A plant ecological isolation belt with a plant module arranged in a vehicle separation belt

Abstract

The utility model belongs to the field of urban greening discloses a kind of plant modules in division strip, can realize the symbiosis of multiple different predetermined plants in division strip, including base frame and plant module, base frame includes overhead module bearing plate, plant module is continuously adjacent along extension direction, plant module includes plant accommodating groove board, plant component, water supply pipeline and auxiliary strong entity, plant accommodating groove board has bottom plate part and a pair of side plate part, plant accommodating groove board is placed on module bearing plate by bottom plate part, bottom of plant accommodating groove board is laid with organic substrate layer, plant component includes multiple predetermined plants, the root of predetermined plant is embedded in organic substrate layer, the lower end of water supply pipeline is communicated with municipal water supply network, upper end passes through organic substrate layer, auxiliary strong entity is fixedly combined with water supply pipeline, and the lower end of auxiliary strong entity is embedded in concrete foundation.The utility model also discloses a kind of division strip plant ecological isolation belt based on above-mentioned plant modules in division strip.

Description

Technical Field

[0001] This utility model belongs to the field of urban greening, specifically relating to a partition belt plant module and a plant ecological isolation belt. Background Technology

[0002] Median strips are urban traffic facilities that separate vehicle lanes with pre-planned vegetation. They have both traffic separation and ecological functions. Specifically, the ecological functions include safety isolation, glare reduction, traffic flow management, dust retention, noise reduction, and absorption of harmful gases.

[0003] Currently, median strips are planted with a single type of shrub or herbaceous plant because different species of plants have different unit sizes and nutritional requirements. This makes it difficult to achieve symbiosis of multiple different plant species within the median strip.

[0004] However, the above implementation also has obvious drawbacks. Because the plant species are relatively simple, they are also relatively simple in achieving the above ecological functions and it is difficult to have multiple functions at the same time. Furthermore, due to the simple species, it is difficult to design a self-sustaining ecosystem, which leads to high maintenance costs for the plants. In addition, the single species of plant in the car strip can easily cause aesthetic fatigue. Utility Model Content

[0005] To address the shortcomings of existing technologies, this utility model provides a median strip plant module and a plant ecological isolation strip, which can realize the symbiosis of various predetermined plants in the median strip. Thus, the median strip can have multiple ecological functions, is easy to design as a self-sustaining ecosystem, and can be designed into a multi-layered three-dimensional shape to enhance its aesthetic value.

[0006] To achieve the above objectives, the present invention provides the following technical solution: A plant module for a vehicle, set on a concrete foundation, includes: a base frame having a horizontal extension direction and a vertical elevation direction; the base frame includes an elevated and horizontal module support plate; at least two plant modules continuously adjacent to each other along the extension direction; each plant module includes a plant receiving trough, plant components, a water supply pipe, and a reinforcing entity; the plant receiving trough has a bottom plate extending along the extension direction and a pair of side plates extending along the elevation direction; the plant receiving trough is placed on the module support plate through the bottom plate; an organic matrix layer is laid at the bottom of the plant receiving trough; the plant components include multiple predetermined plants, the roots of which are buried in the organic matrix layer; the water supply pipe extends along the elevation direction, its lower end inserts into the ground and connects to the municipal water supply network, and its upper end passes through the module support plate, the bottom plate, and the organic matrix layer; the reinforcing entity is fixedly connected to the water supply pipe, and its lower end is buried in the concrete foundation.

[0007] Preferably, the water supply pipeline has interconnected water supply sub-pipes, water distribution sub-pipes, and water inlet sub-pipes. Both the water supply sub-pipes and water inlet sub-pipes extend along the elevated direction. The lower end of the water supply sub-pipe is connected to the municipal water supply network. There are at least two water inlet sub-pipes, which are used to supply water to the predetermined plants corresponding to each plant component. The water distribution sub-pipes extend along the extension direction and are connected to all water inlet sub-pipes. The middle part of the water distribution sub-pipes is connected to the water supply sub-pipes. Furthermore, there are two auxiliary reinforcing entities, which are located at both ends of the water supply pipeline along the extension direction. The connection between each inlet subpipe and the branch subpipe is inserted into the auxiliary reinforcing entity, and the bottom ends of both auxiliary reinforcing entities are embedded in the concrete foundation.

[0008] Furthermore, the upper end of the water inlet sub-pipe has multiple seepage holes on its circumferential surface that open to the organic matrix layer, through which water seeps into the organic matrix layer.

