阅读说明：本技术 一种零能耗光伏建筑一体化供能系统 (Zero energy consumption building integrated photovoltaic energy supply system ) 是由 刘明昭 胡玥 王亚琦 毛超民 吕辉 徐静移 王诗琪 于 2020-05-21 设计创作，主要内容包括：本发明公开了一种零能耗光伏建筑一体化供能系统,涉及一种一次能源技术领域,包括光纤照明系统、自洁净光伏玻璃系统、地源热泵及供暖系统和新风系统,通过光纤照明系统在将太阳光引入室内以供照明,根据光纤照明情况,调节自洁净光伏玻璃辐射透射比,完成辅助照明的同时,将多余太阳辐射转换为电能以满足室内用电,同时该玻璃具有自清洁和隔热保温性能；地源热泵及供暖系统作为室温调控主系统,完成冬季热量输送,夏季冷凉输送；新风系统在更新室内空气的同时回收废弃余热,辅助地源热泵系统降低室内温度调控能耗,各个子系统共同作用使房屋在不消耗外部能耗的情况下就能实现日常生活的各种需要,提高系统的能源利用效率,降低建筑能耗。(The invention discloses a zero-energy-consumption photovoltaic building integrated energy supply system, which relates to the technical field of primary energy, and comprises an optical fiber lighting system, a self-cleaning photovoltaic glass system, a ground source heat pump, a heating system and a fresh air system, wherein sunlight is introduced into a room through the optical fiber lighting system for lighting, the radiation transmittance of the self-cleaning photovoltaic glass is adjusted according to the lighting condition of the optical fiber, the auxiliary lighting is completed, and simultaneously, redundant solar radiation is converted into electric energy to meet the indoor power consumption, and the glass has self-cleaning and heat insulation performance; the ground source heat pump and the heating system are used as a room temperature regulation and control main system to finish heat conveying in winter and cold conveying in summer; the fresh air system recovers waste heat while updating indoor air, the auxiliary ground source heat pump system reduces indoor temperature regulation and control energy consumption, various requirements of daily life can be met under the condition that external energy consumption is not consumed by the house under the combined action of the subsystems, the energy utilization efficiency of the system is improved, and the building energy consumption is reduced.)

1. The utility model provides a zero energy consumption building integrated photovoltaic energy supply system, includes optic fibre lighting system, self-cleaning photovoltaic glass system, ground source heat pump and heating system and new trend system, its characterized in that: the sunlight is introduced into a room for illumination through the optical fiber illumination system under the condition of not losing electric power, on the basis, the radiation transmittance of self-cleaning photovoltaic glass (5) is adjusted, auxiliary illumination is completed, meanwhile, redundant solar radiation is converted into electric energy to be stored, the requirement of daily household electricity and the requirement of electricity for storage at night or when the sunlight is poor are met, a power supply can be provided for a fresh air system during air electricity auxiliary preheating or precooling treatment, the energy consumption is greatly reduced due to the self-cleaning and heat insulation capabilities of the glass, the ground source heat pump and the heating system are used for room temperature regulation and control, the heating in winter, the cooling in summer and the domestic hot water supply are integrated, the fresh air system recovers waste heat while updating the indoor air, and the auxiliary ground source heat pump system regulates and controls the indoor temperature.

2. The zero-energy-consumption photovoltaic building integrated energy supply system according to claim 1, characterized in that: the optical fiber lighting system structurally comprises a sunlight collecting device (7), a sunlight receiver (8), a light guide optical fiber (9), an optical coupler (10), an inner optical fiber bundle (11) and indoor lighting equipment (12), wherein the sunlight collecting device (7) is installed on a roof and is connected with the indoor lighting equipment (12) through the light guide optical fiber (9), the optical coupler (10) and the inner optical fiber bundle (11); when the sunlight collector works, sunlight collected by the sunlight receiver (7) is transmitted into the optical coupler (10) by the light guide optical fiber (9) to be adjusted, and then is transmitted into the indoor lighting device (12) by the inner optical fiber bundle (11), so that the indoor lighting requirement is met.

