CN113566322A - Multi-energy complementary dehumidification rotary wheel air conditioning system and use method thereof - Google Patents

Multi-energy complementary dehumidification rotary wheel air conditioning system and use method thereof Download PDF

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CN113566322A
CN113566322A CN202110892752.3A CN202110892752A CN113566322A CN 113566322 A CN113566322 A CN 113566322A CN 202110892752 A CN202110892752 A CN 202110892752A CN 113566322 A CN113566322 A CN 113566322A
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water
valve
air
pipe
heat
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CN113566322B (en
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陈柳
陈闯
杨发妹
石全成
褚于颉
邓文杰
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Xian University of Science and Technology
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    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F3/00—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems
    • F24F3/12—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems characterised by the treatment of the air otherwise than by heating and cooling
    • F24F3/14—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems characterised by the treatment of the air otherwise than by heating and cooling by humidification; by dehumidification
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00—Control or safety arrangements
    • F24F11/62—Control or safety arrangements characterised by the type of control or by internal processing, e.g. using fuzzy logic, adaptive control or estimation of values
    • F24F11/63—Electronic processing
    • F24F11/65—Electronic processing for selecting an operating mode
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F12/00—Use of energy recovery systems in air conditioning, ventilation or screening
    • F24F12/001—Use of energy recovery systems in air conditioning, ventilation or screening with heat-exchange between supplied and exhausted air
    • F24F12/006—Use of energy recovery systems in air conditioning, ventilation or screening with heat-exchange between supplied and exhausted air using an air-to-air heat exchanger
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F13/00—Details common to, or for air-conditioning, air-humidification, ventilation or use of air currents for screening
    • F24F13/30—Arrangement or mounting of heat-exchangers
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24S—SOLAR HEAT COLLECTORS; SOLAR HEAT SYSTEMS
    • F24S10/00—Solar heat collectors using working fluids
    • F24S10/30—Solar heat collectors using working fluids with means for exchanging heat between two or more working fluids
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24S—SOLAR HEAT COLLECTORS; SOLAR HEAT SYSTEMS
    • F24S20/00—Solar heat collectors specially adapted for particular uses or environments
    • F24S20/40—Solar heat collectors combined with other heat sources, e.g. using electrical heating or heat from ambient air
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24S—SOLAR HEAT COLLECTORS; SOLAR HEAT SYSTEMS
    • F24S50/00—Arrangements for controlling solar heat collectors
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24S—SOLAR HEAT COLLECTORS; SOLAR HEAT SYSTEMS
    • F24S60/00—Arrangements for storing heat collected by solar heat collectors
    • F24S60/30—Arrangements for storing heat collected by solar heat collectors storing heat in liquids
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F3/00—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems
    • F24F3/12—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems characterised by the treatment of the air otherwise than by heating and cooling
    • F24F3/14—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems characterised by the treatment of the air otherwise than by heating and cooling by humidification; by dehumidification
    • F24F2003/1458—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems characterised by the treatment of the air otherwise than by heating and cooling by humidification; by dehumidification using regenerators
    • Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
    • Y02B10/00—Integration of renewable energy sources in buildings
    • Y02B10/20—Solar thermal
    • Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
    • Y02B30/00—Energy efficient heating, ventilation or air conditioning [HVAC]
    • Y02B30/52—Heat recovery pumps, i.e. heat pump based systems or units able to transfer the thermal energy from one area of the premises or part of the facilities to a different one, improving the overall efficiency
    • Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
    • Y02B30/00—Energy efficient heating, ventilation or air conditioning [HVAC]
    • Y02B30/56—Heat recovery units
    • Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00—Energy generation through renewable energy sources
    • Y02E10/40—Solar thermal energy, e.g. solar towers
    • Y02E10/44—Heat exchange systems

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  • Engineering & Computer Science (AREA)
  • General Engineering & Computer Science (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • Physics & Mathematics (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Sustainable Development (AREA)
  • Sustainable Energy (AREA)
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  • Fuzzy Systems (AREA)
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  • Other Air-Conditioning Systems (AREA)

Abstract

The invention discloses a multi-energy complementary dehumidification rotary wheel air-conditioning system and a use method thereof, wherein the system comprises a dehumidification rotary wheel air-conditioning system and an indoor air-conditioning terminal device, the dehumidification rotary wheel air-conditioning system comprises a dehumidification rotary wheel, a surface cooler, a regenerative heat exchanger and an air-cooled condenser, and the regenerative heat exchanger and the air-cooled condenser are used for providing a regenerative heat source for the dehumidification rotary wheel; the surface cooler is connected with a cold water circulating system used for providing a cold source for the surface cooler, the air-cooled condenser is connected with a heat pump circulating system used for converting air energy, the regenerative heat exchanger is connected with a hot water circulating system used for converting solar energy and biomass energy, the hot water circulating system is connected with the heat pump circulating system, and the air conditioner end device is connected with the cold water circulating system and the hot water circulating system. The invention effectively reduces the regeneration energy consumption of the dehumidification rotary wheel air-conditioning system, improves the system efficiency, can realize the cooperative utilization of solar energy, biomass energy and air energy, improves the comprehensive utilization efficiency of energy and realizes the energy conservation of buildings.

Description

Multi-energy complementary dehumidification rotary wheel air conditioning system and use method thereof
Technical Field
The invention belongs to the technical field of air conditioning systems, and particularly relates to a multi-energy complementary dehumidification rotary wheel air conditioning system and a using method thereof.
Background
Along with the rapid development of national economy of China, the problem of energy shortage is remarkable, and the problems of more and more severe resource utilization and environmental deterioration cause wide attention of people. Meanwhile, people have more requirements on safety, health, environmental protection and energy conservation for the working environment and the living environment of the people, and the development of the building industry is further promoted.
Under the background, the air conditioning industry also moves towards the goals of green energy conservation, health and comfort, but compared with the air conditioning research and development technology in China, the requirement on energy consumption is generally higher. As is well known, building energy conservation has been recognized as the most promising, most directly effective way of various energy conservation approaches. The energy consumption of the air conditioner accounts for 50% -60% of the energy consumption of the whole building, and the energy conservation of the air conditioning system can directly influence the energy conservation of the building. Along with the accelerated transformation of world energy sources to green, low-carbon and clean, renewable energy sources gradually become the core of global energy transformation. The renewable energy meets the requirements of low carbon and emission reduction, conforms to the transformation direction of the Chinese industrial structure, and can effectively guarantee the energy safety of China. In order to promote green development and realize comprehensive green transformation of economic and social development, the air conditioning system industry should actively respond and be in line with the development trend. At present, the prior air conditioning technology mostly adopts fluorine-chlorine hydrocarbon refrigerants, which causes greenhouse effect and pollutes the environment.
In order to solve the problems, the dehumidification rotary air conditioning system is an air conditioning mode with great development potential and research significance based on the aspects of environmental protection, energy conservation, air quality and the like. The existing dehumidification rotary wheel air conditioner generally comprises a dehumidification rotary wheel, an air cooler, an air heater, an auxiliary electric heater and other main equipment, wherein the dehumidification rotary wheel plays a role in processing latent heat load of air, and the air cooler, the air heater and the auxiliary electric heater play a role in processing sensible heat load of air. However, the regeneration energy consumption of the dehumidification rotary wheel is one of the main energy consumption of the rotary wheel dehumidification air conditioner, the regeneration temperature required by the conventional dehumidification rotary wheel air conditioner system is too high, the regeneration rotary wheel air conditioner system is heated to 80-120 ℃ by adopting an electric heating mode, and a large amount of electric energy is consumed. On the one hand, from the energy cascade utilization and
Figure BDA0003196756700000011
in view of the fact that the electric energy is converted into heat energy, the grade of the energy source is not matched with the grade of the heat consumption, and is unreasonable,
Figure BDA0003196756700000012
the loss is large and the waste heat recycling is not considered; on the other hand, the dehumidification rotary wheel air conditioning system does not effectively utilize the regenerated air in winter and has low system efficiency.
In summary, the existing desiccant wheel air conditioning system has the following disadvantages: (1) the regeneration energy consumption is large; (2) the heat of adsorption is seriously wasted; (3) the dehumidification rotary air-conditioning system in winter has low efficiency.
