A thermal insulation wall with flame retardant function

Abstract

The present invention discloses an insulation wall with flame retardant function, comprising a structural wall, insulation wall panels, a thermal trigger assembly and a connection assembly; the insulation wall panels are fixed to the structural wall via the connection assembly, and the thermal trigger assembly controls the connection assembly. When the ambient temperature exceeds a set value, the thermal trigger assembly determines that a fire has occurred on site, and the thermal trigger assembly triggers the connection assembly to separate the insulation wall panels from the structural wall. The insulation wall panels themselves are made of flame retardant materials and can resist fire for a certain period of time. In addition, compared to traditional fixed insulation walls, since the insulation wall panels of the present invention are separated from the structural wall, the influence of the fire on the structural wall is reduced during the period when the insulation wall panels resist fire and eventually fail to burn, so that the entire insulation wall of the present invention can resist fire for a much longer time and has a better flame retardant effect.

Description

Technical Field

[0001] The present invention relates to the field of construction, in particular to a thermal insulation wall with a flame retardant function. Background Art

[0002] An insulation wall is a type of wall that has a stronger ability to insulate heat transfer than ordinary walls. It is often used in cold areas and some occasions that require special insulation. In the prior art, the basic structure of an insulation wall is to install an insulation layer on the structural wall. Sometimes, other additional materials such as a reinforcement layer and a decorative layer are also configured as needed. When facing fire protection design requirements, the insulation walls in the prior art are all based on the material perspective. Flame-retardant materials are selected as much as possible to make the insulation layer, so that the entire insulation wall has a certain flame retardant ability. However, the flame retardant ability of flame retardant materials has an upper limit. When facing a fire, the insulation layer in the prior art can only withstand it for a certain period of time, and its safety performance is limited. Summary of the Invention

[0003] The technical problem to be solved by the present invention is that the thermal insulation wall of the prior art only relies on flame retardant materials to achieve fire protection function, and the flame retardant performance is limited.

[0004] In order to solve the above technical problems, the technical solution adopted by the present invention is: an insulation wall with flame retardant function, including a structural wall, an insulation wall panel, a heat-sensitive trigger component and a connection component.

[0005] The thermal insulation wall panel is fixed to the structural wall through a connecting component, and the thermal trigger component controls the connecting component. When the ambient temperature exceeds the set value, the thermal trigger component determines that a fire has occurred at the scene, and the thermal trigger component triggers the connecting component to separate the thermal insulation wall panel from the structural wall.

[0006] The thermal insulation wall panels themselves are made of flame-retardant materials and can resist fire for a certain period of time. In addition, compared with traditional fixed thermal insulation walls, since the thermal insulation wall panels of the present invention are separated from the structural walls, the impact of the fire on the structural walls is reduced during the period when the thermal insulation wall panels resist fire and eventually fail to burn, so that the entire thermal insulation wall of the present invention can resist fire for a greatly extended time and has a better flame retardant effect.

[0007] Specifically, the connecting assembly includes a base, an outer tube, a bolt, a first spring, a lock tongue plate and a plate pulling mechanism. The bolt fixes the base to the structural wall, the outer tube is sleeved on the base, and an opening is provided on the outer tube to facilitate the entry of tools into the outer tube to rotate the bolt; the first spring is compressed between the outer tube and the base, and the lock tongue plate is radially inserted into the outer tube so that the outer tube is stuck on the base, ensuring that the first spring is in a compressed and force-accumulating state; the outer tube is connected to the insulation wall panel; the plate pulling mechanism is used to pull out the lock tongue plate, and the plate pulling mechanism is controlled by a thermal trigger assembly.

[0008] When the heat-sensitive trigger component detects a fire, the plate-pulling mechanism pulls out the lock plate, and the first spring with stored force will pop out of the outer tube, and the insulation wall panel connected to the outer tube will also pop out. In the early stage of the fire, the insulation wall panel is immediately separated from the structural wall, delaying the time when the fire source contacts the structural wall, thereby achieving the purpose of flame retardancy.

[0009] Specifically, the plate pulling mechanism includes a turntable, a force-storage torsion spring and a bayonet. The turntable is concentric with the outer cylinder, the force-storage torsion spring is sleeved on the outer cylinder and connected to the turntable, and the force-storage torsion spring is used to drive the turntable to rotate. After the force is stored and twisted, the bayonet is inserted from the outer ring edge plate on the surface of the outer cylinder and clamps the turntable. The bayonet is controlled by a thermal trigger component; a circular shaft is provided on the surface of the turntable, and an inclined groove is provided on the lock tongue plate, and the circular shaft is inserted into the inclined groove; a movable groove along the radial direction of the outer cylinder is provided in the insulation wall panel, and the lock tongue plate is in the movable groove.

