Integrated multifunctional roof curtain wall device

Abstract

The utility model provides a kind of integrated multifunctional roof curtain wall device, the roof curtain wall device is sequentially included from top to bottom: laminated system and ventilation system, the laminated system with the ventilation system is respectively arranged on double-layer framework system;The laminated system sequentially contains daylighting layer and fireproof layer from top to bottom, the ventilation system is connected in eaves of the daylighting layer, and light system is equipped in the ventilation system.The utility model solves the technical problem that traditional device function disperses, integration is poor, construction is inconvenient.

Description

Technical Field

[0001] This utility model relates to the field of building curtain wall technology, and more specifically to an integrated multifunctional roof curtain wall device. Background Technology

[0002] Traditional roof and curtain wall installations often suffer from problems such as limited functionality or insufficient integration of multiple functions. Past designs frequently failed to organically combine functions like lighting, fire protection, and ventilation, with functional components often installed independently, resulting in a fragmented structural layout. This not only increases construction difficulty but also hinders the synergistic optimization of various functions. For example, lighting and fire protection systems may conflict in their layout, affecting overall performance; insufficient integration of ventilation structures with other functional modules limits airflow. Furthermore, traditional installations typically lack additional functions such as lighting displays, failing to meet the diverse aesthetic and functional demands of modern architecture. Simultaneously, the irrational distribution of functional components makes it difficult for various systems to coordinate effectively during construction, leading to low construction efficiency and poor overall structural coordination, hindering the efficient integration of multiple functions. Utility Model Content

[0003] The purpose of this utility model is to overcome the defects of the prior art and provide an integrated multi-functional roof curtain wall device, which aims to solve the technical problems of traditional devices having scattered functions, poor integration, and inconvenient construction.

[0004] To achieve the above objectives, the present invention adopts the following technical solution:

[0005] An integrated multifunctional roof curtain wall device, comprising, from top to bottom, a layering system and a ventilation system, wherein the layering system and the ventilation system are respectively mounted on a double-layer frame system; the layering system comprises, from top to bottom, a light-transmitting layer and a fireproof layer, wherein the ventilation system is connected to the eaves of the light-transmitting layer, and wherein a lighting system is provided within the ventilation system.

[0006] In one embodiment, the double-layer frame system includes several connecting components, which, from top to bottom, include a crossbeam water trough, a first connecting round pipe, a connecting keel, a second connecting round pipe, a connecting clamp, and a connecting plate. One end of the crossbeam water trough is fixedly connected to the first connecting round pipe, and the other end of the crossbeam water trough is connected to the light-transmitting layer. The connecting keel is provided with a connecting clamp, and the connecting clamp is connected to the edge of the fireproof layer.

[0007] In one embodiment, the ventilation system includes a ventilation unit and ventilation louvers, the ventilation louvers being arranged around the outer periphery of the ventilation unit; the ventilation unit is composed of a plurality of hexagonal unit bodies, the plurality of hexagonal unit bodies being connected by the double-layer frame system, and a connecting component being used to connect three adjacent groups of hexagonal unit bodies.

[0008] In one embodiment, the end of the hexagonal unit away from the stacked system is connected to the connecting plate, and the end of the hexagonal unit close to the stacked system is connected to the connecting keel.

[0009] In one embodiment, the hexagonal unit includes a hexagonal horizontal frame with a hexagonal through hole in the middle. A vertical frame is provided at each of the six vertices of the hexagonal through hole, and the vertical frames are fixedly connected to the hexagonal horizontal frame. A perforated composite plate is provided between two adjacent vertical frames, and the perforated composite plate is inserted into the vertical frame. The hexagonal through hole, the perforated composite plate, and the ventilation louver are connected in sequence.