Disclosure of Invention
The technical problem to be solved by the invention is to provide a multi-energy complementary dehumidification rotary wheel air-conditioning system and a using method thereof, aiming at the defects in the prior art, the system is reasonable in design and convenient to realize, the regeneration energy consumption of the dehumidification rotary wheel air-conditioning system is effectively reduced, the system efficiency is improved, the cooperative utilization of solar energy, biomass energy and air energy can be realized, the multi-energy complementary and cooperative supply is realized, the comprehensive utilization efficiency of energy is improved, and the building energy conservation is realized. The method is beneficial to promoting the steady advance of the national energy strategy of carbon peak reaching and carbon neutralization, and has huge potential and high popularization and application value.
In order to solve the technical problems, the invention adopts the technical scheme that: a multi-energy complementary dehumidification rotary wheel air-conditioning system comprises a dehumidification rotary wheel air-conditioning system and an air-conditioning end device arranged indoors, wherein the dehumidification rotary wheel air-conditioning system comprises a dehumidification rotary wheel, a surface cooler, a regenerative heat exchanger and an air-cooled condenser, wherein the regenerative heat exchanger is used for providing a regenerative heat source for the dehumidification rotary wheel; the surface type cooler is connected with a cold water circulating system used for providing a cold source for the surface type cooler, the air-cooled condenser is connected with a heat pump circulating system used for converting air energy, the regenerative heat exchanger is connected with a hot water circulating system used for converting solar energy and biomass energy, the hot water circulating system is connected with the heat pump circulating system, and the air conditioner end device is connected with the cold water circulating system and the hot water circulating system.
The multi-energy complementary dehumidification rotary wheel air-conditioning system comprises a dehumidification rotary wheel dehumidification area and a dehumidification rotary wheel regeneration area, wherein an inlet end of the dehumidification rotary wheel dehumidification area is connected with an air precooler, the air precooler comprises an air precooler primary air end and an air precooler secondary air end, an air inlet of the air precooler primary air end is a first air inlet of the dehumidification rotary wheel air-conditioning system, a plate-type heat recoverer is connected between the dehumidification rotary wheel dehumidification area and a surface cooler, the plate-type heat recoverer comprises a plate-type heat recoverer primary air end and a plate-type heat recoverer secondary air end, an air outlet end of the surface cooler is connected with a processing fan, and an air outlet of the processing fan is connected with an indoor fresh air feeding pipe for feeding processing fresh air into a room and an outdoor fresh air discharging pipe for discharging the processing fresh air to the outside, the indoor fresh air feeding pipe is provided with a first valve, the outdoor fresh air discharging pipe is provided with a second valve, the inlet end of the secondary air end of the plate type heat recoverer is connected with an exhaust fan through a first exhaust pipe, the first exhaust pipe is provided with a third valve, the exhaust fan is communicated with the indoor through a second exhaust pipe, the air inlet of the second exhaust pipe positioned indoors is a second air inlet of the dehumidification rotary wheel air-conditioning system, the air outlet of the exhaust fan is connected with the secondary air end of the air precooler through a third exhaust pipe, the third exhaust pipe is provided with a fourth valve, the outlet end of the secondary air end of the plate type heat recoverer is connected with a first outdoor exhaust pipe, the outlet end of the secondary air end of the air precooler is connected with a second outdoor exhaust pipe, and the air inlet end of the regenerative heat exchanger is a third air inlet of the dehumidification rotary wheel air-conditioning system, the air outlet end of the regenerative heat exchanger is connected with the air inlet end of the air-cooled condenser, the air outlet end of the air-cooled condenser is connected with the dehumidification runner regeneration area, the air outlet end of the dehumidification runner regeneration area is connected with the regenerative fan, the air outlet of the regenerative fan is connected with the indoor regenerative air feeding pipe used for feeding the regenerative air into the room and the outdoor regenerative air discharging pipe used for discharging the regenerative air to the room, the indoor regenerative air feeding pipe is provided with a fifth valve, and the outdoor regenerative air discharging pipe is provided with a sixth valve.
Foretell complementary dehumidification runner air conditioning system of multipotency source, air conditioner end equipment is including setting up at indoor coil pipe, the water inlet of coil pipe is connected with coil pipe inlet manifold, the delivery port of coil pipe is connected with coil pipe outlet manifold, be provided with first water pump on the coil pipe outlet manifold.
The multi-energy complementary dehumidification rotary wheel air-conditioning system comprises an evaporator, a water outlet of the evaporator is connected with a cold water output main pipe, a second water pump is arranged on the cold water output main pipe, the cold water output main pipe is connected with a first cold water output branch pipe and a second cold water output branch pipe, the first cold water output branch pipe is connected with a coil pipe water inlet main pipe, a seventh valve is arranged on the first cold water output branch pipe, the second cold water output branch pipe is connected with a water inlet of a surface cooler, an eighth valve is arranged on the second cold water output branch pipe, a return water port of the evaporator is connected with a cold water return main pipe, the cold water return main pipe is connected with a first cold water return branch pipe and a second cold water return branch pipe, the coil pipe water outlet main pipe is connected with the first cold water return branch pipe, and a ninth valve is arranged on the first cold water branch pipe, and a water outlet of the surface cooler is connected with a second cold water return branch pipe, and a third water pump and a tenth valve are arranged on the second cold water return branch pipe.
The multi-energy complementary dehumidification rotary wheel air-conditioning system comprises a compressor, a water-cooled condenser and a throttle valve, the compressor is connected with a refrigerant outlet of the evaporator, a refrigerant outlet of the compressor is connected with a first refrigerant conveying pipe and a second refrigerant conveying pipe, the first refrigerant conveying pipe is connected with a refrigerant inlet of the water-cooled condenser, an eleventh valve is arranged on the first refrigerant conveying pipe, the second refrigerant conveying pipe is connected with a refrigerant inlet of the air-cooled condenser, a twelfth valve is arranged on the second refrigerant conveying pipe, the refrigerant outlet of the water-cooled condenser is connected with the refrigerant inlet of the air-cooled condenser through a third refrigerant conveying pipe, the throttle valve is disposed between a refrigerant outlet of the air-cooled condenser and a refrigerant inlet of the evaporator.
The hot water circulating system comprises a solar heat collector, a heat storage water tank, a biomass boiler and a hot water heat exchanger, wherein a water outlet of the solar heat collector is connected with a water inlet of the heat storage water tank through a heat collector hot water main pipe, a water return port of the solar heat collector is connected with a first water outlet of the heat storage water tank through a heat collector return water main pipe, a fourth water pump and a thirteenth valve are arranged on the heat collector return water main pipe, a steam inlet of the hot water heat exchanger is connected with a steam outlet of the biomass boiler, a water outlet of the hot water heat exchanger is connected with the hot water main pipe through a hot water heat exchanger water outlet pipe, a fifth water pump and a fourteenth valve are arranged on a hot water heat exchanger water outlet pipe, a water return port of the hot water heat exchanger is connected with the heat collector return water main pipe through a hot water heat exchanger water return pipe, a fifteenth valve is arranged on the water return pipe of the hot water heat exchanger, the water outlet of the water-cooled condenser is connected with a hot water main pipe of the heat collector through a water outlet pipe of the water-cooled condenser, a sixth water pump and a sixteenth valve are arranged on the water outlet pipe of the water-cooled condenser, the water return port of the water-cooled condenser is connected with a water return main pipe of the heat collector through a water return pipe of the water-cooled condenser, a seventeenth valve is arranged on the water return pipe of the water-cooled condenser, the second water outlet of the heat storage water tank is connected with a water inlet main pipe of the coil pipe through a water outlet pipe of the first heat storage water tank, a seventh water pump and an eighteenth valve are arranged on the water outlet pipe of the first heat storage water tank, the first water return port of the heat storage water tank is connected with the water outlet main pipe of the coil pipe through a water return pipe of the first heat storage water tank, a nineteenth valve is arranged on the water return pipe of the first heat storage water tank, and the water outlet of the regenerative heat exchanger is connected with the heat storage water return pipe of the first water tank through the regenerative heat exchanger, an eighth water pump and a twentieth valve are arranged on the water outlet pipe of the regenerative heat exchanger, the water inlet of the regenerative heat exchanger is connected with the water outlet pipe of the first heat storage water tank through the water inlet pipe of the regenerative heat exchanger, a twenty-first valve is arranged on the water outlet pipe of the first heat storage water tank, the water outlet pipe of the water-cooled condenser is connected with the water inlet pipe of the regenerative heat exchanger through a first connecting pipe, a twelfth valve is arranged on the first connecting pipe, the water outlet pipe of the regenerative heat exchanger is connected with the water return pipe of the water-cooled condenser through a second connecting pipe, a twenty-third valve is arranged on the second connecting pipe, the water outlet pipe of the hot water heat exchanger is connected with the first connecting pipe through a third connecting pipe, the third connecting pipe is provided with a twenty-fourth valve, the second connecting pipe is connected with a water return pipe of the hot water heat exchanger through a fourth connecting pipe, and the fourth connecting pipe is provided with a twenty-fifth valve.
