CN109518834B - Construction method of green environment-friendly building exterior wall system - Google Patents
Construction method of green environment-friendly building exterior wall system Download PDFInfo
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- CN109518834B CN109518834B CN201811450833.2A CN201811450833A CN109518834B CN 109518834 B CN109518834 B CN 109518834B CN 201811450833 A CN201811450833 A CN 201811450833A CN 109518834 B CN109518834 B CN 109518834B
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- 238000009423 ventilation Methods 0.000 claims abstract description 73
- 230000001502 supplementing effect Effects 0.000 claims abstract description 38
- 238000004519 manufacturing process Methods 0.000 claims abstract description 10
- 238000009434 installation Methods 0.000 claims abstract description 7
- 238000003860 storage Methods 0.000 claims description 40
- 239000004567 concrete Substances 0.000 claims description 34
- 239000002689 soil Substances 0.000 claims description 20
- 238000012806 monitoring device Methods 0.000 claims description 14
- 239000000463 material Substances 0.000 claims description 10
- 239000013589 supplement Substances 0.000 claims description 9
- 238000007599 discharging Methods 0.000 claims description 4
- 230000007613 environmental effect Effects 0.000 claims description 4
- 238000001914 filtration Methods 0.000 claims description 4
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- 239000011464 hollow brick Substances 0.000 claims description 3
- 239000004814 polyurethane Substances 0.000 claims description 3
- 229920002635 polyurethane Polymers 0.000 claims description 3
- 239000011150 reinforced concrete Substances 0.000 claims description 3
- 238000009413 insulation Methods 0.000 claims description 2
- 238000005516 engineering process Methods 0.000 abstract description 14
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Classifications
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- E—FIXED CONSTRUCTIONS
- E04—BUILDING
- E04B—GENERAL BUILDING CONSTRUCTIONS; WALLS, e.g. PARTITIONS; ROOFS; FLOORS; CEILINGS; INSULATION OR OTHER PROTECTION OF BUILDINGS
- E04B2/00—Walls, e.g. partitions, for buildings; Wall construction with regard to insulation; Connections specially adapted to walls
-
- A—HUMAN NECESSITIES
- A01—AGRICULTURE; FORESTRY; ANIMAL HUSBANDRY; HUNTING; TRAPPING; FISHING
- A01G—HORTICULTURE; CULTIVATION OF VEGETABLES, FLOWERS, RICE, FRUIT, VINES, HOPS OR SEAWEED; FORESTRY; WATERING
- A01G9/00—Cultivation in receptacles, forcing-frames or greenhouses; Edging for beds, lawn or the like
- A01G9/02—Receptacles, e.g. flower-pots or boxes; Glasses for cultivating flowers
-
- E—FIXED CONSTRUCTIONS
- E03—WATER SUPPLY; SEWERAGE
- E03F—SEWERS; CESSPOOLS
- E03F5/00—Sewerage structures
- E03F5/10—Collecting-tanks; Equalising-tanks for regulating the run-off; Laying-up basins
-
- E—FIXED CONSTRUCTIONS
- E04—BUILDING
- E04B—GENERAL BUILDING CONSTRUCTIONS; WALLS, e.g. PARTITIONS; ROOFS; FLOORS; CEILINGS; INSULATION OR OTHER PROTECTION OF BUILDINGS
- E04B1/00—Constructions in general; Structures which are not restricted either to walls, e.g. partitions, or floors or ceilings or roofs
- E04B1/62—Insulation or other protection; Elements or use of specified material therefor
- E04B1/64—Insulation or other protection; Elements or use of specified material therefor for making damp-proof; Protection against corrosion
- E04B1/644—Damp-proof courses
-
- E—FIXED CONSTRUCTIONS
- E04—BUILDING
- E04B—GENERAL BUILDING CONSTRUCTIONS; WALLS, e.g. PARTITIONS; ROOFS; FLOORS; CEILINGS; INSULATION OR OTHER PROTECTION OF BUILDINGS
- E04B1/00—Constructions in general; Structures which are not restricted either to walls, e.g. partitions, or floors or ceilings or roofs
- E04B1/62—Insulation or other protection; Elements or use of specified material therefor
- E04B1/74—Heat, sound or noise insulation, absorption, or reflection; Other building methods affording favourable thermal or acoustical conditions, e.g. accumulating of heat within walls
- E04B1/76—Heat, sound or noise insulation, absorption, or reflection; Other building methods affording favourable thermal or acoustical conditions, e.g. accumulating of heat within walls specifically with respect to heat only
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- Engineering & Computer Science (AREA)
- Architecture (AREA)
- Physics & Mathematics (AREA)
- Electromagnetism (AREA)
- Civil Engineering (AREA)
- Structural Engineering (AREA)
- Life Sciences & Earth Sciences (AREA)
- Environmental Sciences (AREA)
- Acoustics & Sound (AREA)
- Health & Medical Sciences (AREA)
- Hydrology & Water Resources (AREA)
- Public Health (AREA)
- Water Supply & Treatment (AREA)
- Cultivation Receptacles Or Flower-Pots, Or Pots For Seedlings (AREA)
- Cultivation Of Plants (AREA)
Abstract
The invention discloses a construction method of a green environment-friendly building wall, which comprises the following steps: the method comprises the steps of manufacturing a wall body, installing a ventilation and water supplementing pipeline, installing a power supply system, installing a plant layer, installing a control system, a rainwater collection system and the like, creatively applies an electric stimulation technology for improving plant generation negative ions to a plant outer wall system of a green building, forms a set of effective construction scheme, adopts unique system design, solves the problems of installation, construction, water supplementation and power supply of the plant outer wall, has less power consumption compared with the traditional air purification technology, can completely only use solar energy and wind energy to provide electric power, simultaneously adopts collected rainwater as a source of plant water, does not need external water source at all under general conditions, can improve the plant generation negative ion technology by electric stimulation and establish a small environment with proper temperature outside the building, improves the air purification capacity of the plant wall with unit area and unit density, the construction method can be adopted to manufacture an environment-friendly and energy-saving green building.
