TWM662245U - Skylight pavilion with flip blades - Google Patents

Abstract

A skylight pavilion with flip blades, the main body of which includes a top beam, blades, columns, a control device and a pneumatic rod. The ends of the top beams are connected to each other, the columns are vertically arranged at the connection position of the top beams, the blades are arranged at the inner edge formed by the top beams, the columns have a first drainage channel, the top beams have a second drainage channel, the top surfaces of the blades have water guide grooves respectively, the water guide grooves, the second drainage channel and the first drainage channel are interconnected, the control device is electrically connected to the pneumatic rod, a connecting plate is arranged at the corner of at least one end of the blade, the pneumatic rod is combined with the connecting plate and drives the connecting plate to reciprocate, thereby causing the blades to flip synchronously; through the above structure, the scaffolding body of the present application can form an efficient water flow guiding system to avoid the problem of water accumulation, and at the same time, the purpose of light transmission, ventilation and easy cleaning can be achieved through the flipping of the blades.

Description

Skylight pavilion with flip blades

The present application is a trellis, in particular a skylight pavilion with flip blades.

Metal skylights are generally used above the doorways of houses for sunshade and rain shelter. Metal skylights generally have a fixed metal frame with transparent or translucent glass or polycarbonate panels embedded in the frame to increase natural lighting indoors. At the same time, metal skylights are also designed with drainage systems to prevent rainwater accumulation, ensuring their durability and functionality.

However, in the summer, metal and glass materials of metal skylights will absorb and conduct a large amount of heat in high temperature environments, causing the indoor temperature to rise and increasing the load and energy consumption of the air-conditioning system; on the contrary, in winter, the high thermal conductivity of these materials will accelerate the loss of indoor heat, making the indoor environment cold and increasing the energy consumption of the heating system.

Secondly, the fixing structure of the metal skylight lacks flexibility and cannot be adjusted according to different seasons or weather conditions, and cannot properly adjust ventilation and lighting conditions when needed. In addition, it is also difficult to clean and maintain, especially when dust or other contaminants accumulate on the glass or polycarbonate panels, which will affect the light transmittance and aesthetics.

Therefore, the conventional metal skylight not only affects the comfort of the user, but also has shortcomings in terms of cleaning and mobility.

The main purpose of this application is to solve the problem that the commonly used metal skylights cannot adjust ventilation and lighting and are also difficult to clean.

To achieve the above-mentioned purpose, an embodiment of the present application provides a skylight pavilion with flip blades, which is a body including a plurality of top beams, a plurality of blades, a plurality of columns, a control device and a gas pressure rod; the ends of the top beams are connected to each other; each column is vertically arranged at the connection position of the top beam; the blades are arranged and distributed on the inner edge formed by the top beam; both ends of each column are connected to each other with a first drainage channel, each column having a first drainage channel. The inner edge of each top beam is provided with a second drainage channel, the top surface of each blade is provided with a water guide groove, each water guide groove is connected to each second drainage channel, and the two ends of each second drainage channel are connected to each corresponding first drainage channel; the control device is electrically connected to the air pressure rod, and a connecting plate is provided at the corner of at least one end of the blade, the air pressure rod is combined with the connecting plate and drives the connecting plate to reciprocate, thereby causing the blade to turn over synchronously.

Another embodiment of the present application provides a skylight pavilion with flip blades, which is a main body, including a plurality of top beams, a plurality of columns, a plurality of blades, a control device, a pneumatic rod, a roller blind and a plurality of power sources; the ends of the top beams are connected to each other; the columns have a guide groove at opposite positions, and the columns are vertically arranged at the connection positions of the top beams; the blades are arranged and distributed on the inner edge formed by the top beams, and the two ends of each column have a first drainage channel, and the inner edge of each top beam has a second drainage channel, and each blade The top surfaces of the plurality of beams are provided with a water-guiding groove, each of which is connected to each of the second drainage channels, and both ends of each of the second drainage channels are connected to each of the corresponding first drainage channels; the control device is electrically connected to the air pressure rod, and a connecting plate is provided at the corner of at least one end of the blade, and the air pressure rod is combined with the connecting plate and drives the connecting plate to reciprocate, thereby causing the blade to turn over synchronously; each power source is respectively provided on each of the top beams and is electrically connected to the control device, and each of the roller curtains is combined with the power source, and is driven by the power source to rise and fall along the corresponding guide groove.