[0010] In one embodiment, the outer edge of the hexagonal frame is provided with two insertion corner brackets, which are respectively located on both sides of any vertex of the outer edge of the hexagonal frame, and the insertion corner brackets are inserted into the connecting clamp; the outer edge of the hexagonal frame is provided with a fixed corner bracket symmetrical to the center of the insertion corner brackets, and the fixed corner brackets are fixedly connected to the connecting clamp.

[0011] In one embodiment, two plug-in corner brackets or two fixed corner brackets are connected to one of the connecting plates.

[0012] In one embodiment, the perforated composite board is provided with two connecting corner brackets at one end away from the hexagonal frame, and the connecting corner brackets are fixedly connected to the connecting keel.

[0013] In one embodiment, the lighting system includes a plurality of lighting components disposed inside the hexagonal unit body.

[0014] In one embodiment, the lighting assembly includes a mounting plate and a lamp, the mounting plate being mounted on the perforated composite plate and the lamp being connected to the bottom of the mounting plate.

[0015] The advantages of this invention compared to existing technologies are as follows: Through a rational multi-layered structural design, multiple functions are integrated and constructed in an orderly manner. The layered system consists of a light-transmitting layer and a fire-resistant layer from top to bottom, respectively undertaking the functions of lighting and fire protection, meeting the building's needs for light introduction and fire protection. The ventilation system is located on the side of the eaves of the light-transmitting layer, enabling air circulation, while its internal lighting system can create a light show effect, enriching the functional expression of the device. The layered system and ventilation system are respectively set on a double-layered frame system. This layered layout achieves the orderly integration of various functions and facilitates layer-by-layer installation. The overall design allows the roof skylight to achieve a harmonious unity between structural layout and functional realization while fulfilling its functions of lighting, ventilation, fire protection, and light show.

[0016] The above description is only an overview of the technical solution of this utility model. In order to better understand the technical means of this utility model, it can be implemented according to the contents of the specification. In order to make the above and other objects, features and advantages of this utility model more obvious and easy to understand, the following are preferred embodiments, which are described in detail below. Attached Figure Description

[0017] Figure 1 A first structural schematic diagram of an integrated multifunctional roof curtain wall device provided by this utility model;

[0018] Figure 2 A second structural schematic diagram of an integrated multifunctional roof curtain wall device provided by this utility model;

[0019] Figure 3 for Figure 2 A magnified view of a portion of the image;

[0020] Figure 4 for Figure 2 Another enlarged partial schematic diagram;

[0021] Figure 5 for Figure 2 Another enlarged partial schematic diagram;

[0022] Figure 6 A schematic diagram of the planar structure of a hexagonal unit of an integrated multifunctional roof curtain wall device provided by this utility model;

[0023] Figure 7 A schematic diagram of the planar structure of a hexagonal unit body of an integrated multifunctional roof curtain wall device provided by this utility model from another direction;

[0024] Figure 8 A partial three-dimensional structural diagram of an integrated multifunctional roof curtain wall device provided for this utility model;

[0025] Figure 9 for Figure 8 Top view;

[0026] Figure 10 for Figure 9 A sectional view of AA.

[0027] Figure Labels

[0028] 1. Layered system; 11. Skylight layer; 12. Fireproof layer; 2. Ventilation system; 21. Ventilation unit; 211. Hexagonal unit; 2111. Hexagonal horizontal frame; 2112. Hexagonal through hole; 2113. Vertical frame; 2114. Perforated composite panel; 2115. Inserted corner bracket; 2116. Fixed corner bracket; 2117. Decorative curved surface; 22. Ventilation louvers; 3. Double-layer frame system; 31. Connecting components; 311. Horizontal beam water trough; 312. First connecting round pipe; 313. Connecting keel; 314. Second connecting round pipe; 315. Connecting clamp; 316. Connecting plate; 317. Connecting fixture; 318. Fireproof sealant; 319. Fireproof strip. Detailed Implementation

[0029] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0030] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of the present utility model.

