Local plant landscape and construction method

Abstract

The invention discloses an indigenous plant landscape and a construction method, and relates to the technical field of urban landscaping mainly using indigenous plants.The indigenous plant landscape comprises transverse positioning rods and longitudinal positioning rods, the transverse positioning rods are distributed in the transverse direction of the earth surface at equal intervals, and the longitudinal positioning rods are distributed in the transverse direction of the earth surface at equal intervals; the longitudinal positioning rods are distributed at equal intervals in the longitudinal direction of the earth surface, the transverse positioning rods and the longitudinal positioning rods are crisscrossed and form a plurality of grids on the surface of the earth surface, and indigenous plants are planted in the grids. According to the method, the ecological effects that the landscape effect is richer and the vegetation system is more stable during high-altitude viewing are achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of urban greening mainly based on native plants, and in particular to a native plant landscape and a construction method thereof. Background Art

[0002] Native plant landscape refers to natural landscape and green environment constructed with native plants as the main elements. This kind of landscape design emphasizes the use of plant species that grow naturally in a specific area, aiming to protect and restore local ecosystems and maintain biodiversity. Native plants are usually adapted to local climate, soil and ecological conditions, so they often require less water and fertilizers, contributing to the sustainable development of the environment. In addition, native plant landscape also has cultural value, can reflect local characteristics, and enhance people's sense of identity with the local natural environment.

[0003] However, in the process of urban greening layout of native plant landscape, observation only from a horizontal perspective often fails to fully demonstrate the uniqueness of the landscape. Especially from a high-altitude perspective, the monotony of the landscape becomes more obvious, resulting in a decrease in the viewing value. This phenomenon stems from the lack of a sense of depth and a diverse landscape structure, which cannot effectively attract the audience's attention. In addition, the lack of a three-dimensional design makes it difficult to fully reflect the natural combination and ecological function of plants, thus affecting the aesthetics and ecological benefits of the overall landscape. Summary of the invention

[0004] The present application provides a native plant landscape and a construction method, which can create an ecological effect with richer landscape effects and a more stable vegetation system when viewed from a high altitude.

[0005] The present application provides a native plant landscape and construction method, which adopts the following technical solutions: A native plant landscape and a construction method, the native plant landscape comprises transverse positioning rods and longitudinal positioning rods, the transverse positioning rods are evenly spaced along the transverse direction of the ground surface, the longitudinal positioning rods are evenly spaced along the longitudinal direction of the ground surface, the transverse positioning rods and the longitudinal positioning rods are crisscrossed and form a plurality of grids on the ground surface, and the native plants are planted inside the grids.

[0006] By adopting the above technical solution, each grid unit can be regarded as a "pixel point". This "pixelized" design makes the overall landscape present a flat pattern when viewed from high altitude; different plants are refined according to the differences in color, shape and growth height, creating a richer and more complex visual effect.

[0007] Preferably, a junction is formed between the transverse positioning rod and the longitudinal positioning rod, a support tube is provided at the junction between the transverse positioning rod and the longitudinal positioning rod, and a display light ball is provided on the top of the support tube.

[0008] By adopting the above technical solution, the support tube is arranged at the intersection to provide additional stability and structural support, thereby ensuring that the light ball is firmly fixed in a specific position; this design helps to prevent the display light ball from tipping over in severe weather conditions such as wind and rain.

[0009] Preferably, a water supply pipe is provided inside the transverse positioning rod and the longitudinal positioning rod, and the output end of the water supply pipe passes through the inside of the transverse positioning rod and the longitudinal positioning rod, extends to the inside of the support tube, and is connected to the nozzles arranged on the side of the support tube.

[0010] By adopting the above technical solution, by arranging the water supply pipe and the nozzle on the side of the support pipe, the nozzle can effectively spray water into the grid area; this design ensures uniform watering of plants and lawn areas, significantly reduces water waste, improves irrigation efficiency, and ensures that plants get the required water.