The dehumidification rotary wheel air-conditioning system with the complementary multiple energy sources is characterized in that a third water outlet of the heat storage water tank is connected with a domestic hot water tank through a second heat storage water tank water outlet pipe, a ninth water pump and a twenty-sixth valve are arranged on the second heat storage water tank water outlet pipe, a water return port of the domestic hot water tank is connected with a second water return port of the heat storage water tank through a domestic hot water tank water return pipe, and a twenty-seventh valve is arranged on the domestic hot water tank water return pipe.
The invention also discloses a using method of the multi-energy complementary dehumidification rotary wheel air-conditioning system, which comprises a summer working condition using method and a winter working condition using method, wherein the summer working condition using method comprises a first summer air processing method for providing low-temperature and low-humidity air for a room, a second summer air processing method for discharging the indoor air and utilizing the temperature of the indoor air, a third summer air processing method for providing a regenerative heat source for the dehumidification rotary wheel and performing regenerative air exhaust, a summer cold water circulation method and a summer hot water circulation method;
the first summer air treatment method comprises the following specific processes: opening a first valve, closing a second valve, enabling outdoor fresh air to enter a primary air end of an air precooler from a first air inlet for precooling treatment, reducing the temperature of the fresh air, enabling the precooled air to enter a dehumidification rotating wheel dehumidification area for isenthalpic dehumidification treatment, enabling the precooled and dehumidified air to enter a primary air end of a plate type heat recoverer for sensible heat exchange treatment, further carrying out iso-humidity cooling to a low-temperature low-humidity air supply state point through a surface type cooler, and sending the treated fresh air of the low-temperature low-humidity air supply state point into a room through a fresh air feeding pipe under the action of a treatment fan; the surface cooler provides a cold source through the summer cold water circulation method;
the second summer air treatment method comprises the following specific processes: opening a third valve and a fourth valve, allowing indoor exhaust air to enter a second exhaust pipe from a second air inlet under the action of an exhaust fan, dividing the indoor exhaust air into two paths, allowing one path of indoor exhaust air to enter a secondary air end of the plate type heat recoverer through a first exhaust pipe for sensible heat exchange treatment, taking away air heat in a primary air end of the plate type heat recoverer, and discharging the air heat out of the room through a first outdoor exhaust pipe; the other path of indoor exhaust air enters the secondary air end of the air precooler through a third exhaust pipe, is used for precooling outdoor fresh air in the primary air end of the air precooler, takes away air heat and is exhausted outdoors through a second outdoor exhaust pipe;
the third summer air treatment method comprises the following specific processes: opening a sixth valve, closing a fifth valve, allowing outdoor air to enter a regenerative heat exchanger from a third air inlet to be subjected to equal-humidity heating treatment, allowing the air subjected to equal-humidity heating to enter an air-cooled condenser to be further heated to reach a regeneration temperature required by a dehumidification rotating wheel regeneration area, allowing the air to enter the dehumidification rotating wheel regeneration area to be used for performing equal-enthalpy dehumidification on the air in the dehumidification rotating wheel regeneration area, and discharging generated regeneration exhaust air through an outdoor regeneration air discharge pipe under the action of a regeneration fan; the regenerative heat exchanger and the air-cooled condenser provide a heat source through the summer hot water circulation method;
the specific process of the summer cold water circulation method comprises the following steps: opening a seventh valve, an eighth valve, a ninth valve and a tenth valve, outputting cold water after heat exchange with a refrigerant in the evaporator through a cold water output main pipe, dividing the cold water into two paths after pressurization of a second water pump, enabling one path of cold water to enter the coil pipe through a first cold water output branch pipe and a coil pipe water inlet main pipe, and enabling the other path of cold water to enter the surface cooler through a second cold water output branch pipe; cold water entering the coil pipe is used for carrying out dry condition precooling treatment on indoor air through the coil pipe, the heated cold water returns to the evaporator through the coil pipe water outlet main pipe and the first cold water return branch pipe under the action of the first water pump, the cold water entering the surface cooler is used for carrying out equal-humidity cooling treatment on the air in the first summer air treatment method, and the heated cold water returns to the evaporator through the second cold water return branch pipe under the action of the third water pump;
the winter working condition using method comprises a first winter air processing method for processing outdoor fresh air, a second winter air processing method for discharging indoor air and utilizing the temperature of the indoor air, a third winter air processing method for providing high-temperature regeneration air for the indoor air, and a winter hot water circulation method;
the specific process of the first winter air treatment method comprises the following steps: opening a second valve, closing the first valve, enabling outdoor fresh air to enter a primary air end of the air precooler from a first air inlet for preheating treatment, enabling the preheated air to enter a dehumidification rotating wheel dehumidification area for isenthalpic dehumidification treatment, enabling the preheated and dehumidified air to enter a primary air end of a plate type heat recoverer for sensible heat exchange treatment, and then, discharging the treated fresh air to the outdoor through an outdoor fresh air discharge pipe under the action of a treatment fan;
the specific process of the second winter season air treatment method comprises the following steps: opening a third valve and a fourth valve, allowing indoor exhaust air to enter a second exhaust pipe from a second air inlet under the action of an exhaust fan, dividing the indoor exhaust air into two paths, allowing one path of indoor exhaust air to enter a secondary air end of the plate type heat recoverer through a first exhaust pipe for sensible heat exchange treatment, and exhausting the indoor exhaust air out of a room through a first outdoor exhaust pipe; the other path of indoor exhaust air enters the secondary air end of the air precooler through a third exhaust pipe, is used for preheating outdoor fresh air in the primary air end of the air precooler and is exhausted outdoors through a second outdoor exhaust pipe;
the specific process of the third winter season air treatment method comprises the following steps: opening a fifth valve, closing a sixth valve, allowing outdoor air to enter a regenerative heat exchanger from a third air inlet for equal-humidity heating treatment, allowing the air subjected to equal-humidity heating to enter an air-cooled condenser for further heating to reach a regeneration temperature required by a dehumidification rotating wheel regeneration area, allowing the air to enter the dehumidification rotating wheel regeneration area for equal-enthalpy dehumidification of the air in the dehumidification rotating wheel dehumidification area, and allowing generated regenerated air to be sent into a room through an indoor regenerated air feeding pipe under the action of a regeneration fan; the regenerative heat exchanger and the air-cooled condenser provide a heat source through the winter hot water circulation method.