Through the above, the effect of this application is that the main body includes a plurality of columns, top beams and blades, forming a complete drainage channel system. The top of the blade is provided with a water guide groove, which is connected to the second drainage channel in the top beam. The second drainage channel is connected to the first drainage channel in the column, forming an efficient water flow guiding system to avoid water accumulation problems. By introducing the design of flip blades, the effects of adjusting lighting, ventilation and energy saving can be achieved, effectively solving the problems of stuffiness in summer and coldness in winter. In addition, this application is also provided with a roller blind that can be raised and lowered along the guide groove, which can provide additional sunshade, windproof and privacy enhancement effects.

In order to more clearly explain the core idea of the above content, specific embodiments are provided below. Please note that the proportions of objects in these embodiments are only used for enumeration and description, and are not drawn according to the actual proportions of components. In addition, in order to improve readability, some components are omitted in some diagrams, or are depicted using imaginary lines.

Referring to FIG. 1 and FIG. 2, the present application discloses a skylight pavilion with flip blades, which is a body 10 including a plurality of columns 11, a plurality of top beams 12 and a plurality of blades 13. The ends of the plurality of top beams 12 are connected to each other. Each column 11 is vertically arranged at the connection position of the plurality of top beams 12. The plurality of blades 13 are arranged and distributed on the inner edge formed by the plurality of top beams 12. Each column 11 has a first drainage channel 111 at both ends, each top beam 12 has a second drainage channel 121 at its inner edge, each blade 13 has a water guide groove 131 on its top surface, each water guide groove 131 is connected to each second drainage channel 121, and both ends of each second drainage channel 121 are connected to each corresponding first drainage channel 111.

With the above structure, when it rains, rainwater can flow into the second drainage channel 121 of the top beam 12 along the water guide groove 131 of the blade 13 in sequence, and then pass through the first drainage channel 111 in the column 11, and finally drain the rainwater to the ground, effectively avoiding the problem of water accumulation.

Please continue to refer to Figures 1 and 2. The connection of the top beam 12 is provided with an L-shaped reinforcing sheet 122. The inner wall surface of the L-shaped reinforcing sheet 122 is combined with the outer wall surfaces of the two top beams 12 at the same time. The L-shaped reinforcing sheet 122 can increase the rigidity of the connection between the top beams 12, and effectively prevent the top beam 12 from being deformed or broken when subjected to external forces (wind pressure or heavy objects); further, the L-shaped reinforcing sheet 122 can make the connection of the top beam 12 more stable, avoid shaking or displacement caused by loose connection, improve the stability and earthquake resistance of the entire scaffolding body in bad weather, and further improve the safety of use.

Please refer to FIG. 3 and FIG. 4 in conjunction with FIG. 1 and FIG. 2 to reveal that the main body 10 includes a control device 14 and a pneumatic rod 15. The control device 14 is electrically connected to the pneumatic rod 15. A connecting piece 16 is provided at the corner of one end of the plurality of blades 13. The pneumatic rod 15 is coupled to the connecting piece 16 and drives the connecting piece 16 to reciprocate. When the control device 14 is activated, the pneumatic rod 15 pushes the connecting piece 16 to reciprocate according to the set command. The above movement will cause the connecting piece 16 to drive the blades 13 to turn synchronously, thereby achieving the effect of adjusting the angle of the blades 13.

Through the above structure, the reciprocating displacement of the air pressure rod 15 can be controlled by the control device 14 to control the blades 13 to be flexibly adjusted within different angle ranges to match the current weather changes and improve the comfort of the user. For example, on sunny days, the blades 13 can be adjusted to 180 degrees to achieve a sunshade effect. After rainy days, the blades 13 can be adjusted to an inclined state such as 30 to 150 degrees to accelerate drainage, avoid water accumulation problems, and maximize drainage efficiency.

Please continue to refer to Figures 3 and 4 in conjunction with Figures 1 and 2. Linking plates 16 can also be set at the corners of the two ends of the multiple blades 13. The air pressure rod 15 is combined with one of the linking plates 16. When the push rod of the air pressure rod 15 is displaced, one of the linking plates 16 will be displaced and the multiple blades 13 will be turned over synchronously. When the multiple blades 13 are displaced, another linking plate 16 will be displaced synchronously. Therefore, the force applied by the air pressure rod 15 will directly or indirectly displace the two linking plates 16 and cause the multiple blades 13 to turn over synchronously.

