Self-adaptive wind force splash-proof landscape splash-proof structure

Abstract

The present application relates to the technical fields of landscape engineering, and discloses a landscape splash-proof structure capable of self-adapting wind force and resisting water splash, which comprises a U-shaped protective fence with an opening facing a waterfall landscape wall; at least one liftable lateral splash-proof inner plate vertically arranged inside at least one lateral protective plate of the protective fence and capable of lifting in a vertical direction; a wind force sensing and transmission mechanism comprising a turbine fan arranged outside the lateral protective plate and capable of rotating under the drive of wind force, and a transmission unit for converting the rotating movement of the turbine fan into driving the lifting movement of the lateral splash-proof inner plate. The present application changes static protection into dynamic response, the structure can sense wind direction and automatically raise the protective barrier on the leeward side to intercept most of the inclined splash water blown to the side by the wind. Compared with the fixed high fence, the protective efficiency of the present application is higher and more targeted.

Description

Technical Field

[0001] This invention relates to the field of landscape engineering technology, specifically to an adaptive wind-resistant splash-proof landscape structure, and more particularly to a structure for dynamic and efficient protection against water splashes from cascading water curtains in environments with strong winds, such as high-rise buildings and coastal areas. Background Technology

[0002] Decorative cascading water features with top overflow outlets are widely used in public spaces such as city squares, hotel entrances, and high-rise observation decks due to their excellent visual appeal. The water curtain falls along the wall surface to the bottom, creating a dynamic water feature atmosphere.

[0003] However, in coastal cities, high-rise building clusters, or open areas with significant wind pressure, this landscape faces a thorny engineering problem: strong winds (such as sea breezes, inter-building winds, and canyon winds) can significantly tear and deflect the freely falling water curtain. The wind force not only changes the vertical trajectory of the falling water curtain, but also blows the water splashes generated when it hits the bottom water surface or hard ground to unexpected directions and distances. This wind-driven tilting splash has a coverage area far exceeding that of conventional protective structures designed based on fixed geometry (such as L-shaped baffles).

[0004] Existing technologies mainly include protective measures against splashing water in cascading water features: 1. Fixed water barriers: Fixed low walls or barriers in the shape of L, inverted U, etc. are set up in front of the landscape to try to block vertically splashing water within a certain range. However, their disadvantages are exposed in strong winds: they cannot cope with water splashes that dynamically change the splash angle due to changes in wind direction, and the protective effect is limited or even completely ineffective. 2. Expand the receiving area (e.g., widen the water tank): Simply expanding the size of the bottom receiving tank or platform to accommodate all possible splashes of water is a large-scale project that occupies valuable ground space, affects the overall harmony of the landscape, and may cause the splash distance to far exceed the reasonable economic expansion range under high wind speeds. 3. Adjust water flow or drop height: Reduce splash energy by decreasing water flow or lowering drop height, but this will significantly weaken the visual impact of the landscape, deviating from the original design intention; 4. Set up fixed-height lateral barriers: Set up high and fixed side panels on both sides of the water curtain. Although this method provides some protection against lateral splashes, it is not flexible enough. In the absence of wind or a light breeze, the excessively high side panels affect the view and the transparency of the landscape. When a strong wind blows from one side, the splashes mainly fly to the other side, and the fixed side panels on the windward side are not effectively raised, so they cannot provide targeted protection.

[0005] Therefore, existing technologies lack an intelligent splash-proof structure that can sense changes in environmental wind force and actively adjust its protective form, making it impossible to effectively address the dynamic water splashing problem in complex and ever-changing wind field environments while maintaining the aesthetic effect of the landscape. Summary of the Invention

[0006] The purpose of this invention is to overcome the shortcomings of existing technologies and provide an adaptive wind-driven splash-proof landscape structure. This structure not only absorbs and blocks splashes, but more importantly, it possesses wind sensing and adaptive adjustment capabilities. It can dynamically increase the lateral protection height according to wind direction and intensity, achieving precise and efficient interception of water splashes caused by wind-driven tilting.

