Landscape environment auxiliary equipment based on carbon neutralization

Abstract

The invention provides landscape environment auxiliary equipment based on carbon neutralization. The landscape environment auxiliary equipment structurally comprises a solar power generation structure, a water circulation processor, a vertical box, a small reaction kettle and a vertical planting structure, and the solar power generation structure is electrically connected with the water circulation processor and arranged at the edge of the vertical box; on the basis of a solar power generation structure carried by the vertical box, the fixation of the whole environment auxiliary equipment for landscape in a specific original point can be effectively improved through the reinforcing blocks at the lower end of the bearing body, and then the positions of the conduction plate, the inversion body and the light energy plate can be determined through the insulating grooves of the bearing body; therefore, the solar panel can receive sunlight and convert the sunlight into electric energy, and the inverter can convert an electric energy waveform into a standard waveform conforming to a water circulation processor and a small reaction kettle for use, so that solar power generation can be utilized to replace an original wiring electrifying process, and the strength of a carbon neutralization characteristic can be improved; and the characteristic of low-carbon electricity utilization is achieved.

Description

Technical Field

[0001] This invention relates to the field of carbon neutrality technology, and more specifically to a carbon neutrality-based environmental aid device for landscape applications. Background Technology

[0002] Urban green spaces play an important role in regulating the urban heat island effect, mitigating climate change, ecological restoration, and carbon sequestration and emission reduction. Therefore, further consolidating and improving the carbon sequestration capacity of urban green spaces, and rationally and efficiently planning and constructing them, so as to offset the carbon emissions generated by human activities with the carbon sequestration of trees and achieve relative "zero emissions" of carbon, is an important task for urban construction to achieve "carbon neutrality and carbon peaking". Carbon neutrality, as a new green development concept, has unique significance in promoting green production and low-carbon living. Therefore, under the dual-carbon background, it is necessary to construct a low-carbon landscape design strategy system and a quantitative evaluation index system, propose an integrated low-carbon landscape design strategy for public open spaces, innovate planting techniques under the influence of low-carbon concepts, and shape a low-carbon landscape design methodology system from an artistic perspective. In order to create a landscape garden system with Chinese characteristics, it can be innovated and explored in three directions: urban planning, landscape design, and planting design, so as to create a new generation of landscape environments that meet carbon neutrality. Meanwhile, in carbon-neutral landscape environments, it is necessary to construct specialized auxiliary equipment to effectively vertically position the landscape plants and then use their own reactors to absorb and treat carbon dioxide in the space. Therefore, the dual absorption by plants can effectively improve the treatment effect and comprehensiveness of carbon dioxide, thus improving the treatment efficiency. However, the auxiliary equipment currently used in the landscape environment still has the following defects: Since the current auxiliary equipment is driven by connecting to an external power source when processing carbon dioxide, the use of external power source will increase the carbon emissions of electrical energy, thus reducing the carbon neutrality effect. Furthermore, the wastewater generated in the current landscape environment is treated by direct discharge, and cannot be treated at the source by combining with auxiliary equipment. Therefore, the use effect of auxiliary equipment will be reduced and a low-carbon landscape model cannot be achieved. Summary of the Invention

[0003] The technical solution adopted by the present invention to achieve the technical objective is: a carbon-neutral environmental auxiliary device for landscape use, the structure of which includes: a solar power generation structure, a water circulation processor, a vertical box, a small reaction vessel, and a vertical planting structure. The solar power generation structure is electrically connected to the water circulation processor and is set at the edge of the vertical box. The upper layer of the vertical box is fixedly connected to the small reaction vessel. The small reaction vessel is electrically connected to the solar power generation structure through the vertical box. The vertical planting structure is embedded in the center of the vertical box and is interconnected with the water circulation processor.

[0004] As a further improvement of the present invention, the solar power generation structure includes a reinforcing block, a carrier, an insulating groove, a conductive plate, an inverter, a solar panel, an adsorption block, and a conductive block. The reinforcing block is welded to the lower end of the carrier. The interior of the carrier and the insulating groove are integrated. The conductive plate is parallel to the interior area of ​​the insulating groove. The inverter is installed on the surface of the conductive plate. The solar panel is fixed to the top of the inverter and electrically connected. The adsorption block is located at the front end of the carrier. The conductive block passes through the adsorption block and the center of the front end of the carrier and is electrically connected to the conductive plate. The conductive plate is electrically connected to the small reactor and water circulation processor of the vertical box through the conductive block. There are three reinforcing blocks at the lower end of the carrier. The insulating groove of the carrier carries a rubber insulating plate. The shape of the conductive plate is consistent with the shape of the insulating groove. The inverter is perpendicular to the conductive plate and is stably fixed to the bottom of the solar panel. The adsorption block is cuboid in shape and has a flattened surface. The conductive block is a raised cuboid in shape.

