TWM624238U - Smart Green Roof System - Google Patents

Abstract

An intelligent green roof system, which includes a greening unit and an intelligent processing unit, the greening unit is arranged on the roof of a building for planting plants, and the intelligent processing unit includes a control part, a detection part and an actuating part, and the plants are sensed by the detection part When the greening unit is planted in an environmental state, and the control element satisfies the set condition corresponding to the environmental condition, the control element triggers the actuating element to adaptively adjust the environmental condition, thereby promoting the intelligent application of the existing green roof.

Description

Smart Green Roof System

This creative department provides a planting system, especially a smart green roof system that can be applied to the roof of green buildings.

Due to the dense population in the city, reinforced concrete buildings are being built one by one. As modern people pay more and more attention to the concept of "greening", how to green buildings has become a very important issue in the architectural design industry. Among them, the application of green roofs has received more attention. For example, in European and American countries, the roofs of buildings are often covered with green plants to beautify the buildings. In addition to increasing the visual landscape effect, it also creates habitats for diverse organisms.

However, the planting of existing green roofs is still mainly based on manual maintenance, and the effect of automatic maintenance of plants cannot be achieved. In addition, the existing green roofs have not been able to further achieve more environmentally friendly and energy-saving smart applications, such as integrating automated organic cultivation, rainwater purification, and solar power generation. Therefore, the existing green roofs still need to be further improved.

In order to solve the above problems, the creators have devoted their minds to research and developed a smart green roof system. Through automatic control, the plants planted on the roof can be well maintained, and the green roof can meet the purpose of smart applications. .

An embodiment of the present invention provides a smart green roof system, which includes a greening unit and an intelligent processing unit. The greening unit is installed on the roof of the building for planting; the intelligent processing unit includes a control part, a detection part and an actuating part, the detecting part and the actuating part are arranged on the greening unit and are electrically connected with the control part, The detection element senses an environmental condition of the plant in the greening unit, and when the control element satisfies a set condition corresponding to the environmental condition, the control element triggers the actuating element to adaptively adjust the environmental condition.

In one embodiment, the control element includes a remote communication element, and the control element is connected to an external terminal through the Internet via the remote communication element, and the environmental state sensed by the detection element can be The terminal receives and monitors, and the actuator can be remotely controlled by the terminal to trigger the actuator.

In one embodiment, the greening unit is composed of a plurality of planting modules arranged adjacent to the roof, and each planting module includes a pot body, a water absorption layer, a soil layer and an antifouling layer. A basin system: a basin bottom is provided with a wall around the periphery to form a container, the water-absorbing layer is placed on the bottom of the basin and is located at the bottom of the container, and the soil layer is stacked on the water-absorbing layer through the antifouling layer. The antifouling layer is waterproof, and a hydrophilic member is arranged between the water-absorbing layer and the soil layer, and the hydrophilic member allows liquid to pass through the capillary action between the water-absorbing layer and the soil layer. Intercommunication.

In one embodiment, the detecting element includes a soil quality sensor for sensing the soil layer, and the actuating element includes a water supply pipeline, and the water supply pipeline follows the water absorption layer of each planting module and is located in the soil layer. Greening unit distribution; the environmental state is at least one of moisture content, temperature, nitrogen, phosphorus and potassium fertilizer content, pH and redox potential of the soil layer sensed by the soil quality meter; it is defined that the environmental state exceeds the control element When a set value is set to satisfy the set condition, the water supply pipeline is triggered by the control element to supply water or a mixture of water and conditioning liquid to each of the water absorbing layers.

In one embodiment, the pot body of each planting module has a groove portion at the bottom of the pot for accommodating the water supply pipeline; the conditioning liquid is stored in a liquid storage tank, and the liquid storage tank communicates with each other. The water supply pipeline allows the conditioning liquid to be confluent with water in the water supply pipeline and transported to the water absorption layer of each planting module.

In one embodiment, the detecting element includes an image capture device, and the actuating element includes a chemical sprayer; the environmental state is that insects are displayed in the image sensed by the image capture device; the control element is based on the When the insects in the image are identified as species of pests and diseases, the set conditions are met, and the control element triggers the chemical sprayer to automatically spray the chemical corresponding to the species to eliminate insects.

In one embodiment, the actuating element includes a medicine reservoir connected to the sprayer, and the medicine reservoir is used for storing medicines of a variety of pest species, and the control member is adjusted from the medicine reservoir according to the identified pest species. The corresponding agent is selected and supplied to the sprayer for spraying the planted plants.