[0031] It should be understood that, when used in this specification and the appended claims, the terms "comprising" and "including" indicate the presence of the described features, integrals, steps, operations, elements and / or components, but do not exclude the presence or addition of one or more other features, integrals, steps, operations, elements, components and / or collections thereof.

[0032] It should also be understood that the terminology used in this specification is for the purpose of describing particular embodiments only and is not intended to limit the scope of the invention. As used in this specification and the appended claims, the singular forms “a,” “an,” and “the” are intended to include the plural forms unless the context clearly indicates otherwise.

[0033] It should also be further understood that the term "and / or" as used in this specification and the appended claims refers to any combination of one or more of the associated listed items and all possible combinations, and includes such combinations.

[0034] See Figures 1 to 10As shown in the figure, this utility model embodiment discloses an integrated multifunctional roof curtain wall device. The roof curtain wall device includes, from top to bottom, a layering system 1 and a ventilation system 2. The layering system 1 and the ventilation system 2 are respectively disposed on a double-layer frame system 3. The layering system 1 includes, from top to bottom, a light-transmitting layer 11 and a fireproof layer 12. The ventilation system 2 is connected to the eaves of the light-transmitting layer 11 and is equipped with a lighting system.

[0035] Specifically, the integrated multifunctional roof curtain wall device in this embodiment includes, from top to bottom, a layered system 1 and a ventilation system 2. The layered system 1 and ventilation system 2 are respectively mounted on a double-layer frame system 3. The layered system 1 includes, from top to bottom, a light-transmitting layer 11 and a fire-resistant layer 12. The ventilation system 2 is located on the eaves side of the light-transmitting layer 11 and contains a lighting system. By layering different functional systems, lighting, fire protection, ventilation, and light show functions are integrated into a single device, meeting the building's need for multifunctional integration. The layered structure also facilitates the orderly installation and collaborative operation of each system. During operation, the light-transmitting layer 11 introduces external light, the fire-resistant layer 12 provides fire protection, the ventilation system 2 enables air circulation, and the lighting system creates a light show effect within the ventilation system 2. Each system maintains stable operation through the support of the double-layer frame system 3. In a more specific implementation, the light-transmitting layer 11 can be made of translucent glass, the fire-resistant layer 12 can be made of fire-resistant glass, and the outer shell of the ventilation system 2 can be made of metal sheet to ensure reliable operation of each function.

[0036] Furthermore, an anti-slip structure is added to the surface of the translucent glass to enhance its friction and prevent people from slipping during walking or activities. Simultaneously, the translucent glass is made of high-strength material to ensure structural stability when bearing the load of multiple people, without affecting light transmission while balancing safety and functionality. During operation, the anti-slip design provides reliable friction when people walk on top of the translucent glass or when activities are held. The high-strength translucent glass withstands the pressure generated by the activity, while the lighting function remains unaffected, still allowing sufficient light to enter the space below. In a more specific implementation plan, the translucent glass can be made of laminated tempered glass with uniform anti-slip textures pressed onto its surface. The texture layout considers both anti-slip effect and ensures uniform light transmission to meet the dual needs of safety and lighting during events.

[0037] In one embodiment, the double-layer frame system 3 includes several connecting components 31. The connecting components 31, from top to bottom, include a crossbeam water trough 311, a first connecting round pipe 312, a connecting keel 313, a second connecting round pipe 314, a connecting clamp 315, and a connecting plate 316. One end of the crossbeam water trough 311 is fixedly connected to the first connecting round pipe 312, and the other end of the crossbeam water trough 311 is connected to the light-transmitting layer 11. The connecting keel 313 is provided with a connecting clamp 317, and the connecting clamp 317 is connected to the edge of the fireproof layer 12.