[0009] Furthermore, the base frame has end support plates extending along the height direction at both ends in the extension direction, and the reinforcing entity is inverted "L" shape. The free end of the horizontal plate segment is connected to the free end of the horizontal plate segment of the reinforcing entity of the adjacent plant module, or welded to the inner wall of the end support plate. Furthermore, this utility model also includes at least one spray pipe located between two adjacent reinforcing entities along the extension direction. The two ends of the plant receiving trough plate have recessed clearance notches along the extension direction. The free end of the horizontal plate segment of the reinforcing entity has a recessed pipe passage notch. The spray pipe passes through the module support plate, passes through the pipe passage notch between the two reinforcing entities, and passes through the clearance notch between the two plant receiving trough plates. The lower end of the spray pipe is connected to the municipal pipe network, and the upper end extends beyond the top of the predetermined plant and opens outward.

[0010] Preferably, the side plate of the plant receiving trough is formed with connecting flanges, so that the plant receiving trough can be connected to another plant receiving trough from the side and / or the extension direction.

[0011] Preferably, the plant assembly includes a planting frame, a planting dish, and a predetermined plant. Both the planting frame and the planting dish have a hollow structure, and the planting frame is partially buried in the organic substrate layer. The plant receiving tray contains a number of planting frames arranged in a regular pattern, and the planting frames contain a number of planting dishes arranged in a regular pattern, with the predetermined plant planted in each planting dish.

[0012] Furthermore, the plant assembly also includes a perforated top sealing panel, which is detachably mounted on top of the planting dish.

[0013] A median strip plant ecological isolation strip includes: multiple median strip plant modules as described above, any two adjacent median strip plant modules are connected sequentially in the extension direction or on the side, and the multiple median strip plant modules have the same or different heights. Compared with the prior art, the beneficial effects of this utility model are: 1. Because the plant module of this utility model includes a base frame and plant modules, the base frame includes an elevated module support plate, the plant modules are continuously adjacent to each other along the extension direction, and the plant module includes a plant receiving trough plate, plant components, water supply pipes, and reinforcing entities. The plant receiving trough plate has a bottom plate and a pair of side plates. The plant receiving trough plate is placed on the module support plate through the bottom plate. An organic matrix layer is laid at the bottom of the plant receiving trough plate. The plant components include multiple predetermined plants, the roots of which are buried in the organic matrix layer. The lower end of the water supply pipe is connected to the municipal water supply pipe. The network is interconnected, with the upper end passing through the organic matrix layer. The reinforcing entity is fixedly combined with the water supply pipe, and the lower end of the reinforcing entity is buried in the concrete foundation. Therefore, this utility model uses a plant module to correspond to the planting foundation of a predetermined plant, and lays organic matrix layers of different compositions along the extended length. This enables the symbiosis of multiple different predetermined plants in the median strip, so that the median strip can have multiple ecological functions, is easy to design as a self-sustaining ecosystem, and can design the median strip ecological zone into a multi-layered three-dimensional shape to enhance its aesthetic value.

[0014] 2. Because the water supply pipe of this utility model has a connected water supply sub-pipe, a water distribution sub-pipe, and an inlet sub-pipe, the water supply sub-pipe and the inlet sub-pipe both extend along the elevated direction, the lower end of the water supply sub-pipe is connected to the municipal pipe network, the number of inlet sub-pipes is at least two, and the inlet sub-pipe is used to supply water to the predetermined plants corresponding to each plant component, the water distribution sub-pipe extends along the extension direction, the water distribution sub-pipe is connected to all the inlet sub-pipes, and the middle part of the water distribution sub-pipe is connected to the water supply sub-pipe, therefore, this utility model realizes the corresponding water supply to multiple plant components of the plant receiving trough through the water supply pipe.

[0015] 3. Because the present invention has two reinforcing entities, which are located at both ends of the water supply pipeline along the extension direction, and the connection between each inlet subpipe and the branch subpipe is inserted into the horizontal plate section of the reinforcing entity, and the free ends of the vertical plate sections of the two reinforcing entities are embedded in the concrete foundation, the present invention uses the reinforcing entities embedded in the concrete foundation as the support for the water supply pipeline that extends and bends along the elevation direction, so that the structure of the water supply pipeline is stable.