The application method of the multi-energy complementary dehumidification rotary wheel air-conditioning system comprises a summer solar heat collector independent indirect heat supply method, a summer air source heat pump independent direct heat supply method, a summer biomass boiler independent indirect heat supply method, a summer biomass boiler independent direct heat supply method, a summer solar heat collector and air source heat pump combined indirect heat supply method, a summer solar heat collector and biomass boiler combined indirect heat supply method, a summer biomass boiler and air source heat pump combined indirect heat supply method and a summer biomass boiler and air source heat pump combined direct heat supply method;
the specific process of the independent indirect heat supply method of the solar heat collector in summer comprises the following steps: opening a thirteenth valve, a twentieth valve and a twenty-first valve, and closing a fourteenth valve, a fifteenth valve, a sixteenth valve, a seventeenth valve, an eighteenth valve, a nineteenth valve, a twenty-second valve, a thirteenth valve, a twenty-fourth valve and a twenty-fifth valve, wherein the solar heat collector heats water in the solar heat collector by using solar energy, the heated water enters a heat storage water tank through a heat collector hot water main pipe, under the action of a seventh water pump, the hot water in the heat storage water tank enters a regenerative heat exchanger through a regenerative heat exchanger water inlet pipe for heating air, then, under the action of an eighth water pump, the water after heating the air returns to the heat storage water tank through a regenerative heat exchanger water outlet pipe, and the water after cooling in the heat storage water tank returns to the solar heat collector through a heat collector water return main pipe;
the specific process of the independent indirect heat supply method of the air source heat pump in summer comprises the following steps: opening a sixteenth valve, a seventeenth valve, a twentieth valve and a twenty-first valve, closing a thirteenth valve, a fourteenth valve, a fifteenth valve, an eighteenth valve, a nineteenth valve, a twenty-second valve, a twenty-third valve, a twenty-fourth valve and a twenty-fifth valve, heating water in the water-cooled condenser by using air condensation heat, feeding the heated water into a heat storage water tank through a water outlet pipe of the water-cooled condenser and a hot water header pipe of a heat collector under the action of a sixth water pump, feeding hot water in the heat storage water tank into a regenerative heat exchanger through a water inlet pipe of the regenerative heat exchanger for heating air under the action of a seventh water pump, feeding the water after heating the air into the heat storage water tank through a water outlet pipe of the regenerative heat exchanger, feeding the water after cooling in the heat storage water tank into a water return pipe of the heat collector and a water return pipe of the water-cooled condenser under the action of an eighth water pump, returning to the water-cooled condenser;
the specific process of the independent direct heat supply method of the air source heat pump in summer comprises the following steps: opening a twenty-second valve and a twenty-third valve, and closing a thirteenth valve, a fourteenth valve, a fifteenth valve, a sixteenth valve, a seventeenth valve, an eighteenth valve, a nineteenth valve, a twentieth valve, a twenty-first valve, a twenty-fourth valve and a twenty-fifth valve, wherein the water-cooled condenser heats water in the water-cooled condenser by using air condensation heat, the heated water enters the regenerative heat exchanger through the first connecting pipe and the regenerative heat exchanger water inlet pipe under the action of a sixth water pump and is used for heating air, and then, under the action of an eighth water pump, the water after heating the air returns to the water-cooled condenser through the regenerative heat exchanger water outlet pipe and the second connecting pipe;
the specific process of the independent indirect heat supply method of the biomass boiler in summer comprises the following steps: opening a fourteenth valve, a fifteenth valve, a twentieth valve and a twenty-first valve, closing a thirteenth valve, an eighteenth valve, a nineteenth valve, a twenty-second valve, a thirteenth valve, a twenty-fourth valve and a twenty-fifth valve, wherein the biomass boiler generates high-temperature steam by using biomass energy, the high-temperature steam enters a hot water heat exchanger to heat water in the hot water heat exchanger, the heated water passes through a water outlet pipe of the hot water heat exchanger and a hot water header pipe of a heat collector under the action of a fifth water pump and enters a heat storage water tank, hot water in the heat storage water tank enters a regenerative heat exchanger through a water inlet pipe of the regenerative heat exchanger under the action of a seventh water pump to heat air, then, the water after heating the air returns to the heat storage water tank through the water outlet pipe of the regenerative heat exchanger under the action of an eighth water pump, the water after cooling in the heat storage water tank passes through the water header pipe of the heat collector and a water return pipe of the hot water heat exchanger, returning to the hot water heat exchanger;
the specific process of the independent direct heat supply method of the biomass boiler in summer comprises the following steps: opening the twenty-fourth valve and the twenty-fifth valve, closing the thirteenth valve, the fourteenth valve, the fifteenth valve, the sixteenth valve, the seventeenth valve, the eighteenth valve, the nineteenth valve, the twentieth valve, the twenty-first valve, the twenty-twelfth valve and the twenty-thirteenth valve, the biomass boiler utilizes biomass energy to generate high-temperature steam, the high-temperature steam enters the hot water heat exchanger, heating the water in the hot water heat exchanger, introducing the heated water into the regenerative heat exchanger through the water outlet pipe of the hot water heat exchanger, the third connecting pipe, the first connecting pipe and the water inlet pipe of the regenerative heat exchanger under the action of a fifth water pump, heating the air, and then, under the action of the eighth water pump, water heated by the air returns to the hot water heat exchanger through the water outlet pipe of the regenerative heat exchanger, the second connecting pipe, the fourth connecting pipe and the water return pipe of the hot water heat exchanger;
the specific process of the summer solar heat collector and air source heat pump combined indirect heat supply method comprises the following steps: opening a thirteenth valve, a sixteenth valve, a seventeenth valve, a twentieth valve and a twenty-first valve, closing a fourteenth valve, a fifteenth valve, an eighteenth valve, a nineteenth valve, a twenty-second valve, a twenty-third valve, a twenty-fourth valve and a twenty-fifth valve, heating water in the solar heat collector by solar energy, enabling the heated water to enter a heat storage water tank through a heat collector hot water main pipe, simultaneously heating the water in the water-cooled condenser by air condensation heat, enabling the heated water to enter a heat storage water tank through a water outlet pipe of the water-cooled condenser and a heat collector hot water main pipe under the action of a sixth water pump, enabling the hot water in the heat storage water tank to enter a regenerative heat exchanger through a water inlet pipe of the regenerative heat exchanger under the action of a seventh water pump, heating air, and then, under the action of an eighth water pump, returning water after heating air to the heat storage water tank through a water outlet pipe of the regenerative heat exchanger, returning one path of the cooled water in the heat storage water tank to the solar heat collector through a heat collector water return header pipe, and returning the other path of the cooled water to the water-cooled condenser through the heat collector water return header pipe and a water-cooled condenser water return pipe;
the specific process of the summer solar heat collector and biomass boiler combined indirect heat supply method comprises the following steps: the thirteenth valve, the fourteenth valve, the fifteenth valve, the twentieth valve and the twenty-first valve are opened, the sixteenth valve, the seventeenth valve, the eighteenth valve, the nineteenth valve, the twenty-second valve, the twenty-third valve, the twenty-fourth valve and the twenty-fifth valve are closed, the solar heat collector heats water in the solar heat collector by solar energy, the heated water enters the heat storage water tank through the heat collector hot water main pipe, meanwhile, the biomass boiler generates high-temperature steam by biomass energy, the high-temperature steam enters the hot water heat exchanger to heat the water in the hot water heat exchanger, the heated water enters the heat storage water tank through the hot water heat exchanger water outlet pipe and the heat collector hot water main pipe under the action of the fifth water pump, the hot water in the heat storage water tank enters the regenerative heat exchanger through the regenerative heat exchanger water inlet pipe under the action of the seventh water pump, the water after heating the air returns to the heat storage water tank through a water outlet pipe of the regenerative heat exchanger under the action of an eighth water pump, one path of the water after cooling in the heat storage water tank returns to the solar heat collector through a heat collector water return header pipe, and the other path of the water returns to the hot water heat exchanger through the heat collector water return header pipe and a hot water heat exchanger water return pipe;
the specific process of the summer biomass boiler and air source heat pump combined indirect heat supply method comprises the following steps: opening a fourteenth valve, a fifteenth valve, a sixteenth valve, a seventeenth valve, a twentieth valve and a twenty-first valve, closing a thirteenth valve, an eighteenth valve, a nineteenth valve, a twenty-second valve, a thirteenth valve, a twenty-fourth valve and a twenty-fifth valve, wherein the biomass boiler utilizes biomass energy to generate high-temperature steam, the high-temperature steam enters a hot water heat exchanger to heat water in the hot water heat exchanger, the heated water passes through a water outlet pipe of the hot water heat exchanger and a hot water header pipe of a heat collector under the action of a fifth water pump and enters a heat storage water tank, meanwhile, the water-cooled condenser utilizes air condensation heat to heat water in the water-cooled condenser, the heated water passes through a water outlet pipe of the water-cooled condenser and the hot water header pipe of the heat collector under the action of a sixth water pump and enters the heat storage water tank, and under the action of a seventh water pump, hot water in the heat storage water tank enters the regenerative heat exchanger through a water inlet pipe of the regenerative heat exchanger for heating air, then, under the action of an eighth water pump, the water after heating the air returns to the heat storage water tank through a water outlet pipe of the regenerative heat exchanger, one path of the cooled water in the heat storage water tank passes through a heat collector water return header pipe and a hot water heat exchanger water return pipe and returns to the hot water heat exchanger, and the other path of the cooled water passes through the heat collector water return header pipe and a water-cooled condenser water return pipe and returns to the water-cooled condenser;
the specific process of the summer biomass boiler and air source heat pump combined direct heat supply method comprises the following steps: opening a twenty-second valve, a twenty-third valve, a twenty-fourth valve and a twenty-fifth valve, closing a thirteenth valve, a fourteenth valve, a fifteenth valve, a sixteenth valve, a seventeenth valve, an eighteenth valve, a nineteenth valve, a twentieth valve and a twenty-first valve, wherein the biomass boiler utilizes biomass energy to generate high-temperature steam, the high-temperature steam enters a hot water heat exchanger to heat water in the hot water heat exchanger, the heated water enters a regenerative heat exchanger through a hot water heat exchanger water outlet pipe, a third connecting pipe, a first connecting pipe and a regenerative heat exchanger water inlet pipe under the action of a fifth water pump, meanwhile, the water in the water-cooled condenser is heated by utilizing air condensation heat, the heated water enters the regenerative heat exchanger through the first connecting pipe and the regenerative heat exchanger water inlet pipe under the action of a sixth water pump, and heating air, and then, under the action of an eighth water pump, returning one path of water after heating the air to the hot water heat exchanger through a water outlet pipe of the regenerative heat exchanger, a second connecting pipe, a fourth connecting pipe and a water return pipe of the hot water heat exchanger, and returning the other path of water to the water-cooled condenser through a water outlet pipe of the regenerative heat exchanger and the second connecting pipe.