Description
Technical Field
The invention belongs to the field of environment-friendly buildings, and particularly relates to a construction method of a plant outer wall system of a green environment-friendly building.
Background
With the continuous development of industrial civilization, the urbanization process of human society is continuous and deep, the population density of cities is continuously increased, the environmental problems such as air pollution, noise and heat island effect in large cities are increasingly prominent, the increase of greening area in the cities can not only effectively improve the overall landscaping effect of the cities, but also effectively improve the air quality of the cities and reduce the heat island effect and the noise pollution, the traditional plant wall system, such as the invention patent with the publication number of CN106857073A, only increases the greening area by planting plants on the outer wall, improves the negative problems of the cities, has limited improvement of environment by green plants in unit area, can only increase the green plant area or increase the density of the green plants in unit if the improvement effect is required to be improved, increases the planting and maintenance cost, and cannot realize the automatic maintenance of the green plants.
It is well known that plants have in their body a number of oxygen-containing compounds which are reactive with oxygen in the form of anions, free radicals, hydrogen peroxide, etc., such as
OH-，H2O2. They kill unwanted plant cells to promote plant metabolism, they are involved in sugar synthesis, and they also injure plants when the balance is lost. When discussing biological problems, these oxygen-containing compounds are collectively referred to as active oxygen. Active oxygen in forest air is an emission of plants. Active oxygen kills microorganisms, so forest air is much less bacterial than cities; the negative ions charge the particles to accelerate the coagulation and sedimentation of the particles, so that the forest air is cleaner; the active oxygen has an oxidizing effect and can degrade VOC (volatile organic compounds).
However, under normal conditions, the ability of the leaves of individual plants to release negative ions is weak, and the ecological effects caused by the negative ions are extremely limited. If the plant can multiply the capability of generating negative ions and accelerate the transpiration and dissociation process of oxygen and water in the plant, a new air pollution treatment technology with high efficiency, low energy consumption and environmental protection can be possibly developed, thereby making a breakthrough in air pollution treatment and restoration. In 2004, Tikhonov et al, Russia, successfully increased the content of negative ions in the indoor air significantly by electrically stimulating the soil around potted plants with high voltage for the first time. In 2010, researchers such as the Yangyun longitude of the university of agriculture and forestry in northwest of China stimulate the root soil of the chlorophytum comosum by adopting negative high-voltage pulses, detect that the concentration of negative ions is increased by 264 times compared with that when air is stimulated, can effectively improve the air quality, and simultaneously discover that the growth state of plants is good under proper high-voltage stimulation. Therefore, the technology for generating negative ions by electrically stimulating plants is very suitable for being used as an air purification technology to be applied to air pollution treatment.
The technology for improving the generation of negative ions by plants through electrical stimulation is a new air purification technology, and stimulates soil around the plants through high-voltage current to enable the plants to generate high-concentration negative ions, so that the aim of air purification is fulfilled. In the prior art, for example, publication numbers are: the plant multiplication anion air purification device described in CN205909407U can only be used indoors, and needs external power supply to realize the system operation.
Disclosure of Invention
In order to solve the problems, the invention provides a construction method of a green environment-friendly building plant outer wall system.
It includes:
step 1), manufacturing a wall, manufacturing a moisture-proof layer on one side of the wall after the wall is manufactured, and installing a rainwater storage chamber at the bottom of an outer wall, wherein the rainwater storage chamber adopts a prefabricated box body structure;
step 2) installing a plurality of ventilation water replenishing pipelines which extend in the vertical direction and are parallel to each other; a branch pipeline communicated with the rainwater collecting tank is obliquely installed at the upper part of each ventilation water supplementing pipeline upwards, and a plurality of branch pipelines communicated with the plant layer are vertically installed on each ventilation water supplementing pipeline;
step 3) pouring a light concrete layer to cover the rainwater storage chamber and the ventilation water replenishing pipeline, so that branch pipelines on the ventilation water replenishing pipeline extend out of the light concrete layer for a certain distance;
step 4) after the light concrete layer is poured, forming a plurality of parallel and uniformly distributed grooves in the horizontal direction of the light concrete layer, embedding a cable pipe extending along the horizontal direction into each groove, introducing a cable into each cable pipe, sequentially installing a discharge needle and a conical check ring in a branch pipeline on each cable pipe, and connecting the discharge needle with the cable;
step 5), installing a heat-insulating layer, wherein the heat-insulating layer is made of a polyurethane material, a groove is formed in the installed heat-insulating layer, the shape of the groove is a plane shape on one side of the planting container, and the depth of the groove reaches the light concrete layer;
step 6) mounting a plant planting unit, mounting a porous plate on the lower part of a planting container, putting roots of plants into the porous plate, adding soil to cover the roots, and forming an upper through hole and a lower through hole on the plane on one side of the planting container;
step 7) fixedly mounting elastic mounting clips on the branch pipeline of the ventilation water supplementing pipeline communicated with the plant layer and the part of the branch pipeline of the cable pipe communicated with the plant layer, which is exposed out of the light concrete layer;
and 8) installing the rainwater collecting grooves at the positions close to the outside of the top of the heat-insulating layer of the building outer wall, wherein the rainwater collecting grooves are connected with branch pipelines which are obliquely installed upwards on the upper parts of the ventilation and water supplement pipelines, and an electric control system is arranged at the top of the outer wall.