[0005] As a further improvement of the present invention, the conductive plate is provided with a parallel plate body, a carrier layer, a limiting frame, a power storage module, a power-carrying shaft, and an output module. The parallel plate body is overlapped with the limiting frame through the carrier layer. The inner side of the limiting frame is in contact with the edge of the power storage module. The power-carrying shaft is fixed to the upper end of the limiting frame and electrically connected to the power storage module. The output module is disposed at the upper end of the parallel plate body and electrically connected to the power-carrying shaft, while passing through the front end of the carrier body to complete the fixed electrical connection with the conductive block. The carrier layer of the parallel plate body is flattened, the limiting frame is rectangular, the surface of the power storage module carries a power-carrying connection groove, and an electrical connection line is provided between the power-carrying shaft and the output module.

[0006] As a further improvement of the present invention, the water circulation processor includes a connecting pipe, a fixed plate, an airtight box, a power supply terminal, a unidirectional purification module, and a vertical connecting component. The connecting pipe is fixedly connected to the center of the fixed plate. The fixed plate is attached to the center of the left and right sides of the airtight box. The airtight box and the power supply terminal are integrated. The unidirectional purification module is embedded in the airtight box and communicates with the connecting pipe and is electrically connected to the power supply terminal. The vertical connecting component is located in the central area of ​​the airtight box, and its upper end is in the same central area as the vertical planting structure and is interconnected with it. The connecting pipe is circular in shape. The fixed plate is perpendicular to the connecting pipe. The airtight box is cuboid in shape and contains multiple small guide pipes that are interconnected with the unidirectional purification module and the vertical connecting component. The vertical connecting component is circular in shape.

[0007] As a further improvement of the present invention, the vertical connecting component is provided with a through groove, an adsorption ring, a circular tube, a parallel disk, a connecting cavity, a connector, and an interceptor. The through groove passes through the central area of ​​the adsorption ring and the circular tube, and the centers of the adsorption ring and the circular tube coincide with each other. The bottom of the circular tube is covered by the parallel disk. The connecting cavity is located at the lower middle part of the edge of the circular tube. The connector carrying the interceptor is embedded in the connecting cavity and fixedly connected to the lower middle part of the edge of the circular tube. The circular tube is interconnected with the unidirectional purification module through the connecting cavity and the interceptor. The through groove is circular in shape, the adsorption ring and the circular tube are on the same central vertical line, the parallel disk is solid circular in shape, and the shape of the connecting cavity matches the shape of the mesh interceptor.

[0008] As a further improvement of the present invention, the vertical planting structure includes a balancing slider, a reinforced branch pipe, a rust-proof interlayer, a threaded connector, and a planting cavity. The balancing slider is embedded in the edge of the reinforced branch pipe and is fixedly connected to the rust-proof interlayer. The rust-proof interlayer overlaps with the inner edge area of ​​the reinforced branch pipe. The threaded connector is welded to the lower end of the reinforced branch pipe. The planting cavity passes through the center of the rust-proof interlayer and the reinforced branch pipe. The balancing slider is embedded in the center of the vertical box through the reinforced branch pipe. The reinforced branch pipe and the rust-proof interlayer are interconnected with the vertical connecting groove of the water circulation processor through the threaded connector. The balancing slider is inserted and matched in a straight line outside the reinforced branch pipe. The rust-proof interlayer inside the reinforced branch pipe is made of stainless steel. The threaded connector has external threads. The planting cavity is set in a vertical orientation.

[0009] As a further improvement of the present invention, the balance slider is provided with a small pulley, a solid block, an adapter layer, a plug rod, and an anti-deviation block. The small pulley is embedded in the edge surface layer of the solid block. The solid block and the adapter layer are integral. The plug rod is welded to the center of the solid block through the adapter layer. The anti-deviation block is embedded in the center of the surface layer of the plug rod. The solid block is inserted into the inside of the reinforced branch pipe through the plug rod and the anti-deviation block to complete the fixed connection with the anti-rust interlayer. The small pulley of the solid block enters the inside of the vertical box and contacts each other. The small pulley is in the shape of a solid sphere. The adapter layer of the solid block is in the shape of an arc. The plug rod carries a rectangular anti-deviation block.