3. The zero-energy-consumption photovoltaic building integrated energy supply system according to claim 1, characterized in that: the self-cleaning photovoltaic glass system structurally comprises self-cleaning photovoltaic glass (5) and a solar storage battery (20), wherein the self-cleaning photovoltaic glass (5) is installed on an indoor window and consists of an outer glass plate (501), a condenser (502), a high-reflection silver film (503), a solar panel (504), a silicon rubber packaging material (505), an inner glass plate (506) and a photocatalytic nanocrystalline film (507), wherein the photocatalytic nanocrystalline film (507), the outer glass plate (501), the condenser (502) and the inner glass plate (506) are sequentially connected end to end, the condenser (502) is designed into a circular truncated cone shape, the diameter of one end close to the inner glass plate (506) is smaller than that of one end close to the outer glass plate (501), the high-reflection silver film (503) is installed on the side wall of the condenser (502), and the solar panel (504) is connected to one side wall of the condenser (502) close to the inner glass plate (506) Meanwhile, a layer of silicon rubber packaging material (505) is arranged on the inner walls of the outer layer glass plate (501) and the inner layer glass plate (506), the self-cleaning photovoltaic glass (5) can adjust the slope of a condenser according to the optical fiber lighting condition, assist in lighting, and simultaneously complete photoelectric conversion and realize the functions of self-cleaning, heat insulation and heat preservation; the solar storage battery (20) is arranged beside an indoor window, and the solar storage battery (20) and the solar panel (504) are electrically connected together.

4. The zero-energy-consumption photovoltaic building integrated energy supply system according to claim 1, characterized in that: ground source heat pump and heating system, its structure includes flow inhibitor (1), heat exchanger (2), compressor (3), circulating water tank (4), energy-conserving heat pump air conditioner (6), ground heating pipe (16), water heater (17), water storage tank (19), valve one energy-conserving heat pump air conditioner (21), two ground heating of valve (22), three life hot water of valve (23), wherein heat exchanger (2) are installed in the underground, compressor (3) and circulating water tank (4) are installed in the earth's surface, flow inhibitor (1) pipe connection water tank (4) and heat exchanger (2), water storage tank (19) are installed in the indoor earth's surface of building, flow inhibitor (1), heat exchanger (2), compressor (3), circulating water tank (4) loop through the pipeline and link to each other and constitute closed circuit, the condensation evaporation through compressor (3) utilizes the heat, the heat exchange is accomplished to make the water in water storage tank (19) heat exchange through water in circulating water tank (4) and water storage tank (19) intensifies Starting from the water storage tank (19), water circulation heat supply can be completed in a floor heating pipeline (16) through a floor heating valve II (22), indoor temperature can be regulated and controlled through water circulation of an energy-saving heat pump air conditioner (6) through an energy-saving heat pump air conditioner valve I (21), domestic water can be supplied to a water heater (17) through a domestic hot water valve III (23), and meanwhile water in the water storage tank (19) is replenished on time according to needs through a water replenishing tank (18).

5. The zero-energy-consumption photovoltaic building integrated energy supply system according to claim 1, characterized in that: fresh air system, its structure includes exhaust duct (13), heat exchange assembly (14) and supply air duct (15), wherein fresh air system installation is indoor outdoor in indoor wall intercommunication, heat exchange assembly (14) are installed between exhaust duct (13) and supply air duct (15), be used for the heat exchange to indoor exhaust air and fresh air, valve four (24) link to each other with heat exchange assembly (14), adjust the rotational speed of fan through valve four (24) and control total air volume or control air inlet and outlet volume through adjusting the degree of opening of air inlet or exhaust equipment.

6. The zero-energy-consumption building-integrated photovoltaic energy supply system according to claim 3, characterized in that: the outer layer glass plate (501) and the inner layer glass plate (501) are both made of insulating glass plates.