[0010] When the thermal trigger assembly detects a fire, the thermal trigger assembly pulls out the latch pin, and the force-storage torsion spring drives the turntable to rotate. The turntable uses the circular shaft and the inclined groove to drive the lock bolt plate to translate in the moving groove, thereby realizing the pulling-out action of the lock bolt plate.

[0011] Furthermore, a connecting rope is provided in the outer tube, and the two ends of the connecting rope are respectively connected to the outer tube and the base; the function of the connecting rope is: after a fire occurs, the outer tube and the insulation wall panel are ejected, but the insulation wall panel will still be hung on the structural wall by the connecting rope of appropriate length. On the one hand, it is beneficial for the insulation wall panel to shield the structural wall from the fire source, and on the other hand, it can also prevent the insulation wall panel from directly falling and injuring people who are escaping.

[0012] Furthermore, the thermal trigger assembly includes a thermal trigger and a pull rope assembly, and the thermal trigger includes a sliding plate, a second spring and a thermal tube. The sliding plate is L-shaped and there are two of them. The sliding plate is provided with a sliding rail and a sliding groove. The sliding grooves of the two sliding plates are respectively inserted into each other's sliding rails. The thermal tube and the second spring are both located between the two sliding plates. The second spring is in an elongated state, and the thermal tube is supported between the two sliding plates; the sliding plate is connected to the bayonet through the pull rope assembly.

[0013] Thermistors are widely used in fire protection applications and consist of a glass casing and a thermosensitive liquid enclosed within it. When a fire occurs, the ambient temperature rises, causing the thermosensitive liquid to expand and break the glass casing, shattering the entire thermistor. Without the support of the thermistor, the two sliding plates, under the action of a second spring, translate towards each other, pulling the pull cord assembly during the translation process.

[0014] Furthermore, there are multiple thermal triggers; the pull rope assembly includes a first pull rope, a second pull rope and a pull rod, one end of the pull rod is provided with a through hole and the other end is connected to the second pull rope, and the second pull rope is connected to the pin; the first pull rope passes through the through hole, and the two ends of the first pull rope are respectively connected to the sliding plates of two adjacent thermal triggers.

[0015] When a fire occurs, the thermistor is broken, and the sliding plate moves horizontally to first pull the first pull rope, and then the first pull rope drives the pull rod and the second pull rope to move horizontally, and the second pull rope pulls out the pin.

[0016] Specifically, the thermal insulation wall panel is a multi-layer structure, generally including multiple or all of a composite board layer, a thermal insulation layer, a fixing layer, a reinforcement board layer and a decorative layer.

[0017] Furthermore, the thermal insulation wall of the present invention includes a sprinkler mounted on the surface of the structural wall. The sprinkler comprises a housing, a fire extinguishing agent, and a thermally sensitive liquid. A partition is disposed within the housing, separating an inner cavity from an outer cavity within the housing. The inner cavity contains the fire extinguishing agent, while the outer cavity is filled with the thermally sensitive liquid. In the event of a fire, the thermally sensitive liquid expands due to heat, rupturing the housing and causing the fire extinguishing agent within to be sprayed out, achieving a fire extinguishing or flame retardant effect.

[0018] Beneficial effects: (1) The flame-retardant insulation wall of the present invention utilizes a heat-sensitive trigger assembly and a connection assembly to realize automatic separation of the insulation wall panel from the structural wall when a fire occurs, thereby delaying the time when the fire source contacts the structural wall and improving the flame-retardant effect of the entire insulation wall. (2) The flame-retardant insulation wall of the present invention integrates the various components of the connection assembly inside and outside the outer tube, and has a sophisticated structure; the entire connection assembly is pre-installed in the insulation wall panel in advance, so that the insulation wall panel of the present invention is almost the same as the installation process of the traditional insulation wall panel, without adding any additional installation costs. (3) The flame-retardant insulation wall of the present invention is equipped with a connecting rope in the outer tube. After a fire occurs, the insulation wall that pops up will be hung on the structural wall. On the one hand, it is beneficial for the insulation wall panel to shield the structural wall from the fire source, and on the other hand, it can also prevent the insulation wall panel from directly falling and injuring people who are escaping. (4) The flame-retardant insulation wall of the present invention is equipped with a sprinkler on the structural wall. After a fire occurs, the sprinkler automatically sprays out a fire extinguishing agent, further improving the flame-retardant ability of the insulation wall. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a three-dimensional diagram of the thermal insulation wall of Example 1.