[0010] Compared with the prior art, the present invention has the following beneficial effects: 1. This invention is based on a solar power generation structure mounted on a vertical box. The reinforcement block at the lower end of the carrier can effectively improve the fixation of the overall landscape environmental auxiliary equipment at a specific origin. Then, the insulating groove of the carrier can determine the position of the conduction plate, inverter, and solar energy plate, so that the solar energy plate can receive sunlight and convert it into electrical energy. At the same time, the inverter can convert the electrical waveform into a standard waveform that conforms to the water circulation processor and small reaction vessel for use, so that it can use solar power generation to replace the original wiring and power supply process. Therefore, it can improve the strength of carbon neutrality and achieve the characteristics of low-carbon electricity use.

[0011] 2. This invention, further improved from the water circulation processor, utilizes two sets of unidirectional purification modules on the airtight box, which operate via a solar power generation structure. This improves the water quality upon the introduction of external water sources and stably guides the water into the vertical connecting component. Furthermore, a small conduit inside the airtight box guides excess water from the vertical planting structure to the unidirectional purification module area, achieving secondary purification of the excess water. This ensures that the plants in the vertical planting structure continuously have access to high-quality water. The circulation of excess water through the small guide pipe inside the airtight box avoids waste, thus further enhancing the effectiveness of the low-carbon landscape design.

[0012] 3. This invention further improves upon the vertical planting structure by reinforcing the branch pipes and using a rust-proof interlayer to effectively vertically position plants with thick trunks or deep root systems, achieving a vertical fixation effect. Furthermore, the use of a multi-layered planting structure of trees, shrubs, and grasses effectively reduces subsequent maintenance costs and maximizes the ecological benefits of green space plants. Therefore, the multi-layered plant structure, with its large leaf area index and strong carbon sequestration function, significantly enhances the intensity of the low-carbon landscape, making it compatible with the characteristics of a low-carbon environment. Attached Figure Description

[0013] Figure 1 This is a structural diagram of a type of environmental auxiliary equipment for landscape use based on carbon neutrality.

[0014] Figure 2 This is a three-dimensional structural diagram of an improved solar power generation structure.

[0015] Figure 3 This is a top-view structural diagram of an improved conductive plate.

[0016] Figure 4 This is a three-dimensional structural diagram of an improved water circulation processor.

[0017] Figure 5 This is a three-dimensional structural diagram of an improved vertical connecting component.

[0018] Figure 6 This is a three-dimensional structural diagram of an improved vertical planting structure.

[0019] Figure 7 This is a cross-sectional structural diagram of an improved balance slider.

[0020] In the diagram: Solar power generation structure-1, Water circulation processor-2, Vertical box-3, Small reaction vessel-4, Vertical planting structure-5, Reinforcing block-11, Support body-12, Insulating groove-13, Conductive plate-14, Inverter-15, Photovoltaic panel-16, Adsorption block-17, Conductive block-18, Parallel plate-141, Load layer-142, Limiting frame-143, Energy storage module-144, Power-carrying shaft-145, Output module-146, Connecting pipe-21, Fixing plate-22. Airtight box-23 Power supply terminal-24, One-way purification module-25, Vertical connecting part-26, Through groove-261, Adsorption ring-262, Round tube-263, Parallel disc-264, Connecting cavity-265, Connector-266, Interceptor-267, Balance slider-51, Reinforced branch pipe-52, Rust-proof interlayer-53, Threaded connector-54, Planting cavity-55, Small pulley-511, Solid block-512, Adaptor layer-513, Insert rod-514, Anti-deviation block-515. Detailed Implementation

[0021] The present invention will be further described below with reference to the accompanying drawings: Example 1: Figures 1 to 3 As shown: This invention provides a carbon-neutral environmental auxiliary device for landscape applications. Its structure includes a solar power generation structure 1, a water circulation processor 2, a vertical box 3, a small reaction vessel 4, and a vertical planting structure 5. The solar power generation structure 1 is electrically connected to the water circulation processor 2 and is located at the edge of the vertical box 3. The upper part of the vertical box 3 is fixedly connected to the small reaction vessel 4. The small reaction vessel 4 is electrically connected to the solar power generation structure 1 through the vertical box 3. The vertical planting structure 5 is embedded in the center of the vertical box 3 and is interconnected with the water circulation processor 2.