In one embodiment, it further includes a solar power supply unit electrically connected to the control element, the solar power supply unit includes a solar panel and a battery, the solar panel is arranged outside the greening unit, and the battery is electrically connected to the solar panel, the The solar panel generates electricity after receiving the light, and stores electricity in the battery to provide the electricity required by the system.

In one embodiment, it further includes a cover body made of light-transmitting material and disposed on the roof, the cover body has an accommodating space, the control part, the liquid storage tank, the medicine storage container and the solar energy The power supply unit is arranged in the accommodating space and covered by the cover body.

In one embodiment, the detecting element includes a photometer, and the actuating element includes a projection lamp; the ambient state is that the photometer senses the illuminance of the roof; when the illuminance is lower than one of the control elements When the value is set, the set condition is satisfied, and the control element triggers the projection light to be turned on at night as a landscape light.

In this way, the smart green roof system of the present creation senses the environmental state of the plants planted in the greening unit through the detection device, and when the environmental state meets the set conditions, manual operation is not necessary, but the control device can trigger the action The device can adapt to adjust the environmental state, so as to achieve automatic maintenance of the plants planted on the roof, and can achieve water purification through the greening unit to avoid the problem of environmental pollution, so that the green roof can achieve the effect of effectively regulating the environment.

In addition, the smart green roof system of this creation can further use the solar panel of the solar power supply unit to receive sunlight to generate electricity, and the battery stores the electricity to provide electricity for the system itself, thereby achieving the function of energy saving.

In order to fully understand the purpose, features and effects of this creation, the following specific embodiments are used in conjunction with the accompanying drawings to give a detailed description of this creation, as follows.

As shown in FIGS. 1 to 6 , the present invention provides a smart green roof system 100 , which includes a greening unit 10 , an intelligent processing unit 20 , and in one embodiment, further includes a solar power supply unit 30 , wherein:

The greening unit 10 is installed on the roof of the building, and can be used for planting plants P. The plants P are all suitable for planting on the roof, and are not listed here because of the variety. As shown in FIG. 1 , in one embodiment, the greening unit 10 is composed of a plurality of planting modules 40 arranged adjacently. Each planting module 40 is shown in FIG. 2 and includes a pot body 41 and a water-absorbing layer 42 . , a soil layer 43 and an antifouling layer 44, the basin body 41 is a basin bottom 411 with a wall 412 around the periphery to form a container 413, the water absorption layer 42 is placed on the basin bottom 411 and located in the container 413 At the bottom, the soil layer 43 is stacked on the water-absorbing layer 42 through the anti-fouling layer 44 for planting the plants P. The anti-fouling layer 44 is waterproof, and a hydrophilic part 45 is arranged between the water-absorbing layer 42 and the soil layer 43, which is hydrophilic The member 45 is provided for the liquid to communicate between the water-absorbing layer 42 and the soil layer 43 through capillary action.

In this embodiment, the wall portion 412 is provided with a drainage hole 412a, and when the water absorbed by the water absorbing layer 42 is too saturated, the water can be discharged through the drainage hole 412a. One-third of the height, but this creation is not limited to this. As shown in FIGS. 2 and 3 , in this embodiment, there are correspondingly arranged tenons 412b and slots 412c on the outer periphery of the wall portion 412 . The 412b is inserted into the slot 412c on one side of the other and fixed (eg mortise), so that the two abutting planting modules 40 are joined together.

In one embodiment, the water-absorbing layer 42 is a water-absorbing cotton material, the soil layer 43 is paved with soil for planting in this embodiment, the antifouling layer 44 is a non-woven fabric, and the hydrophilic member 45 is a hydrophilic material. Sex stick. Preferably, the water-absorbing layer 42 and the soil layer 43 respectively have a communication pipe 46 at the position where the hydrophilic member 45 is arranged, and the hydrophilic member 45 is arranged in the communication pipe 46 and extends at both ends to contact the water-absorbing layer 42 and the soil layer 43 . . The above-mentioned structure, material and composition of the greening unit 10 are only for the description of the embodiment, and the present invention is not limited to this embodiment.