[0011] Preferably, a positioning sleeve is provided in the grid of the transverse positioning rod and the longitudinal positioning rod, and the positioning sleeve is located outside the plant.

[0012] By adopting the above technical solution, the positioning sleeve constitutes a protective structure that effectively isolates the direct impact of the external environment on the plants, such as wind, pests and other potential damaging factors; this barrier significantly reduces the risk of physical impact or damage to the plants, thereby protecting their stems and leaves.

[0013] Preferably, the nozzles on each of the grids are all opened toward the top of the positioning sleeve.

[0014] By adopting the above technical solution, the nozzle is opened toward the top of the positioning sleeve, so that water can be directly transported to the area where the plants are located, so that the water is more concentratedly distributed in the roots of the plants and the surrounding soil.

[0015] Preferably, a temperature sensor, a humidity sensor and a controller are provided inside the positioning sleeve, the signal output ends of the temperature sensor and the humidity sensor are respectively connected to two signal input ends of the controller, and the control end of the controller is connected to the electrical switch on the nozzle.

[0016] By adopting the above technical solution, the temperature sensor and humidity sensor respectively monitor the ambient temperature and soil moisture in real time; these sensors transmit the acquired data to the controller through the signal output terminal; after receiving the temperature and humidity sensor signals, the controller processes and analyzes the data; based on the set thresholds (such as the ideal temperature range and humidity level), the controller decides whether to activate or shut down the electrical switch on the sprinkler; by real-time monitoring of soil moisture and ambient temperature, precise irrigation is achieved to ensure that plants get the required water while avoiding excessive irrigation, thereby improving the efficiency of water resource use.

[0017] Preferably, it also includes a fixing member for fixing the transverse positioning rod and the longitudinal positioning rod on the ground surface, the fixing member includes a positioning block, the lower surface of the positioning block forms a positioning arc surface matching the shape of the transverse positioning rod and the longitudinal positioning rod, and a plurality of plug rods are arranged at the bottom of the positioning block.

[0018] By adopting the above technical solution, the core component of the fixing is the positioning block, and its lower surface is designed to be an arc-shaped positioning surface that matches the shape of the horizontal and vertical positioning rods; this design ensures that the fixing can fit tightly with the rod body, significantly improving the overall stability.

[0019] Preferably, the method for constructing the native plant landscape comprises the following steps: S1: Research and Planning; Classify and record the number of native vegetation in the survey area, focusing on plants with strong ecological adaptability, and analyze their growth habits, such as light, soil type, water requirements and cold resistance, to provide a basis for vegetation layout; at the same time, study the impact of terrain characteristics (slope, orientation and water flow direction) on plant growth, and analyze organic matter content, pH value and nutrient composition through soil sampling to determine soil improvement needs and suitable plant species; S2: Design plan; Priority should be given to plants that grow well locally and have strong ecological adaptability to ensure their healthy growth; the ecological functions of plants, such as windbreak and sand fixation, air purification, and soil and water conservation, should be considered, and species with these functions should be selected; landscape areas should be divided according to different needs such as viewing, leisure, and ecology, and vegetation should be reasonably configured; a well-defined vegetation structure should be designed according to plant height and morphology to enhance visual richness and a sense of nature; S3: Construction and implementation; Clear weeds, stones and other obstacles in the construction area to lay the foundation for plant growth; make necessary improvements based on soil test results to improve soil fertility and water retention capacity; choose spring planting to reduce stimulation to plants; follow reasonable planting depth and row spacing to ensure that plants have enough growth space and improve survival rate; S4: Install the transverse positioning rod and the longitudinal positioning rod; In the construction area, the transverse positioning rods and the longitudinal positioning rods are fixed to the ground surface by means of fixing parts so that the area is staggered and divided into multiple grids; S5: Install the positioning sleeve; Position and install the positioning sleeve inside the grid, making sure that the positioning sleeve is located in the exact center of the grid; S6: Nutrient soil construction; Collect soil suitable for planting, and add evenly mixed decomposed organic fertilizer and appropriate amount of biological fertilizer and compound fertilizer to the inside of the grid; S7: digging holes and planting; Dig holes in the positioning sleeve and plant the seedlings in layers: tall plants in the back row and short plants in the front row to ensure sufficient light; fill in nutrient soil, pat the soil lightly, and water thoroughly to ensure good contact between the soil and the roots; S8: Scene design; Add rocks, buildings or garden pieces to the outside of the positioning sleeve of the grid to increase the layering and interest of the landscape; S9: Post-maintenance and management; After the landscape is initially formed, spray watering is achieved through the water supply pipes in the positioning poles. The frequency and method of watering are adjusted according to the weather and plant needs, with special attention paid to irrigation in the dry season. Timely pruning is carried out according to plant growth conditions and seasons to promote healthy growth and maintain good shape. At the same time, changes in plant communities are monitored, and species replacement and replanting are carried out when necessary to maintain ecological diversity.