Technical Field

The invention relates to the technical field of primary energy, in particular to a zero-energy-consumption photovoltaic building integrated energy supply system.

Background

People continuously excavate earth resources for a long time, so that the non-renewable resources of the earth are increasingly tensed. In order to meet the increasing material culture requirements of people, renewable clean energy sources which can be relied on for a long time are searched, and development of novel energy-saving and emission-reducing measures becomes one of the energy safety problems to be solved. Along with the continuous development of economy, the quantity of construction projects is rapidly increased, according to data statistics, about 20 billion square meters of newly-increased buildings are added in China every year, the total area of the buildings in China is expected to exceed 700 billion square meters in 2020, and the problem of building energy consumption is gradually revealed. At present, the main characteristics of building energy consumption in China are that the total amount is large, the pollution is heavy, and the energy consumption accounts for about 30% of the total energy consumption of the society, so the problem of building energy conservation is urgent.

In order to reduce building energy consumption and realize the green and environment-friendly concept of energy conservation and emission reduction, energy-saving buildings are gradually valued by the broad society and researchers. The building energy saving is that energy-saving technology, equipment and materials are adopted in the planning, designing, new construction and using processes of buildings, and on the premise of ensuring the comfort of indoor environment, on one hand, the heat exchange resistance between indoor and outdoor energy is increased so as to reduce the energy consumption of air conditioners and the like caused by large heat consumption; on the other hand, renewable clean energy is introduced, and the energy utilization efficiency is improved. For example, energy-saving fresh air systems, smart homes, distributed photovoltaic systems, etc. are employed. The measures can reduce the building energy consumption to a certain extent, but how to accomplish indoor air quality updating, satisfy the temperature regulation and control demand, accomplish indoor lighting with the help of outdoor conditions, and guarantee under the condition of indoor electrical power supply demand, the realization building "low carbon, zero energy consumption" target of furthest still awaits the critical problem who solves.

Disclosure of Invention

The energy consumption of common resident buildings mainly comprises electric energy, light energy and heat energy, the requirements of daily electric appliances, illumination, room temperature regulation, domestic water and the like are mainly met, for example, under the condition that the building function is ensured, the aim of low carbon and zero energy consumption of the energy-saving building can be fulfilled to the maximum extent by coupling a combined heat and power energy-saving technology which takes renewable energy sources such as solar energy, geothermal energy and the like as main consumption.

In order to achieve the purpose, the invention provides the following technical scheme: comprises an optical fiber lighting system, a self-cleaning photovoltaic glass system, a ground source heat pump, a heating system and a fresh air system, sunlight is introduced into a room through the optical fiber lighting system without power loss for illumination, on the basis, the radiation transmittance of the self-cleaning photovoltaic glass is adjusted, the auxiliary illumination is completed, meanwhile, the redundant solar radiation is converted into electric energy for storage, so as to meet the requirement of daily household electricity and be used as reserve electricity at night or when the sunlight is poor, and also can provide a power supply for the fresh air system to carry out air electric auxiliary preheating or precooling treatment, the energy consumption is greatly reduced due to the self-cleaning and heat insulation capabilities of the glass, the ground source heat pump and the heating system are used as a main room temperature regulation and control system, the heating in winter, the cooling in summer and the supply of domestic hot water are integrated, the fresh air system recovers waste heat while updating indoor air, and assists the ground source heat pump system in regulating and controlling the indoor temperature; under the combined action of all subsystems, the house can utilize clean and renewable energy sources existing in life to the maximum extent, various requirements of daily life can be realized under the condition of not consuming external energy consumption, and the aim of zero energy consumption of house buildings is basically realized; on the other hand, renewable resources are introduced, so that the pollutant emission in the whole life cycle is obviously reduced, and the method is a building energy-saving technology with good application prospect.