As shown in FIG. 5 , the intelligent processing unit 20 includes a control element 21 , a detection element 22 and an actuating element 23 . The detection element 22 and the actuating element 23 are arranged on the greening unit 10 and are electrically connected to the control element 21 . The measuring element 22 senses an environmental state of the plant P planted in the greening unit 10, and when the control element 21 meets a set condition corresponding to the environmental condition, the control element 21 triggers the actuating element 23 to adaptively adjust the environmental condition. Adjustment refers to timely adjusting the environmental state to a growth environment that the plant P is easy to adapt to.

In an embodiment, the control element 21 is a programmable logic controller (Programmable Logic Controller, PLC). In an embodiment, the detection element 22 includes a soil sensor 221, and the soil sensor 221 senses The soil layer 13, and the actuating member 23 includes a water supply pipeline 231, and the water supply pipeline 231 is distributed along the water absorption layer 42 of each planting module 40. The triggers described in this creation include but are not limited to the control member 21 controlling the actuating member 23 starts and starts to act, and also includes the control member 21 controlling the actuating member 23 to close and stop the actuation.

The environmental state is at least one of the moisture content, temperature, nitrogen, phosphorus and potassium fertilizer content, pH, and oxidation-reduction potential (ORP) of the soil layer 13 sensed by the soil sensor 221; When a set value of the control member 21 satisfies the set condition, at this time, the control member 21 triggers the water supply pipeline 231 to deliver fluid to each water-absorbing layer 12, and the fluid includes but is not limited to water or a mixture of water and a conditioning liquid, The conditioning liquid includes but is not limited to liquid fertilizer. The water supply pipeline 231 refers to a pipeline connected to a pump and/or a valve for fluid control (the pump and valve are not shown in the figure), such as an on-off valve and a check valve.

In one embodiment, the pot body 41 of each planting module 40 has a groove portion 414 , and each groove portion 414 is crisscrossed at the pot bottom 411 where it is located so that the water supply pipeline 231 can be accommodated. The groove portion 414 In this embodiment, the U-shaped section is provided, and the groove portion 414 is arranged to allow the water supply pipe 231 to adhere more closely to the water-absorbing layer 12 , so that the aforementioned water or mixed liquid can be absorbed by the water-absorbing layer 12 more effectively. The basin bottom 411 of the present invention is not limited to having the groove portion 414 , the basin bottom 411 can also be a flat surface so that the water pipe 231 can be flush with the bottom, so that the water or mixed liquid can also be absorbed by the water absorbing layer 12 . Alternatively, the water supply pipeline 231 can also be buried in the basin body 41 to be hidden (not shown in the figure). In the present embodiment, the pot bottom 411 is provided with a hole 411 a at the position of the groove portion 414 , so that the water supply pipeline 231 supplies water to the tank 413 to supply water to the water absorption layer 42 .

On top of that, the water supply pipeline 231 has an inlet portion 231a (as shown in FIG. 1 ), which allows water or conditioning liquid to enter the water supply pipeline 231 from the inlet portion 231a to be transported to each water absorbing layer 12. The water supply pipeline 231 is provided with holes or The water outlet connector (not shown in the figure) allows water or conditioning liquid to be absorbed by the water absorbing layer 12, so as to supply the water required by the plant P for planting. Preferably, the conditioning liquid is pre-stored in a liquid storage tank 231b (as shown in FIG. 1 ), and the liquid storage tank 231b is communicated with the water supply pipeline 231 to prepare for immediate supply of the conditioning liquid to the water supply pipeline 231, so as to be able to Confluent with water and transported to the water absorbing layer 42 of each planting module 40 .

In one embodiment, the solar power supply unit 30 is electrically connected to the control member 21 , and the solar power supply unit 30 includes a solar panel 31 and a battery 32 (as shown in FIG. 5 ). The solar panel 31 is disposed outside the greening unit 10 and can receive For light, the battery 32 is electrically connected to the solar panel 31, and the battery 32 stores electricity when the solar panel 31 receives light to generate electricity, so as to provide the power required by the smart green roof system 100. In this embodiment, the control component 21 and the detection component are 22 and the electronic equipment of the actuating element 23 to supply power.

In actual operation, it is assumed that the environmental state is the moisture content, and the set condition is that the moisture content is lower than or higher than the adaptation range of 55% to 65%. 40%, since the moisture content is lower than the lower standard of 55% of the set condition and the set condition is met, the control element 21 triggers the water supply pipeline 231 to supply water, so as to adjust the moisture content to the adaptation range of the moisture content of 55% to 65% After that, the water supply pipeline 231 stops water supply, so as to provide sufficient water for the plants P to be planted.