In the above structure, the connecting pieces 16 are respectively arranged at both ends of the blade 13 to balance the force applied by the air pressure rod 15, further ensuring that the movement of the blade 13 during flipping is smoother, effectively reducing the shaking and deviation of the blade 13 during the flipping process, and enhancing the stability of the overall structure, and avoiding deformation or damage of the blade 13 caused by excessive force on one side.

Please refer to Figures 1 and 3. A rotating unit 17 is provided at one end of the air rod 15. The rotating unit 17 is provided on the top surface of one of the top beams 12. The rotating unit 17 can drive the air rod 15 to rotate. The rotating unit 17 allows the movement of the air rod 15 to no longer be limited to a single direction, so that the air rod 15 can apply force at multiple angles, thereby providing a more flexible adjustment range of the blade 13.

Please continue to refer to Figures 2 and 4. One end of each blade 13 is connected to a corner that is different from the corner that is connected to the connecting plate 16. The connecting assembly 18 is used to increase the displacement distance of the blade 13. The connecting assembly 18 includes a connecting shaft 181 and a rotating plate 183. The connecting shaft 181 has an extended end 182. The connecting shaft 181 is connected to the inner wall of the top beam 12. The two ends of the rotating plate 183 are respectively connected to the extended end 182 and the corner of the blade 13 that is different from the corner that is connected to the connecting plate 16; in addition, the connecting assembly 18 can ensure that the blades 13 can coordinate their movements during the flipping process to avoid interference between the blades 13.

Please refer to Figure 5. The main body 10 includes a plurality of roller blinds 19 and a plurality of power sources 191. Each column 11 has a guide groove 112 at a relative position. Each power source 191 is respectively arranged on each top beam 12 and electrically connected to the control device 14. Each roller blind 19 is combined with the power source 191, and the power source 191 drives each roller blind 19 to rise and fall along the corresponding guide groove 112. The roller blind 19 can effectively block direct sunlight and reduce the temperature inside the scaffold. The user can also adjust the height of the roller blind 19 according to the intensity and angle of sunlight to achieve the best sunshade effect. Furthermore, adjusting the height of the roller blind 19 can control the range of outside vision and enhance the user's sense of privacy. In addition, the roller blind 19 can be lowered in strong winds or rainy days to protect against at least level 8 winds and rain.

In the above, the skylight pergola with flip blades in this case can be applied to the front and back balconies on the top floor of a townhouse, the garage space on the first floor, the terrace on the second floor, and the meeting room or tea room of an independent luxury house. In addition, the skylight pergola with flip blades in this case can also be used independently as a courtyard, garden or outdoor leisure area, providing flexible lighting and ventilation adjustment, and improving the comfort and functionality of the space.

With the above structure, the advantages of this invention are as follows:

1. Smooth drainage system: In this application, the water guide groove 131 at the top of the blade 13 is connected to the second drainage channel 121 in the top beam 12, and then the second drainage channel 121 is connected to the first drainage channel 111 in the column 11, forming a high-level water flow guiding system to avoid water accumulation problems.

2. Sunshade, ventilation and waterproofing: The blades 13 can be driven to flip through the control device 14 and the air pressure rod 15. The light can be adjusted by adjusting the angle of the blades 13, and it can adapt to different weather conditions. It not only forms an effective ventilation or sunshade structure, but also has a drainage function. In addition, the flipping of the blades 13 is also convenient for users to clean. The present application is also provided with a roller curtain 19 that can be raised and lowered along the guide groove 112, which can provide additional sunshade, windproof and enhance privacy.

The technical features of the above-mentioned embodiments can be combined arbitrarily. In order to make the description concise, not all possible combinations of the technical features in the above-mentioned embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

10: Main body 11: Column 111: First drainage channel 112: Guide groove 12: Top beam 121: Second drainage channel 122: L-shaped reinforcement plate 13: Blade 131: Water guide groove 14: Control device 15: Air pressure rod 16: Linking plate 17: Rotating unit 18: Linking assembly 181: Linking shaft 182: Extension end 183: Rotating plate 19: Curtain 191: Power source

[Figure 1] is a three-dimensional schematic diagram of the skylight pergola with flip blades of this application. [Figure 2] is a three-dimensional schematic diagram of the skylight pergola with flip blades of this application from another perspective. [Figure 3] is a schematic diagram of the blades flipping after the air pressure rod applies force in this application. [Figure 4] is a schematic diagram of the blades flipping after the air pressure rod applies force in this application from another perspective. [Figure 5] is a three-dimensional schematic diagram of the roller blind of this application after it is lowered.