[0020] By adopting the above technical scheme, the construction method can effectively improve the quality of the plant growth environment, optimize resource allocation, and ensure efficient operation and maintenance of the project through sequential research and planning, design scheme, construction and implementation, installation of horizontal positioning rods and longitudinal positioning rods, installation of positioning sleeves, nutrient soil construction, hole digging and planting, landscape design and later maintenance and management.

[0021] Preferably, in S6, the decomposed organic fertilizer is one or a combination of plant straw and human and animal feces.

[0022] By adopting the above technical scheme, decomposed organic fertilizer is made from plant straw and human and animal feces in single or combined form, which is rich in nutrients and organic matter. It can not only improve soil fertility and soil structure, but also promote plant growth and enhance its resistance to stress.

[0023] Preferably, in S7, the depth of the hole is 0.6-0.7 m.

[0024] By adopting the above technical solution, the advantage of digging a hole with a depth of 0.6-0.7 meters is that it can provide sufficient growth space for the plant roots, promote the roots to penetrate deep into the soil, help absorb more water and nutrients, while improving soil aeration and reducing the risk of soil compaction, thereby enhancing the growth vitality and stress resistance of the plants.

[0025] In summary, this application has the following beneficial effects: 1. In this native plant landscape, each grid unit can be regarded as a "pixel point". This "pixelization" design makes the overall landscape appear as a flat pattern when viewed from a high altitude. Different plants are retouched according to the differences in color, shape and growth height to create a richer and more complex visual effect.

[0026] 2. This construction method can effectively improve the quality of the plant growth environment, optimize resource allocation, and ensure efficient operation and maintenance of the project through sequential research and planning, design, construction and implementation, installation of horizontal and longitudinal positioning rods, installation of positioning sleeves, nutrient soil construction, hole digging and planting, landscape design, and later maintenance and management. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 is a schematic diagram of the overall structure of the native plant landscape in this embodiment; Figure 2 Schematic diagram of the internal structure of the fixing member in this embodiment; Figure 3 is a flow chart of the method for constructing a native plant landscape in this embodiment; Explanation of the accompanying drawings: 1. Horizontal positioning rod; 2. Longitudinal positioning rod; 3. Grid; 4. Support tube; 5. Display light ball; 6. Nozzle; 7. Positioning sleeve; 8. Fixing piece; 81. Positioning block; 82. Insert rod. DETAILED DESCRIPTION

[0028] The present application is further described in detail below in conjunction with the accompanying drawings. It is necessary to point out here that the following specific implementation methods are only used to further illustrate the present application and cannot be understood as limiting the scope of protection of the present application. Technical personnel in this field can make some non-essential improvements and adjustments to the present application based on the above application content. Example

[0029] The present invention discloses a native plant landscape and a construction method thereof. Figure 1 As shown, the native plant landscape includes transverse positioning rods 1 and longitudinal positioning rods 2, the transverse positioning rods 1 are evenly spaced along the transverse direction of the ground surface, and the longitudinal positioning rods 2 are evenly spaced along the longitudinal direction of the ground surface, the transverse positioning rods 1 and the longitudinal positioning rods 2 are crisscrossed and form a plurality of grids 3 on the ground surface, and the native plants are planted inside the grids 3; through the transverse positioning rods 1 and the longitudinal positioning rods 2 arranged at equal intervals, an orderly grid 3 is formed on the ground. This layout method can ensure the orderliness and regularity of plant planting and simplify the design process.