It is further assumed that the environmental state is NPK fertilizer content, pH or redox potential, and the set condition is that NPK fertilizer content, pH or redox potential are outside the preset adaptive range. At this time, if the soil texture meter 221 measures The content of nitrogen, phosphorus and potassium fertilizer, pH or redox potential in the soil layer 13 has exceeded the preset adaptive range, that is, the set condition is met, and the water supply pipeline 231 is triggered by the control member 21 to supply the adjustment liquid, so that the adjustment liquid is in the water supply pipeline 231. It is confluent with water and sent to each planting module 40. For example, the adjustment liquid has pre-prepared liquid fertilizers with components and proportions to adjust the NPK fertilizer content, pH or redox potential to a preset adaptive range, The water supply line 231 stops supplying the conditioning liquid, so as to provide sufficient nutrients for the plants P to be planted.

If it is further assumed that the environmental state is temperature, and the set condition is that the temperature is outside the adaptive range of 20°C to 30°C, the actuating member 23 is triggered. At this time, if the soil texture meter 221 measures the temperature of the soil layer 13 to be only 15°C, Since the set condition is met by 20°C lower than the set condition, the control element 21 triggers the water supply pipeline 231 to supply warm water. The warm water, for example, is heated by a heater (not shown) before entering the water supply. The pipeline 231 is used to adjust the moisture content to an adaptation range of 20°C to 30°C, and then the water supply pipeline 231 stops water supply, so as to provide a temperature suitable for the growth of the plant P.

In one embodiment, as shown in FIGS. 1 and 4 , the detecting element 22 further includes an image capture device 222 (eg, a CCD or CMOS sensor), and the actuating element 23 includes a chemical sprayer 232 . The setting condition is that the image detected by the image capture device 222 contains harmful insects, and when the image capture device 222 senses the presence of insects, the control component 21 identifies the insects as harmful insects according to the insects in the image. Species (such as mosquitoes, flies, or horseflies) meet the set conditions, and the control element 21 triggers the chemical sprayer 232 to automatically spray the chemical corresponding to the species to eliminate insects, thereby preventing the planted plants P from being damaged by pests and diseases. Preferably, the image capture device 222 is a camera with a 360ﾟ image capture function.

In one embodiment, the actuating member 23 includes a medicine reservoir 233 (as shown in FIG. 5 ), the medicine reservoir 233 is connected to the sprayer 232 (as shown in FIG. 1 ), and the medicine reservoir 233 is used to store various For the chemicals for the species of pests and diseases, the control unit 21 selects the corresponding chemicals from the chemical reservoir 233 according to the identified species of pests and diseases, and provides them to the sprayer 232 to spray the plants P being planted.

In one embodiment, as shown in FIGS. 1 and 5 , the detecting element 22 includes a photometer 223 , and the actuating element 23 includes a projection lamp 234 , which is turned on at night and used as a landscape light, preferably a light-emitting two. Polar body (LED) projection lamp; the environmental state is that the photometer 223 senses the illuminance of the roof, and the set condition is satisfied when the illuminance is lower than a set value of the control member 21 . The set value assumes that the illuminance is lower than 30 lx (lux) as an example. When the photometer 223 senses that the illuminance of the roof is lower than the set value at night, that is, the control element 21 triggers the projection light 234 to turn on as a landscape. Or, when the photometer 223 senses that the illuminance of the roof has been higher than the set value in the morning, that is, the control part 21 triggers the projection lamp 234 to turn off, so as to save energy.

As shown in FIG. 5 , the greening unit 10 includes a transparent cover 50 , the photometer 223 and the projection lamp 234 are arranged outside the transparent cover 50 , and the control member 21 , the liquid storage tank 231 b , the medicine storage 233 , the solar panel 31 and the A battery 32 is disposed in the transparent cover 50 so as to be protected by the transparent cover 50 to avoid being damaged by wind and rain.

In one embodiment, the control part 21 can record the above-mentioned setting conditions, and store the changes of the adjusted environmental state and the corresponding results, so as to analyze the plants P planted by the greening unit 10 are of different types, and establish the growth of various types of plants. data, and then provide recommendations for plant P species suitable for planting.