[0007] This invention proposes an adaptive wind-driven anti-splash landscape structure, installed in front of the water curtain cascading area of ​​a cascading water feature wall, comprising: A U-shaped protective fence with its opening facing the cascading water feature wall; At least one liftable lateral splash guard is vertically disposed inside at least one lateral protective panel of the protective enclosure and can move up and down in the vertical direction. The wind sensing and transmission mechanism includes a turbine fan disposed on the outside of the side protection plate and capable of rotating by wind, and a transmission unit that converts the rotational motion of the turbine fan into the lifting motion of the side splash guard inner plate. The wind sensing and transmission mechanism is configured to drive the lateral splash guard inner plate located on the downwind side to rise when the wind drives the turbine fan to rotate. The protective barrier is U-shaped and consists of a front protective panel and two side protective panels. The side splash guards are installed in the lifting grooves inside the side protective panels. The wind sensing and transmission mechanism uses a turbine fan to sense the wind force and converts the rotational motion into the lifting motion of the side splash guards through a transmission unit (such as a drive shaft). This structure converts the wind energy that causes problems into the power to drive the change of the protective structure, realizing adaptive protection of "lifting the panel when the wind comes and accurately intercepting".

[0008] As a further optimization of the present invention, the protective enclosure includes a positive protective plate, and the upper surface of the positive protective plate is covered with a sponge board for absorbing water flow. The forward protection panel has an L-shaped structure with its long side extending horizontally. The sponge board is laid on the upper surface of the forward protection panel and faces directly below the cascading water curtain. The sponge board can absorb a large amount of kinetic energy from the vertical drop at the source, significantly reducing the amount of water splashes and forming the first layer of protection, which is mainly absorption.

[0009] As a further optimization of the present invention, a splash-proof groove for turbulence and flow guidance is provided on the inner side of the front protective plate. The splash guard is located on the inside of the short side facade of the front protective plate. Its upper and lower ends are designed as slopes. The upper slope can further block and break up splashing water, while the lower slope guides the water flow downward to the sponge plate at the bottom, playing a dual role of disturbing and guiding the flow.

[0010] As a further optimization of the present invention, the transmission unit includes a ball screw assembly, and the rotational motion of the turbine fan drives the screw of the ball screw assembly to rotate, thereby driving the lateral splash guard inner plate connected to the screw nut to rise and fall. The core of the transmission unit is a ball screw assembly installed in the transmission compartment of the side guard plate. The rotation of the turbine fan drives the screw of the ball screw to rotate through components such as the transmission shaft. The nut that cooperates with the screw is fixed to the side splash guard inner plate through the connecting rod, thereby accurately converting the rotational motion into the linear lifting motion of the splash guard inner plate.

[0011] As a further optimization of the present invention, the wind sensing and transmission mechanism is purely mechanical, and the rotating shaft of the turbine fan is directly connected to the screw input end of the ball screw assembly through a gear set. In the purely mechanical solution, the turbine fan shaft directly drives the screw of the ball screw assembly through mechanical connections such as the drive shaft and bevel gear set. This solution does not require an external power supply, utilizes wind energy to achieve a completely self-sustaining drive, and is highly reliable and easy to maintain.

[0012] As a further optimization of the present invention, the protective enclosure includes two opposing lateral protective plates, each lateral protective plate having a turbine fan disposed on its outer side; and, The turbine fan installed on the first lateral guard plate has its transmission output used to drive the lateral splash guard inner plate inside the second lateral guard plate to rise and fall. The turbine fan installed on the second lateral guard plate has its transmission output used to drive the lateral splash guard inner plate inside the first lateral guard plate to rise and fall. A turbine fan is installed on the outer side of the first and second lateral protective plates. The transmission outputs of the two turbine fans are connected to each other through cross-arranged drive shafts: that is, the turbine fan on the first lateral protective plate drives the ball screw in the second lateral protective plate, and vice versa. This cross-drive logic ensures that when one side is facing the wind, the splash guard on the opposite side (i.e., the leeward side) can be automatically raised to achieve precise wind direction response.

[0013] As a further optimization of the present invention, the wind sensing and transmission mechanism is semi-electromechanical, including a signal generator driven by the turbine fan, a controller, and an electric actuator controlled by the controller. The electric actuator is used to drive the lateral splash guard inner panel to rise and fall. In the semi-electromechanical solution, the turbine fan is connected to a small generator or rotary encoder as a signal generator. The generated electrical or speed signals are transmitted to the controller. When the wind force reaches the threshold, the controller starts the waterproof servo motor as an electric actuator to drive the ball screw assembly, thereby controlling the raising and lowering of the splash-proof inner panel. This solution has more precise control and lower standby power consumption.