Preferably, the step 2) further includes filling the porous conductive medium into the ventilation water replenishing pipeline, and combining the porous conductive medium and the ventilation water replenishing pipeline into an integrated structure, forming a hole at the top of the rainwater storage chamber, inserting the plurality of ventilation water replenishing pipelines which are arranged in parallel and extend in the vertical direction, wherein the lower end of the ventilation water replenishing pipeline extends into the lower part of the rainwater storage chamber, the upper end of the ventilation water replenishing pipeline is higher than the top surface of the outer wall, and manufacturing a conical protrusion formed by the porous conductive medium at the tail end of a branch pipeline of the ventilation water replenishing pipeline communicated with the plant layer.
Preferably, step 4) also includes that the cable duct level extends out one section pipeline of building outer wall, the branch pipeline that sets up the intercommunication plant layer on the cable duct perpendicularly stretches out one section distance on the lightweight concrete layer, every the branch pipeline that sets up the intercommunication plant layer on the cable duct perpendicularly corresponds one the branch pipeline of perpendicular installation intercommunication plant layer on the ventilation moisturizing pipeline, parallel arrangement from top to bottom corresponds one plant the container.
Preferably, the step 5) further comprises that a plurality of air-permeable overflow holes are formed in the upper position of the rainwater storage chamber for discharging redundant rainwater and keeping air pressure balance.
Preferably, step 7) also includes that the plant planting unit is installed on the outer wall in an artificial or mechanical mode, branch pipelines of the ventilation water supplementing pipeline communicated with the plant layer correspond to the lower through hole, branch pipelines of the cable pipe communicated with the plant layer correspond to the upper through hole, and the plane surface on one side of the planting container faces to the groove formed in the heat preservation layer.
Preferably, step 8) further includes installing a filter for filtering impurities in the rainwater collection tank at the branch pipe port.
Preferably, step 8) also includes that a horizontal main pipeline is installed at the top of the outer wall, each ventilation water replenishing pipeline is connected to the horizontal main pipeline at the top of the outer wall of the building, and a fan is installed on the horizontal main pipeline.
Preferably, the electric control system comprises a master controller, a storage battery, a wind driven generator, a solar panel, an environment monitoring device and an adjustable low-power high-voltage pulse power supply; the master controller is respectively connected with the storage battery, the fan, the adjustable low-power high-voltage pulse power supply, the environment monitoring device and the moisture sensor; the electric connectors are installed on the pipelines horizontally extending out of the building outer wall, each cable is sequentially connected in series through the electric connectors, and the adjustable low-power high-voltage pulse power supply is connected with the cables through the electric connectors and supplies power to the discharge needles.
Preferably, the branch pipes on the ventilation water replenishing pipeline in the step 3) extend out of the light concrete layer for a distance of 15-30 CM.
Preferably, the branch pipes which are vertically arranged on the cable pipe in the step 4) and communicated with the plant layer extend out of the light concrete layer for a distance of 10-20 CM.
Preferably, the wall body can be built by hollow bricks, and if the bearing wall is built by reinforced concrete; the moisture-proof layer is made of asphalt coiled materials or PET coiled materials.
The invention overcomes the defects in the background technology, creatively applies the technology of improving the generation of negative ions by plants through electrical stimulation to the plant exterior wall system of green buildings, an effective construction scheme is formed, the unique system design is adopted, the problems of installation, construction, water supplement and power supply of the plant outer wall are solved, the power consumption is less than that of the traditional air purification technology, the electric power can be completely provided by only solar energy and wind energy, meanwhile, the collected rainwater is used as the source of water for plants, and an external water supply source is not needed in general, the technology that plants generate negative ions can be improved by utilizing electric stimulation, and a small environment with clean air and proper temperature is built outside a building by the plant outer walls, so that the air purification capacity of the plant walls in unit area and unit density is improved.