The winter hot water circulation method comprises an independent indirect heating method of a solar heat collector in winter, an independent indirect heating method of an air source heat pump in winter, an independent indirect heating method of a biomass boiler in winter, a combined indirect heating method of the solar heat collector and the air source heat pump in winter, a combined indirect heating method of the solar heat collector and the biomass boiler in winter and a combined indirect heating method of the biomass boiler and the air source heat pump in winter;
the specific process of the independent indirect heat supply method of the winter solar heat collector comprises the following steps: the method comprises the following steps that a thirteenth valve, an eighteenth valve, a nineteenth valve, a twentieth valve and a twenty-first valve are opened, a fourteenth valve, a fifteenth valve, a sixteenth valve, a seventeenth valve, a twenty-second valve, a twenty-thirteen valve, a twenty-fourth valve and a twenty-fifth valve are closed, the solar heat collector heats water in the solar heat collector by using solar energy, the heated water enters a heat storage water tank through a heat collector hot water main pipe, under the action of a seventh water pump, one path of hot water in the heat storage water tank passes through a first heat storage water tank water outlet pipe and a coil pipe water inlet main pipe, enters a coil pipe and is used for heating indoor air, and the other path of hot water enters a regenerative heat exchanger through a regenerative heat exchanger water inlet pipe; then, under the action of a first water pump, water heated by air in the coil pipe returns to the heat storage water tank through a coil pipe water outlet main pipe and a first heat storage water tank water return pipe, meanwhile, under the action of an eighth water pump, water heated by air in the regenerative heat exchanger returns to the heat storage water tank through a regenerative heat exchanger water outlet pipe, and water cooled in the heat storage water tank returns to the solar heat collector through a heat collector water return main pipe;
the specific process of the winter air source heat pump independent indirect heat supply method comprises the following steps: opening a sixteenth valve, a seventeenth valve, an eighteenth valve, a nineteenth valve, a twentieth valve and a twenty-first valve, closing a thirteenth valve, a fourteenth valve, a fifteenth valve, a twenty-second valve, a twenty-thirteen valve, a twenty-fourth valve and a twenty-fifth valve, heating water in the water-cooled condenser by using air condensation heat, enabling the heated water to enter a heat storage water tank through a water outlet pipe of the water-cooled condenser and a hot water header pipe of a heat collector under the action of a sixth water pump, enabling hot water in the heat storage water tank to pass through a water outlet pipe of the first heat storage water tank and a water inlet header pipe of a coil pipe under the action of a seventh water pump, enabling one path of hot water to enter the coil pipe for heating indoor air, and enabling the other path of hot water to enter a regenerative heat exchanger through a water inlet pipe of the regenerative heat exchanger; then, under the action of a first water pump, water heated by air in the coil pipe returns to the heat storage water tank through a coil pipe water outlet main pipe and a first heat storage water tank water return pipe, meanwhile, under the action of an eighth water pump, water heated by air in the regenerative heat exchanger returns to the heat storage water tank through a regenerative heat exchanger water outlet pipe, and water cooled in the heat storage water tank returns to the water-cooled condenser through a heat collector water return main pipe and a water-cooled condenser water return pipe;
the specific process of the independent indirect heat supply method of the biomass boiler in winter comprises the following steps: opening a fourteenth valve, a fifteenth valve, an eighteenth valve, a nineteenth valve, a twentieth valve and a twenty-first valve, and closing a thirteenth valve, a twelfth valve, a thirteenth valve, a twenty-fourth valve and a twenty-fifth valve, wherein the biomass boiler generates high-temperature steam by using biomass energy, the high-temperature steam enters a hot water heat exchanger to heat water in the hot water heat exchanger, the heated water passes through a water outlet pipe of the hot water heat exchanger and a hot water header pipe of a heat collector under the action of a fifth water pump and enters a heat storage water tank, and under the action of a seventh water pump, hot water in the heat storage water tank passes through a water outlet pipe of the first heat storage water tank and the water inlet header pipe of the coil pipe to enter the coil pipe for heating indoor air, and the other path passes through a water inlet pipe of a regenerative heat exchanger and enters the regenerative heat exchanger; then, under the action of a first water pump, water after heating air in the coil pipe returns to the heat storage water tank through a coil pipe water outlet main pipe and a first heat storage water tank water return pipe, meanwhile, under the action of an eighth water pump, water after heating air in the regenerative heat exchanger returns to the heat storage water tank through a regenerative heat exchanger water outlet pipe, and water after cooling in the heat storage water tank returns to the hot water heat exchanger through a heat collector water return main pipe and a hot water heat exchanger water return pipe;
the specific process of the winter solar heat collector and air source heat pump combined indirect heat supply method comprises the following steps: opening a thirteenth valve, a sixteenth valve, a seventeenth valve, an eighteenth valve, a nineteenth valve, a twentieth valve and a twenty-first valve, closing a fourteenth valve, a fifteenth valve, a twenty-second valve, a twenty-third valve, a twenty-fourth valve and a twenty-fifth valve, heating water in the solar heat collector by solar energy, enabling the heated water to enter the heat storage water tank through the heat collector hot water main pipe, simultaneously heating the water in the water-cooled condenser by using air condensation heat, enabling the heated water to enter the heat storage water tank through the water outlet pipe of the water-cooled condenser and the heat collector hot water main pipe under the action of a sixth water pump, enabling the hot water in the heat storage water tank to enter the coil pipe through the water outlet pipe of the first heat storage water tank and the coil pipe inlet main pipe under the action of a seventh water pump, the other path of the air is used for heating indoor air and enters the regenerative heat exchanger through the water inlet pipe of the regenerative heat exchanger; then, under the action of a first water pump, water heated by air in the coil pipe returns to the heat storage water tank through a coil pipe water outlet main pipe and a first heat storage water tank water return pipe, meanwhile, under the action of an eighth water pump, water heated by air in the regenerative heat exchanger returns to the heat storage water tank through a regenerative heat exchanger water outlet pipe, and cooled water in the heat storage water tank returns to the solar heat collector through a heat collector water return main pipe on one path and returns to the water-cooled condenser through the heat collector water return main pipe and a water-cooled condenser water return pipe on the other path;