[0014] As a further optimization of the present invention, the upper surface of the positive protective plate is provided with a drainage channel communicating with the bottom of the sponge plate, and the drainage channel leads to the gravel paving area or drainage ditch located in front of the protective fence. On the upper surface of the protective panel, multiple grooves are opened at the bottom of the sponge board, and corresponding inclined drainage channels are set. One end of the channel connects to the groove, and the other end extends to the gravel paving area in front. This design can collect and drain the water droplets that seep out after the sponge board is saturated, preventing water accumulation.

[0015] As a further optimization of the present invention, a drain port is provided at the bottom of the transmission chamber inside the side protection plate. The bottom of the transmission chamber inside the side protection plate is designed as a slope, and a drain port is opened at the lowest point of the slope. This design can promptly drain a small amount of rainwater or splash water that accidentally enters the transmission chamber, prevent internal water accumulation and corrosion, and protect the transmission components.

[0016] As a further optimization of the present invention, the lateral splash guard inner panel is in a low-position storage state inside the lateral protective panel when there is no wind. In calm or light wind conditions, the lateral splash guards lower to a low position inside the lateral protection panels and are hidden in the inner panel lifting and lowering grooves. At this time, the landscape view is open and transparent. Only when strong winds occur will the splash guards on the corresponding side rise to provide protection, perfectly balancing the effectiveness of protection and the aesthetics of the landscape.

[0017] The adaptive wind-driven water splash-resistant landscape splash barrier structure proposed in this invention has the following beneficial effects: (i) This invention transforms static protection into dynamic response. The structure can sense the wind direction and automatically raise the protective barrier on the leeward side, which precisely intercepts most of the tilted splash water blown towards that side by the wind. Compared with fixed high barriers, this protection method is more efficient and more targeted. (ii) The present invention adopts a pure mechanical transmission scheme, which directly uses the wind energy that exists in nature and causes problems as a free energy source to drive changes in the protective structure. It does not require an external power source and does not generate operating energy consumption, thus achieving true green, self-sustaining intelligent control with high reliability and simple maintenance. (iii) Under windless or light wind conditions, the lateral splash guards are lowered to a low position to maintain the openness and transparency of the landscape view. Only when strong winds occur and there is a real risk of splashing, the necessary protective panels are raised locally. This perfectly balances the contradiction between the effectiveness of protection and the aesthetics of the landscape. (iv) The structure integrates a positive sponge plate, which absorbs most of the kinetic energy of the vertical fall from the source, reducing the amount of splashing. Combined with the dynamic barriers that can be raised and lowered on both sides, it forms a multi-layered, three-dimensional protection system with absorption as the main function, barrier as the auxiliary function, and dynamic replacement, which is far more effective than a single measure. (v) The main structural components can be made of corrosion-resistant materials, and the transmission components can be sealed and protected. It can adapt well to the harsh climate environment of high salt and high humidity in coastal areas, ensuring the reliability of long-term use. Moreover, the structure can be added to the existing waterfall landscape as a modular component without making large-scale changes to the main landscape. Depending on the characteristics of the wind conditions on site, a pure mechanical or electromechanical solution can be selected, which has good economy and implementation flexibility.

[0018] Additional aspects and advantages of the invention will be set forth in part in the description which follows, and in part will be obvious from the description, or may be learned by practice of the invention. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a top view of the protective fence structure of the present invention; Figure 3 For the present invention Figure 2 A schematic diagram of the vertical cross-sectional structure of the first lateral protective plate in the middle; Figure 4 For the present invention Figure 2 Enlarged cross-sectional view of the structure at point A in the middle; Figure 5 For the present invention Figure 1 A schematic diagram of the front cross-sectional structure of the protective fence. Figure 6 This is a three-dimensional structural diagram of the forward protective plate of the present invention; Figure 7 This is a schematic diagram of a partial longitudinal section of the sponge board of the present invention.

[0020] Attached diagrams: 1. Waterfall landscape wall; 2. Protective enclosure; 3. First lateral protective panel; 4. Second lateral protective panel; 5. Front protective panel; 6. Gravel paving area; 7. Sponge board; 8. Splash guard inner panel; 9. Turbine fan; 10. Drive shaft; 11. Drive chamber; 12. Ball screw assembly; 13. Inner panel lifting slide; 14. Drain outlet; 15. Splash guard groove; 16. Baffle; 17. Drainage channel; 18. Limiting slot; 19. Groove; 20. Insertion port. Detailed Implementation

[0021] Embodiments of the present invention are described in detail below. Examples of these embodiments are illustrated in the accompanying drawings, wherein the same or similar symbols denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below with reference to the accompanying drawings are exemplary and are only used to explain the present invention, and should not be construed as limiting the present invention.