Drawings
FIG. 1 is a front view of an exterior wall of a green and environmentally friendly building;
FIG. 2 is a cross-sectional view of the exterior wall of the green environmentally friendly building in whole and in part;
FIG. 3 is a structural diagram of a ventilation and water replenishing system;
FIG. 4 is a block diagram of a discharge system;
FIG. 5 is a block diagram of the electronic control system;
description of attached matter
1. A wall body; 2. a moisture barrier;
3. a ventilation and water supplement system; 3-1, a fan; 3-2, a porous conductive medium; 3-3, a ventilation water replenishing pipeline; 3-4, conical protrusions; 3-5, a grounding wire;
4. a light concrete layer;
5. a rainwater collection tank; 5-1, a filter;
6. a heat-insulating layer;
7. a discharge system; 7-1, cable pipes; 7-2, a cable; 7-3, a conical check ring; 7-4, discharge needles; 7-5, an electrical connector; 7-6, an adjustable low-power high-voltage pulse power supply;
8. a plant growing unit; 8-1, plants; 8-2, soil; 8-3, planting a container; 8-4, a porous baffle; 8-5, a water storage cavity; 8-6, lower through holes; 8-7, upper through holes; 8-8 elastically mounting clips;
9. a rainwater storage chamber; 9-1, ventilating overflow holes;
10. an electronic control system; 10-1, a master controller; 10-2, a storage battery; 10-3, a wind driven generator; 10-4, a solar panel; 10-5, an environment monitoring device; 10-6, a moisture sensor;
Detailed Description
Example 1
As shown in fig. 1-2, the exterior wall of the green environment-friendly building is composed of a wall body 1, a moisture-proof layer 2, a lightweight concrete layer 4, an insulating layer 6 and a plant layer from inside to outside in sequence.
A rainwater collecting tank 5 is arranged at the position close to the outside of the top of a heat-insulating layer 6 of the building outer wall; the bottom of the light concrete layer 4 of the building outer wall is provided with a rainwater storage chamber 9, and the upper part of the rainwater storage chamber 9 is outwards provided with a ventilating overflow hole 9-1 for discharging redundant rainwater and keeping air pressure balance.
As shown in 2-3, the ventilation moisturizing system 3 has been laid in light concrete layer 4 of building outer wall, and ventilation moisturizing system 3 includes: 3-1 parts of a fan, 3-2 parts of a porous conductive medium, 3-3 parts of a ventilation water replenishing pipeline, 3-4 parts of a conical bulge and 3-5 parts of a grounding wire; the ventilation water supplementing pipeline 3-3 is arranged in the light concrete layer 4 and extends in the vertical direction, and the ventilation water supplementing pipeline 3-3 is filled with a porous conductive medium 3-2 which can be made of materials such as carbon fiber tube bundles, activated carbon, carbon nano tubes or graphene; a plurality of ventilation and water supplement pipelines 3-3 are arranged in the lightweight concrete layer 4 in parallel, the plurality of ventilation and water supplement pipelines 3-3 are connected to a transverse main pipeline at the top of the building outer wall, and a fan 3-1 is mounted on the transverse main pipeline; each ventilation water replenishing pipeline 3-3 is provided with a branch pipeline communicated with the rainwater collecting tank 5, and a branch pipeline port communicated with the rainwater collecting tank 5 is provided with a filter 5-1 for filtering impurities in the rainwater collecting tank 5; each ventilation water supplementing pipeline 3-3 is provided with a plurality of branch pipelines communicated with the plant layer, the opening of each branch pipeline communicated with the plant layer is provided with a conical bulge 3-4 formed by a porous conductive medium 3-2, and the conical bulge 3-4 is inserted into soil of the plant layer; the lowest end opening of each ventilation and water supplementing pipeline 3-3 extending longitudinally extends into the lower part of the rainwater storage chamber 9, and the porous conductive medium 3-2 in the ventilation and water supplementing pipeline 3-3 is connected with the grounding lead 3-5 through the lowest end opening.
As shown in fig. 2 and 4, a discharge system 7 is laid in the light concrete layer 4 of the building outer wall, and the discharge system 7 includes: the device comprises a cable tube 7-1, a cable 7-2, a conical retainer ring 7-3, a discharge needle 7-4, an electric connector 7-5 and an adjustable low-power high-voltage pulse power supply 7-6; the cable tube 7-1 is arranged in the light concrete layer 4 and extends in the horizontal direction, and a cable 7-2 is arranged in the cable tube 7-1; a plurality of cable pipes 7-1 are arranged in parallel in the lightweight concrete layer 4, each cable pipe 7-1 transversely extends out of a section of pipeline of the building outer wall, an electric connector 7-5 is installed on the pipeline transversely extending out of the building outer wall, each cable 7-2 is sequentially connected in series through the electric connectors 7-5 and finally connected to an adjustable low-power high-voltage pulse power supply 7-6 arranged in a power distribution room at the top of the building outer wall, and high-frequency negative high-voltage pulse voltage is generated by the adjustable low-power high-voltage pulse power supply 7-6; each cable tube 7-1 is also provided with a plurality of branch pipelines communicated with the plant layer, the branch pipelines communicated with the plant layer are internally provided with discharge needles 7-4, one end of each discharge needle 7-4 is connected with the cable 7-2, and the other end of each discharge needle extends out of the branch pipeline and is inserted into soil of the plant planting unit 8; a conical check ring 7-3 is arranged at the opening of the branch pipeline communicated with the plant planting unit 8, and the conical check ring 7-3 is arranged in a way of sinking towards the pipeline and is tightly matched and connected with the extended discharge needle 7-4 to prevent foreign matters from entering the cable pipe 7-1.