As a further scheme of the invention: the optical fiber lighting system structurally comprises a sunlight collecting device, a sunlight receiver, a light guide optical fiber, an optical coupler, an inner optical fiber bundle and indoor lighting equipment, wherein the sunlight collecting device is arranged on a roof and is connected with the indoor lighting equipment through the light guide optical fiber, the optical coupler and the inner optical fiber bundle; when the sunlight collector works, the light guide optical fiber conveys sunlight collected by the sunlight receiver to the optical coupler for adjustment, and then the sunlight is conveyed to the indoor lighting device through the inner optical fiber bundle, so that the indoor lighting requirement is met.

As a further scheme of the invention: the self-cleaning photovoltaic glass system structurally comprises self-cleaning photovoltaic glass and a solar storage battery, wherein the self-cleaning photovoltaic glass is arranged on an indoor window and consists of an outer glass plate, a condenser, a high-reflection silver film, a solar cell panel, a silicon rubber packaging material, an inner glass plate and a photocatalytic nanocrystalline thin film, the outer glass plate, the condenser and the inner glass plate are sequentially connected together end to end, the condenser is designed into a round table shape, the diameter of one end close to the inner glass plate is smaller than that of one end close to the outer glass plate, a layer of high-reflection silver film is arranged on the side wall of the condenser, the solar cell panel is connected to one side wall of the condenser close to the inner glass plate, a layer of silicon rubber packaging material is arranged on the inner walls of the outer glass plate and the inner glass plate, and the self-cleaning photovoltaic glass can illuminate according to the condition of optical fibers, the slope of the condenser is adjusted to assist in illumination, and the functions of photoelectric conversion, self cleaning, heat insulation and heat preservation are achieved; the solar storage battery is arranged beside the indoor window, and the solar storage battery is electrically connected with the solar panel.

As a further scheme of the invention: the ground source heat pump and heating system structurally comprises a current suppressor, a heat exchanger, a compressor, a circulating water tank, an energy-saving heat pump air conditioner, a floor heating pipeline, a water heater, a water storage tank, a valve-I energy-saving heat pump air conditioner, a valve-II floor heating system and a valve-III live hot water system, wherein the heat exchanger is arranged underground, the compressor and the circulating water tank are arranged on the ground surface, the current suppressor is connected with the water tank and the heat exchanger through pipelines, the water storage tank is arranged on the indoor ground surface of a building, the current suppressor, the heat exchanger, the compressor and the circulating water tank are connected through pipelines in sequence to form a closed loop, heat is utilized through condensation and evaporation of the compressor, heat exchange is completed through water in the circulating water tank and the water in the water storage tank to heat water in the water storage tank, starting from the water storage tank, water circulation heating can be completed in the floor heating pipeline through the floor heating valve II, and water circulation regulation and control of the indoor temperature through the energy-saving heat pump air conditioner valve I, and the domestic hot water can be delivered into the water heater through the third domestic hot water valve to provide domestic water, and meanwhile, the water in the water storage tank is supplemented by the water supplementing tank on time according to needs.

As a further scheme of the invention: the fresh air system structurally comprises an exhaust pipeline, a heat exchange assembly and an air supply pipeline, wherein the fresh air system is installed in an indoor wall communicated with the indoor and outdoor space, the heat exchange assembly is installed between the exhaust pipeline and the air supply pipeline and used for exchanging heat between indoor exhaust air and fresh air, a valve IV is connected with the heat exchange assembly, and the total ventilation volume is controlled through the rotating speed of a valve IV adjusting fan or the air inlet and outlet volume is controlled through adjusting the opening degree of air inlet or air exhaust equipment.

As a still further scheme of the invention: the outer layer glass plate and the inner layer glass plate are both made of insulating glass plates.

Compared with the prior art, the invention has the beneficial effects that:

1. the system aims at all basic energy consumption types of the house building, and can basically achieve the aim of zero energy consumption on the comprehensive effect.

2. The self-cleaning glass generates electricity by utilizing light energy efficiently, meanwhile, normal indoor illumination is not influenced, and the nano photocatalytic material on the surface of the self-cleaning glass can prevent stains from being deposited on the glass, so that the light transmittance of the glass is increased, and the illumination requirement is further met.