[0030] like Figure 1 and Figure 2 As shown in the figure, each grid 3 unit can be regarded as a "pixel point". This "pixelized" design makes the overall landscape present a visual flat pattern when viewed from a high altitude. Different plants can be retouched on these "pixels" according to their colors, shapes and growth heights, thus creating a richer and more complex visual effect.

[0031] like Figure 1 and Figure 2 As shown in the figure, by planting different native plants in grid 3 and arranging them reasonably according to the growth characteristics and height of the plants, a rich and interesting landscape effect can be formed. This design concept of spatial layout not only takes into account the harmonious coexistence of plants, but also emphasizes the visual beauty and dynamics.

[0032] like Figure 1 and Figure 2 As shown, by matching plants with different "pixel points", functional design of different areas can be achieved, such as setting up leisure areas, viewing areas or ecological protection areas, making the entire landscape more practical and diverse.

[0033] like Figure 1 and Figure 2 As shown in the above, native plant landscape can carry local culture and reflect the unique natural environment and cultural history of the region. For the public, this landscape is not only a visual enjoyment, but also helps to enhance the awareness and understanding of local plant species and ecological protection.

[0034] like Figure 1 and Figure 2 As shown, in general, the grid 3 layout makes the planting of plants more artistic, creating a rhythmic and changing visual effect at a high altitude, attracting the audience's attention. Moreover, due to the use of the grid 3 layout, the planting and later management of plants become more systematic and standardized, which is conducive to regular maintenance, fertilization and pest control, and improves management efficiency.

[0035] like Figure 2 As shown, a junction is formed between the transverse positioning rod 1 and the longitudinal positioning rod 2 , a support tube 4 is provided at the junction between the transverse positioning rod 1 and the longitudinal positioning rod 2 , and a display light ball 5 is provided on the top of the support tube 4 .

[0036] like Figure 2 As shown, the support tube 4 is provided at the junction, which can provide additional stability and structural support so that the light ball can be firmly fixed in a specific position. This arrangement helps to ensure that the display light ball 5 is not easy to topple over in adverse weather conditions such as wind and rain. The intersection of the grid 3 is marked or visual guidance is provided by displaying the light ball 5 to enhance the observation effect. The light ball may be designed with different colors or flashing modes to convey different visual information. Using the light ball to mark the intersection of each grid 3 increases the recognizability of the network setting, making it easier to perceive the existence and layout of the grid 3 at night or in an environment with poor visibility.

[0037] like Figure 2As shown, display light balls 5 are arranged at the four corners of the grid 3, which help to provide light guidance for pedestrians or tourists at night or when the light is insufficient, so that they can navigate or identify the location more easily, increasing the convenience and safety of use.

[0038] like Figure 2 As shown, the circuits in the display lamp ball 5 are hidden inside the support tube 4 to protect the circuits.

[0039] like Figure 2 As shown, a water supply pipe is provided inside the transverse positioning rod 1 and the longitudinal positioning rod 2, and the output end of the water supply pipe passes through the inside of the transverse positioning rod 1 and the longitudinal positioning rod 2, extends to the inside of the support tube 4, and is connected to the nozzle 6 arranged on the side of the support tube 4.

[0040] like Figure 2 As shown, by arranging the water supply pipe and the nozzle 6 on the side of the support pipe 4, the nozzle 6 can effectively spray water into the area of ​​the grid 3. Evenly watering the plant or lawn area can effectively reduce water resource waste, improve watering efficiency, and ensure that the plants get the required moisture.