As shown in FIG. 6 , the control part 21 includes a remote communication part 211 , and the control part 21 is connected to an external terminal T via the Internet E via the remote communication part 211 , and the terminal T can be a smart phone, a tablet For a computer, a notebook computer or a desktop computer, the environmental state sensed by the detection element 22 can be received and monitored by the terminal T (the soil texture sensor 221, the image capture device 222 and the photometer 223), and can be monitored by the terminal T. T performs remote remote control of the control element 21 to trigger the action of the actuating element 23 (water supply pipeline 231, medicine sprayer 232, medicine storage 233 and projection lamp 234). In other words, the smart green roof system 100 can be integrated in the form of the Internet of Things through the remote communication device 211 , which facilitates the function of remote monitoring.

From the above description, it is not difficult to find the characteristics of this creation, which are:

1. The smart green roof system 100 of the present creation senses the environmental state of the plants P planted in the greening unit 10 by the detection element 22, and when the sensed environmental state meets the set conditions, the control element 21 automatically triggers the action The component 23 adjusts the environmental state, and the control component 21 can also record the setting conditions and store the environmental state of the planted plant P after adjustment, and analyze and suggest the type of plant P that is more suitable for planting, and this process does not require manual operation. The plant P on the greening unit 10 can be automatically maintained, so that the green roof can effectively adjust the environment.

2. In the smart green roof system 100 of the present creation, the control unit 21 includes a remote communication unit 211, so that the environmental state sensed by the detection unit 22 can be received and monitored by the remote terminal T, and the control unit 21 The remote triggering actuating element 23 is used to automatically adjust the environmental state, so that the green roof can further achieve the effect of intelligent management.

3. In the smart green roof system 100 of the present creation, the greening unit 10 can be composed of a plurality of planting modules 40 arranged adjacently, so the modular design can make the installation and application of the system easier.

All in all, the smart green roof system of this creation can not only provide regulation suitable for its growth according to the current state of the plants cultivated on it, but also sense the parameters of the external environmental state, and provide suggestions for the types of plants suitable for planting. The design can make the installation and application of the system easier and make the building more beautiful. In addition, there are projection lighting (such as LEDs of different colors) at night to increase the expression and style of the building. In addition to automatically sensing the outdoor climate and physical environment during the day, this system can automatically water and supplement water and liquid fertilizers according to the needs of different plants. It can also sense the species of plant diseases and insect pests and select insect repellents through image capture and identification. Therefore, this system greatly improves the problem that traditional green roofs are difficult to manage vegetation. The important thing is that this system can reduce the heat gain of building roofs, so as to meet the standards of smart buildings (diamond, gold, etc.). In order to comply with the domestic building regulations, "the central authority or its subsidy of more than half, and the total construction cost of the public new building is more than NT $ 50 million, since January 1, 1991, should be The first to obtain the candidate green building certificate, before the issuance of the construction license”, so the smart green roof system created in this project has promotion value.

The present creation has been disclosed above with preferred embodiments, but those skilled in the art should understand that the embodiments are only used to describe the present creation, and should not be construed as limiting the scope of the present creation. It should be noted that all changes and substitutions equivalent to this embodiment should be set to be included in the scope of the present creation.

100: Smart Green Roof System 10: Greening unit 20:Intelligent processing unit 21: Controls 211: Remote communication 22: Detector 221: Soil texture meter 222: Image grabber 223: Photometer 23: Actuator 231: Water supply pipeline 231a: Entrance 231b: Reservoir 232: Pharmacy Sprayer 233: Medicine Reservoir 234: Projector Lights 30: Solar powered unit 31: Solar Panels 32: battery 40: Planting module 41: Basin 411: Pelvic floor 411a: Holes 412: Wall Department 412a: drain hole 412b: Tenon 412c: Card slot 413: Container 414: Groove 42: Absorbent layer 43: Soil layer 44: Antifouling layer 45: Hydrophilic pieces 46: Connecting pipe 50: Transparent cover E: Internet P: plant T: Terminal

FIG. 1 is a schematic diagram of a smart green roof system according to an embodiment of the present invention. FIG. 2 is a schematic diagram of the exploded structure of the planting module of the embodiment of the present invention. FIG. 3 is a schematic diagram of the jointing of the planting modules by the tenon and the slot of the embodiment of the present invention. FIG. 4 is a block diagram of the intelligent processing unit and its electrical connection to the solar power supply unit according to the embodiment of the present invention. FIG. 5 is a schematic diagram of the components of the intelligent processing unit and the solar power supply unit in the embodiment of the present invention being arranged in the housing. FIG. 6 is a block diagram of the control device in the present invention embodiment communicating with the terminal through the remote communication device.