As shown in fig. 1-2, a plant layer is disposed on the outermost side of the building exterior wall, the plant layer is composed of a matrix formed by a plurality of plant growing units 8, each plant growing unit 8 includes: 8-1 parts of plants, 8-2 parts of soil, 8-3 parts of planting containers, 8-4 parts of porous baffles, 8-5 parts of water storage cavities, 8-6 parts of lower through holes, 8-7 parts of upper through holes and 8-8 parts of elastic mounting clips; the planting container 8-3 is a flowerpot structure with one side being a plane, and the plane is provided with an upper through hole 8-7 and a lower through hole 8-6; the branch pipeline of the ventilation water replenishing pipeline 3-3 communicated with the plant layer penetrates through the lower through hole 8-6 to extend into the planting container 8-3 to be contacted with soil 8-2, and the lower through hole 8-6 and the branch pipeline of the ventilation water replenishing pipeline 3-3 communicated with the plant layer are fixedly installed through an elastic installation clip 8-8; a branch pipeline communicated with the plant layer on the cable tube 7-1 penetrates through the upper through hole 8-7 to extend into the planting container 8-3 to be contacted with soil 8-2, and the upper through hole 8-7 and the branch pipeline communicated with the plant layer on the cable tube 7-1 are fixedly installed through an elastic installation clamp 8-8; the lower part of the planting container 8-3 is provided with a porous baffle 8-4, the lower part of the porous baffle 8-4 is provided with a water storage cavity 8-5, the upper part is filled with soil 8-2, and plants 8-1 are planted in the soil 8-2; the plant 8-1 is preferably selected from arbor, shrub, Tasmann and moss.
As shown in fig. 4 to 5, an electronic control system 10 is provided on the top of the building exterior wall, and the electronic control system 10 includes: the system comprises a master controller 10-1, a storage battery 10-2, a wind driven generator 10-3, a solar panel 10-4, an environment monitoring device 10-5 and a moisture sensor 10-6; the wind driven generator 10-3 and the solar panel 10-4 are respectively connected with a storage battery 10-2, and the storage battery 10-2 is respectively connected with the fan 3-1, the adjustable low-power high-voltage pulse power supply 7-6 and the master controller 10-1 to provide electric energy for the fan 3-1; the master controller 10-1 is respectively connected with the storage battery 10-2, the fan 3-1, the adjustable low-power high-voltage pulse power supply 7-6, the environment monitoring device 10-5 and the moisture sensor 10-6, is used for controlling the storage battery 10-2, the fan 3-1 and the adjustable low-power high-voltage pulse power supply 7-6, and is used for receiving data signals of the environment monitoring device 10-5 and the moisture sensor 10-6; the moisture sensor 10-6 is used for collecting moisture content data in the soil 8-2; the environmental monitoring device 10-5 is used for detecting information such as atmospheric pollutant concentration, volatile organic compound concentration, microorganism concentration temperature and humidity in the surrounding environment of the building.
As shown in figures 1-5, the working and operating principle of the green building is that the rainwater collecting tank 5 stores the collected rainwater in the rainwater storage chamber 9 through the filter 5-1 and the ventilation and water supplementing pipeline 3-3 during raining, and the plants 8-1 are supplemented with water through the capillary and siphon action of the medium in the porous conductive medium 3-2 in the ventilation and water supplementing pipeline 3-3 and the transpiration action of the plants 8-1; collecting soil moisture content data through a moisture sensor 10-6 installed in soil 8-2, and transmitting the data to a master controller 10-1; when the moisture content is too high and affects the respiration of the root of the plant 8-1, starting an oxygenation mode, starting a fan 3-1 to positively blow air into a ventilation and water supplementing pipeline 3-3, promoting the moisture to be discharged out of the soil and improving the oxygen content of the soil; when the photosynthesis of the plant 8-1 is affected by too low water content, a water supplementing mode is started, the fan 3-1 is started to reversely draw air from the ventilation water supplementing pipeline 3-3 outwards, the air pressure in the pipeline is reduced, and the auxiliary ventilation water supplementing pipeline 3-3 supplements water to the plant 8-1; the moisture data can be adjusted according to the corresponding settings of different plants.
The master controller 10-1 detects the concentration of the atmospheric pollutants in the surrounding environment of the building through the environment monitoring device 10-5. When the concentration of environmental pollutants, such as PM10 and PM2.5 exceeds standard, an air purification mode is started, a master controller 10-1 controls an adjustable low-power high-voltage pulse power supply 7-6 to generate high-voltage pulse current of-1500 to-3000V and 0.5 to 50HZ, the high-voltage pulse current is transmitted to a discharge needle 7-4 through a cable 7-2, the discharge needle 7-4 is close to the root position of a plant 8-1, meanwhile, as a porous conductive medium 3-2 is connected with a grounding lead 3-5 through an opening at the lowest end, a discharge loop is formed between the discharge needle 7-4 and a conical bulge 3-4 formed by the extended porous conductive medium 3-2, electrical stimulation is generated on the root system of the plant 8-1, the plant is promoted to generate negative ions with the concentration which is several times that before the stimulation, and volatile organic compounds can be degraded, the pollutant particles are accelerated to coagulate and settle, microorganisms are killed, and meanwhile, a negative electric field with certain strength can be generated on the plant leaves and can also be used for adsorbing pollutants, so that a small environment which is suitable for human activities is generated around the green environment-friendly building. When the concentration of the environmental pollutants is not over the standard, a plant growth stimulation mode is started, the master controller 10-1 controls the adjustable low-power high-voltage pulse power supply 7-6 to generate high-voltage pulse current of-2000 to-6000V and less than 0.5HZ, the current adopting the mode can be used for promoting the photosynthesis of the plant and the development of a root system to achieve the purpose of stimulating the growth of the plant, and the plant growth stimulation mode is closed or not started when the master controller 10-1 detects that the electric quantity of the storage battery is less than 10%.