[0041] like Figure 2 As shown, a positioning sleeve 7 is provided in the grid 3 of the transverse positioning rod 1 and the longitudinal positioning rod 2, and the positioning sleeve 7 is located outside the plant.

[0042] like Figure 2 As shown, the positioning sleeve 7 forms a kind of protective structure, can effectively isolate the direct influence of the external environment on the plant, including wind, pests and other potential damaging factors. This barrier can reduce the risk of physical impact or infringement on the plant, thereby protecting the stem and leaves of the plant. Moreover, the positioning sleeve 7 can help to maintain the moisture in the soil, prevent the water from evaporating too quickly, form a microenvironment, thereby maintain suitable humidity. This is extremely critical for plant growth, particularly under hot or dry climate conditions. By reducing external interference and maintaining suitable humidity, the positioning sleeve 7 provides a more stable growth environment for the plant, promotes healthy growth.

[0043] like Figure 2 As shown, in general, the positioning sleeve 7 arranged in the grid 3 of the horizontal and vertical positioning rods 2 helps to improve the growth adaptability of plants, reduce the negative impact of the outside world on plants, and promote the healthy growth of plants through the comprehensive effects of protection and moisturizing. It also has a positive impact on resource conservation and ecological beauty. It is a design idea that takes into account both functionality and aesthetics.

[0044] like Figure 2As shown, the nozzles 6 on a single grid 3 are all facing the top opening of the positioning sleeve 7. The nozzles 6 facing the top opening of the positioning sleeve 7 can directly transport water to the area where the plants are located, so that the water is more concentratedly distributed in the roots of the plants and the surrounding soil. In this way, the plants can absorb water more effectively and reduce water waste. By directly aligning the nozzles 6 with the top opening of the sleeve, the water can be avoided from being sprayed in the air as much as possible, thereby reducing the chance of water evaporation in the air and keeping the soil moist for a longer time.

[0045] like Figure 2 As shown, a temperature sensor, a humidity sensor and a controller are arranged inside the positioning sleeve 7. The signal output ends of the temperature sensor and the humidity sensor are respectively connected to two signal input ends of the controller, and the control end of the controller is connected to the electrical switch on the nozzle 6.

[0046] like Figure 2 As shown, the temperature sensor and the humidity sensor monitor the temperature of the environment and the humidity of the soil in real time respectively. These sensors transmit the monitored data to the controller through the signal output terminal. After receiving the signals from the temperature and humidity sensors, the controller processes and analyzes the data. According to the set threshold value (such as the ideal temperature range and humidity level), the controller decides whether to start or close the electrical switch on the sprinkler 6.

[0047] like Figure 2 As shown, if the humidity is too low, the controller will send a signal to open the sprinkler 6 to spray water on the plants; if the humidity reaches or exceeds the set value, the controller will close the sprinkler 6 and stop supplying water. This control method helps maintain suitable soil moisture and environmental conditions.

[0048] like Figure 2 As shown, by real-time monitoring of soil moisture and ambient temperature, precise irrigation can be achieved to ensure that plants get the water they need while avoiding over-irrigation, thereby improving the efficiency of water resource use. Maintaining appropriate temperature and humidity helps promote healthy plant growth, reduce growth problems caused by harsh environments, and ensure that plants develop in the best growth state.

[0049] like Figure 2 As shown, it also includes a fixing member 8 for fixing the transverse positioning rod 1 and the longitudinal positioning rod 2 on the ground surface. The fixing member 8 includes a positioning block 81. The lower surface of the positioning block 81 forms a positioning arc surface that matches the appearance of the transverse positioning rod 1 and the longitudinal positioning rod 2. At least four insertion rods 82 are arranged at the bottom of the positioning block 81. The insertion rods 82 are inserted into the interior of the soil layer, and with the help of the positioning arc surface on the positioning block 81, the transverse positioning rod 1 and the longitudinal positioning rod 2 are fixed.

