A water ripple cantilever corridor

Abstract

This utility model relates to the field of building structures, specifically disclosing a water ripple cantilevered corridor; it includes: a steel cantilever frame having a central support structure and cantilever structures on both sides of its upper end, with cantilever steel beams at the bottom of the cantilever structures; an array of suspended members, with multiple acrylic panels connected to the bottom of the suspended members, the acrylic panels being located below the cantilever structures; water ripple lighting assemblies, spaced apart above the acrylic panels and connected to the bottom of the cantilever steel beams; and an extended steel structure located on the side of the cantilever structure away from the central support structure, with a fence on its top and a decorative surface connected to it, the bottom of which is flush with the acrylic panels and the top of which is higher than the fence. This utility model integrates dynamic lighting, translucent panels, and the cantilever main structure into a unified design, creating flowing water ripple light and shadow on the ground, significantly enhancing the technological feel and immersive experience of the space.

Description

Technical Field

[0001] This utility model relates to the field of building structures, and in particular to a water ripple cantilevered corridor. Background Technology

[0002] In the current field of exhibition hall design, to create a technologically advanced and attractive spatial atmosphere, designers often strive to enhance the visitor experience through structural innovation and visual effects. Cantilever structures, as an architectural form capable of creating an open, unsupported visual effect, have been widely used in public spaces such as exhibition halls and observation decks. Traditional cantilevered corridors or platforms typically use reinforced concrete or steel structures as the main load-bearing system. Their design focuses primarily on structural safety and stability, and are aesthetically pleasing through conventional architectural decorative techniques such as laying floor tiles and installing glass railings.

[0003] In terms of ceiling decoration in interior spaces, ceiling designs are becoming increasingly diverse. To achieve specific aesthetic effects or functional requirements, various materials such as grilles, aluminum panels, and gypsum board are used for ceiling decoration. Among them, acrylic panels (or plexiglass) are often used as decorative elements due to their excellent light transmission, plasticity, and lightweight yet high strength, such as as translucent ceilings or decorative partitions. However, their application is usually relatively static, relying mainly on the texture and color of the material itself, or in conjunction with static backlighting to present the effect. At the same time, to enhance the dynamism and immersive experience of the space, dynamic lighting technology is increasingly being introduced into interior design. For example, through projectors or dedicated LED lights, dynamic images such as water ripples, starry skies, and flowing clouds can be projected onto walls, floors, or ceilings. These dynamic light and shadow effects can effectively create specific scene atmospheres and guide the viewer's emotions, but such lighting equipment is usually added to the existing building structure as an independent system, with less consideration given to integration with the main structure.

[0004] In conclusion, while existing exhibition hall corridor designs have incorporated cantilever structures, diverse ceiling materials, and dynamic lighting techniques, they often treat structure, decoration, and lighting as relatively independent systems. How to integrate these elements seamlessly, enabling cantilever structures to not only fulfill functional requirements but also become carriers of dynamic visual effects, and how to create more immersive and technologically advanced corridor spaces through the coordinated design of structure, materials, and lighting, is a direction worthy of further exploration in the field of exhibition hall design. Utility Model Content

[0005] The purpose of this utility model is to address the shortcomings of existing technologies by proposing a water ripple cantilevered corridor. To achieve the above objective, the embodiments of this utility model adopt the following technical solution:

[0006] This utility model embodiment proposes a water ripple cantilevered corridor, including a steel structure cantilever frame. The cantilever frame includes a central support structure and cantilever structures respectively disposed on both sides of the upper end of the central support structure. The bottom of the cantilever structure is provided with a cantilever steel beam, and further includes:

[0007] The array consists of suspended components and multiple acrylic panels connected to the bottom of the suspended components; an extended steel structure located on the side of the cantilever structure away from the central support structure, with a fence installed on the top of the extended steel structure; a decorative surface with its bottom flush with the acrylic panels and its top higher than the fence, the decorative surface being connected to the extended steel structure; and water ripple light assemblies spaced above the acrylic panels, the water ripple light assemblies being connected to the bottom of the cantilever steel beam.

[0008] Preferably, the water ripple light assembly includes a mounting frame and a plurality of water ripple lights connected to the mounting frame, the water ripple lights comprising:

[0009] The lamp consists of LED beads, a drive motor, and a corrugated lamp cover located outside the LED beads. The drive motor is used to drive the corrugated lamp cover to rotate or rotate.

[0010] Preferably, the top of the acrylic sheet has an undulating corrugated surface, and the bottom of the acrylic sheet has a smooth surface.