[0020] Figure 2 This is the main view of the insulation wall of Example 1 (with the insulation wall panel hidden).

[0021] Figure 3 It is a three-dimensional diagram of the heat-sensitive trigger component, connecting component and sprayer in Example 1.

[0022] Figure 4 yes Figure 3 A magnified view of .

[0023] Figure 5 It is a three-dimensional diagram of the connection component in Example 1.

[0024] Figure 6 It is a three-dimensional diagram of the connecting assembly in Example 1 (cut-away outer cylinder and force-storing torsion spring).

[0025] Figure 7 yes Figure 6 Another perspective of .

[0026] Figure 8 It is a three-dimensional diagram of the rotating disk and the locking bolt plate in Example 1.

[0027] Figure 9 1 is a working principle diagram of the rotating disk and the deadbolt plate in Example 1 (one).

[0028] Figure 10 It is the working principle diagram of the rotating disk and the deadbolt plate in Example 1 (the second one).

[0029] Among them: 100, structural wall; 200, insulation wall panel; 300, thermal trigger assembly; 310, thermal trigger; 311, sliding plate; 311-1, sliding rail; 311-2, sliding groove; 312, second spring; 313, thermal tube; 320, pull rope assembly; 321, first pull rope; 322, second pull rope; 323, pull rod; 400, connecting assembly; 410, base; 420, outer cylinder; 430, bolt; 440, first spring; 450, lock tongue plate; 451, inclined groove; 460, turntable; 461, circular shaft; 470, force storage torsion spring; 480, bayonet; 490, connecting rope; 500, sprayer. DETAILED DESCRIPTION

[0030] The present invention will be further described in detail below with reference to specific embodiments.

[0031] Example 1

[0032] like Figures 1 to 4 As shown, the thermal insulation wall with flame retardant function of this embodiment includes a structural wall 100, a thermal insulation wall panel 200, a heat-sensitive trigger component 300, a connection component 400 and a sprayer 500.

[0033] The insulation wall panel 200 is fixed to the structural wall 100 through the connecting component 400. The thermal trigger component 300 controls the connecting component 400. When the ambient temperature exceeds the set value, the thermal trigger component 300 determines that a fire has occurred at the scene. The thermal trigger component 300 triggers the connecting component 400 to separate the insulation wall panel 200 from the structural wall 100.

[0034] like Figures 5 to 7 As shown, the connection assembly 400 includes a base 410, an outer cylinder 420, a bolt 430, a first spring 440, a lock tongue plate 450 and a plate pulling mechanism. The bolt 430 is a hexagon socket bolt. The bolt 430 fixes the base 410 to the structural wall 100. The outer cylinder 420 is sleeved on the base 410. An opening is provided on the outer cylinder 420 to facilitate the entry of tools into the outer cylinder 420 to rotate the bolt 430; the first spring 440 is compressed between the outer cylinder 420 and the base 410, and the lock tongue plate 450 is radially inserted into the outer cylinder 420 so that the outer cylinder 420 is stuck on the base 410, ensuring that the first spring 440 is in a compressed and force-accumulating state; the outer cylinder 420 is connected to the insulation wall panel 200; the plate pulling mechanism is used to pull out the lock tongue plate 450, and the plate pulling mechanism is controlled by the thermal trigger assembly 300. When the heat-sensitive trigger assembly 300 detects a fire, the plate-pulling mechanism pulls out the lock plate 450, and the first spring 440 with stored force will pop out of the outer tube 420, and the insulation wall panel 200 connected to the outer tube 420 will also pop out together, so that in the early stage of the fire, the insulation wall panel 200 is immediately separated from the structural wall 100, delaying the time when the fire source contacts the structural wall 100, thereby achieving the purpose of flame retardancy.