[0022] In this invention, unless otherwise explicitly specified and limited, "above" or "below" the second feature can mean that the first feature is in direct contact with the second feature, or that the first feature is in indirect contact with the second feature through an intermediate medium. Furthermore, "above," "over," and "on top" of the second feature can mean that the first feature is directly above or diagonally above the second feature, or simply that the first feature is at a higher horizontal level than the second feature. "Below," "below," and "under" the second feature can mean that the first feature is directly below or diagonally below the second feature, or simply that the first feature is at a lower horizontal level than the second feature.

[0023] Example 1 Please see Figure 1 The adaptive wind-resistant water splash prevention structure proposed in this embodiment includes a protective barrier 2 installed below the overflow water curtain of the waterfall landscape wall 1. The protective barrier 2 has a U-shaped structure and the opening faces the waterfall landscape wall 1.

[0024] Specifically, such as Figure 2 As shown, the protective fence 2 includes a first lateral protective plate 3, a second lateral protective plate 4, and a front protective plate 5. The front protective plate 5 is an L-shaped plate, with the short side of the L-shape facing upwards and parallel to and opposite to the wall surface of the cascading water feature wall 1. The long side of the L-shape is perpendicular to the wall surface of the cascading water feature wall 1, and a drainage ditch located on the ground is provided between the two. The first lateral protective plate 3 and the second lateral protective plate 4 are respectively installed on the two end faces of the front protective plate 5 and are symmetrically distributed. Gravel is laid in the drainage ditch to form a gravel paving area 6. A sponge board 7 is laid on the upper surface of the long side of the front protective plate 5, and the sponge board 7 is... The L-shaped long side of the positive protective plate 5 has a blank area at its end, which is also used to lay gravel to improve the stability of the positive protective plate 5. The sponge board 7 is located directly below the water curtain of the waterfall landscape wall 1. The water flow above falls directly onto the sponge board 7 and splashes. The sponge board 7 absorbs most of the water flow, reducing the splashing water. Some of the water falls on the gravel paving area 6 and is directly discharged through the drainage ditch or recycled. The other part of the water splashes towards the short side of the positive protective plate 5. The water flows down the inner side of the short side of the positive protective plate 5 and is then absorbed again by the sponge board 7 to prevent the water from splashing outward.

[0025] like Figure 1 , Figure 2 and Figure 3As shown, both the first lateral protective plate 3 and the second lateral protective plate 4 have vertically adjustable splash-proof inner plates 8 installed inside. Both the first lateral protective plate 3 and the second lateral protective plate 4 have a transmission chamber 11 and an inner plate lifting slide 13 inside. The transmission chamber 11 and the inner plate lifting slide 13 are adjacent and connected by a narrow channel. Vertically distributed ball screw assemblies 12 are rotatably mounted inside the transmission chamber 11. A connecting rod is installed on the threaded side of the ball screw assembly 12. The connecting rod passes through the narrow channel and extends into the inner plate lifting slide 13, connecting to the splash-proof inner plate 8. Turbine fans 9 are installed on the outer sides of the first side guard plate 3 and the second side guard plate 4. When a strong wind blows water splashes to the side of the first side guard plate 3 or the second side guard plate 4, the turbine fan 9 will rotate at high speed due to the wind force. The shaft end of the turbine fan 9 drives the ball screw assembly 12 to rotate through the transmission unit or drive assembly, so that the threaded pair drive connecting rod drives the splash inner plate 8 to rise above the first side guard plate 3 or the second side guard plate 4, thereby effectively blocking the splashed water splashes blown to the side by the wind. The lifting stroke can be customized according to the actual situation. The lower end face of the transmission chamber 11 is a slope, and the lower end of the slope is set towards the sponge plate 7. The inner side of the first lateral protective plate 3 and the second lateral protective plate 4 are respectively provided with drain ports 14 that communicate with the lower end of the slope, so as to drain splashed water droplets or rainwater that accidentally enter the transmission chamber 11. Because coastal cities have strong winds, and are affected by inter-building winds or high-rise wind pressure, the strong winds can drive the turbine fan 9 to rotate and drive the transmission unit or drive components to operate. Through actual testing or design, an feasible solution can be obtained.