[0038] Specifically, the double-layer frame system 3 includes several connecting components 31. From top to bottom, the connecting components 31 include a crossbeam water channel 311, a first connecting pipe 312, a connecting keel 313, a second connecting pipe 314, a connecting clamp 315, and a connecting plate 316. One end of the crossbeam water channel 311 is fixedly connected to the first connecting pipe 312, and the other end is connected to the skylight layer 11. The connecting keel 313 is equipped with a connecting clamp 317, which is connected to the edge of the fireproof layer 12. By using the connecting components 31 to sequentially fix the skylight layer 11 and the fireproof layer 12 of the laminated system 1 from top to bottom, a stable connection between the laminated system 1 and the frame system is ensured, improving the overall structural load-bearing capacity. During operation, the crossbeam water tank 311 receives and drains any potential water accumulation. The first connecting pipe 312 and the second connecting pipe 314 transmit the load. The connecting keel 313 securely fixes the fireproof layer 12 via the connecting clamp 317. The connecting clamp 315 and the connecting plate 316 provide support points for subsequent connections of other components. In a more specific implementation, the crossbeam water tank 311 is made of aluminum alloy to enhance corrosion resistance, and the connecting clamp 317 has an adjustable structure to facilitate installation according to the thickness of the fireproof layer 12. It is understood that the fireproof layer 12 is made of fireproof glass, and fireproof sealant 318 is provided in the connection gap between the fireproof layer 12 and the connecting clamp 317. Fireproof strip 319 is provided at the connection gap between the fireproof layer 12 and the ventilation system 2.

[0039] In one embodiment, the ventilation system 2 includes a ventilation unit 21 and ventilation louvers 22, the ventilation louvers 22 being arranged around the outer periphery of the ventilation unit 21; the ventilation unit 21 is composed of a plurality of hexagonal unit bodies 211, the plurality of hexagonal unit bodies 211 being connected by the double-layer frame system 3, and a connecting component 31 being used to connect three adjacent groups of hexagonal unit bodies 211.

[0040] Specifically, the ventilation system 2 includes a ventilation unit 21 and ventilation louvers 22. The ventilation louvers 22 are arranged around the outer periphery of the ventilation unit 21. The ventilation unit 21 is composed of several hexagonal unit bodies 211, which are connected by a double-layer frame system 3. It can be understood that a set of connecting components 31 is used to connect three adjacent sets of hexagonal unit bodies 211. The ventilation unit 21 is composed of hexagonal unit bodies 211, and the stability of the hexagonal structure enhances the overall strength of the ventilation system 2. Simultaneously, the ventilation louvers 22 allow for airflow between the inside and outside while regulating the ventilation volume. The connection components 31 ensure a compact structure for the ventilation unit 21. During operation, air enters the ventilation unit 21 through the ventilation louvers 22 and circulates within the hexagonal unit bodies 211 to achieve ventilation. The connecting components 31 fix three adjacent sets of hexagonal unit bodies 211 to prevent the ventilation unit 21 from swaying under airflow.

[0041] In one embodiment, the end of the hexagonal unit 211 furthest from the stacking system 1 is connected to the connecting plate 316, and the end of the hexagonal unit 211 closest to the stacking system 1 is connected to the connecting keel 313.

[0042] Specifically, one end of the hexagonal unit 211 is connected to the connecting plate 316, and the other end is connected to the connecting keel 313. The hexagonal unit 211 is securely connected to the connecting component 31 of the double-layer frame system 3 by fixing both ends, preventing displacement of a single hexagonal unit 211 under stress and ensuring the structural stability of the ventilation unit 21. During operation, the external force on the hexagonal unit 211 is transmitted to the connecting plate 316 and the connecting keel 313 through both ends, and then distributed to the entire double-layer frame system 3 by the connecting component 31, ensuring that the ventilation unit 21 maintains its structural integrity under various operating conditions.

[0043] It is understood that in this embodiment, a connecting plate 316 is used to connect three hexagonal unit bodies 211, so that the three adjacent hexagonal unit bodies 211 are structurally compact and structurally stable.