[0035] The plate pulling mechanism includes a rotating disk 460, a force-storage torsion spring 470 and a bayonet 480. The rotating disk 460 is concentric with the outer cylinder 420. The force-storage torsion spring 470 is sleeved on the outer cylinder 420 and connected to the rotating disk 460. The force-storage torsion spring 470 is used to drive the rotating disk 460 to rotate. After the force is stored and twisted, the bayonet 480 is inserted from the outer edge plate of the outer cylinder 420 and clamps the rotating disk 460. The bayonet 480 is controlled by the thermal trigger assembly 300. Figure 8 As shown, the surface of the turntable 460 is provided with a circular shaft 461, and the lock plate 450 is provided with an inclined groove 451, and the circular shaft 461 is inserted into the inclined groove 451; the insulation wall panel 200 is provided with a movable groove along the radial direction of the outer cylinder 420, and the lock plate 450 is located in the movable groove, ensuring that the lock plate 450 can only move along the radial direction of the outer cylinder 420. When the heat-sensitive trigger component 300 detects a fire, the heat-sensitive trigger component 300 pulls out the latch 480, and the stored force torsion spring 470 drives the turntable 460 to rotate, as shown in FIG. Figure 9 and Figure 10 As shown, after the turntable 460 rotates clockwise, the turntable 460 drives the lock bolt plate 450 to move along the radial direction of the outer cylinder 420 using the circular shaft 461 and the inclined groove 451, thereby realizing the pulling-out action of the lock bolt plate 450.

[0036] like Figure 6As shown, a connecting rope 490 is further provided in the outer cylinder 420, and the two ends of the connecting rope 490 are respectively connected to the outer cylinder 420 and the base 410; the function of the connecting rope 490 is: after a fire occurs, the outer cylinder 420 and the insulation wall panel 200 are ejected, but the insulation wall panel 200 will still be hung on the structural wall 100 by the connecting rope 490 of appropriate length. On the one hand, it is beneficial for the insulation wall panel 200 to shield the structural wall 100 from the fire source, and on the other hand, it can also prevent the insulation wall panel 200 from directly falling and injuring people who are escaping.

[0037] like Figure 4 As shown, the thermal trigger assembly 300 includes a thermal trigger 310 and a pull rope assembly 320. The thermal trigger 310 includes a sliding plate 311, a second spring 312 and a thermal tube 313. The sliding plate 311 is L-shaped and there are two of them. The sliding plate 311 is provided with a sliding rail 311-1 and a sliding groove 311-2. The sliding grooves 311-2 of the two sliding plates 311 are respectively inserted into the other's sliding rail 311-1. The thermal tube 313 and the second spring 312 are both located between the two sliding plates 311. The second spring 312 is in an elongated state. The thermal tube 313 is supported between the two sliding plates 311. There are multiple thermal triggers 310.

[0038] The pull rope assembly 320 includes a first pull rope 321, a second pull rope 322 and a pull rod 323. One end of the pull rod 323 is provided with a through hole and the other end is connected to the second pull rope 322. The second pull rope 322 is connected to the pin 480; the first pull rope 321 passes through the through hole, and the two ends of the first pull rope 321 are respectively connected to the sliding plates 311 of two adjacent thermal triggers 310.

[0039] When a fire occurs, the thermistor 313 breaks. After losing the support of the thermistor 313, the two sliding plates 311 move closer to each other under the action of the second spring 312. When the sliding plate 311 moves, it first pulls the first pull rope 321, and then the first pull rope 321 drives the pull rod 323 and the second pull rope 322 to move, and the second pull rope 322 pulls out the pin 480.

[0040] The thermal insulation wall panel 200 in this embodiment has a multi-layer structure, including multiple or all of a composite board layer, a thermal insulation layer, a fixing layer, a reinforcement board layer and a decorative layer.

[0041] The sprinkler 500 is mounted on the surface of the structural wall 100. It comprises a housing, a fire extinguishing agent, and a thermal liquid. A partition is provided within the housing, separating an inner cavity from an outer cavity. The inner cavity holds the fire extinguishing agent, while the outer cavity is filled with the thermal liquid. In the event of a fire, the thermal liquid expands due to heat, rupturing the housing and allowing the fire extinguishing agent inside to be sprayed out, extinguishing the fire or providing a flame retardant effect.

[0042] This embodiment of a flame-retardant insulation wall utilizes a heat-sensitive trigger assembly 300 and a connection assembly 400 to automatically separate the insulation wall panels 200 from the structural wall 100 in the event of a fire. The insulation wall panels 200 are constructed of flame-retardant materials, capable of withstanding fire for a specified period of time. Compared to traditional fixed insulation walls, the actively separated insulation wall panels 200 in this embodiment delay contact between the fire source and the structural wall 100, significantly extending the fire resistance time of the entire insulation wall and achieving a more effective flame-retardant effect.