[0026] Example 2 It illustrates yet another embodiment of the invention based on Embodiment 1; like Figure 2 , Figure 3 and Figure 4 As shown, the shaft end of the turbine fan 9 drives the ball screw assembly 12 to rotate through the transmission unit. The two turbine fans 9 are located on opposite sides of the outer surfaces of the first lateral protective plate 3 and the second lateral protective plate 4. There are two transmission units, which correspond one-to-one with the two turbine fans 9. The transmission unit includes a transmission shaft 10 and a drain port 14. One end of the transmission shaft 10 is fixedly connected to the shaft end of the turbine fan 9 on the outer side of the second lateral protective plate 4. The other end of the transmission shaft 10 extends into the transmission chamber 11 inside the first lateral protective plate 3 and is connected to the input end of the ball screw assembly 12 through the drain port 14. The turbine fan 9 on the outer side of the first lateral protective plate 3 is connected to the ball screw assembly 12 inside the second lateral protective plate 4 through the same structure. When the outer surface of the first lateral protective plate 3 is the windward side and a strong wind is present, the splashed water is tilted towards the second lateral protective plate 4. The turbine fan 9 on the first lateral protective plate 3 rotates synchronously, driving the drain port 14 at the top of the transmission chamber 11 inside the second lateral protective plate 4 to rotate via the transmission shaft 10. The drain port 14 drives the ball screw assembly 12 to rotate, and the threaded pair of the ball screw assembly 12 drives the inner splash guard 8 inside the second lateral protective plate 4 to rise, thereby causing the inner splash guard 8 to gradually rise above the second lateral protective plate 4 and splash and block the water that is blown obliquely by the wind. Similarly, when the outer surface of the second lateral protective plate 4 is the windward side and a strong wind is present, the splashed water is tilted towards the first lateral protective plate 3. The turbine fan 9 on the second lateral protective plate 4 rotates synchronously, causing the inner splash guard 8 to gradually rise above the first lateral protective plate 3 and splash and block the water that is blown obliquely by the wind. When the wind force weakens or disappears, under the action of gravity, the threaded pair drives the splash guard inner plate 8 to gradually move down and reset, while the ball screw assembly 12 rotates in the opposite direction until the splash guard inner plate 8 drops to the initial position, thereby achieving dynamic protection against splashing water according to the wind direction.

[0027] Example 3 It illustrates yet another embodiment of the invention based on Embodiment 1; The shaft end of the turbine fan 9 drives the ball screw assembly 12 to rotate through the drive assembly. The drive assembly includes a small waterproof servo motor installed in the transmission chamber 11 and a matching simple controller for driving the ball screw assembly 12 to rotate in both directions. It also includes a small generator or rotary encoder located inside the transmission chamber 11. The shaft end of the turbine fan 9 extends into the transmission chamber 11 and drives the small generator or rotary encoder through a bevel gear set. The micro-current generated by the generator or the speed signal of the encoder is transmitted to the controller. After the controller determines that the wind force has reached the threshold, it starts a small waterproof servo motor to drive the ball screw assembly 12 to lift the splash-proof inner plate 8, which is more precise and powerful and has low standby power consumption.

[0028] Example 4 It illustrates yet another embodiment of the invention based on Embodiment 1; like Figure 5 and Figure 6 As shown, the inner side of the short side of the front protective plate 5 is provided with vertically distributed anti-splash grooves 15. The upper and lower end faces of the anti-splash grooves 15 are upward and downward slopes, respectively. The upper slope can further protect and block splashing water, and the lower slope can guide the water flow downward to the sponge plate 7.

[0029] like Figure 1 and Figure 6As shown, the upper surface of the long side of the front protective plate 5 is provided with a limiting slot 18 that corresponds to and fits the sponge plate 7. The first side protective plate 3 or the second side protective plate 4 is provided with an insertion port 20 that fits the end face of the sponge plate 7. The sponge plate 7 can be inserted into the limiting slot 18 through the insertion port 20, which facilitates the disassembly, maintenance and replacement of the sponge plate 7.