[0044] In one embodiment, the hexagonal unit 211 includes a hexagonal horizontal frame 2111, a hexagonal through hole 2112 in the middle of the hexagonal horizontal frame 2111, and a vertical frame 2113 on each of the six vertices of the hexagonal through hole 2112. The vertical frame 2113 is fixedly connected to the hexagonal horizontal frame 2111. A perforated composite plate 2114 is provided between two adjacent vertical frame 2113, and the perforated composite plate 2114 is inserted into the vertical frame 2113. The hexagonal through hole 2112, the perforated composite plate 2114 and the ventilation louver 22 are connected in sequence.

[0045] Specifically, the hexagonal unit 211 includes a hexagonal horizontal frame 2111, a hexagonal through hole 2112 in the middle of the hexagonal horizontal frame 2111, and a vertical frame 2113 on each of the six vertices of the hexagonal through hole 2112. The vertical frame 2113 is fixedly connected to the hexagonal horizontal frame 2111. A perforated composite plate 2114 is provided between two adjacent vertical frames 2113. The perforated composite plate 2114 is inserted into the vertical frame 2113, and the hexagonal through hole 2112, the perforated composite plate 2114 and the ventilation louver 22 are connected in sequence. The hexagonal unit 211 is framed by a horizontal hexagonal frame 2111 and a vertical frame 2113. Hexagonal through-holes 2112, perforated composite panel 2114, and ventilation louvers 22 form a complete ventilation channel. The perforated composite panel 2114 serves both as part of the ventilation channel and as a shield for the internal structure, while also providing a mounting base for the lighting system. During operation, air enters through the ventilation louvers 22 and passes sequentially through the perforated composite panel 2114 and the hexagonal through-holes 2112, while internal air flows out through the hexagonal through-holes 2112, the perforated composite panel 2114, and the ventilation louvers 22, thus achieving air circulation. The vertical frame 2113 secures the perforated composite panel 2114, ensuring it does not detach. In a more specific implementation, the hexagonal horizontal frame 2111 and the vertical frame 2113 are made of aluminum alloy, and the perforated composite panel 2114 is made of perforated metal plate structure. In this embodiment, aluminum plate assembly is preferred to take into account both ventilation and heat preservation performance.

[0046] In one embodiment, the outer edge of the hexagonal frame 2111 is provided with two insertion brackets 2115, which are respectively located on both sides of any vertex of the outer edge of the hexagonal frame 2111, and are inserted into the connecting clamp 315; the outer edge of the hexagonal frame 2111 is provided with a fixed bracket 2116 that is symmetrical to the center of the insertion brackets 2115, and the fixed bracket 2116 is fixedly connected to the connecting clamp 315.

[0047] Specifically, the outer edge of the hexagonal frame 2111 is provided with two insertion brackets 2115, which are respectively located on both sides of any vertex of the outer edge of the hexagonal frame 2111. The insertion brackets 2115 are inserted into the connecting clamp 315. The outer edge of the hexagonal frame 2111 is provided with a fixing bracket 2116 that is symmetrical to the center of the insertion brackets 2115. The fixing brackets 2116 are fixedly connected to the connecting clamp 315. Through the insertion and engagement of the insertion brackets 2115 and the connecting clamp 315, and the fixed connection of the fixing brackets 2116 and the connecting clamp 315, the hexagonal frame 2111 is fixed to the connecting clamp 315 from two symmetrical directions, ensuring that the hexagonal unit 211 and the connecting assembly 31 are firmly connected and preventing loosening. During operation, the insertion bracket 2115 is inserted into the slot of the connecting clamp 315 for initial positioning. The fixing bracket 2116 is then fastened to the connecting clamp 315 with bolts. This dual connection method ensures the stability of the hexagonal frame 2111 under stress. In a more specific implementation, the inner side of the connecting clamp 315 is provided with a groove that matches the insertion bracket 2115 to improve the accuracy of the insertion.