[0050] like Figure 2As shown, the core component of the fixing member 8 is the positioning block 81, the lower surface of which is designed to be a positioning arc surface that matches the shape of the transverse and longitudinal positioning rods 2. This design ensures that the fixing member 8 can fit tightly with the rod body, thereby increasing stability. At least four insertion rods 82 are provided at the bottom of the positioning block 81. In the process of inserting the insertion rod 82 downward into the soil layer, the length and design of the insertion rod 82 can form an anchoring force inside the soil, so that it is firmly fixed in the soil layer, and the positioning rod is prevented from moving when it is subjected to external forces (such as wind, machine vibration or other interference). When the insertion rod 82 is inserted into the soil layer and the positioning arc surface of the positioning block 81 fits tightly with the transverse and longitudinal rod bodies, the positioning block 81 will apply a certain pressing force to the rod body, making the rod body more stable in the soil layer, further enhancing the ability to resist overturning and displacement.

[0051] like Figure 3 As shown, the method for constructing the native plant landscape comprises the following steps: S1: Research and Planning Investigate the native vegetation in the project area, record its species, quantity and growth conditions, and focus on plants with strong ecological adaptability; and analyze the growth habits of the selected plants, including light requirements, soil type, water requirements and cold resistance, to provide a basis for the vegetation layout of the area.

[0052] Study terrain characteristics, including natural conditions such as slope, orientation and water flow direction, and evaluate their impact on plant growth; take samples and analyze the soil's organic matter content, pH value and nutrient composition to determine soil improvement needs and suitable plant species.

[0053] S2: Design Solution Priority is given to plants that grow well locally and have strong ecological adaptability to ensure that they can grow healthily in the local environment; combine the ecological functions of plants, such as windbreak and sand fixation, air purification and soil and water conservation, and select plants that can provide these functions; divide the landscape area according to different functional needs (such as viewing, leisure, ecology), and reasonably allocate vegetation; design a well-defined vegetation structure according to the height and shape of the plants to ensure visual richness and a natural feel.

[0054] For example, choose evergreen broad-leaved plants as native plants. Choose healthy, adaptable, and pest-resistant plant varieties, and propagate them through cuttings to ensure the survival rate of seedlings. Common southern evergreen broad-leaved plants include tea trees and azaleas. These plants can not only provide rich visual effects, but also maintain the evergreen characteristics of the landscape in the changing seasons.

[0055] S3: Construction and Implementation Clear weeds, stones and other obstacles in the construction area to create a good foundation for plant growth; carry out necessary soil improvements based on soil test results to improve soil fertility and water retention capacity.

[0056] Choose the right season (usually spring or autumn) for planting to reduce stimulation to the plants; follow appropriate planting depth and row spacing to ensure that the plants have enough space to grow and increase survival rate.

[0057] S4: Install the transverse positioning rod 1 and the longitudinal positioning rod 2 In the construction area, the transverse positioning rods 1 and the longitudinal positioning rods 2 are fixed on the ground surface by means of the fixing members 8 , wherein the transverse positioning rods 1 and the longitudinal positioning rods 2 are crisscrossed to divide the ground surface into a plurality of grids 3 .

[0058] S5: Install the positioning sleeve 7 The positioning sleeve 7 is positioned and installed inside the grid 3 , ensuring that the positioning sleeve 7 is located at the exact center of the grid 3 .

[0059] S6: Nutrient soil construction Soil suitable for planting is collected, and evenly mixed decomposed organic fertilizer, appropriate amount of biological fertilizer and compound fertilizer are added into the interior of the grid 3. It is worth noting that the decomposed organic fertilizer is a mixture of plant straw and human and animal feces.

[0060] S7: Digging and Planting A hole is dug inside the positioning sleeve 7, wherein the depth of the hole is 0.6m, and the seedlings are placed in the hole, and attention is paid to layered planting: the taller plants are planted in the back row to form a visual sense of hierarchy, and the shorter plants are planted in the front row to ensure that each plant can fully receive light. Fill in the nutrient soil repeatedly, pat the soil lightly, and water it thoroughly to ensure that the soil is in good contact with the root system.