[0016] 4. Because the base frame of this utility model has end support plates extending along the height direction at both ends of the extension direction, and the auxiliary reinforcing entity is inverted "L" shape, the free end of the horizontal plate segment is connected to the free end of the horizontal plate segment of the auxiliary reinforcing entity of the adjacent plant module, or welded to the inner wall of the end support plate, this utility model greatly increases the structural strength of the overall structure formed by multiple plant modules through the mutual connection between auxiliary reinforcing entities or between auxiliary reinforcing entities and end support plates.

[0017] 5. Because the plant assembly of this utility model includes a planting frame, a planting dish, and a predetermined plant, and the planting frame is partially embedded in the organic substrate layer, the plant receiving trough contains multiple planting frames arranged in a regular pattern, and the planting frame contains multiple planting dishes arranged in a regular pattern, and the planting dishes are planted with predetermined plants, this utility model uses hollow planting frames and planting dishes to supply water to the predetermined plants and to make the organic substrate layer shared by multiple planting dishes for the predetermined plants.

[0018] 6. Because the plant ecological isolation belt of the median strip of this utility model includes multiple median strip plant modules, any two adjacent median strip plant modules are connected in sequence in the extension direction or side, and the multiple median strip plant modules have the same or different heights, this utility model has flexible configuration and is easy to achieve a three-dimensional shape with a sense of height. Attached Figure Description

[0019] Figure 1 This is a cross-sectional view of the plant ecological isolation strip along the median strip, which is an embodiment of this utility model.

[0020] Figure 2 This is a schematic diagram of a plant module for a vehicle according to an embodiment of the present invention (plant components are not shown).

[0021] Figure 3 This is a schematic diagram of the plant receiving trough plate according to an embodiment of the present invention.

[0022] Figure 4 This is a schematic diagram of the plant component according to an embodiment of the present invention.

[0023] Figure 5 This is an exploded view of the plant assembly according to an embodiment of the present invention.

[0024] Figure 6 This is an assembly drawing of the water supply pipe, the reinforcing body, and the spray pipe according to an embodiment of the present invention.

[0025] Figure 7 This is a schematic diagram of the assembly of the water supply pipe and the reinforcing entity according to an embodiment of the present invention.

[0026] In the diagram: 100, Plant ecological isolation strip for vehicle lanes; B, Concrete foundation; 100A, Plant module for vehicle lanes; 10, Base frame; D1, Extension direction; D2, Elevation direction; D3, Lateral direction; 11, End support plate; 12, Module bearing plate; 13, Lower reinforcing plate; 20, Plant module; 21, Plant receiving trough plate; 211, Bottom plate; 2111, First through hole; 212, Side plate; 2121, Connecting folded edge; 213 1. End plate section, 2131. Avoidance notch, 22. Plant component, 221. Planting frame, 222. Planting dish, 223. Top sealing plate, 224. Reserved plant, 23. Water supply pipe, 231. Water supply sub-pipe, 232. Water distribution sub-pipe, 233. Water inlet sub-pipe, 2331. Drain hole, 24. Reinforcing solid, 241. Horizontal plate section, 2411. Pipe passage notch, 242. Vertical plate section, 30. Spray straight pipe, 31. Spray hole. Detailed Implementation

[0027] To make the technical means, creative features, objectives and effects of this utility model easier to understand, the following embodiments, in conjunction with the accompanying drawings, specifically illustrate the plant module for the vehicle divider and the plant ecological isolation belt of this utility model. It should be noted that the description of these embodiments is for the purpose of helping to understand this utility model, but does not constitute a limitation on this utility model.

[0028] like Figure 1 As shown, the median strip plant ecological isolation strip 100 in this embodiment includes multiple median strip plant modules 100A with adjacent edges. The multiple median strip plant modules 100A may have the same or different heights. Specifically, when the multiple median strip plant modules 100A have different heights, the median strip plant ecological isolation strip 100 presents a multi-layered three-dimensional shape in terms of height. Furthermore, the foundation of the median strip plant ecological isolation strip 100 is a permeable concrete foundation B with a reserved drainage slope. The permeable concrete foundation B is more conducive to the collection and slow release of rainwater, reducing runoff pollution.

[0029] In this embodiment, the median strip ecological isolation belt 100 is structured in terms of height as follows: tree layer (3-5 meters), shrub layer (1-2 meters), herb layer (0.5-1 meters), and ground cover layer (creeping grasses). The tree layer serves to form a shade barrier and attract birds, the shrub layer provides rich colors and a sense of layering and attracts birds, the herb layer attracts insects to facilitate pollination, and the ground cover layer suppresses weed growth. Thus, the median strip ecological isolation belt 100 forms a self-sustaining system. Furthermore, the leaves of the multi-layered plants can significantly reduce road dust and traffic noise, and the high-density plant configuration also greatly increases the carbon sequestration per unit area of ​​the median strip ecological isolation belt 100. like Figure 2As shown, the plant module 100A of the vehicle includes a base frame 10, a plant module 20, and a spray pipe 30.