the specific process of the winter solar heat collector and biomass boiler combined indirect heat supply method comprises the following steps: the thirteenth valve, the fourteenth valve, the fifteenth valve, the eighteenth valve, the nineteenth valve, the twentieth valve and the twenty-first valve are opened, the sixteenth valve, the seventeenth valve, the twenty-second valve, the thirteenth valve, the twenty-fourth valve and the twenty-fifth valve are closed, the solar heat collector heats water in the solar heat collector by solar energy, the heated water enters the heat storage water tank through the heat collector hot water main pipe, meanwhile, the biomass boiler generates high-temperature steam by biomass energy, the high-temperature steam enters the hot water heat exchanger to heat the water in the hot water heat exchanger, the heated water enters the heat storage water tank through the hot water heat exchanger water outlet pipe and the heat collector hot water main pipe under the action of the fifth water pump, and hot water in the heat storage water tank passes through the first heat storage water tank and the coil pipe water inlet main pipe under the action of the seventh water pump, the other path of the air enters the regenerative heat exchanger through a water inlet pipe of the regenerative heat exchanger; then, under the action of a first water pump, water heated by air in the coil pipe returns to the heat storage water tank through a coil pipe water outlet main pipe and a first heat storage water tank water return pipe, meanwhile, under the action of an eighth water pump, water heated by air in the regenerative heat exchanger returns to the heat storage water tank through a regenerative heat exchanger water outlet pipe, and cooled water in the heat storage water tank returns to the solar heat collector through a heat collector water return main pipe on one path and returns to the hot water heat exchanger through the heat collector water return main pipe and a hot water heat exchanger water return pipe on the other path;
the specific process of the winter biomass boiler and air source heat pump combined indirect heat supply method comprises the following steps: opening a fourteenth valve, a fifteenth valve, a sixteenth valve, a seventeenth valve, an eighteenth valve, a nineteenth valve, a twentieth valve and a twenty-first valve, closing a thirteenth valve, a twenty-twelfth valve, a twenty-thirteenth valve, a twenty-fourth valve and a twenty-fifth valve, wherein the biomass boiler utilizes biomass energy to generate high-temperature steam, the high-temperature steam enters a hot water heat exchanger to heat water in the hot water heat exchanger, the heated water passes through a water outlet pipe of the hot water heat exchanger and a hot water header pipe of a heat collector under the action of a fifth water pump and enters a heat storage water tank, meanwhile, the water-cooled condenser utilizes air condensation heat to heat water in the water-cooled condenser, the heated water passes through a water outlet pipe of the water-cooled condenser and the hot water header pipe of the heat collector under the action of a sixth water pump and enters the heat storage water tank under the action of a seventh water pump, one path of hot water in the heat storage water tank passes through a first heat storage water tank water outlet pipe and a coil pipe water inlet header pipe and enters a coil pipe to heat indoor air, and the other path of hot water passes through a regenerative heat exchanger water inlet pipe and enters a regenerative heat exchanger; then, under the action of a first water pump, water after heating air in the coil pipe returns to the heat storage water tank through a coil pipe water outlet main pipe and a first heat storage water tank water return pipe, meanwhile, under the action of an eighth water pump, water after heating air in the regenerative heat exchanger returns to the heat storage water tank through a regenerative heat exchanger water outlet pipe, water after cooling in the heat storage water tank returns to the water-cooled condenser through a heat collector water return main pipe and a hot water heat exchanger water return pipe, and the other path of water passes through a heat collector water return main pipe and a water-cooled condenser water return pipe.
Compared with the prior art, the invention has the following advantages:
1. the system of the invention has reasonable design and convenient realization.
2. The invention dehumidifies the treated air by adopting the rotary wheel dehumidification, uses low-grade renewable energy of solar energy, biomass energy or air energy as a regenerative heat source of the rotary wheel dehumidification, preferentially uses the solar energy for energy utilization, is supplemented by the biomass energy or the air energy when the solar energy is insufficient, and meets the regenerative requirement of the dehumidification rotary wheel, thereby reducing the energy consumption of the whole system.
3. The dehumidification rotary wheel air conditioning system adopts air as a working medium, water is a refrigerant, has the advantages of low electric energy requirement and low carbon, is combined with solar energy, biomass energy and air energy to realize the advantage complementation among energy sources, simultaneously, sensible heat and latent heat are separately processed, the requirements of energy conservation and comfort can be met, the summer cooling and winter heating can be simultaneously carried out on a building, and the efficiency of the dehumidification rotary wheel air conditioning system in winter is improved.
4. The invention takes a dehumidification rotary wheel air conditioning system as a core, and can reasonably coordinate the multi-energy complementation of a regenerative heat source according to local conditions, so that the energy is preferentially utilized in a cascade way, and in areas with rich biomass energy, the biomass energy is preferentially utilized, and solar energy and air energy are taken as auxiliary energy sources to provide hot water required by heating air for a regenerative heat exchanger; in areas with rich solar energy, air energy and biomass energy are preferentially utilized as auxiliary energy sources to provide hot water required by heating air for the regenerative heat exchanger; in areas with abundant biomass energy and abundant solar energy, solar energy and biomass energy are preferentially utilized, air energy is used as auxiliary energy to provide hot water required by heating air for the regenerative heat exchanger, renewable energy is fully utilized, energy is saved, economic cost is greatly reduced, and economic benefit of the system is improved.
5. The invention can be suitable for large commercial buildings and small residential buildings, can serve the environment control areas such as towns, industrial parks, large public facilities (airports, stations, hospitals, schools and the like), residential quarters and the like, realizes the cooperative utilization of solar energy, biomass energy and air energy according to local conditions, realizes the multi-energy complementary and cooperative supply, improves the comprehensive utilization efficiency of energy and realizes the energy saving of buildings. The method is beneficial to promoting the steady advance of the national energy strategy of carbon peak reaching and carbon neutralization, and has huge potential and high popularization and application value.
In conclusion, the system is reasonable in design and convenient to realize, the regeneration energy consumption of the dehumidification rotary wheel air-conditioning system is effectively reduced, the system efficiency is improved, the cooperative utilization of solar energy, biomass energy and air energy can be realized, the multi-energy complementation and cooperative supply are realized, the comprehensive utilization efficiency of energy is improved, and the building energy conservation is realized. The method is beneficial to promoting the steady advance of the national energy strategy of carbon peak reaching and carbon neutralization, and has huge potential and high popularization and application value.
The technical solution of the present invention is further described in detail by the accompanying drawings and embodiments.
Drawings
FIG. 1 is a schematic diagram of the system of the present invention.