[0061] S8: Background Design Rocks, buildings or garden pieces are added outside the positioning sleeve 7 of the grid 3 to increase the layering and interest of the landscape.

[0062] S9: Post-maintenance and management After the landscape is initially formed, the water supply pipes set in the horizontal positioning rod 1 and the longitudinal positioning rod 2 are used to achieve the spray watering effect on the landscape, and the watering frequency and method are adjusted according to weather changes and plant needs, with special attention paid to irrigation in the dry season.

[0063] Carry out timely pruning according to plant growth conditions and seasons to promote healthy growth and maintain good shape; monitor changes in plant communities, and replace and replant species when necessary to maintain ecological diversity.

[0064] Working principle: By fixing transverse positioning rods 1 and longitudinal positioning rods 2 in the construction area, a staggered grid 3 is formed. These fixings 8 are used to determine the boundaries of each grid 3, providing a clear reference for subsequent planting and layout.

[0065] Then, a positioning sleeve 7 is installed at the exact center of each grid 3. This process ensures the accuracy of subsequent planting operations, so that each plant seedling can be reasonably arranged according to its specific position.

[0066] Collect soil suitable for plant growth. Evenly add decomposed organic fertilizer and appropriate amount of urea in each grid 3. This mixing process provides the plants with the necessary nutrients and promotes their healthy growth.

[0067] Dig planting holes in the positioning sleeve 7 and plant them in layers according to the height characteristics of the plants. Tall plants are placed in the back row, and short plants are placed in the front row. This layout is designed to ensure that all plants can fully receive light and avoid shading. Fill in the treated nutrient soil, pat the soil lightly, and then water it thoroughly to ensure good contact between the soil and the plant roots and promote a stable growth environment.

[0068] Then, rocks, buildings or garden ornaments are added to the outside of the positioning sleeve 7 of the grid 3. This link is intended to enhance the sense of hierarchy and interest of the landscape, make the overall layout more beautiful, and increase the viewing value of tourists.

[0069] After the landscape is initially formed, use the water supply pipe inside the positioning pole to spray water. Adjust the frequency and method of watering according to weather conditions and plant growth needs, especially in dry seasons, to ensure that the plants get enough water.

[0070] According to the growth of plants and seasonal changes, timely pruning is carried out to promote healthy growth and maintain good shape. At the same time, the changes in plant communities are continuously monitored, and species replacement and replanting are carried out when necessary to maintain ecological diversity and ensure the overall stability and sustainability of the landscape.

[0071] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. A native plant landscape, characterized by: The invention comprises transverse positioning rods (1) and longitudinal positioning rods (2), wherein the transverse positioning rods (1) are evenly spaced along the transverse direction of the ground surface, and the longitudinal positioning rods (2) are evenly spaced along the longitudinal direction of the ground surface, and the transverse positioning rods (1) and the longitudinal positioning rods (2) are crisscrossed to form a plurality of grids (3) on the ground surface, and native plants are planted inside the grids (3).

2. The native plant landscape according to claim 1, characterized in that: A junction is formed between the transverse positioning rod (1) and the longitudinal positioning rod (2), a support tube (4) is provided at the junction between the transverse positioning rod (1) and the longitudinal positioning rod (2), and a display light ball (5) is provided at the top of the support tube (4).

3. The native plant landscape according to claim 1, characterized in that: A water supply pipe is provided inside the transverse positioning rod (1) and the longitudinal positioning rod (2); an output end of the water supply pipe passes through the inside of the transverse positioning rod (1) and the longitudinal positioning rod (2), extends to the inside of the support tube (4), and is connected to a nozzle (6) provided on the side of the support tube (4).

4. The native plant landscape according to claim 3, characterized in that: A positioning sleeve (7) is provided in the grid (3) of the transverse positioning rod (1) and the longitudinal positioning rod (2), and the positioning sleeve (7) is located outside the plant.

5. The native plant landscape according to claim 4, characterized in that: The nozzles (6) on each of the grids (3) are all opened toward the top of the positioning sleeve (7).