[0022] The solar power generation structure 1 includes a reinforcing block 11, a support body 12, an insulating groove 13, a conductive plate 14, an inverter 15, a solar energy plate 16, an adsorption block 17, and a conductive block 18. The reinforcing block 11 is welded to the lower end of the support body 12. The interior of the support body 12 and the insulating groove 13 are integrated. The conductive plate 14 is parallel to the interior area of ​​the insulating groove 13. The inverter 15 is installed on the surface of the conductive plate 14. The solar energy plate 16 is fixed to the top of the inverter 15 and electrically connected. The adsorption block 17 is located at the front end of the support body 12, and the conductive block 18 passes through the adsorption block 17. The front end center of the carrier 12 is electrically connected to the conduction plate 14. The conduction plate 14 is electrically connected to the small reaction vessel 4 and water circulation processor 2 of the vertical box 3 through the conductive block 18. There are three reinforcing blocks 11 at the lower end of the carrier 12. The insulating groove 13 of the carrier 12 carries a rubber insulating plate. The shape of the conduction plate 14 is consistent with the shape of the insulating groove 13. The inverted body 15 is perpendicular to the conduction body 14 and is stably fixedly connected to the bottom of the light energy plate 16. The adsorption block 17 is cuboid in shape and has a flat surface. The conductive block 18 is a raised cuboid in shape. The carrier 12 can effectively improve its fixation in a low-carbon environment through three reinforcing blocks 11. The carrier 12 can improve the stability of its overlap with the conductive plate 14 through the insulating groove 13, avoiding power leakage when the conductive plate 14 is energized. The conductive plate 14 can match the shape of the insulating groove 13 through its own shape. The inverted body 15 can stably transmit appropriate waveform electrical energy by being perpendicular to the conductive body 14. The adsorption block 17 improves the adhesion to the component through its cuboid shape and its own magnetic attraction characteristics, thereby improving the stability of the through-hole electrical connection between the conductive block 18 and the component.

[0023] The conductive plate 14 comprises a parallel plate 141, a carrying layer 142, a limiting frame 143, a power storage module 144, a power-carrying shaft 145, and an output module 146. The parallel plate 141 overlaps with the limiting frame 143 via the carrying layer 142. The inner side of the limiting frame 143 is in contact with the edge of the power storage module 144. The power-carrying shaft 145 is fixed to the upper end of the limiting frame 143 and electrically connected to the power storage module 144. The output module 146 is located at the upper end of the parallel plate 141 and electrically connected to the power-carrying shaft 145, while also penetrating through the front end of the carrier 12 to complete a fixed electrical connection with the conductive block 18. The carrying layer 142 of the parallel plate 141 is flattened, the limiting frame 143 is rectangular, the surface of the power storage module 144 has a power-carrying connection groove, and an electrical connection line is provided between the power-carrying shaft 145 and the output module 146. The parallel plate 141 can avoid tilting after the limiting frame 143 is embedded by flattening the load layer 142. The limiting frame 143 can match the shape of the energy storage module 144 by its rectangular shape. The energy storage module 144 can be stably electrically connected to the component through the power connection groove. The power shaft 145 can stably transmit the power of the energy storage module 144 through the power connection line.