The energy source of the technical scheme is a clean energy array consisting of a solar panel 10-4 and a wind driven generator which are arranged at the top of the outer wall of the building, the plant anion field air purification technology is adopted, the power consumption of the energy array is less than that of the traditional air purification technology, the total power of all electric devices is less than 1.5KW, the energy array can completely only use solar energy and wind energy to provide electric power, meanwhile, collected rainwater is adopted as the source of plant water, and an external water source supplement is not needed under the general condition, so that the energy array is an environment-friendly and resource-saving green building.
The invention provides a brand new thought and scheme for the design and use of green buildings.
Example 2
In the construction method of the outer wall of the green environment-friendly building in example 1,
step 1) manufacturing a wall body 1, wherein the wall body 1 can be built by hollow bricks, if a bearing wall can be poured by reinforced concrete, a moisture-proof layer 2 is manufactured on one side of the wall body 1 after pouring is finished, the wall body is manufactured by asphalt coiled materials or PET coiled materials, a rainwater storage chamber 9 is installed at the bottom of an outer wall, and the rainwater storage chamber 9 adopts a prefabricated box body structure;
step 2) installing a plurality of ventilation and water supplementing pipelines 3-3 which extend in the vertical direction and are parallel to each other; filling porous conductive media 3-2 in the ventilation and water supplementing pipeline 3-3, enabling the ventilation and water supplementing pipeline 3-3 to be integrated into a whole, forming a hole at the top of the rainwater storage chamber 9, inserting a plurality of ventilation and water supplementing pipelines 3-3 which are arranged in parallel and extend in the vertical direction, enabling the lower end of each ventilation and water supplementing pipeline 3-3 to extend into the lower part of the rainwater storage chamber 9, enabling the upper end of each ventilation and water supplementing pipeline 3-3 to be higher than the top surface of an outer wall, installing branch pipelines communicated with the rainwater collecting tank 5 on the upper part of each ventilation and water supplementing pipeline 3-3 in an upward inclined mode, vertically installing a plurality of branch pipelines communicated with the plant layer on each ventilation and water supplementing pipeline 3-3, and manufacturing conical bulges 3-4 formed by the porous conductive media 3-2 at the tail ends of the branch pipelines communicated;
and 3) pouring a light concrete layer 4 to cover the rainwater storage chamber 9 and the ventilation and water supplementing pipeline 3-3, wherein the size of the branch pipeline on the ventilation and water supplementing pipeline 3-3 extending out of the light concrete layer 4 is 15-30 cm.
Step 4) after the light concrete layer 4 is poured, a plurality of parallel and uniformly distributed grooves are formed in the light concrete layer 4 in the horizontal direction, a cable pipe 7-1 extending in the horizontal direction is embedded in each groove, the cable pipe 7-1 horizontally extends out of a section of pipeline of an outer wall of a building, branch pipelines communicated with the plant layer are vertically arranged on the cable pipe 7-1, the size of each branch pipeline extending out of the light concrete layer 4 is 10-20CM (the branch pipeline vertically arranged on one cable pipe 7-1 and communicated with the plant layer is vertically arranged on a ventilation water supplementing pipeline 3-3 and is vertically arranged in parallel up and down and corresponds to one planting container 8-3), a cable 7-2 is introduced into the cable pipe 7-1, a discharge needle 7-4 and a conical retainer ring 7-3 are sequentially arranged in the branch pipeline on the cable pipe 7-1, the discharge needle 7-4 is connected with the cable 7-2, the electric connector 7-5 is installed on a pipeline horizontally extending out of the outer wall of the building, and each cable 7-2 is sequentially connected in series through the electric connector 7-5.
Step 5), firstly, installing an insulating layer 6, wherein the insulating layer 6 is made of polyurethane materials, and a groove is formed in the installed insulating layer 6, the shape of the groove is a plane shape on one side of the planting container 8-3, and the depth of the groove reaches the light concrete layer 4; then, a plurality of air-permeable overflow holes 9-1 are arranged at the upper part of the rainwater storage chamber 9 for discharging redundant rainwater and keeping the air pressure balance.