[0011] Preferably, the suspension component includes a top bolt, a galvanized square steel bar, and a bottom fastener. The bottom fastener is located at the bottom of the galvanized square steel bar and connected to the top of the acrylic sheet. The top of the galvanized square steel bar is connected to the bottom of the cantilever structure via the top bolt.

[0012] Preferably, the extended steel structure includes: horizontal square steel, oblique square steel and bottom supporting square steel. The horizontal square steel and bottom supporting square steel are respectively connected to the cantilever structure. The oblique square steel is respectively connected to the horizontal square steel and the bottom supporting square steel. The fence is connected to the horizontal square steel. The top of the horizontal square steel is provided with a supporting surface that is flush with the top of the cantilever structure. The decorative surface is respectively connected to the bottom supporting square steel and the fence.

[0013] Preferably, a reflective film is provided on the bottom surface of the cantilever structure, which is used to reflect ambient light reflected by the acrylic sheet.

[0014] Preferably, decorative wall panels are provided in the vertical direction corresponding to the edge gaps between the central support structure and the multiple acrylic panels, and the decorative wall panels are connected to the outer edge of the central support structure through a keel.

[0015] Preferably, laminated glass is fitted onto the top of the fence.

[0016] Beneficial effects:

[0017] This utility model provides a water ripple cantilevered corridor, which effectively overcomes the limitations of existing technologies where the structure, decoration, and lighting effects of exhibition hall corridors are separated, resulting in poor overall cohesion and insufficient immersive experience. By integrating the cantilever structure, translucent panels, dynamic lighting, and external enclosure structure into a unified design, this solution cleverly utilizes acrylic panels as a light medium to create a realistic, flowing, dynamic water ripple effect on the corridor floor. This significantly enhances the technological and artistic appeal of the space, avoiding the abruptness of lighting as merely an additional decoration in traditional designs. More importantly, by incorporating an external steel structure, railings, and matching decorative surfaces, this solution not only ensures the safety of passage through the cantilevered corridor but also achieves spatial extension and visual integrity, significantly enhancing the sense of suspension and design of the entire corridor. The design integrates load-bearing structure, visual effects, and functional components to create a lightweight, light-and-shadow-changing, and immersive passageway, significantly enhancing the overall design quality of the exhibition hall and the visitor experience. Attached Figure Description

[0018] Various other advantages and benefits will become apparent to those skilled in the art upon reading the following detailed description of preferred embodiments. The accompanying drawings are for illustrative purposes only and are not intended to limit the scope of the invention. Furthermore, the same reference numerals denote the same parts throughout the drawings. In the drawings:

[0019] Figure 1 This is a cross-sectional view of the water ripple cantilevered corridor proposed in this embodiment;

[0020] Figure 2 This is a magnified view of part A of the water ripple cantilevered corridor proposed in this embodiment;

[0021] Figure 3 This is a cross-sectional view of the water ripple cantilevered corridor proposed in this embodiment;

[0022] Figure 4 This is a schematic diagram of the structure of the water ripple lamp proposed in this embodiment;

[0023] Figure 5 This embodiment presents a schematic diagram of the structure of the water ripple lamp assembly.

[0024] Icons: 10-Water ripple cantilevered corridor; 11-Cantilevered frame; 12-Central support structure; 13-Cantilever structure; 14-Cantilevered steel beam; 15-Suspension component; 16-Acrylic panel; 17-Extended steel structure; 18-Fence; 19-Decorative surface; 20-Water ripple light assembly; 21-Fixing frame; 22-Water ripple light; 23-Light bulb; 24-Drive motor; 25-Ripple lampshade; 26-Top bolt; 27-Galvanized square steel; 28-Bottom fastener; 29-Horizontal square steel; 30-Diagonal square steel; 31-Bottom support square steel; 32-Decorative wall panel; 33-Laminated glass. Detailed Implementation

[0025] To make the objectives, technical solutions, and advantages of this utility model clearer, the specific embodiments of this utility model will be described in detail and completely below with reference to the accompanying drawings. It should be noted that the embodiments described herein are only some examples of this utility model, and not all of them. Those skilled in the art can obtain other drawings based on these drawings without any creative effort. It should be stated that the description of these embodiments is intended to help understand this utility model, but does not constitute a limitation thereof.

[0026] In the following description, all terms indicating orientation or positional relationships, such as "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," and "outer," are based on the relative relationships shown in the accompanying drawings. The use of these terms is merely for simplification and to enhance understanding, and is not intended to indicate or imply that the device or element referred to must have or follow a specific spatial orientation in its construction and operation. Therefore, they should not be construed as any limitation on the scope of protection of this utility model.