[0024] The specific functions and operation procedures of this embodiment are as follows: In this invention, Firstly, the vertical box 3, an environmental auxiliary device for carbon-neutral landscapes, can position the small reactor 4 and the vertical planting structure 5. Then, the solar power generation structure 1 at the lower edge of the vertical box 3 can be powered by sunlight, enabling the water circulation processor 2 and the small reactor 4 to achieve low-carbon power operation. Furthermore, the vertical planting structure 5 uses a multi-layered structure of trees, shrubs, and grasses to vertically plant trees with thicker trunks and deeper root systems, thus reducing the need for transplanting and transporting trees. Combining solar power generation, water circulation treatment, and vertical greening, a low-carbon landscape model can be achieved. Therefore, solar power generation can replace the original external power supply. Water circulation treatment can guide and purify excess water from the vertical planting structure 5, avoiding waste. At the same time, the small reactor 4's ability to absorb carbon dioxide can further improve the efficiency of carbon dioxide treatment by plants, achieving a zero-carbon landscape effect and thus meeting the characteristics of carbon neutrality. Second: The carrier 12 of the solar power generation structure 1 can be vertically and stably fixed in a specific landscape environment through the reinforcing block 11, improving the origin positioning of the overall auxiliary equipment. Then, the insulating groove 13 inside the carrier 12 allows the conductive plate 14 of the same shape to be embedded in parallel, so that the conductive plate 14 can be stably installed in the insulating groove 13, and then stably fixed and electrically connected with the conductive block 18. Therefore, the conductive plate 14 can receive the electrical energy converted by the solar energy plate 16 through the inverter 15. Then, the inverter 15 can convert the electrical energy of the solar energy plate 16 into the waveform electrical energy that conforms to the water circulation processor 2 and the small reaction vessel 4, improving the safety factor of the components' power-on operation. Then, the conductive plate 14 can stably input the electrical energy into the vertical box 3 through the conductive block 18, allowing the small reaction vessel 4 and the water circulation processor 2 to operate. During the process, the carrier 12 can improve the fixed connection with the vertical box 3 through the adsorption block 17, preventing the occurrence of swaying and instability, indirectly improving the stability of the electrical connection. At the same time, according to the fact that solar power generation can replace the original power supply process with the outside world, the characteristics of low-carbon operation are achieved, thus conforming to the effect of low-carbon landscape mode. Third: The parallel plate 141 of the conduction plate 14 can be embedded in the parallel position of the limiting frame 143 by the flattened load layer 142. Then the limiting frame 143 can determine the position of the energy storage module 144, so that the energy storage module 144 can be stably connected to the inverter 15 through the surface electrical connection groove. For this purpose, the energy storage module 144 can receive and store the electrical energy converted by the light energy plate 16, so that it can achieve continuous and stable operation on cloudy days. Then the energy storage module 144 can output the stable waveform electrical energy to the conductive block 18 through the power shaft 145 and the output module 146. Finally, the conductive block 18 inputs the electrical energy into the vertical box 3 so that the water circulation processor 2 and the small reaction vessel 4 can operate stably.

[0025] Example 2: Figures 4 to 5 As shown: This invention provides a carbon-neutral environmental auxiliary device for landscape applications. Its structure includes: the water circulation processor 2 is provided with a connecting pipe 21, a fixed plate 22, an airtight box 23, a power supply terminal 24, a one-way purification module 25, and a vertical connecting component 26. The connecting pipe 21 is fixedly connected to the center of the fixed plate 22. The fixed plate 22 is attached to the center of the left and right sides of the airtight box 23. The airtight box 23 and the power supply terminal 24 are an integrated structure. The one-way purification module 25 is embedded in the airtight box 23 and communicates with the connecting pipe 21 and is electrically connected to the power supply terminal 24. The vertical connecting component 26 is located in the central area of ​​the airtight box 23 and its upper end is in the same central area as the vertical planting structure 5 and is interconnected with it. The connecting pipe 21 is circular in shape. The fixed plate 22 is perpendicular to the connecting pipe 21. The airtight box 23 is rectangular in shape and has multiple small guide pipes inside that are interconnected with the one-way purification module 25 and the vertical connecting component 26. The vertical connecting component 26 is circular in shape. The connecting pipe 21, with its circular shape, effectively allows for stable water flow. The fixing plate 22, perpendicular to the connecting pipe 21, enhances the fixation on both sides of the airtight box 23. The airtight box 23, with its cuboid shape, allows for the arrangement of multiple small guide pipes, enabling secondary guidance and purification of excess water from the vertical connecting member 26, preventing water leakage and waste. The circular shape of the vertical connecting member 26 matches the shape of the component, improving the verticality of plant planting.

[0026] The vertical connecting member 26 includes a through groove 261, an adsorption ring 262, a circular tube 263, a parallel disk 264, a connecting cavity 265, a connector 266, and an interceptor 267. The through groove 261 penetrates the central region of the adsorption ring 262 and the circular tube 263. The centers of the adsorption ring 262 and the circular tube 263 coincide. The bottom of the circular tube 263 is covered by the parallel disk 264. The connecting cavity 265 is located at the lower-middle part of the edge of the circular tube 263. The connector... 266 carries an interceptor 267 which is embedded in the connecting cavity 265 and fixedly connected to the lower center of the edge of the circular tube 263. The circular tube 263 is interconnected with the unidirectional purification module 25 through the connecting cavity 265 and the interceptor 267. The through groove 261 is circular in shape, the adsorption ring 262 is on the same central vertical line as the circular tube 263, the parallel disk 264 is solid circular in shape, and the connecting cavity 265 and the mesh interceptor 267 are shaped to match each other. The through groove 261, with its circular shape, can match the shape of the component. The adsorption ring 262, by being perpendicular to the center of the circular tube 263, can prevent tilting after the plant is embedded. The parallel disc 264, with its solid shape, can cover the bottom of the circular tube 263, preventing the loss of soil and water. The connecting cavity 265, through the interceptor 267, can prevent the soil and excess water inside the circular tube 263 from seeping out, thus improving the stability of the plant's original planting point.