3. The ground source heat pump can replace the traditional air conditioner to regulate and control the room temperature, and the electric energy consumption is greatly reduced under the same requirement.

4. The optical fiber lighting system directly guides visible light in sunlight into a room through the optical fiber for lighting, and can also meet the indoor living lighting requirements of people. The optical fiber lighting system generally uses plastic optical fibers, is the cheapest in manufacturing cost, has the service life of twenty years and is high in comprehensive lighting cost performance.

5. The fresh air system updates the indoor air, reduces the energy consumption required by regulating and controlling the indoor air temperature through heat exchange, and reduces the power generation pressure of the self-cleaning glass.

Drawings

FIG. 1 is a schematic structural diagram of the present invention.

Fig. 2 is a schematic structural view of the self-cleaning photovoltaic glass of the present invention.

As shown in the figure: 1. the solar energy heat pump air conditioner comprises a current suppressor, 2, a heat exchanger, 3, a compressor, 4, a circulating water tank, 5, self-cleaning photovoltaic glass, 501, an outer glass plate, 502, a condenser, 503, a high-reflection silver film, 504, a solar cell panel, 505, a silicon rubber packaging material, 506, an inner glass plate, 507, a photocatalytic nanocrystalline film, 6, an energy-saving heat pump air conditioner, 7, a solar light collecting device, 8, a sunlight receiver, 9, a light guide optical fiber, 10, an optical coupler, 11, an inner optical fiber bundle, 12, indoor lighting equipment, 13, an exhaust pipeline, 14, a heat exchange assembly, 15, an air supply pipeline, 16, a floor heating pipeline, 17, a water heater, 18, a water replenishing tank, 19, a water storage tank, 20 and a solar storage battery; 21. valves I, 22, valves II, 23, valves III, 24 and valves IV.

Detailed Description

The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.

In the description of the present invention, it should be noted that, unless otherwise explicitly specified or limited, the terms "mounted," "disposed," "sleeved/connected," "connected," and the like are to be construed broadly, e.g., "connected," which may be fixedly connected, detachably connected, or integrally connected; can be mechanically or electrically connected; they may be connected directly or indirectly through intervening media, or they may be interconnected between two elements. The specific meanings of the above terms in the present invention can be understood in specific cases to those skilled in the art.

Referring to fig. 1-2, in the embodiment of the invention, a zero-energy-consumption photovoltaic building integrated energy supply system comprises an optical fiber lighting system, a self-cleaning photovoltaic glass system, a ground source heat pump, a heating system and a fresh air system, sunlight is introduced into a room for lighting through the optical fiber lighting system under the condition of no power loss, on the basis, the radiation transmittance of self-cleaning photovoltaic glass 5 is adjusted, auxiliary lighting is completed, redundant solar radiation is converted into electric energy to be stored, daily household electricity is met, the electric energy is used as reserve electricity at night or when sunlight is poor, a power supply can be provided for the fresh air system during air electricity auxiliary preheating or precooling treatment, the self-cleaning and heat insulation capabilities of glass greatly reduce energy consumption, the ground source heat pump and the heating system are used as a room temperature regulation main system, and heat supply in winter and summer are integrated with living hot water supply, the fresh air system recovers waste heat while updating indoor air, and assists the ground source heat pump system in regulating and controlling indoor temperature; under the combined action of all subsystems, the house can utilize clean and renewable energy sources existing in life to the maximum extent, various requirements of daily life can be realized under the condition of not consuming external energy consumption, and the aim of zero energy consumption of house buildings is basically realized.

The optical fiber lighting system structurally comprises a sunlight collecting device 7, a sunlight receiver 8, a light guide optical fiber 9, an optical coupler 10, an inner optical fiber bundle 11 and indoor lighting equipment 12, wherein the sunlight collecting device 7 is installed on a roof and is connected with the indoor lighting equipment 12 through the light guide optical fiber 9, the optical coupler 10 and the inner optical fiber bundle 11; when the sunlight collector works, sunlight collected by the sunlight receiver 7 is transmitted to the optical coupler 10 to be adjusted through the light guide optical fiber 9, and then is transmitted to the indoor lighting device 12 through the inner optical fiber bundle 11, so that indoor lighting requirements are met.