100: Smart Green Roof System

10: Greening unit

20:Intelligent processing unit

221: Soil texture meter

222: Image grabber

223: Photometer

231: Water supply pipeline

231a: Entrance

232: Pharmacy Sprayer

234: Projector Lights

40: Planting module

50: Transparent cover

P: plant

Claims (10)

A smart green roof system includes: a greening unit installed on the roof of a building for planting; and An intelligent processing unit, which includes a control element, a detection element and an actuating element, the detecting element and the actuating element are arranged on the greening unit and are electrically connected with the control element, and are sensed by the detecting element When the plant is planted in an environmental state of the greening unit, and when the control member satisfies a set condition corresponding to the environmental state, the control member triggers the actuating member to adaptively adjust the environmental state. The smart green roof system according to claim 1, wherein the control element includes a remote communication element, and the control element communicates with an external terminal via the remote communication element via the Internet, and the detection element The sensed environmental state can be received and monitored by the terminal, and the actuating member can be triggered by the terminal remotely controlling the control member. The smart green roof system according to claim 2, wherein the greening unit is composed of a plurality of planting modules arranged adjacent to the roof, and each planting module includes a pot body, a water absorption layer, and a soil layer and an antifouling layer, the basin system and a basin bottom are provided with a wall on the periphery to form a container, the water absorption layer is placed on the bottom of the basin and is located at the bottom of the container, and the soil layer is separated from the antifouling layer. A dirt layer is stacked on the water-absorbing layer for planting. The anti-fouling layer is waterproof, and a hydrophilic part is arranged between the water-absorbing layer and the soil layer. intercommunication between the layer and the soil layer. The smart green roof system as claimed in claim 3, wherein the detecting element includes a soil quality sensor for sensing the soil layer, and the actuating element includes a water supply pipeline, and the water supply pipeline follows each of the planting molds. The water absorption layer of the group is distributed in the greening unit; the environmental state is at least one of the moisture content, temperature, nitrogen, phosphorus and potassium fertilizer content, pH and redox potential of the soil layer sensed by the soil sensor; the definition of the When the environmental state exceeds a set value of the control element, the set condition is satisfied. At this time, the control element triggers the water supply pipeline to supply water or a mixture of water and conditioning liquid to each of the water absorbing layers. The smart green roof system according to claim 4, wherein the pot body of each planting module has a groove at the bottom of the pot for accommodating the water supply pipeline; the conditioning liquid is stored in a liquid storage The liquid storage tank is connected to the water supply pipeline, so that the conditioning liquid can be confluent with water in the water supply pipeline and transported to the water absorption layer of each planting module. The smart green roof system according to claim 2, wherein the detecting element includes an image capture device, the actuating element includes a chemical sprayer, and the environmental state is that the image captured by the image capture device displays a Insects; the control element satisfies the set condition when the insects in the image are identified as the species of pests and diseases, and the control element triggers the chemical sprayer to automatically spray the chemical corresponding to the species to eliminate insects. The smart green roof system as claimed in claim 6, wherein the actuating element comprises a medicine reservoir connected to the sprinkler, and the medicine reservoir is used for storing medicines of a variety of pests and diseases, and the control element is stored in the medicine reservoir. The corresponding chemicals are selected according to the identified species of pests and diseases, and provided to the sprayer to spray the planted plants. The smart green roof system of claim 7, further comprising a solar power supply unit electrically connected to the control element, the solar power supply unit comprising a solar panel and a battery, the solar panel being disposed outside the greening unit, and the battery electrically connected The solar panel, the solar panel generates electricity after receiving light, and stores electricity in the storage battery to provide the electricity required by the system. The smart green roof system according to claim 8, further comprising a cover body made of light-transmitting material and disposed on the roof, the cover body having an accommodating space, the control member, the liquid storage tank, the storage tank The medicine container and the solar power supply unit are arranged in the accommodating space and covered by the cover body. The smart green roof system according to claim 2, wherein the detecting element includes a photometer, and the actuating element includes a projection lamp; the environmental state is that the photometer senses the illuminance of the roof; The setting condition is satisfied when the setting value is lower than one of the control elements, and the projection light is triggered by the control element to be turned on at night as a landscape light.

Images