And 6) installing a plant planting unit 8, installing a porous plate 8-4 at the lower part of a planting container 8-3, placing the root of a plant 8-1 in the porous plate 8-4, adding soil 8-2 to cover the root, opening an upper through hole 8-7 and a lower through hole 8-6 on the plane at one side of the planting container 8-3, wherein a branch pipeline of the ventilation and water supplement pipeline 3-3 communicated with the plant layer corresponds to the lower through hole 8-6, and a branch pipeline of the cable pipeline 7-1 communicated with the plant layer corresponds to the upper through hole 8-7.
And 7) fixedly installing elastic installation clips 8-8 on the branch pipeline of the ventilation water supplementing pipeline 3-3 communicated with the plant layer and the part of the branch pipeline of the cable pipe 7-1 communicated with the plant layer, which is exposed out of the light concrete layer 4, installing the plant planting unit 8 on the outer wall in an artificial or mechanical mode, wherein the branch pipeline of the ventilation water supplementing pipeline 3-3 communicated with the plant layer corresponds to the lower through hole 8-6, the branch pipeline of the cable pipe 7-1 communicated with the plant layer corresponds to the upper through hole 8-7, and the plane on one side of the planting container 8-3 faces to the groove formed in the heat insulation layer 6.
Step 8) installing a rainwater collecting groove 5 at the position close to the outside of the top of a heat-insulating layer 6 of the building outer wall, wherein the rainwater collecting groove 5 is connected with branch pipelines which are obliquely installed upwards at the upper parts of the ventilation and water-replenishing pipelines 3-3, and filters 5-1 for filtering impurities in the rainwater collecting groove 5 are installed at the openings of the branch pipelines; a transverse main pipeline is installed at the top of the outer wall, each ventilation and water-replenishing pipeline 3-3 is connected to the transverse main pipeline at the top of the building outer wall, and a fan 3-1 is installed on the transverse main pipeline; the top of the outer wall is provided with a master controller 10-1, a storage battery 10-2, a wind driven generator 10-3, a solar panel 10-4, an environment monitoring device 10-5 and an adjustable low-power high-voltage pulse power supply 7-6; the master controller 10-1 is respectively connected with the storage battery 10-2, the fan 3-1, the adjustable low-power high-voltage pulse power supply 7-6, the environment monitoring device 10-5 and the moisture sensor 10-6, is used for controlling the storage battery 10-2, the fan 3-1 and the adjustable low-power high-voltage pulse power supply 7-6, and is used for receiving data signals of the environment monitoring device 10-5 and the moisture sensor 10-6; the moisture sensor 10-6 is used for collecting moisture content data in the soil 8-2; the environment monitoring device 10-5 is used for detecting information such as atmospheric pollutant concentration, volatile organic compound concentration, microorganism concentration temperature and humidity in the surrounding environment of the building; the adjustable low-power high-voltage pulse power supply 7-6 is connected with the cable 7-2 through the electric connector 7-5 to supply power to the discharge needle 7-4.
The foregoing is merely a preferred embodiment of the invention and the technical principles applied, and any changes or alternative embodiments that can be easily conceived by those skilled in the art within the technical scope of the invention disclosed herein should be covered within the scope of the invention.
Claims (8)
1. A construction method of a green environment-friendly building wall is characterized by comprising the following steps:
step 1), manufacturing a wall body (1), manufacturing a moisture-proof layer (2) on one side of the wall body (1) after the manufacturing is finished, and installing a rainwater storage chamber (9) at the bottom of an outer wall, wherein the rainwater storage chamber (9) adopts a prefabricated box body structure;
step 2) installing a plurality of ventilation and water replenishing pipelines (3-3) which extend in the vertical direction and are parallel to each other; branch pipelines communicated with a rainwater collecting tank (5) are obliquely installed at the upper part of each ventilation and water supplementing pipeline (3-3) upwards, and a plurality of branch pipelines communicated with plant layers are vertically installed on each ventilation and water supplementing pipeline (3-3); a porous conductive medium (3-2) is filled in the ventilation water replenishing pipeline (3-3) and is combined with the ventilation water replenishing pipeline (3-3) into an integral structure, a plurality of ventilation and water replenishing pipelines (3-3) which are arranged in parallel and extend in the vertical direction are inserted into the openings at the top of the rainwater storage chamber (9), the lower end of the ventilation and water supplementing pipeline (3-3) extends into the lower part of the rainwater storage chamber (9), the upper end of the ventilation and water supplementing pipeline (3-3) is higher than the top surface of the outer wall, a conical bulge (3-4) formed by the porous conductive medium (3-2) is manufactured at the tail end of a branch pipeline of the ventilation water replenishing pipeline (3-3) communicated with the plant layer, the porous conductive medium (3-2) in the ventilation water replenishing pipeline (3-3) is connected with a grounding lead (3-5) through an opening at the lowest end;
step 3), a light concrete layer (4) is poured to cover the rainwater storage chamber (9) and the ventilation and water supplementing pipeline (3-3), and branch pipelines on the ventilation and water supplementing pipeline (3-3) extend out of the light concrete layer (4) for a certain distance;
step 4) after the light concrete layer (4) is poured, forming a plurality of parallel and uniformly distributed grooves in the horizontal direction of the light concrete layer (4), embedding a cable tube (7-1) extending in the horizontal direction into each groove, introducing a cable (7-2) into each cable tube (7-1), sequentially installing a discharge needle (7-4) and a conical check ring (7-3) in a branch pipeline on each cable tube (7-1), and connecting the discharge needle (7-4) with the cable (7-2);
step 5), installing an insulating layer (6), wherein the insulating layer (6) is made of a polyurethane material, a groove is formed in the installed insulating layer (6), the shape of the groove is a plane on one side of the planting container (8-3), and the depth of the groove reaches the light concrete layer (4);
step 6), installing a plant planting unit (8), installing a porous plate (8-4) at the lower part of a planting container (8-3), putting the root of a plant (8-1) into the porous plate (8-4), adding soil (8-2) to cover the root, and forming an upper through hole (8-7) and a lower through hole (8-6) on the plane on one side of the planting container (8-3);
step 7), fixedly mounting elastic mounting clips (8-8) on the parts, exposed out of the light concrete layer (4), of the branch pipelines communicated with the plant layer on the ventilation water supplementing pipeline (3-3) and the branch pipelines communicated with the plant layer on the cable pipe (7-1);
step 8) installing the rainwater collecting grooves (5) at the positions close to the outside of the top of the heat insulating layer (6) of the building outer wall, connecting the rainwater collecting grooves (5) with branch pipelines which are obliquely installed upwards on the upper portions of the ventilation and water supplementing pipelines (3-3), installing a transverse main pipeline at the top of the outer wall, connecting the ventilation and water supplementing pipelines (3-3) into the transverse main pipeline at the top of the building outer wall, installing fans (3-1) on the transverse main pipeline, and arranging an electric control system at the top of the outer wall.