The self-cleaning photovoltaic glass system structurally comprises self-cleaning photovoltaic glass 5 and a solar storage battery 20, wherein the self-cleaning photovoltaic glass 5 is arranged on an indoor window, the glass consists of an outer glass plate 501, a condenser 502, a high-reflection silver film 503, a solar cell panel 504, a silicon rubber packaging material 505, an inner glass plate 506 and a photocatalytic nanocrystalline film 507, the outer glass plate 501, the condenser 502 and the inner glass plate 506 are sequentially connected end to end, the condenser 502 is designed into a circular truncated cone shape, the diameter of one end close to the inner glass plate 506 is smaller than that of one end close to the outer glass plate 501, the high-reflection silver film is arranged on the side wall of the condenser 502, the solar cell panel 504 is connected to one side wall of the condenser 502 close to the inner glass plate 506, the silicon rubber packaging material 505 is arranged on the inner walls of the outer glass plate 501 and the inner glass plate 506, the self-cleaning photovoltaic glass 5 can adjust the slope of the condenser according to the optical fiber illumination condition, assist illumination, and simultaneously complete photoelectric conversion and realize the functions of self-cleaning, heat insulation and heat preservation; the solar battery 20 is installed beside an indoor window, and the solar battery 20 and the solar cell panel 504 are electrically connected together.

Wherein, the ground source heat pump and heating system comprises a flow inhibitor 1, a heat exchanger 2, a compressor 3, a circulating water tank 4, an energy-saving heat pump air conditioner 6, a floor heating pipeline 16, a water heater 17, a water storage tank 19, a first valve energy-saving heat pump air conditioner 21, a second valve floor heating 22 and a third valve live hot water 23, wherein the heat exchanger 2 is installed underground, the compressor 3 and the circulating water tank 4 are installed on the ground surface, the flow inhibitor 1 is connected with the water tank 4 and the heat exchanger 2 through a pipeline, the water storage tank 19 is installed on the ground surface in a building room, the flow inhibitor 1, the heat exchanger 2, the compressor 3 and the circulating water tank 4 are sequentially connected through pipelines to form a closed loop, heat is utilized through condensation and evaporation of the compressor 3, heat exchange is completed through water in the circulating water tank 4 and the water storage tank 19 to heat water in the water storage tank 19, starting from the water storage tank 19, water circulation heating can be completed in the floor heating pipeline 16 through the second floor heating valve 22, the water can be used for regulating and controlling the indoor temperature through the water circulation of the energy-saving heat pump air conditioner 6 through the first energy-saving heat pump air conditioner valve 21, and can also be conveyed into the water heater 17 through the third domestic hot water valve 23 to provide domestic water, and meanwhile, the water in the water storage tank 19 is supplemented by the water supplementing tank 18 according to the requirement on time.

In winter, the heat-released circulating working medium water enters the heat exchanger through the flow inhibitor 1, absorbs the heat of soil, flows out of the heat exchanger 2 after reaching a certain temperature, is pressurized by the compressor 3 to enter the circulating water tank 4, and exchanges heat with the circulating working medium water of an indoor heating system, the indoor circulating working medium water absorbing the heat is sent to different loops through a valve on the water storage tank 19 to meet different living requirements, one part of the indoor circulating working medium water enters the water heater 17 to be used as living water, one part of the indoor circulating working medium water enters the floor heating pipeline 16 for heating, the other part of the indoor circulating working medium water enters the energy-saving heat pump air conditioner 6 for regulating the indoor temperature, the indoor circulating working medium after heat release flows back to the circulating water tank 4 and exchanges heat with the outdoor circulating working medium water after heat absorption, and a cycle is completed; in summer, the heat absorbed circulating working medium water enters the heat exchanger 2 through the flow inhibitor 1, heat is released when meeting low-temperature soil, the cooled circulating working medium water is pressurized by the compressor and enters the circulating water tank to exchange heat with indoor high-temperature circulating working medium water, at the moment, a second pipeline valve 22 and a third pipeline valve 23 leading to floor heating and domestic water are closed, the cooled indoor circulating working medium water is sent to a pipeline of an energy-saving heat pump air conditioner 6 through a first valve 21 to be cooled indoors, the indoor circulating working medium water absorbing heat flows back to the circulating water tank 4 to exchange heat with the outdoor circulating working medium water releasing heat, and a cycle is completed;