[0030] like Figure 5 , Figure 6 and Figure 7 As shown, a baffle 16 is installed on the upper surface of the positive protective plate 5 between the gravel paving area 6 and the sponge plate 7 to separate the gravel. A drainage channel 17 is also provided on the upper surface of the positive protective plate 5 below the gravel paving area 6. One end of the drainage channel 17 extends to the bottom of the baffle 16 and is connected to the groove 19 at the bottom of the sponge plate 7. The other end of the drainage channel 17 extends horizontally to the long side end face of the positive protective plate 5 and is connected to the gravel paving area 6. It is used to collect the water droplets that seep down from the bottom of the sponge plate 7 and transport them to the gravel paving area 6 and the drainage ditch. The number of drainage channels 17 is multiple and they are evenly distributed along the length of the positive protective plate 5. The number of trenches 19 is the same as the number of drainage channels 17 and they correspond one-to-one. The upper surface of the long side of the positive protective plate 5 and the bottom surface of the drainage channel 17 can also be designed as inclined surfaces with the same inclination, with the lower end of the inclined surface facing the gravel paving area 6, so as to better drain water.

[0031] It should be noted that all key moving parts in any of the above embodiments are made of stainless steel or aluminum alloy and have undergone surface treatment. Corrosion-resistant coatings and corrosion-resistant protective covers can also be applied to the outside of the ball screw assembly 12 to reduce the corrosive effects of high-salt and high-humidity air, rainwater, and splashing water droplets in the coastal environment, thereby improving the actual service life.

[0032] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. A landscape splash-proof structure that adapts to wind and resists water splashing, installed in front of the water curtain falling area of ​​a cascading water feature wall (1), characterized in that, include: A U-shaped protective fence (2) with its opening facing the waterfall landscape wall (1); At least one liftable lateral splash guard (8) is vertically disposed inside at least one lateral protective panel of the protective enclosure (2) and can move up and down in the vertical direction; The wind sensing and transmission mechanism includes a turbine fan (9) disposed on the outside of the side protection plate and capable of rotating by wind, and a transmission unit that converts the rotational motion of the turbine fan (9) into the lifting motion of the side splash guard (8). The wind sensing and transmission mechanism is configured to drive the lateral splash guard (8) located on the downwind side to rise when the wind drives the turbine fan (9) to rotate.

2. The adaptive wind-driven anti-splash landscape splash protection structure according to claim 1, characterized in that: The protective enclosure (2) includes a front protective panel (5), the upper surface of which is covered with a sponge board (7) for absorbing water flow.

3. The adaptive wind-driven anti-splash landscape splash protection structure according to claim 2, characterized in that: The inner side of the front protective plate (5) is provided with a splash-proof groove (15) for turbulence and flow guidance.

4. The adaptive wind-driven anti-splash landscape splash protection structure according to claim 1, characterized in that: The transmission unit includes a ball screw assembly (12). The rotational motion of the turbine fan (9) drives the screw of the ball screw assembly (12) to rotate, thereby driving the lateral splash guard (8) connected to the screw nut to rise and fall.

5. The adaptive wind-driven anti-splash landscape splash protection structure according to claim 4, characterized in that: The wind sensing and transmission mechanism is purely mechanical, and the shaft of the turbine fan (9) is directly connected to the screw input end of the ball screw assembly (12) through a gear set.

6. The adaptive wind-driven anti-splash landscape splash barrier structure according to claim 1, characterized in that: The protective enclosure (2) includes two opposing lateral protective panels, each lateral protective panel having a turbine fan (9) on its outer side; and, The turbine fan (9) installed on the first lateral guard plate (3) has its transmission output used to drive the lateral splash guard (8) inside the second lateral guard plate (4) to rise and fall; The turbine fan (9) installed on the second side guard plate (4) has its transmission output used to drive the lateral splash guard (8) inside the first side guard plate (3) to rise and fall.

7. The adaptive wind-driven anti-splash landscape splash protection structure according to claim 1, characterized in that: The wind sensing and transmission mechanism is semi-electromechanical, including a signal generator driven by the turbine fan (9), a controller, and an electric actuator controlled by the controller. The electric actuator is used to drive the lateral splash guard (8) to rise and fall.

8. The adaptive wind-driven anti-splash landscape splash protection structure according to claim 2, characterized in that: The upper surface of the positive protective plate (5) is provided with a drainage channel (17) that communicates with the bottom of the sponge plate (7). The drainage channel (17) leads to the gravel paving area (6) or drainage ditch located in front of the protective fence (2).

9. The adaptive wind-driven anti-splash landscape splash protection structure according to claim 1, characterized in that: The bottom of the transmission chamber (11) inside the lateral protective plate is provided with a drain port (14).

10. The adaptive wind-driven splash-resistant landscape anti-splash structure according to any one of claims 1 to 9, characterized in that: The side splash guard (8) is in a low-position storage state inside the side protection plate when there is no wind.

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