[0027] Example

[0028] This embodiment discloses a water ripple cantilevered corridor. Through an integrated design of structure, decoration, and dynamic lighting, this corridor aims to create a passageway within exhibition halls and other spaces that combines technological aesthetics with an immersive experience. To achieve this technical objective, this embodiment proposes a technical solution with high structural integration and efficient functional implementation.

[0029] See attached document Figure 1 To be continued Figure 5 ,in, Figure 1 The overall cross-sectional structure of the water ripple cantilever corridor 10 in this embodiment is shown. Figure 2 for Figure 1 A magnified view of part A in the diagram. Figure 3 This is a cross-sectional view of the corridor from another perspective, and Figure 4 and Figure 5The internal structure of its core lighting unit, namely the water ripple lamp 22 and the water ripple lamp assembly 20, is illustrated in detail.

[0030] Specifically, refer to Figure 1 The basic load-bearing structure of the water ripple cantilever corridor 10 is a steel cantilever frame 11. This cantilever frame 11, as the load-bearing core of the overall structure, must simultaneously meet the stringent safety requirements of structural mechanics and achieve a visually light and floating effect. The cantilever frame 11 consists of a central support structure 12 and symmetrically arranged cantilever structures 13 on both sides of its upper end. The central support structure 12, as the main load-bearing unit, is typically rigidly connected to the main building structure of the exhibition hall (e.g., load-bearing walls or columns). It can be constructed using high-strength steel (such as Q355B or higher grade H-beams or box beams), and the entire load of the corridor is effectively transferred to the main building through embedded parts, high-strength bolts, or welding. The cantilever structures 13, extending from the upper end of the central support structure 12 to both sides, are the main platforms for achieving the visually floating effect of the corridor and providing passageway functionality. To minimize structural weight while ensuring structural strength, the frame of the cantilever structure 13 can adopt efficient cross-sectional forms such as trusses or open-web beams, and high-strength steel can be selected. At the bottom of the cantilever structure 13, cantilever steel beams 14 are arranged longitudinally or laterally along the corridor. These steel beams not only serve as the main load-bearing components of the cantilever structure 13 to support the upper walkway slab (which can be made of tempered glass, metal plate, or composite panel), but also bear the load of the decoration and lighting system below, forming a key structural layer connecting the upper passage function and the lower visual presentation.

[0031] Building upon the aforementioned framework, the core of this invention lies in upgrading a traditional cantilevered corridor into an immersive space with dynamic water ripple lighting effects through the integration of additional functional components. Specifically, the corridor's ceiling system abandons the traditional closed design, instead employing a translucent ceiling composed of multiple acrylic panels 16. Figure 1 , Figure 2 and Figure 3 As shown, the multiple acrylic panels 16 are connected to the bottom of the cantilever structure 13 via an array of suspension members 15. The suspension members 15 are evenly distributed in a matrix, providing stable and uniform support for each acrylic panel 16, thus creating a transparent and light visual interface at the bottom of the corridor. In this design, the acrylic panel 16 serves as a key optical medium, and its optical parameters, such as transmittance and refractive index, have a decisive influence on the final presentation of the water ripple visual effect.

[0032] To ensure safe passage and optimize the overall outline of the corridor, an extended steel structure 17 was installed on the outer side of the cantilever structure 13, away from the central supporting structure 12. Figure 2As can be seen from the enlarged view, the extended steel structure 17, as an extension of the cantilever structure 13, has a fence 18, conforming to building safety regulations, fixedly installed on its top for effective protection. To construct a complete and unified side view of the corridor and to conceal the internal framework of the extended steel structure 17, this embodiment further includes a decorative surface 19. The bottom of the decorative surface 19 is basically at the same elevation as the bottom surface of the acrylic panel 16, while its top exceeds the height of the fence 18, thus forming a continuous and complete facade. The decorative surface 19 is attached to the extended steel structure 17 via connectors, and its surface material can be selected from metal plates, laminated glass, or composite material panels, etc., according to the overall design requirements. This integrated design makes the cantilever corridor appear as a highly integrated design block when viewed from the side, rather than a simple combination of platform and railing.