[0048] In one embodiment, two plug-in corner brackets 2115 or two fixed corner brackets 2116 are connected to one of the connecting plates 316.

[0049] Specifically, two plug-in brackets 2115 or two fixed brackets 2116 are connected to a connecting plate 316. By centrally connecting two plug-in brackets 2115 or two fixed brackets 2116 on the same connecting plate 316, the forces on adjacent hexagonal unit bodies 211 at the connecting plate 316 are more balanced, avoiding excessive force at a single connection point that could lead to structural deformation. This also simplifies the connection structure between the connecting plate 316 and the hexagonal unit bodies 211. In a more specific embodiment, the connecting plate 316 has connection holes corresponding to the plug-in brackets 2115 or fixed brackets 2116. The fixed brackets 2116 are fixed to the connecting plate 316 with bolts, while the plug-in brackets 2115 are connected to the connecting plate 316 via slots.

[0050] It is understood that in this embodiment, only one set (i.e., two) of plug-in brackets 2115 or fixed brackets 2116 are provided on a connecting plate 316. That is, only one hexagonal unit 211 on a connecting plate 316 is connected to the connecting plate 316, and the other two hexagonal units 211 on the connecting plate 316 only overlap with the connecting plate 316 and do not need to be fixed. In other words, in this embodiment, one hexagonal unit 211 is firmly connected to the connecting plate 316 by a set of plug-in brackets 2115 or fixed brackets 2116, and the other two hexagonal units 211 are placed on the connecting plate 316 by overlapping. This ensures the overall structural stability of the ventilation unit 21, reduces the use of connecting parts, and simplifies the installation process. During operation, the hexagonal unit 211 fixed to the connecting plate 316 provides positioning support for the other two overlapping hexagonal unit 211s. Together, the three form a stable ventilation unit 21. The force generated when the airflow passes through is mainly transmitted from the fixedly connected hexagonal unit 211 to the connecting plate 316, and then distributed to the entire connecting assembly 31. The overlapping hexagonal unit 211s maintain a stable position under their own weight and the constraints of the surrounding structure.

[0051] Furthermore, each hexagonal unit 211 is provided with only one set of two plug-in brackets 2115 and one set of two fixed brackets 2116. The plug-in brackets 2115 and fixed brackets 2116 on adjacent hexagonal units 211 are staggered on different connecting plates 316. Thus, through the staggered connection method, adjacent hexagonal units 211 form a stable structural system when sharing the connecting plate 316. This reduces the number of connecting parts used and lowers the cost. At the same time, through the combination of fixed connection and overlap, while ensuring the overall stability of the ventilation unit 21, it allows the structure to have a certain amount of expansion and contraction space under temperature changes or external forces, avoiding structural damage caused by stress concentration.

[0052] In one embodiment, the perforated composite plate 2114 is provided with two connecting corner brackets at one end away from the hexagonal cross frame 2111, and the connecting corner brackets are fixedly connected to the connecting keel 313.

[0053] Specifically, the perforated composite panel 2114 has two connecting angle brackets at the end furthest from the hexagonal frame 2111, which are fixedly connected to the connecting keel 313. By fixing the end of the perforated composite panel 2114 to the connecting keel 313 using the connecting angle brackets, both ends of the perforated composite panel 2114 are supported, preventing bending or detachment due to its own weight or airflow impact, thus enhancing the structural stability of the perforated composite panel 2114. During operation, the gravity and airflow impact force on the perforated composite panel 2114 are transmitted to the connecting keel 313 through the connecting angle brackets, and the connecting keel 313 then transmits the force to other parts of the connecting assembly 31, ensuring that the perforated composite panel 2114 always remains flat.

[0054] In one embodiment, the lighting system includes a plurality of lighting components disposed inside the hexagonal unit 211.