10: Body

11: Pillar

111: First drainage channel

12: Top beam

121: Second drainage channel

122: L-shaped reinforcement sheet

13: Leaves

131: Water diversion ditch

14: Control device

15: Air pressure rod

17: Rotating unit

Claims (10)

A skylight pavilion with flip blades, comprising: A main body, including a plurality of top beams, a plurality of columns, a plurality of blades, a control device and a pneumatic rod; The ends of the plurality of top beams are connected to each other; Each of the columns is vertically arranged at the connection position of the plurality of top beams; The plurality of blades are arranged and distributed on the inner edge formed by the plurality of top beams; Each of the two ends of the column has a first drainage channel, each of the inner edges of the top beam has a second drainage channel, and each of the top surfaces of the blades has a water guide groove, each of the water guide grooves is connected to each of the second drainage channels, and the two ends of each of the second drainage channels are connected to the corresponding first drainage channels; and The control device is electrically connected to the air pressure rod, and a connecting plate is provided at the corner of at least one end of the plurality of blades. The air pressure rod is coupled with the connecting plate and drives the connecting plate to reciprocate, thereby causing the plurality of blades to turn synchronously. As described in claim 1, a skylight pergola with flip blades is provided at one end of the air pressure rod, and the rotating unit is provided on the top surface of one of the top beams, and the rotating unit drives the air pressure rod to rotate. As described in claim 2, a skylight pavilion with flip blades, wherein one end of each blade is connected to a connecting component at a corner different from the connecting plate, and the multiple connecting components are used to increase the displacement distance of the multiple blades. A skylight pergola with flip blades as described in claim 3, wherein the linkage assembly includes a linkage shaft and a rotating plate, the linkage shaft has an extended end, the linkage shaft is coupled to the inner wall of the top beam, and the two ends of the rotating plate are respectively coupled to the extended end and the corner of the blade different from that coupled to the linkage plate. As described in claim 4, the skylight pergola with flip blades has an L-shaped reinforcement plate at the connection point of each top beam, and the inner wall surface of the L-shaped reinforcement plate is simultaneously combined with the outer wall surfaces of the two top beams. A skylight pavilion with flip blades, comprising: A main body, including a plurality of top beams, a plurality of columns, a plurality of blades, a control device, a pneumatic rod, a plurality of roller blinds and a plurality of power sources; The ends of the plurality of top beams are connected to each other; Each of the columns has a guide groove at a relative position, and each of the columns is vertically arranged at a connection position of the plurality of top beams; The plurality of blades are arranged and distributed on the inner edge formed by the plurality of top beams. The two ends of each column are connected with a first drainage channel, and the inner edge of each top beam is provided with a second drainage channel. The top surface of each blade is provided with a water guide groove, each water guide groove is connected with each second drainage channel, and the two ends of each second drainage channel are connected with the corresponding first drainage channel; The control device is electrically connected to the air pressure rod, and a connecting plate is provided at the corner of at least one end of the plurality of blades. The air pressure rod is combined with the connecting plate and drives the connecting plate to reciprocate, thereby causing the plurality of blades to turn synchronously; Each power source is respectively disposed on each top beam and electrically connected to the control device. Each roller curtain is combined with the power source, and the power source drives each roller curtain to rise and fall along the corresponding guide grooves. As described in claim 6, a skylight pergola with flip blades is provided at one end of the air pressure rod, and the rotating unit is provided on the top surface of one of the top beams, and the rotating unit drives the air pressure rod to rotate. As described in claim 7, a skylight pavilion with flip blades, wherein one end of each blade is connected to a connecting component at a corner different from the connecting plate, and the multiple connecting components are used to increase the displacement distance of the multiple blades. A skylight pergola with flip blades as described in claim 8, wherein the linkage assembly includes a linkage shaft and a rotating plate, the linkage shaft has an extended end, the linkage shaft is coupled to the inner wall of the top beam, and the two ends of the rotating plate are respectively coupled to the extended end and the corner of the blade different from that coupled to the linkage plate. As described in claim 9, the skylight pergola with flip blades has an L-shaped reinforcement plate at the connection point of each top beam, and the inner wall surface of the L-shaped reinforcement plate is simultaneously combined with the outer wall surfaces of the two top beams.