[0027] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The airtight box 23 of the water circulation processor 2 can be electrically connected to the solar power generation structure 1 through the surface power terminal 24. Then, the fixed plates 22 on the left and right sides and the connecting pipe 21 can be connected to the external water source area. Then, the connecting pipe 21 can be combined with the guiding component inside the airtight box 23 to pull the water source, so that the water source enters the one-way purification module 25 for water quality purification and can be introduced into the vertical connecting component 26 area. Therefore, the clean water source can enter the vertical planting structure 5 through the vertical connecting component 26 to achieve the effect of rapid irrigation. After the vertical connecting component 26 and the vertical planting structure 5 receive a large amount of water, there will be excess water. Therefore, the excess water source will be guided to the one-way purification module 25 area for secondary purification by the small guiding pipe inside the airtight box 23. Finally, when the water source of the vertical planting structure 5 and the vertical connecting component 26 is consumed, the excess water stored inside the airtight box 23 will be transported again. This achieves the characteristic of saving and avoiding waste, and at the same time, it can combine the effect of water circulation treatment and further improve the characteristics of low-carbon landscape mode. Second: The adsorption ring 262 of the vertical connecting piece 26 can improve the vertical fixation of the round tube 263 in the center of the airtight box 23, so that the through groove 261 of the round tube 263 can overlap and connect with the lower end of the vertical planting structure 5. Therefore, it can achieve the effect of vertical planting for plants with thicker branches. Then, the parallel disc 264 at the bottom of the round tube 263 can ensure the original positioning of the soil and water source, and avoid the phenomenon of rapid loss. Furthermore, the connecting cavity 265 at the edge of the round tube 263 can connect with the connecting pipe 21 and the small guide pipe inside the airtight box 23. Therefore, it can achieve precise irrigation and the effect of recycling excess water. During the process, the connecting cavity 265 can be positioned by the interceptor 267 through the connector 266, so that the interceptor 267 can cover the connecting cavity 265, avoiding the soil loss caused by the movement of soil along with the excess water during recycling.

[0028] Example 3: Figures 6 to 7 As shown: This invention provides a carbon-neutral environmental auxiliary device for landscape applications. Its structure includes a vertical planting structure 5 with a balancing slider 51, a reinforcing branch pipe 52, a rust-proof interlayer 53, a threaded connector 54, and an planting cavity 55. The balancing slider 51 is embedded in the edge of the reinforcing branch pipe 52 and is fixedly connected to the rust-proof interlayer 53. The rust-proof interlayer 53 overlaps with the inner edge area of ​​the reinforcing branch pipe 52. The threaded connector 54 is welded to the lower end of the reinforcing branch pipe 52. The planting cavity 55 passes through the center of the rust-proof interlayer 53 and the reinforcing branch pipe 52. The balance slider 51 is embedded in the center of the vertical box 3 through the reinforced branch pipe 52. The reinforced branch pipe 52 and the anti-rust interlayer 53 are interconnected with the vertical connecting groove 26 of the water circulation processor 2 through the threaded connector 54. The balance slider 51 is inserted and matched in a straight line outside the reinforced branch pipe 52. The anti-rust interlayer 53 inside the reinforced branch pipe 52 is made of stainless steel. The threaded connector 54 has external threads. The implantation cavity 55 is set in a vertical position. The balance slider 51, located outside the reinforced branch pipe 52, can improve the connection and fixation between the reinforced branch pipe 52 and the anti-rust layer 53. The anti-rust layer 53, due to its stainless steel properties, avoids corrosion damage caused by continuous contact with water molecules. The threaded connector 54, through its external thread, can be stably and vertically fixedly connected to the inside of the component. The planting cavity 55, through its vertical orientation setting, can effectively allow plants to be planted in a vertical orientation.