6. The native plant landscape according to claim 5, characterized in that: A temperature sensor, a humidity sensor and a controller are provided inside the positioning sleeve (7); the signal output ends of the temperature sensor and the humidity sensor are respectively connected to two signal input ends of the controller; and the control end of the controller is connected to an electrical switch on the nozzle (6).

7. The native plant landscape according to claim 1, characterized in that: It also includes a fixing member (8) for fixing the transverse positioning rod (1) and the longitudinal positioning rod (2) on the ground surface, the fixing member (8) including a positioning block (81), the lower surface of the positioning block (81) forming a positioning arc surface matching the outer shape of the transverse positioning rod (1) and the longitudinal positioning rod (2), and a plurality of insertion rods (82) are arranged at the bottom of the positioning block (81).

8. A method for constructing a native plant landscape according to any one of claims 1 to 7, characterized in that: The construction steps include: S1: Research and Planning; Classify and record the number of native vegetation in the survey area, focusing on plants with strong ecological adaptability, and analyze their growth habits, such as light, soil type, water requirements and cold resistance, to provide a basis for vegetation layout; at the same time, study the impact of terrain characteristics (slope, orientation and water flow direction) on plant growth, and analyze organic matter content, pH value and nutrient composition through soil sampling to determine soil improvement needs and suitable plant species; S2: Design plan; Priority should be given to plants that grow well locally and have strong ecological adaptability to ensure their healthy growth; the ecological functions of plants, such as windbreak and sand fixation, air purification, and soil and water conservation, should be considered, and species with these functions should be selected; landscape areas should be divided according to different needs such as viewing, leisure, and ecology, and vegetation should be reasonably configured; a well-defined vegetation structure should be designed according to plant height and morphology to enhance visual richness and a sense of nature; S3: Construction and implementation; Clear weeds, stones and other obstacles in the construction area to lay the foundation for plant growth; make necessary improvements based on soil test results to improve soil fertility and water retention capacity; choose spring planting to reduce stimulation to plants; follow reasonable planting depth and row spacing to ensure that plants have enough growth space and improve survival rate; S4: Install the transverse positioning rod (1) and the longitudinal positioning rod (2); In the construction area, the transverse positioning rods (1) and the longitudinal positioning rods (2) are fixed to the ground surface by means of fixing members (8) so as to divide the area into a plurality of grids (3) in an interlaced manner; S5: Install the positioning sleeve (7); Positioning and installing the positioning sleeve (7) inside the grid (3), ensuring that the positioning sleeve (7) is located at the exact center of the grid (3); S6: Nutrient soil construction; Collect soil suitable for planting, and add evenly mixed decomposed organic fertilizer and appropriate amount of biological fertilizer and compound fertilizer into the inside of the grid (3); S7: digging holes and planting; Dig holes in the positioning sleeve (7) and plant the seedlings in layers: tall plants are placed in the back row and short plants are placed in the front row to ensure sufficient light; fill in nutrient soil, pat the soil lightly, and water thoroughly to ensure good contact between the soil and the root system; S8: Scene design; Adding rocks, buildings or garden ornaments outside the positioning sleeve (7) of the grid (3) to increase the sense of layering and interest of the landscape; S9: Post-maintenance and management; After the landscape is initially formed, spray watering is achieved through the water supply pipes in the positioning poles. The frequency and method of watering are adjusted according to the weather and plant needs, with special attention paid to irrigation in the dry season. Timely pruning is carried out according to plant growth conditions and seasons to promote healthy growth and maintain good shape. At the same time, changes in plant communities are monitored, and species replacement and replanting are carried out when necessary to maintain ecological diversity.

9. The method for constructing native plant landscape according to claim 8, characterized in that: In S6, the decomposed organic fertilizer is one or a combination of plant straw and human and animal feces.

10. The method for constructing native plant landscape according to claim 8, characterized in that: In S7, the depth of the burrows was 0.6-0.7m.

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