[0055] Specifically, the lighting system includes several lighting components housed within hexagonal unit 211. This conceals the lighting components within the hexagonal unit 211, preserving the aesthetic appearance of the device while allowing light to pass through the perforations in the perforated composite panel 2114, creating a uniform lighting effect and achieving a light show function. During operation, the lighting components are powered on and emit light, which radiates outwards through the hexagonal through-holes 2112. The lighting components within multiple hexagonal unit 211 work together to create diverse lighting patterns. In a more specific implementation, the lighting components can be LED strips or LED panels, with different colors and brightness settings to meet the light show requirements of different scenarios.

[0056] In one embodiment, the lighting assembly includes a mounting plate and a lamp, the mounting plate being mounted on the perforated composite plate 2114, and the lamp being connected to the bottom of the mounting plate.

[0057] Specifically, the lighting assembly includes a mounting plate and a luminaire. The mounting plate is attached to the perforated composite panel 2114, and the luminaire is connected to the bottom of the mounting plate. The luminaire is indirectly installed on the perforated composite panel 2114 via the mounting plate, facilitating installation and replacement. This mounting method avoids requiring numerous openings in the perforated composite panel 2114, ensuring its structural strength and ventilation performance. During operation, the mounting plate is securely attached to the perforated composite panel 2114, and the luminaire emits light from the bottom of the mounting plate. The light propagates outward through the hexagonal through-holes 2112, creating the desired lighting effect indoors. In a more specific implementation, the mounting plate is made of bent metal sheet, with hooks that fit the holes in the perforated composite panel 2114. The luminaire is fixed to the bottom of the mounting plate with bolts, ensuring it will not detach during long-term use.

[0058] Furthermore, the lower surfaces of several hexagonal units 211 are spliced ​​together to form a honeycomb-shaped decorative curved surface 2117, thus combining structural and aesthetic advantages: the honeycomb structure relies on the stability of hexagons to enhance the overall structural strength of the ventilation system 2 and distribute the load; at the same time, the honeycomb-shaped curved surface has a unique and beautiful shape, enhancing the building's visual recognition and artistic sense; and the curved surface is formed by the natural connection of the units, eliminating the need for additional decorative parts, simplifying construction, reducing costs, and can also be used in conjunction with the internal lighting system to allow light to refract through the curved surface to present a richer visual effect.

[0059] In summary, this embodiment of an integrated multifunctional roof curtain wall device achieves multiple functional integration through layered layout and structured connection. From top to bottom, it includes a layered system 1 and a ventilation system 2, both mounted on a double-layer frame system 3. The layered system 1 includes a skylight layer 11 and a fireproof layer 12 from top to bottom. The ventilation system 2 is located on the eaves side of the skylight layer 11 and has an internal lighting system. The double-layer frame system 3 is constructed from several connecting components 31. Each connecting component 31 includes a horizontal beam water channel 311, a first connecting pipe 312, a connecting keel 313, a second connecting pipe 314, a connecting clamp 315, and a connecting plate 316. The horizontal beam water channel 311 connects the skylight layer 11 and the first connecting pipe 312. The connecting keel 313 connects the fireproof layer 12 via a connecting clamp 317. The ventilation system 2 consists of ventilation units 21 and ventilation louvers 22. Each ventilation unit 21 includes several hexagonal unit bodies 211. Body 211 is connected by connecting component 31. Three adjacent sets of hexagonal unit bodies 211 are connected at one end to connecting plate 316 and at the other end to connecting keel 313. Hexagonal unit body 211 includes hexagonal horizontal frame 2111, vertical frame 2113 and perforated composite plate 2114. The insertion angle bracket 2115 of the outer edge of the hexagonal horizontal frame 2111 is inserted into the connecting clamp 315, and the fixing angle bracket 2116 is fixedly connected to the connecting clamp 315. The perforated composite plate 211... 14 is connected to the connecting keel 313 via connecting angle brackets. The lighting components of the lighting system are located inside the hexagonal unit 211 and include a mounting plate and a lamp. The mounting plate is hung on the perforated composite board 2114, and the lamp is connected to the bottom of the mounting plate. The hexagonal unit 211 is spliced ​​to form a decorative curved surface 2117. The overall design integrates lighting, fire prevention, ventilation, decoration and light show functions through the synergistic effect of each part, while ensuring structural stability and ease of installation.