[0030] The base frame 10 has a horizontal extension direction D1 and a vertical height direction D2. The base frame 10 includes an end support plate 11 and a module bearing plate 12. Specifically, the base frame 10 also has a lateral direction D3 formed based on the extension direction D1 and the height direction D2, and the base frame 10 also has a lower reinforcing plate 13.

[0031] There is a pair of end support plates 11 extending along the height direction D2, and they are formed at both ends of the base frame 10 in the extension direction D1. The module support plate 12 is horizontal and suspended. Specifically, the base frame 10 has a plate frame structure. The module support plate 12 and the lower reinforcing plate 13 are parallel and suspended. The module support plate 12 is located directly above the lower reinforcing plate 13, and the module support plate 12 and the lower reinforcing plate 13 are fixed to the opposing surfaces of the pair of end support plates 11 at both ends of the extension length D1.

[0032] The number of plant modules 20 is at least two, and the plant modules 20 are continuously adjacent to each other along the extension direction D1. The plant module 20 includes a plant receiving trough plate 21, a plant component 22, a water supply pipe 23, and a reinforcing entity 24.

[0033] Specifically, the plant receiving trough plate 21 is disposed on the upper surface of the module support plate 12, the plant assembly 22 is disposed inside the plant receiving trough plate 21, the water supply pipe 23 passes through the lower reinforcing plate 13, the module support plate 12 and the plant receiving trough plate 21, and the auxiliary reinforcing entity 24 is adjacent to the lower reinforcing plate 13 below. In this embodiment, the number of plant receiving trough plates 21 placed on the same module support plate 12 along the extension direction D1 is three.

[0034] like Figure 3As shown, the plant receiving trough 21 has a bottom plate portion 211 extending along the extension direction D1 and a pair of side plate portions 212 extending along the height direction D2. The plant receiving trough 21 is placed on the module support plate 12 through the bottom plate portion 211. An organic substrate layer (not shown in the figure) is laid at the bottom of the plant receiving trough 21. Specifically, a pair of end plate portions 213 extending along the height direction D3 are also formed at both ends of the plant receiving trough 21 in the extension direction D1. The organic substrate of the organic substrate layer is selected from the fermentation products of organic waste (such as shredded dead branches and fallen leaves). The mixture of plant material and water-retaining agent has a pH value of 6.5 to 7.0. During preparation, the plant components 22 are first arranged adjacent to each other on the bottom plate 211 of the plant receiving trough plate 21 along the extension direction D1. Then, the organic substrate is poured into the plant receiving trough plate 21, thereby forming an organic substrate layer on the bottom plate 211. In addition, one type of organic substrate can be poured along the extension direction D1, or multiple types of organic substrates can be poured in sequence. In this embodiment, the number of plant components 22 placed on the same plant receiving trough plate 21 along the extension direction D1 is two.

[0035] The side plate portion 212 is formed with a connecting flange 2121, so that the plant receiving trough plate 21 can be connected to another plant receiving trough plate 21 from the side (i.e., the lateral direction D3) and / or the extension direction D1; the two ends (i.e. the end plate portion 213) of the extension direction of the plant receiving trough plate 21 have recessed avoidance notches 2131, so that after the end plate portions 213 of two adjacent plant receiving trough plates 21 are combined, the two avoidance notches 2131 form a through hole extending along the height direction D2. Specifically, the bottom plate portion 211 also has two first through holes 2111 along the extension direction D1, and the lower reinforcing plate 13 has a second through hole (not shown in the figure) corresponding to the first through hole 2111. In this embodiment, the avoidance notch 2131 is semi-circular.

[0036] like Figure 4 and Figure 5 As shown, the plant assembly 22 includes a planting frame 221, a planting dish 222, a top sealing plate 223, and a predetermined plant 224.

[0037] The planting frame 221, planting dish 222 and top sealing plate 223 are all hollow structures. Multiple planting frames 221 are arranged in a regular manner on the bottom plate 211 inside the plant receiving trough plate 21. Multiple planting dishes 222 with upper openings are arranged in a regular manner inside each planting frame 221. Each planting dish 222 is planted with a predetermined plant 224. The top opening of each planting dish 222 is detachably provided with a top sealing plate 223. The predetermined plant 224 passes through the top sealing plate 223.