[0033] The core device for achieving the "water ripple" dynamic light and shadow effect is the water ripple light assembly 20, which is spaced above the acrylic plate 16. (Refer to...) Figure 3 and Figure 5 The water ripple lighting components 20 are installed at the bottom of the cantilevered steel beam 14 and concealed within the cavity between the cantilevered structure 13 frame and the acrylic panel 16. During operation, the beams generated by the water ripple lighting components 20 are projected downwards, passing through the acrylic panel 16 below, ultimately creating a dynamic, flowing water ripple effect on the corridor floor. This built-in lighting design makes the light source itself invisible to passersby, avoiding glare and thus optimizing visual comfort and an immersive experience. The integrated design of the lighting fixtures with the main structure avoids the visual abruptness that may be caused by external projection equipment in traditional solutions, achieving a high degree of integration between technical function and architectural form.

[0034] To further optimize this technical solution, this embodiment also provides a series of preferred technical details.

[0035] As a preferred embodiment, the construction of the water ripple light assembly 20 and its internal water ripple lights 22 is specifically defined. (Refer to...) Figure 4 and Figure 5The water ripple light assembly 20 includes a long, rectangular mounting bracket 21 and multiple water ripple lights 22 fixed thereon. The bracket 21 can be directly connected to the cantilevered steel beam 14, simplifying installation and electrical wiring. Each individual water ripple light 22 serves as a dynamic lighting effect generation unit, and its internal structure includes: a light-emitting LED bead 23 as the light source, a miniature drive motor 24, and a corrugated lampshade 25 covering the light-emitting LED bead 23. The light-emitting LED bead 23 can use high-efficiency LED chips to achieve low energy consumption, long lifespan, and low heat radiation. The key to this design is the corrugated lampshade 25, which is typically made of transparent or semi-transparent material with an irregular, undulating surface that simulates water ripples. The drive motor 24 drives the corrugated lampshade 25 to rotate at a constant or variable speed. When the light generated by the light-emitting lamp bead 23 passes through the rotating corrugated lampshade 25, the refraction, focusing and divergence effects of the light change dynamically due to the continuous change in the medium morphology along the light path. This results in the projected light field exhibiting a composite effect of flow, diffusion and convergence, forming a highly realistic dynamic image of water ripples on the ground.

[0036] As another preferred option, to enhance the richness of the light and shadow effects, the surface morphology of the acrylic sheet 16 was optimized. In this embodiment, the top surface of the acrylic sheet 16 is treated with an undulating corrugated shape, while its bottom surface remains smooth. The corrugated shape of the top surface can produce secondary refraction and diffuse reflection of the dynamic light projected by the water ripple lamp 22 above, making the light transition softer, thereby increasing the sense of layering and visual realism of the water ripple effect. At the same time, the smooth bottom surface ensures visual transparency when viewed from below, avoiding visual distortion caused by the deformation of the sheet itself.

[0037] As another preferred embodiment, the structure of the suspension member 15 for fixing the acrylic plate 16 was specifically designed. (Refer to...) Figure 2 Each suspension component 15 consists of a top bolt 26, a galvanized square steel bar 27, and a bottom fastener 28. The galvanized square steel bar 27 serves as the main vertical connecting component, its upper end fixed to the bottom frame of the cantilever structure 13 via the top bolt 26 or an equivalent connector. Its lower end is equipped with a bottom fastener 28 to stably clamp or support the edge of the acrylic sheet 16. This modular structure design features reliable connection and convenient installation. Furthermore, by adjusting the screw depth of the top bolt 26, precise fine-tuning of the installation height of the acrylic sheet 16 can be achieved, ensuring that all panels form a uniform horizontal plane.

[0038] As another preferred option, to improve the stability and visual integrity of the outer structure of the corridor, the internal structure of the outward-extending steel structure 17 was optimized. For example... Figure 2As shown, the extended steel structure 17 consists of horizontal square steel 29, diagonal square steel 30, and bottom supporting square steel 31. The horizontal square steel 29 and the bottom supporting square steel 31 are rigidly connected to the sides of the cantilever structure 13 (e.g., by welding or bolting), while the diagonal square steel 30 connects the horizontal square steel 29 and the bottom supporting square steel 31, forming a stable triangular truss unit, thereby significantly improving the overturning resistance and overall stiffness of the extended steel structure. The fence 18 can be directly installed on the horizontal square steel 29. Furthermore, to form a continuous passageway, the top surface of the horizontal square steel 29 can be set as a support surface with the same elevation as the top walkway slab of the cantilever structure 13. The aforementioned decorative surface 19 can be fixed to the outside of the bottom supporting square steel 31 and the fence 18 to form a closed lateral facade.