the fresh air system structurally comprises an exhaust pipeline 13, a heat exchange assembly 14 and an air supply pipeline 15, wherein the fresh air system is installed indoors and outdoors communicated with an indoor wall, the heat exchange assembly 14 is installed between the exhaust pipeline 13 and the air supply pipeline 15 and used for heat exchange between indoor exhaust air and fresh air, a valve four 24 is connected with the heat exchange assembly 14, and the total ventilation volume is controlled by adjusting the rotating speed of a fan through the valve four 24 or the air inlet volume is controlled by adjusting the opening degree of air inlet or air exhaust equipment.

Outdoor fresh air enters the system through the air supply pipeline 13 during working, indoor dirty air is sent out through the exhaust pipeline 13, the replacement and purification of air occur at the heat exchange assembly 14, namely, partial energy is effectively recovered and stored in the energy storage device when the dirty air in the exhaust pipeline 13 is exhausted, then the fresh air entering the air supply pipeline 13 is transmitted, and the fresh air after temperature pretreatment and humidity exchange is sent to the indoor through the final temperature regulation and control of the air supply system in the wall. Because the air temperature which is wanted by people is difficult to obtain only by the heat exchange of indoor and outdoor air, the electric auxiliary heat is added on the basis of the heat exchange in the final temperature regulation and control of an air supply system, and meanwhile, the total ventilation quantity can be controlled by regulating the rotating speed of a fan through a valve IV 24 or the air inlet and outlet quantity can be controlled by regulating the opening degree of air inlet or exhaust equipment to meet the requirements of different rooms in different seasons; in winter, if the floor heating is insufficient, the rotating speed of the fan can be reduced by adjusting the valve IV 24 to slow down the flow of air, or the opening degree of air inlet and outlet equipment is reduced to raise the indoor temperature, and if the indoor temperature is still low, the indoor temperature can be raised by adjusting the air preheating degree of the heat exchange component 14; if the floor heating is sufficient, the indoor temperature can be adjusted by increasing the rotating speed of the fan, increasing the opening degree of the air inlet and outlet equipment or closing the air preheating treatment of the heat exchange assembly, and in summer, if the refrigerating capacity of the energy-saving heat pump air conditioner 6 is insufficient, the indoor temperature can be reduced by increasing the rotating speed of the fan, increasing the opening degree of the air inlet and outlet equipment or adjusting the air precooling degree of the heat exchange assembly 14.

Preferably, the outer glass plate 501 and the inner glass plate 501 are made of insulating glass plates.

According to the scheme, the fresh air system can adjust the indoor temperature and recover 70% of heat in the indoor and outdoor air exchange process, indoor air updating is met, meanwhile, room temperature regulation and control are completed in an auxiliary mode, and the purpose of reducing energy consumption is achieved.

According to the scheme, the ground source heat pump and the heating system utilize geothermal resources on the earth surface layer as cold and heat sources to perform energy conversion to complete room temperature regulation, and the operation efficiency is 40% higher than that of a traditional pure electric air conditioner. The ground source heat pump and the heating system can obtain 4Kwh of heat energy or 3Kwh of cold energy when consuming 1Kwh of electric energy, save more than 2/3 of electric energy than the electric boiler heating, save more than 1/2 of fuel than the fuel boiler, can regulate and control the indoor temperature, and can greatly reduce the energy consumption.