[0029] The balance slider 51 includes a small pulley 511, a solid block 512, an adapter layer 513, a rod 514, and an anti-deviation block 515. The small pulley 511 is embedded in the edge surface of the solid block 512. The solid block 512 and the adapter layer 513 are integrated. The rod 514 is welded to the center of the solid block 512 through the adapter layer 513. The anti-deviation block 515 is embedded in the center of the surface of the rod 514. The solid block 512 is inserted into the inside of the reinforced branch pipe 52 through the rod 514 and the anti-deviation block 515 to complete the fixed connection with the anti-rust interlayer 53. The small pulley 511 of the solid block 512 enters the inside of the vertical box 3 and contacts each other. The small pulley 511 is a solid sphere. The adapter layer 513 of the solid block 512 is arc-shaped. The rod 514 carries a rectangular anti-deviation block 515. The small pulley 511, with its spherical shape, can assist the rotation of the component and avoid jamming. The solid block 512, with its arc-shaped adapter layer 513, can fit the shape of the component. The insertion rod 514, with its rectangular anti-deviation block 515, can improve the stability during insertion and avoid tilting.

[0030] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The reinforced branch pipe 52 of the vertical planting structure 5 can be combined with the balance slider 51 to complete the fixed overlapping connection with the anti-rust interlayer 53. Then, the anti-rust interlayer 53 and the reinforced branch pipe 52 can be detachably fixedly connected with the vertical connector 26 through the threaded connector 54. During the process, the balance slider 51 can slide in contact with the inner wall of the vertical box 3 to achieve the effect of balanced threaded connection. Subsequently, the reinforced branch pipe 52 and the anti-rust interlayer 53 can allow the planting cavity 55 to be opened in a vertical direction, so that the plants can be planted in a vertical direction, preventing the occurrence of tilting phenomenon, thus meeting the effect of vertical greening. Finally, combined with the small reaction vessel 4, it can quickly absorb and treat the carbon dioxide in the current landscape environment, so that the current environment can achieve low carbon characteristics. Second: The solid block 512 of the balance slider 51 can be connected to the slide rod 514 through the arc-shaped adapter layer 513. When the slide rod 514 and the anti-deviation block 515 are embedded in the edge of the anti-rust interlayer 53, the arc-shaped adapter layer 513 of the solid block 512 can overlap with the edge of the reinforced branch pipe 52. During the process, the insertion rod 514 can avoid tilting and jamming through the anti-deviation block 515, thus improving the stability of vertical planting. At the same time, when the reinforced branch pipe 52 rotates the threaded connector 54 to splice with the vertical connecting piece 26, the small pulley 511 of the solid block 512 can slide in contact with the inner wall of the vertical box 3, improving the convenience of disassembly and assembly of the overall components.

[0031] Any technical solution that achieves the above-mentioned technical effects by utilizing the technical solutions described in this invention, or by designing similar technical solutions by those skilled in the art under the inspiration of the technical solutions described in this invention, falls within the protection scope of this invention.

Claims

1. A carbon-neutral environmental auxiliary device for landscape applications, comprising the following structure: A solar power generation structure (1), a water circulation processor (2), a vertical box (3), a small reactor (4), and a vertical planting structure (5) are characterized in that: the solar power generation structure (1) is electrically connected to the water circulation processor (2) and is located at the edge of the vertical box (3); the upper part of the vertical box (3) is fixedly connected to the small reactor (4); the small reactor (4) is electrically connected to the solar power generation structure (1) through the vertical box (3); and the vertical planting structure (5) is embedded in the center of the vertical box (3) and is interconnected with the water circulation processor (2).

2. The environmental auxiliary equipment for landscape use based on carbon neutrality according to claim 1, characterized in that: The solar power generation structure (1) includes a reinforcing block (11), a support body (12), an insulating groove (13), a conductive plate (14), an inverter (15), a solar panel (16), an adsorption block (17), and a conductive block (18). The reinforcing block (11) is welded to the lower end of the support body (12). The interior of the support body (12) and the insulating groove (13) are an integrated structure. The conductive plate (14) falls parallel into the interior area of ​​the insulating groove (13). The inverter (15) is installed on... The surface of the conductive plate (14) is fixed to the top of the inverted variant (15) and electrically connected. The adsorption block (17) is set at the front end of the carrier (12). The conductive block (18) passes through the adsorption block (17), the front end center of the carrier (12) and is electrically connected to the conductive plate (14). The conductive plate (14) is electrically connected to the small reactor (4) and water circulation processor (2) of the vertical box (3) through the conductive block (18).