Description of reference numerals:
1-a dehumidifying wheel; 1-1-a dehumidification rotary wheel dehumidification area; 1-2-a dehumidification rotary wheel regeneration zone;
2-surface cooler; 3-a regenerative heat exchanger; 4-air-cooled condenser;
5-an air precooler; 5-1-primary air end of air pre-cooler;
5-2-secondary air end of air pre-cooler; 6-a first air inlet; 7-plate heat recovery;
7-1-primary air end of plate type heat recovery device; 7-2-plate type heat recovery device secondary air end;
8-treating the fan; 9-indoor fresh air feeding pipe; 10-outdoor fresh air discharge pipe;
11-a first valve; 12-a second valve; 13-a first exhaust duct;
14-an exhaust fan; 15-a third valve; 16-a second exhaust duct;
17-a second air inlet; 18-a third exhaust duct; 19-a fourth valve;
20-a first outdoor exhaust duct; 21-a second outdoor exhaust duct; 22-a third air inlet;
23-a regenerative fan; 24-indoor regenerated air feeding pipe; 25-outdoor regenerated air discharge pipe;
26-a fifth valve; 27-a sixth valve; 28-coil pipe;
29-coil water inlet main; 30-coil water outlet main pipe; 31-a first water pump;
32-an evaporator; 33-cold water outlet manifold; 34-a second water pump;
35-a first cold water output branch pipe; 36-a second cold water output branch pipe; 37-a seventh valve;
38-eighth valve; 39-cold water return header pipe; 40-a first cold water return branch pipe;
41-second cold water return branch pipe; 42-ninth valve; 43-a third water pump;
44-tenth valve; 45-a compressor; 46-water-cooled condenser;
47-a throttle valve; 48-a first refrigerant conveying pipe; 49-a second refrigerant conveying pipe;
50-an eleventh valve; 51-a twelfth valve; 52-a third refrigerant conveying pipe;
53-solar collector; 54-a heat storage water tank; 55-a biomass boiler;
56-hot water heat exchanger; 57-collector hot water main; 58-collector return water main pipe;
59-a fourth water pump; 60-a thirteenth valve; 61-water outlet pipe of hot water heat exchanger;
62-a fifth water pump; 63-a fourteenth valve; 64-a water return pipe of the hot water heat exchanger;
65-a fifteenth valve; 66-water cooling condenser outlet pipe; 67-sixth water pump;
68-a sixteenth valve; 69-water cooling type condenser return pipe; 70-a seventeenth valve;
71-a first heat storage water tank water outlet pipe; 72-a seventh water pump; 73-an eighteenth valve;
74-a first heat storage water tank return pipe; 75-a nineteenth valve; 76-water outlet pipe of the regenerative heat exchanger;
77-eighth water pump; 78-twentieth valve; 79-a water return pipe of the regenerative heat exchanger;
80-a twenty-first valve; 81-a first connection tube; 82-a twenty-second valve;
83-second connecting pipe; 84-a twenty-third valve; 85-third connecting pipe;
86-twenty-fourth valve; 87-fourth connecting tube; 88-a twenty-fifth valve;
89-a water outlet pipe of the second heat storage water tank; 90-domestic hot water tank; 91-ninth water pump;
92-a twenty-sixth valve; 93-domestic hot water tank return pipe; 94-twenty seventh valve.
Detailed Description
As shown in fig. 1, the multi-energy complementary desiccant rotary air-conditioning system of the present invention comprises a desiccant rotary air-conditioning system and an air-conditioning terminal device disposed indoors, wherein the desiccant rotary air-conditioning system comprises a desiccant rotary wheel 1 and a surface cooler 2, and a regenerative heat exchanger 3 and an air-cooled condenser 4 for providing a regenerative heat source for the desiccant rotary wheel 1; the surface type cooler 2 is connected with a cold water circulating system used for providing a cold source for the surface type cooler 2, the air-cooled condenser 4 is connected with a heat pump circulating system used for converting air energy, the regenerative heat exchanger 3 is connected with a hot water circulating system used for converting solar energy and biomass energy, the hot water circulating system is connected with the heat pump circulating system, and the air conditioner end device is connected with the cold water circulating system and the hot water circulating system.
In this embodiment, the desiccant rotor 1 includes a desiccant rotor dehumidification region 1-1 and a desiccant rotor regeneration region 1-2, an inlet end of the desiccant rotor dehumidification region 1-1 is connected with an air pre-cooler 5, the air pre-cooler 5 includes an air pre-cooler primary air end 5-1 and an air pre-cooler secondary air end 5-2, an air inlet of the air pre-cooler primary air end 5-1 is a first air inlet 6 of the desiccant rotor air conditioning system, a plate heat recovery unit 7 is connected between the desiccant rotor dehumidification region 1-1 and the surface cooler 2, the plate heat recovery unit 7 includes a plate heat recovery unit primary air end 7-1 and a plate heat recovery unit secondary air end 7-2, an air outlet end of the surface cooler 2 is connected with a processing fan 8, and an exhaust port of the processing fan 8 is connected with an indoor fresh air inlet pipe 9 for feeding processed fresh air into a room and an indoor fresh air inlet pipe for feeding processed fresh air into the room and for recycling the processed fresh air into the room An outdoor fresh air discharge pipe 10 for processing fresh air to be discharged outdoors, a first valve 11 is arranged on the indoor fresh air feeding pipe 9, a second valve 12 is arranged on the outdoor fresh air discharge pipe 10, the inlet end of the secondary air end 7-2 of the plate heat recoverer is connected with an exhaust fan 14 through a first exhaust pipe 13, a third valve 15 is arranged on the first exhaust pipe 13, the exhaust fan 14 is communicated with the indoor through a second exhaust pipe 16, the air inlet of the second exhaust pipe 16 positioned indoors is a second air inlet 17 of the desiccant rotary wheel air-conditioning system, the air outlet of the exhaust fan 14 is connected with the secondary air end 5-2 of the air precooler through a third exhaust pipe 18, a fourth valve 19 is arranged on the third exhaust pipe 18, and the outlet end of the secondary air end 7-2 of the plate heat recoverer is connected with a first outdoor exhaust pipe 20, the air-conditioning system is characterized in that the outlet end of the secondary air end 5-2 of the air precooler is connected with a second outdoor exhaust pipe 21, the air inlet end of the regenerative heat exchanger 3 is a third air inlet 22 of the dehumidification rotary wheel air-conditioning system, the air outlet end of the regenerative heat exchanger 3 is connected with the air inlet end of the air-cooled condenser 4, the air outlet end of the air-cooled condenser 4 is connected with the dehumidification rotary wheel regeneration area 1-2, the air outlet end of the dehumidification rotary wheel regeneration area 1-2 is connected with a regenerative fan 23, the exhaust outlet of the regenerative fan 23 is connected with an indoor regenerative air feeding pipe 24 for feeding regenerative air into the room and an outdoor regenerative air exhaust pipe 25 for exhausting the regenerative air to the outside, the indoor regenerative air feeding pipe 24 is provided with a fifth valve 26, and the outdoor regenerative air exhaust pipe 25 is provided with a sixth valve 27.
In specific implementation, the first valve 11, the second valve 12, the third valve 15, the fourth valve 19, the fifth valve 26 and the sixth valve 27 are all stop valves.
In this embodiment, the air conditioner end device is including setting up at indoor coil pipe 28, the water inlet of coil pipe 28 is connected with coil pipe inlet manifold 29, the delivery port of coil pipe 28 is connected with coil pipe outlet manifold 30, be provided with first water pump 31 on the coil pipe outlet manifold 30.
In this embodiment, the cold water circulation system includes an evaporator 32, a cold water output main pipe 33 is connected to a water outlet of the evaporator 32, a second water pump 34 is disposed on the cold water output main pipe 33, the cold water output main pipe 33 is connected to a first cold water output branch pipe 35 and a second cold water output branch pipe 36, the first cold water output branch pipe 35 is connected to a coil water inlet main pipe 29, a seventh valve 37 is disposed on the first cold water output branch pipe 35, the second cold water output branch pipe 36 is connected to a water inlet of the surface cooler 2, an eighth valve 38 is disposed on the second cold water output branch pipe 36, a cold water return main pipe 39 is connected to a water return port of the evaporator 32, the cold water return main pipe 39 is connected to a first cold water return branch pipe 40 and a second cold water return branch pipe 41, the coil water outlet main pipe 30 is connected to the first cold water return branch pipe 40, the first cold water return branch pipe 40 is provided with a ninth valve 42, the water outlet of the surface cooler 2 is connected with a second cold water return branch pipe 41, and the second cold water return branch pipe 41 is provided with a third water pump 43 and a tenth valve 44.
In this embodiment, the heat pump cycle system includes a compressor 45, a water-cooled condenser 46 and a throttle valve 47, the compressor 45 is connected to a refrigerant outlet of the evaporator 32, a first refrigerant delivery pipe 48 and a second refrigerant delivery pipe 49 are connected to a refrigerant outlet of the compressor 45, the first refrigerant delivery pipe 48 is connected to a refrigerant inlet of the water-cooled condenser 46, an eleventh valve 50 is provided to the first refrigerant delivery pipe 48, the second refrigerant delivery pipe 49 is connected to a refrigerant inlet of the air-cooled condenser 4, a twelfth valve 51 is provided to the second refrigerant delivery pipe 49, the refrigerant outlet of the water-cooled condenser 46 is connected to the refrigerant inlet of the air-cooled condenser 4 through a third refrigerant delivery pipe 52, the throttle valve 47 is provided between the refrigerant outlet of the air-cooled condenser 4 and the refrigerant inlet of the evaporator 32.