[0038] Specifically, the bottom of the planting frame 221 is buried in the organic substrate layer, so that the roots of the intended plant 224 are buried in the organic substrate layer and water is supplied to the intended plant 224.

[0039] like Figure 6 and Figure 7 As shown, the water supply pipe 23 extends along the elevation direction D3, with its lower end inserted into the ground and connected to the municipal water supply network (not shown in the attached figure), and its upper end passing through the module support plate 12, the bottom plate 211 and the organic matrix layer. Specifically, the water supply pipe 23 also passes through the lower reinforcing plate 13. In this embodiment, there are three water supply pipes 23 for the same plant module 20. The water supply pipeline 23 has a water supply sub-pipe 231, a water distribution sub-pipe 232, and an inlet sub-pipe 233 connected in sequence. Both the water supply sub-pipe 231 and the water inlet sub-pipe 233 extend along the elevation direction D3. The lower end of the water supply sub-pipe 231 is connected to the municipal pipe network. There are at least two water inlet sub-pipes 233, and the water inlet sub-pipes 233 are used to supply water to the predetermined plants 224 corresponding to each plant component 22. The water distribution sub-pipe 232 extends along the extension direction D1 and is connected to all the water inlet sub-pipes 233. The middle part of the water distribution sub-pipe 233 is connected to the water supply sub-pipe 231. Specifically, there are two water inlet sub-pipes 233, which are connected to both ends of the water distribution pipe 232 along the extension length D1. The water inlet sub-pipe 233 passes through the lower reinforcing plate 13, the module support plate 12, the bottom plate 211, and the organic matrix layer. In this embodiment, each water inlet sub-pipe 233 is inserted into a planting frame 221.

[0040] The upper end of the water inlet pipe 233 has multiple seepage holes 2331 that open to the organic substrate layer. Water seeps into the organic substrate layer through the multiple seepage holes 2331, thereby supplying water to the predetermined plants in the planting frame 221. Specifically, since the organic substrate layer is compacted by human labor, it has a certain density, so the organic substrate will not seep back into the seepage holes 2331.

[0041] There are two reinforcing entities 24. Both reinforcing entities 24 are inverted "L" shapes and symmetrical about the vertical plane. The two reinforcing entities 24 are located at both ends of the water supply pipe 23 along the extension direction D1 and are fixedly connected to the water supply pipe 23. The bottom ends of the two reinforcing entities are buried in the concrete foundation B. In this embodiment, there are six reinforcing entities 24 in the same plant module 20. The reinforcing entity 24 has a horizontal plate segment 241 and a vertical plate segment 242.

[0042] The transition connection between each water inlet sub-pipe 233 and the water distribution sub-pipe 232 is correspondingly inserted into the bend of the reinforcing entity 23. The free end of the horizontal plate segment 241 has a recessed through-pipe notch 2411. The free end of the horizontal plate segment 241 is connected to the free end of the horizontal plate segment 241 of the reinforcing entity 224 of the adjacent plant module 20, or welded to the inner wall of the end support plate 11. Thus, when the free end of the horizontal plate segment 241 is connected to the free end of the horizontal plate segment 241 of the reinforcing entity 224 of the adjacent plant module 20, the two through-pipe notches 2411 form a through hole extending along the height direction D2. Specifically, the upper surface of the horizontal plate segment 241 is fixed to the lower surface of the lower reinforcing plate 13, and the through-pipe notch 2411 is semi-circular.

[0043] The number of spray pipes 30 is at least one, located between two adjacent reinforcing entities 24 along the extension direction D1.

[0044] The spray pipe 30 passes through the pipe notch 2411 between the two reinforcing bodies 24, then through the module support plate 12, and then through the notch 2131 between the two plant receiving trough plates 21. The lower end of the spray pipe 30 is connected to the municipal pipe network, and the upper end exceeds the top of the predetermined plant 224 and opens outward, thereby replenishing water to the predetermined plant 224 by spraying.

[0045] Specifically, the upper end of the spray pipe 30 has multiple spray holes 31 that open to the outside, through which water is sprayed outward.

[0046] The above embodiments are preferred embodiments of this utility model and are not intended to limit the scope of protection of this utility model. Various modifications or variations that can be made by those skilled in the art without creative effort within the scope of the appended claims are still within the scope of protection of this patent.