[0043] Although the embodiments of the present invention are described in the specification, these embodiments are only for reference and should not limit the scope of protection of the present invention. Various omissions, substitutions and changes without departing from the scope of the present invention should be included in the scope of protection of the present invention.

Claims

1. A thermal insulation wall with flame retardant function, characterized by: It comprises a structural wall (100), a thermal insulation wallboard (200), a thermal trigger component (300) and a connection component (400); The thermal insulation wall panel (200) is fixed to the structural wall (100) via a connecting assembly (400); a thermal trigger assembly (300) controls the connecting assembly (400); when the ambient temperature exceeds a set value, the thermal trigger assembly (300) triggers the connecting assembly (400) to separate the thermal insulation wall panel (200) from the structural wall (100); The connection assembly (400) comprises a base (410), an outer cylinder (420), a bolt (430), a first spring (440), a locking tongue plate (450) and a plate pulling mechanism. The bolt (430) fixes the base (410) to the structural wall (100). The outer cylinder (420) is sleeved on the base (410). The first spring (440) is compressed between the outer cylinder (420) and the base (410). The locking tongue plate (450) is inserted into the outer cylinder (420) from a radial direction so that the outer cylinder (420) is stuck on the base (410). The outer cylinder (420) is connected to the thermal insulation wall panel (200). The plate pulling mechanism is used to pull out the locking tongue plate (450). The plate pulling mechanism is controlled by a heat-sensitive trigger assembly (300). The plate pulling mechanism comprises a rotating disk (460), a force storage torsion spring (470) and a bayonet (480); the rotating disk (460) is concentric with the outer cylinder (420); the force storage torsion spring (470) is sleeved on the outer cylinder (420) and connected to the rotating disk (460); the force storage torsion spring (470) is used to drive the rotating disk (460) to rotate; the bayonet (480) is inserted from the outer ring edge plate on the surface of the outer cylinder (420) and clamps the rotating disk (460); the bayonet (480) is controlled by a heat-sensitive trigger component (300); a circular shaft (461) is provided on the surface of the rotating disk (460); an inclined groove (451) is provided on the locking tongue plate (450), and the circular shaft (461) is inserted into the inclined groove (451); a movable groove along the radial direction of the outer cylinder (420) is provided in the thermal insulation wall panel (200), and the locking tongue plate (450) is located in the movable groove; The thermal trigger assembly (300) includes a thermal trigger (310) and a pull rope assembly (320). The thermal trigger (310) includes a sliding plate (311), a second spring (312) and a thermal tube (313). The sliding plates (311) are L-shaped and there are two of them. A sliding rail (311-1) and a sliding groove (311-2) are provided on the sliding plates (311). The sliding grooves (311-2) of the two sliding plates (311) are respectively inserted into the other sliding rail (311-1). The thermal tube (313) and the second spring (312) are both located between the two sliding plates (311). The second spring (312) is in an extended state. The thermal tube (313) is supported between the two sliding plates (311). The sliding plates (311) are connected to the bayonet (480) via the pull rope assembly (320). The pull rope assembly (320) includes a first pull rope (321), a second pull rope (322) and a pull rod (323), one end of the pull rod (323) is provided with a through hole and the other end is connected to the second pull rope (322), and the second pull rope (322) is connected to the latch (480); the first pull rope (321) passes through the through hole, and the two ends of the first pull rope (321) are respectively connected to the sliding plates (311) of two adjacent thermal triggers (310).

2. The flame retardant insulation wall according to claim 1, characterized in that: A connecting rope (490) is further provided in the outer cylinder (420), and two ends of the connecting rope (490) are respectively connected to the outer cylinder (420) and the base (410).

3. The flame retardant thermal insulation wall according to claim 2, characterized in that: There are multiple thermal triggers (310).

4. The flame retardant thermal insulation wall according to claim 1, characterized in that: The thermal insulation wallboard (200) is a multi-layer structure.

5. The flame retardant thermal insulation wall according to claim 1, characterized in that: The invention also includes a sprinkler (500), which is installed on the surface of the structural wall (100).

6. The thermal insulation wall with flame retardant function according to claim 5, characterized in that: The sprayer (500) comprises a shell, a fire extinguishing agent and a thermal sensitive liquid. A partition is provided in the shell, and the partition separates an inner cavity and an outer cavity inside the shell. The fire extinguishing agent is placed in the inner cavity, and the thermal sensitive liquid is filled in the outer cavity.

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