3. The environmental auxiliary equipment for landscape use based on carbon neutrality according to claim 2, characterized in that: The conductive plate (14) is provided with a parallel plate (141), a carrying layer (142), a limiting frame (143), a power storage module (144), a power-carrying shaft (145), and an output module (146). The parallel plate (141) is connected to the limiting frame (143) through the carrying layer (142). The inner side of the limiting frame (143) is in contact with the edge of the power storage module (144). The power-carrying shaft (145) is fixed to the upper end of the limiting frame (143) and electrically connected to the power storage module (144). The output module (146) is located at the upper end of the parallel plate (141) and electrically connected to the power-carrying shaft (145), while passing through the front end of the carrier (12) to complete the fixed electrical connection with the conductive block (18).

4. The environmental auxiliary equipment for landscape use based on carbon neutrality according to claim 1, characterized in that: The water circulation processor (2) is provided with a connecting pipe (21), a fixed plate (22), an airtight box (23), an electrical terminal (24), a one-way purification module (25), and a vertical connecting component (26). The connecting pipe (21) is fixedly connected to the center of the fixed plate (22). The fixed plate (22) is attached to the center of the left and right sides of the airtight box (23). The airtight box (23) and the electrical terminal (24) are an integrated structure. The one-way purification module (25) is embedded in the airtight box (23) and communicates with the connecting pipe (21) and is electrically connected to the electrical terminal (24). The vertical connecting component (26) is set in the central area of ​​the airtight box (23) and its upper end is in the same central area as the vertical planting structure (5) and is interconnected with it.

5. The environmental auxiliary equipment for landscape use based on carbon neutrality according to claim 4, characterized in that: The vertical connecting component (26) is provided with a through groove (261), an adsorption ring (262), a circular tube (263), a parallel disk (264), a connecting cavity (265), a connector (266), and an interceptor (267). The through groove (261) passes through the central area of ​​the adsorption ring (262) and the circular tube (263). The centers of the adsorption ring (262) and the circular tube (263) coincide. The bottom of the circular tube (263) is covered by the parallel disk (264). The connecting cavity (265) is located at the lower middle part of the edge of the circular tube (263). The connector (266) carries the interceptor (267) and is embedded in the connecting cavity (265) and fixedly connected to the lower middle part of the edge of the circular tube (263). The circular tube (263) is connected to the unidirectional purification module (25) through the connecting cavity (265) and the interceptor (267).

6. The environmental auxiliary equipment for landscape use based on carbon neutrality according to claim 1, characterized in that: The vertical planting structure (5) is provided with a balance slider (51), a reinforced branch pipe (52), a rust-proof interlayer (53), a threaded connector (54), and a planting cavity (55). The balance slider (51) is embedded in the edge of the reinforced branch pipe (52) and is fixedly connected to the rust-proof interlayer (53). The rust-proof interlayer (53) overlaps with the inner edge area of ​​the reinforced branch pipe (52). The threaded connector (54) is welded to the lower end of the reinforced branch pipe (52). The planting cavity (55) passes through the center of the rust-proof interlayer (53) and the reinforced branch pipe (52). The balance slider (51) is embedded in the center of the vertical box (3) through the reinforced branch pipe (52). The reinforced branch pipe (52) and the rust-proof interlayer (53) are connected to the vertical connecting groove (26) of the water circulation processor (2) through the threaded connector (54).

7. A landscape environmental auxiliary device based on carbon neutrality according to claim 6, characterized in that: The balance slider (51) is provided with a small pulley (511), a solid block (512), an adapter layer (513), a plug rod (514), and an anti-deviation block (515). The small pulley (511) is embedded in the edge surface of the solid block (512). The solid block (512) and the adapter layer (513) are integrated. The plug rod (514) is welded to the center of the solid block (512) through the adapter layer (513). The anti-deviation block (515) is embedded in the center of the surface of the plug rod (514). The solid block (512) is inserted into the inside of the reinforced branch pipe (52) through the plug rod (514) and the anti-deviation block (515) to complete the fixed connection with the anti-rust interlayer (53). The small pulley (511) of the solid block (512) enters the inside of the vertical box (3) and contacts each other.

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