[0060] The above examples are merely illustrative of the technical content of this utility model to facilitate reader understanding, but do not imply that the implementation of this utility model is limited to these embodiments. Any technical extensions or re-creations made based on this utility model are protected by this utility model. The scope of protection of this utility model is defined by the claims.

Claims

1. An integrated multi-functional roof curtain wall device, characterized in that, The roof curtain wall device includes, from top to bottom, a layering system and a ventilation system, which are respectively installed on a double-layer frame system; the layering system includes, from top to bottom, a light-transmitting layer and a fireproof layer, and the ventilation system is connected to the eaves of the light-transmitting layer, and the ventilation system is equipped with a lighting system.

2. The integrated multifunctional roof curtain wall device according to claim 1, characterized in that, The double-layer frame system includes several connecting components, which, from top to bottom, include a crossbeam water trough, a first connecting round pipe, a connecting keel, a second connecting round pipe, a connecting clamp, and a connecting plate. One end of the crossbeam water trough is fixedly connected to the first connecting round pipe, and the other end of the crossbeam water trough is connected to the light-transmitting layer. The connecting keel is provided with a connecting clamp, which is connected to the edge of the fireproof layer.

3. The integrated multifunctional roof curtain wall device according to claim 2, characterized in that, The ventilation system includes a ventilation unit and ventilation louvers, with the ventilation louvers arranged around the outer periphery of the ventilation unit; the ventilation unit is composed of several hexagonal units, which are connected by the double-layer frame system, and a connecting component is used to connect three adjacent groups of hexagonal units.

4. The integrated multifunctional roof curtain wall device according to claim 3, characterized in that, The end of the hexagonal unit away from the stacked system is connected to the connecting plate, and the end of the hexagonal unit close to the stacked system is connected to the connecting keel.

5. The integrated multi-functional roof curtain wall device according to claim 4, characterized in that, The hexagonal unit includes a hexagonal horizontal frame with a hexagonal through hole in the middle. A vertical frame is provided at each of the six vertices of the hexagonal through hole, and the vertical frames are fixedly connected to the hexagonal horizontal frame. A perforated composite plate is provided between two adjacent vertical frames, and the perforated composite plate is inserted into the vertical frame. The hexagonal through hole, the perforated composite plate, and the ventilation louvers are connected in sequence.

6. The integrated multi-functional roof curtain wall device according to claim 5, characterized in that, The outer edge of the hexagonal frame is provided with two insertion corner brackets, which are respectively located on both sides of any vertex of the outer edge of the hexagonal frame. The insertion corner brackets are inserted into the connecting clamp. The outer edge of the hexagonal frame is provided with a fixed corner bracket that is symmetrical to the center of the insertion corner brackets. The fixed corner bracket is fixedly connected to the connecting clamp.

7. The integrated multifunctional roof curtain wall device according to claim 6, characterized in that, Two plug-in corner brackets or two fixed corner brackets are connected to the connecting plate described above.

8. The integrated multifunctional roof curtain wall device according to claim 5, characterized in that, The perforated composite board is provided with two connecting corner brackets at one end away from the hexagonal horizontal frame, and the connecting corner brackets are fixedly connected to the connecting keel.

9. The integrated multifunctional roof curtain wall device according to claim 5, characterized in that, The lighting system includes several lighting components, which are located inside the hexagonal unit.

10. The integrated multifunctional roof curtain wall device according to claim 9, characterized in that, The lighting assembly includes a mounting plate and a lamp. The mounting plate is hung on the perforated composite plate, and the lamp is connected to the bottom of the mounting plate.

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