2. The construction method of the green and environment-friendly building wall body as claimed in claim 1, wherein: the step 4) further comprises that the cable pipe (7-1) horizontally extends out of a section of pipeline of the outer wall of the building, branch pipelines which are vertically arranged on the cable pipe (7-1) and communicated with the plant layer extend out of the light concrete layer (4) for a certain distance, and the branch pipeline which is vertically arranged on each cable pipe (7-1) and communicated with the plant layer corresponds to one branch pipeline which is vertically arranged on the ventilation water replenishing pipeline (3-3) and communicated with the plant layer, is arranged in parallel from top to bottom and corresponds to one planting container (8-3).
3. The construction method of the green and environment-friendly building wall body as claimed in claim 2, wherein: the step 5) also comprises that a plurality of air-permeable overflow holes (9-1) are arranged at the upper part of the rainwater storage chamber (9) and used for discharging redundant rainwater and keeping air pressure balance.
4. The construction method of the green and environment-friendly building wall body as claimed in claim 2, wherein: the step 7) also comprises the step of installing the plant planting units (8) on an outer wall in a manual or mechanical mode, wherein branch pipelines of the ventilation and water supplement pipelines (3-3) communicated with the plant layers correspond to the lower through holes (8-6), branch pipelines of the cable pipes (7-1) communicated with the plant layers correspond to the upper through holes (8-7), and the plane on one side of the planting container (8-3) faces to the groove formed in the heat insulation layer (6) for installation.
5. The construction method of the green and environment-friendly building wall body as claimed in claim 2, wherein: and step 8) further comprises installing a filter (5-1) for filtering impurities in the rainwater collecting tank (5) at a branch pipeline opening.
6. The construction method of the green and environment-friendly building wall according to any one of claims 1 to 5, characterized in that: the electric control system comprises a master controller (10-1), a storage battery (10-2), a wind driven generator (10-3), a solar panel (10-4), an environment monitoring device (10-5) and an adjustable low-power high-voltage pulse power supply (7-6); the master controller (10-1) is respectively connected with the storage battery (10-2), the fan (3-1), the adjustable low-power high-voltage pulse power supply (7-6), the environment monitoring device (10-5) and the moisture sensor (10-6); the electric connectors (7-5) are installed on the pipelines horizontally extending out of the outer wall of the building, each cable (7-2) is sequentially connected in series through the electric connectors (7-5), and the adjustable low-power high-voltage pulse power supply (7-6) is connected with the cables (7-2) through the electric connectors (7-5) and supplies power to the discharge needles (7-4).
7. The construction method of the green and environment-friendly building wall according to any one of claims 1 to 5, characterized in that: the branch pipelines on the ventilation water replenishing pipelines (3-3) in the step 3) extend out of the light concrete layer (4) for a distance of 15-30CM, the wall body (1) is built by adopting hollow bricks, and if a bearing wall is cast by adopting reinforced concrete; the moisture-proof layer (2) is made of asphalt coiled materials or PET coiled materials.
8. The construction method of the green environmental protection building wall according to any one of claims 2 to 5, characterized in that: in the step 4), branch pipelines communicated with the plant layer are vertically arranged on the cable pipe (7-1) and extend out of the light concrete layer (4) for a distance of 10-20 CM.
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| CN102587535B (en) * | 2012-03-26 | 2014-05-07 | 陈国柱 | Three-dimensional paddy field wall |
| US9578819B2 (en) * | 2013-01-24 | 2017-02-28 | Mark R Prescott | Pressurized growing air system for vertical and horizontal planting systems |
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| CN206888252U (en) * | 2017-04-22 | 2018-01-16 | 绍兴良辰园林建设有限公司 | A kind of environmental-friendly walling |
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