are step-shaped and are spliced towards each other at one end, thereby guaranteeing the overall structural strength while the size of each unit plate is relatively small, which is more convenient for transportation and handling during installation, and is conducive to improving the efficiency of installation and subsequent maintenance and repair.

[0068] Further, a plurality of fixed steel plates are welded on the upper and lower flange plates of the isolation bearing to form a support framework, the double-layer outer fireproof plate is fixed on the plurality of fixed steel plates through bolts, and the corresponding double-layer inner fireproof plate is pressed through the double-layer outer fireproof plate, so that the double-layer inner fireproof plate does not need additional fixing parts, the number of components can be further reduced, and installation is more convenient.

[0069] Further, the double-layer outer fireproof plates and the double-layer inner fireproof plates are all spliced in an edge-to-face manner, so that the plurality of double-layer outer fireproof plates and the plurality of double-layer inner fireproof plates can be designed in the same size, and obvious advantages are achieved in mass production.

[0070] Further, the double-layer inner fireproof plate completely covers the outer periphery of the isolation bearing, and the double-layer outer fireproof plate not only covers the outer side of the double-layer inner fireproof plate, but also covers the upper support pier and the lower support pier, so that the isolation bearing is actually covered in the fireproof assembly and has no gap with the outside, and the fireproof and heat insulation effect is better.

[0071] The above embodiments are only used for illustrating the specific implementation mode of the utility model, and the utility model is not limited to the description range of the above embodiments, and the skilled in the art should understand that the utility model is not limited by the above embodiments, and the above embodiments and the description in the specification only illustrate the principle of the utility model, and the utility model will have various changes and improvements without departing from the spirit and scope of the utility model, and these changes and improvements all fall within the scope of the utility model claimed. The protection scope of the utility model is defined by the appended claims and equivalents thereof.

[0072] For example, in the above embodiments, the double-layer inner fireproof plate and the double-layer outer fireproof plate are used, and in an alternative solution, more layers of inner fireproof plates and outer fireproof plates can be used. In the double-layer inner fireproof plate, the thickness of each fireproof rock wool plate is 50mm, and in an alternative solution, according to the size of the isolation bearing, the thickness of each fireproof rock wool plate can also be 40mm to 60mm, and the thickness of the plurality of fireproof rock wool plates can also be different. In the double-layer outer fireproof plate, the thickness of each magnesium pearlite high-crystal composite fireproof plate is 18mm, and in an alternative solution, according to the size of the isolation bearing, the thickness of each magnesium pearlite high-crystal composite fireproof plate can also be 10mm to 20mm, and the thickness of the plurality of magnesium pearlite high-crystal composite fireproof plates can also be different.

Claims

1. A fireproofing assembly for an isolation bearing, provided in an isolation bearing device having an isolation bearing and a fixing assembly, the upper and lower ends of the isolation bearing being fixed by the fixing assembly, characterized by, The fireproof assembly for the seismic support comprises: a plurality of fireproof inner layer plates arranged outside the seismic support; a plurality of fireproof outer layer plates arranged outside the fireproof inner layer plates; and an outer plate fixing member for fixing the fireproof outer layer plates on the seismic support and / or the fixing assembly. The fireproof inner layer plates comprise one or more layers of fireproof rock wool plates. The fireproof outer layer plates comprise one or more layers of magnesium-based floating bead high-crystal composite fireproof plates.

2. The fireproof assembly for the seismic support according to claim 1, wherein: each of the fireproof inner layer plates is a multi-layer fireproof inner layer plate composed of a plurality of the fireproof rock wool plates stacked one by one, and each of the fireproof rock wool plates has a glue joint between adjacent two fireproof rock wool plates; wherein each of the fireproof outer layer plates is a multi-layer fireproof outer layer plate composed of a plurality of the magnesium-based floating bead high-crystal composite fireproof plates stacked one by one, and each of the magnesium-based floating bead high-crystal composite fireproof plates has a glue joint between adjacent two magnesium-based floating bead high-crystal composite fireproof plates.

3. The fireproof assembly for the seismic support according to claim 2, wherein: the seismic support has an upper end plate, a middle section and a lower end plate, and the lower end plate and the lower end plate form a plurality of rectangular grooves; wherein the fireproof inner layer plates are double-layer fireproof inner layer plates composed of a first fireproof inner layer plate member and a second fireproof inner layer plate member stacked one by one; the first fireproof inner layer plate member is embedded in the rectangular grooves; the second fireproof inner layer plate member is in contact with one side of the upper end plate and one side of the lower end plate, respectively.

4. The fireproof assembly for the seismic support according to claim 3, wherein: the fireproof outer layer plates are double-layer fireproof outer layer plates composed of a first fireproof outer layer plate member and a second fireproof outer layer plate member stacked one by one; wherein, the first fireproof outer layer plate member is in abutment with the second fireproof inner layer plate member; the fixing assembly comprises an upper support pier and a lower support pier; the first fireproof outer layer plate member is also in contact with the upper end plate and the lower end plate of the seismic support or with the upper support pier and the lower support pier.

5. The fireproof assembly for the seismic support according to claim 4, wherein: the double-layer fireproof outer layer plates comprise two double-layer outer layer unit plates; wherein, each of the double-layer outer layer unit plates comprises the first fireproof outer layer plate member and the second fireproof outer layer plate member stacked one by one; the width of the first fireproof outer layer plate member is smaller than the width of the second fireproof outer layer plate member, so that one end of the double-layer outer layer unit plate is stepped; the stepped ends of the two double-layer outer layer unit plates are spliced towards each other; each of the double-layer outer layer unit plates has a plurality of outer plate fixing holes at the other end opposite to the stepped end.

6. The fireproof assembly for the seismic support according to claim 4, wherein: the thickness of each of the first fireproof inner layer plate member and the second fireproof inner layer plate member is 40mm-60mm; wherein the thickness of each of the first fireproof outer layer plate member and the second fireproof outer layer plate member is 10mm-20mm.

7. The fireproof assembly for the seismic support according to claim 2, wherein: adjacent two of the multi-layer fireproof inner layer plates are spliced in a side-to-side manner; wherein, adjacent two of the multi-layer fireproof outer layer plates are spliced in a side-to-side manner; the fireproof assembly for the seismic support is in a cylindrical shape completely surrounding the seismic support. ​ 8.The fireproof assembly for isolating seat according to claim 7, characterized in that: wherein the length of the multi-layer fireproof inner layer board is the side length of the upper end plate of the isolating seat minus the thickness of the multi-layer fireproof inner layer board, the length of the multi-layer fireproof outer layer board is the side length of the upper end plate of the isolating seat plus the thickness of the multi-layer fireproof inner layer board.

9. The fireproof assembly for seismic bearing according to claim 1, wherein further comprising: a fixing support for fixing the fireproof outer layer board, wherein the isolating seat has an upper end plate and a lower end plate, the fixing support comprises a plurality of fixing steel plates respectively arranged at the side edges of the upper end plate and the lower end plate, each of the fixing steel plates has a mounting hole for cooperating with the outer plate fixing member to fix the upper end or the lower end of the fireproof outer layer board at the side edge of the upper end plate or the lower end plate.

10. An isolation bearing device, characterized by, comprising: an isolating seat; and a fireproof assembly arranged at the outer periphery of the isolating seat, wherein the fireproof assembly is the fireproof assembly for isolating seat according to any one of claims 1-9.

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