According to the scheme, the optical fiber lighting system directly guides visible light in sunlight into the room through the optical fiber for lighting, the indoor normal lighting requirement is met, and meanwhile, the optical fiber lighting system reduces the power consumption of a common lighting device and the heating effect accompanied with the lighting of the common lighting device, so that the lighting device is safer in use and longer in service life. And because the lighting device is far away from the light source of the illuminator, and the illuminator is arranged at the position convenient for maintenance, the difficulty of maintenance is reduced while the safety is improved.

According to the scheme, the self-cleaning glass system can realize the utilization of the full solar spectrum, and greatly improves the comprehensive utilization efficiency of sunlight. Self-cleaning glass 5 adopts double-deck vacuum skeleton texture, reducible indoor outer temperature heat exchange, supplementary room temperature regulation and control equipment control indoor temperature, and the light that sees through glass can directly get into indoorly, and supplementary optic fibre leaded light system satisfies indoor illumination demand, and outmost self-cleaning film is nanometer photocatalysis material, can prevent spot deposit on glass to increase glass's light transmittance.

According to the above preferred embodiment provided by the present invention, the working principle of the present invention is as follows:

(1) when the sun is sufficiently illuminated in sunny days, the optical fiber lighting system and the self-cleaning optical glass system act together. On one hand, the sunlight is collected by the sunlight collecting device 7, is focused and collimated by the sunlight collector 8 and is then conducted to the light guide optical fiber 9, and then is conducted to the indoor by the light guide optical fiber 9 after being guided by the optical coupler 10 and the inner optical fiber bundle 11, and then is emitted by the indoor lighting equipment 12 to finish lighting; on the other hand, the self-cleaning photovoltaic glass 5 absorbs sunlight and converts the sunlight into electric energy to be stored in the solar storage battery 20, and supplies power to indoor equipment as required to maintain normal living needs;

(2) at night and on cloudy days, the outdoor light is insufficient, the electric energy stored in the solar storage battery 20 by the self-cleaning photovoltaic glass system is utilized to supply power to the indoor lighting equipment 12 as required to ensure the indoor lighting environment, and the electric energy in the solar storage battery 20 can simultaneously ensure the normal operation of the indoor equipment;

(3) the fresh air system completes the exchange of indoor and outdoor air through the air supply pipeline 15 and the exhaust pipeline 13, the quality exchange of temperature of the indoor air and the outdoor air is completed through the heat exchange component 14, the temperature of the fresh air fed into the room is pre-regulated and controlled, the final temperature regulation and control are completed through the air supply pipeline and then the fresh air is fed into the room, and the total ventilation volume and the air inlet and outlet volume can be controlled through the four regulating valves 24, so that the fresh indoor air can be ensured, and the indoor temperature can be kept constant;

(4) the ground source heat pump and heating system finishes evaporation or cooling of condensate in the compressor 3 according to the requirements of users, the conversion speed of energy is controlled by the current suppressor 1 and the heat exchanger 2, energy exchange is finished by the circulating water tank 4 and the water storage tank 19 to enable the temperature of water in the water storage tank 19 to rise, then the water is respectively circulated into the indoor air conditioner 6 and the ground heating pipeline 16 through the pipeline valve I21 and the pipeline valve II 22, and can be conveyed to the indoor water heater 17 through the pipeline valve III 23 for providing domestic water, and the water supplementing tank 18 can supplement water for the water storage tank 19 in time to maintain normal operation of the system;

the invention firstly proposes to complete integration on the basis of various single energy-saving means, and reasonably combines all the energy-saving means to make the energy-saving means exert respective characteristics on one hand; on one hand, the daily life under the condition of no external energy consumption is realized, and the utilization rate of natural resources is greatly improved.

Although the present invention has been described in detail with reference to the foregoing embodiments, it will be apparent to those skilled in the art that various changes in the embodiments and/or modifications of the invention can be made, and equivalents and modifications of some features of the invention without departing from the spirit and scope of the invention.