Claims

1. A modular unit with planters, installed on a concrete foundation, characterized in that, include: The base frame has a horizontal extension direction and a vertical height direction, and the base frame includes an elevated and horizontal modular support plate. At least two plant modules are continuously adjacent to each other along the extending direction. Each plant module includes a plant receiving trough, a plant component, a water supply pipe, and a reinforcing entity. The plant receiving trough has a bottom plate extending along the extending direction and a pair of side plates extending along the lifting direction. The plant receiving trough is placed on the module support plate via the bottom plate. An organic substrate layer is laid at the bottom of the plant receiving trough. The plant assembly includes multiple predetermined plants, the roots of which are buried in the organic substrate layer. The water supply pipeline extends along the elevated direction, with its lower end inserted into the ground and connected to the municipal water supply network. Its upper end passes through the module support plate, the bottom plate, and the organic matrix layer. The reinforcing entity is fixedly connected to the water supply pipeline, and the lower end of the reinforcing entity is embedded in the concrete foundation.

2. The planter module for the vehicle as described in claim 1, characterized in that: in, The water supply pipeline has interconnected water supply sub-pipes, water distribution sub-pipes, and water inlet sub-pipes. Both the water supply sub-pipe and the water inlet sub-pipe extend along the elevated direction. The lower end of the water supply sub-pipe is connected to the municipal water supply network. There are at least two water inlet sub-pipes, and each water inlet sub-pipe is used to supply water to a predetermined plant for each plant assembly. The water distribution sub-pipe extends along the extension direction, and the water distribution sub-pipe is connected to all the water inlet sub-pipes. The middle part of the water distribution sub-pipe is connected to the water supply sub-pipe.

3. The planter module for the vehicle as described in claim 2, characterized in that: in, The number of auxiliary reinforcing entities is two, and the two auxiliary reinforcing entities are located at both ends of the water supply pipeline along the extension direction. The connection part of each water inlet sub-pipe and the water distribution sub-pipe passes through the auxiliary reinforcing entity, and the bottom ends of the two auxiliary reinforcing entities are buried in the concrete foundation.

4. The planter module for the vehicle as described in claim 2, characterized in that: in, The upper end of the water inlet sub-pipe has multiple seepage holes on its circumferential surface that open to the organic matrix layer, through which water seeps into the organic matrix layer.

5. The planter module for the vehicle as described in claim 3, characterized in that: in, The base frame has end support plates extending along the height direction at both ends of the extension direction. The reinforcing entity is in the shape of an inverted "L". The free end of the horizontal plate segment is connected to the free end of the horizontal plate segment of the reinforcing entity of the adjacent plant module, or welded to the inner wall of the end support plate.

6. The planter module for the vehicle as described in claim 5, characterized in that, Also includes: At least one spray pipe is located between the two adjacent reinforcing entities along the extending direction. The plant receiving trough plate has recessed clearance notches at both ends in the extension direction, and the free end of the horizontal plate segment of the auxiliary reinforcement entity has a recessed pipe passage notch. The spray pipe passes through the module support plate, passes through the pipe passage notch and exits between the two auxiliary reinforcement entities, and passes through the clearance notch and exits between the two plant receiving trough plates. The lower end of the spray pipe is connected to the municipal pipe network, and the upper end extends beyond the top of the predetermined plant and opens outward.

7. The planter module for the vehicle as described in claim 1, characterized in that: in, The side plate of the plant receiving trough is formed with connecting folds, so that the plant receiving trough can be connected to another plant receiving trough from the side and / or the extending direction.

8. The planter module for the vehicle as described in claim 1, characterized in that: in, The plant assembly includes a planting frame, a planting dish, and the predetermined plant. Both the planting frame and the planting dish have a hollow structure, and the planting frame is partially embedded in the organic substrate layer. The plant receiving tray contains a plurality of planting frames arranged in a regular pattern, and each planting frame contains a plurality of planting dishes arranged in a regular pattern, with each planting dish corresponding to a predetermined plant.

9. The planter module for the vehicle as described in claim 8, characterized in that: in, The plant assembly also includes a perforated top sealing panel, which is detachably mounted on top of the planting dish.

10. A plant-based ecological isolation strip for median strips, characterized in that, include: The multiple distribution strip plant modules according to any one of claims 1 to 9, wherein any two adjacent distribution strip plant modules are sequentially connected in the extending direction or on the side, and the multiple distribution strip plant modules have the same or different heights.

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