[0039] As another preferred solution, to improve the illuminance and lighting quality of the overhead space, a reflective film can be applied to the underside of the cantilever structure 13, specifically to the inner surface of the steel structure above the water ripple lighting assembly 20 and the acrylic panel 16. This reflective film (e.g., made of mirrored stainless steel or a high-reflectivity coating) can redirect some of the ambient light reflected upwards from the acrylic panel 16 back to the corridor area. This helps reduce light energy loss, improves the overall lighting efficiency, and makes the overhead space appear brighter and more open.

[0040] As another preferred solution, to achieve a smooth transition between the edges of the central support structure 12 and the acrylic panels 16 on both sides and to enhance the visual integrity of the joint, a decorative wall panel 32 can be installed vertically at the joint between the two. For example... Figure 1 As shown, the decorative wall panel 32 can be used to conceal the sides, structural connection nodes, and internal pipelines of the central support structure 12, with its bottom edge aligned with the inner edge of the acrylic panel 16. The decorative wall panel 32 can be connected to the outer edge of the central support structure 12 through a light steel keel system or similar construction, thereby forming a regular and continuous wall surface, optimizing the connection between the cantilevered corridor and the main structure.

[0041] As another preferred option, to further enhance the safety level and aesthetic quality of the top of the fence 18, laminated glass 33 can be installed on its top. For example... Figure 2 As shown, the laminated glass 33 is preferably made of tempered laminated glass, which also functions as a handrail. The transparency of its material echoes the acrylic panel, thereby enhancing the overall harmony and modernity of the corridor design.

[0042] In summary, this embodiment, through the systematic integration of the aforementioned structural and functional components, achieves a water-ripple cantilevered corridor that combines structural aesthetics, safety protection, and a dynamic light and shadow experience. This design, through the synergistic effect of its components, collectively constructs a unique spatial experience, effectively enhancing the overall attractiveness and functional performance of the exhibition space.

[0043] The above description is merely a preferred embodiment of the present utility model and is not intended to limit the present utility model. Various modifications or variations can be made to the present utility model by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A water ripple cantilever corridor, comprising a steel cantilever frame, the cantilever frame including a central support structure and cantilever structures respectively disposed on both sides of the upper end of the central support structure, wherein the bottom of the cantilever structure is provided with a cantilever steel beam, characterized in that, Also includes: An array of suspension components, with multiple acrylic plates connected to the bottom of the suspension components; An extended steel structure is installed on the side of the cantilever structure away from the central support structure. The top of the extended steel structure is equipped with a fence; a decorative surface with its bottom flush with the acrylic plate and its top higher than the fence is connected to the extended steel structure; and water ripple light assemblies are spaced above the acrylic plate and connected to the bottom of the cantilever steel beam.

2. The water ripple cantilevered corridor according to claim 1, characterized in that, The water ripple light assembly includes a mounting frame and a plurality of water ripple lights connected to the mounting frame, wherein the water ripple lights include: The lamp includes a light-emitting LED, a drive motor, and a corrugated lampshade disposed outside the light-emitting LED. The drive motor is used to drive the corrugated lampshade to rotate or rotate.

3. The water ripple cantilevered corridor according to claim 1, characterized in that, The top of the acrylic sheet has an undulating corrugated surface, while the bottom of the acrylic sheet has a smooth surface.

4. The water ripple cantilevered corridor according to claim 1, characterized in that, The suspension component includes a top bolt, a galvanized square steel bar, and a bottom fastener. The bottom fastener is located at the bottom of the galvanized square steel bar and connected to the top of the acrylic plate. The top of the galvanized square steel bar is connected to the bottom of the cantilever structure via the top bolt.

5. The water ripple cantilevered corridor according to claim 1, characterized in that, The extended steel structure includes: horizontal square steel, diagonal square steel, and bottom supporting square steel. The horizontal square steel and bottom supporting square steel are respectively connected to the cantilever structure. The diagonal square steel is respectively connected to the horizontal square steel and the bottom supporting square steel. The fence is connected to the horizontal square steel. The top of the horizontal square steel is provided with a supporting surface that is flush with the top of the cantilever structure. The decorative surface is respectively connected to the bottom supporting square steel and the fence.

6. The water ripple cantilevered corridor according to claim 1, characterized in that, The bottom surface of the cantilever structure is provided with a reflective film, which is used to reflect ambient light reflected by the acrylic plate.

7. The water ripple cantilevered corridor according to claim 1, characterized in that, A decorative wall panel is provided in the vertical direction corresponding to the edge gap between the central support structure and the multiple acrylic panels. The decorative wall panel is connected to the outer edge of the central support structure through a keel.

8. The water ripple cantilevered corridor according to claim 1, characterized in that, The top of the fence is fitted with laminated glass.

Images