In specific implementation, the eleventh valve 50 is a regulating valve, and the twelfth valve 51 is a bypass valve.
In this embodiment, the hot water circulation system includes a solar thermal collector 53, a thermal storage tank 54, a biomass boiler 55 and a hot water heat exchanger 56, a water outlet of the solar thermal collector 53 is connected with a water inlet of the thermal storage tank 54 through a thermal collector hot water main 57, a water return port of the solar thermal collector 53 is connected with a first water outlet of the thermal storage tank 54 through a thermal collector return main 58, a fourth water pump 59 and a thirteenth valve 60 are arranged on the thermal collector return main 58, a steam inlet of the hot water heat exchanger 56 is connected with a steam outlet of the biomass boiler 55, a water outlet of the hot water heat exchanger 56 is connected with the thermal storage main 57 through a hot water heat exchanger water outlet pipe 61, a fifth water pump 62 and a thermal collector fourteenth valve 63 are arranged on the hot water heat exchanger water outlet pipe 61, a water return port of the hot water heat exchanger 56 is connected with the thermal collector return main 58 through a hot water heat exchanger water return pipe 64, a fifteenth valve 65 is arranged on the hot water heat exchanger water return pipe 64, the water outlet of the water-cooled condenser 46 is connected with the heat collector hot water main pipe 57 through a water-cooled condenser water outlet pipe 66, a sixth water pump 67 and a sixteenth valve 68 are arranged on the water-cooled condenser water outlet pipe 66, the water return port of the water-cooled condenser 46 is connected with the heat collector water return main pipe 58 through a water-cooled condenser water return pipe 69, a seventeenth valve 70 is arranged on the water-cooled condenser water return pipe 69, the second water outlet of the heat storage water tank 54 is connected with the coil water inlet main pipe 29 through a first heat storage water tank water outlet pipe 71, a seventh water pump 72 and an eighteenth valve 73 are arranged on the first heat storage water tank water outlet pipe 71, the first water return port of the heat storage water tank 54 is connected with the water outlet coil pipe 30 through a first heat storage water tank water return pipe 74, a nineteenth valve 75 is arranged on the first water tank heat storage water return pipe 74, the water outlet of the regenerative heat exchanger 3 is connected with the first heat storage water tank return pipe 74 through a regenerative heat exchanger water outlet pipe 76, the regenerative heat exchanger water outlet pipe 76 is provided with an eighth water pump 77 and a twentieth valve 78, the water inlet of the regenerative heat exchanger 3 is connected with the first heat storage water tank water outlet pipe 71 through a regenerative heat exchanger water inlet pipe 79, the first heat storage water tank water outlet pipe 71 is provided with a twenty-first valve 80, the water-cooled condenser water outlet pipe 66 is connected with the regenerative heat exchanger water inlet pipe 79 through a first connecting pipe 81, the first connecting pipe 81 is provided with a twenty-second valve 82, the regenerative heat exchanger water outlet pipe 76 is connected with the water-cooled condenser return pipe 69 through a second connecting pipe 83, the second connecting pipe 83 is provided with a twentieth valve 84, the hot water heat exchanger water outlet pipe 61 is connected with the first connecting pipe 81 through a third connecting pipe 85, the third connecting pipe 85 is provided with a twenty-fourth valve 86, the second connecting pipe 83 is connected with the hot water heat exchanger water return pipe 64 through a fourth connecting pipe 87, and the fourth connecting pipe 87 is provided with a twenty-fifth valve 88.
In specific implementation, the solar heat collector 53 is a vacuum tube solar heat collector or a focusing heat collector, the heat storage water tank 54 is a solar phase-change heat storage water tank, the phase-change heat storage material of the solar phase-change heat storage water tank is paraffin or hydrated salt, and the biomass boiler 55 is a biomass steam boiler.
In this embodiment, the third water outlet of the heat storage water tank 54 is connected to a domestic hot water tank 90 through a second heat storage water tank outlet pipe 89, the second heat storage water tank outlet pipe 89 is provided with a ninth water pump 91 and a twenty-sixth valve 92, a water return port of the domestic hot water tank 90 is connected to the second water return port of the heat storage water tank 54 through a domestic hot water tank water return pipe 93, and the domestic hot water tank water return pipe 93 is provided with a twenty-seventh valve 94.
In specific implementation, the seventh valve 37, the eighth valve 38, the ninth valve 42, the tenth valve 44, the thirteenth valve 60, the fourteenth valve 63, the fifteenth valve 65, the sixteenth valve 68, the seventeenth valve 70, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 78, the twenty-first valve 80, the twenty-second valve 82, the thirteenth valve 84, the twenty-fourth valve 86, the twenty-fifth valve 88, the twenty-sixth valve 92, and the twenty-seventh valve 94 are gate valves.
During specific implementation, the domestic hot water tank 90 adopts a stainless steel water tank or a glass fiber reinforced plastic water tank, the domestic hot water tank 90 is connected with the heat storage water tank 54, and under the action of the ninth water pump 91, hot water in the heat storage water tank 54 is output to the domestic hot water tank 90 through the second heat storage water tank water outlet pipe 89, so that the domestic hot water tank is used in life of a user.
The invention relates to a using method of a multi-energy complementary dehumidification rotary wheel air-conditioning system, which comprises a summer working condition using method and a winter working condition using method, wherein the summer working condition using method comprises a first summer air processing method for providing low-temperature and low-humidity air for a room, a second summer air processing method for exhausting the room air and utilizing the temperature of the room air, a third summer air processing method for providing a regenerative heat source for a dehumidification rotary wheel and performing regenerative air exhaust, a summer cold water circulation method and a summer hot water circulation method;
the first summer air treatment method comprises the following specific processes: opening a first valve 11, closing a second valve 12, enabling outdoor fresh air to enter a primary air end 5-1 of an air precooler from a first air inlet 6 for precooling treatment, reducing the temperature of the fresh air, enabling the precooled air to enter a dehumidification runner dehumidification area 1-1 for isenthalpic dehumidification treatment, enabling the precooled and dehumidified air to enter a primary air end 7-1 of a plate-type heat recoverer for sensible heat exchange treatment, further carrying out isothermal cooling to a low-temperature low-humidity air supply state point through a surface cooler 2, and sending the treated fresh air of the low-temperature low-humidity air supply state point into a room through a fresh air sending pipe 9 under the action of a treatment fan 8; the surface cooler 2 provides a cold source through the summer cold water circulation method;
when the dehumidification method is specifically implemented, outdoor air is precooled, the temperature difference between the dehumidification rotating wheel dehumidification area 1-1 and the dehumidification rotating wheel regeneration area 1-2 is reduced, and then dehumidification is carried out, so that the dehumidification capability of the dehumidification rotating wheel 1 can be improved, and the energy consumption is saved under the condition of the same dehumidification amount; the air after precooling and dehumidifying exchanges heat with indoor low-temperature exhaust air in the plate-type heat recoverer 7, so that the temperature is reduced, the refrigerating capacity of the surface cooler 2 is reduced, and the energy consumption of the surface cooler 2 is effectively reduced.
The second summer air treatment method comprises the following specific processes: opening a third valve 15 and a fourth valve 19, allowing indoor exhaust air to enter a second exhaust pipe 16 from a second air inlet 17 under the action of an exhaust fan 14, dividing the indoor exhaust air into two paths, allowing one path of indoor exhaust air to enter a secondary air end 7-2 of the plate type heat recoverer through a first exhaust pipe 13 for sensible heat exchange treatment, taking away air heat in a primary air end 7-1 of the plate type heat recoverer, and discharging the air heat out of the room through a first outdoor exhaust pipe 20; the other path of indoor exhaust air enters the secondary air end 5-2 of the air precooler through a third exhaust pipe 18, is used for precooling outdoor fresh air in the primary air end 5-1 of the air precooler, takes away air heat and is exhausted outdoors through a second outdoor exhaust pipe 21;
during specific implementation, indoor exhaust air is divided into two paths, wherein one path enters the plate type heat recoverer 7 and carries out sensible heat exchange with outdoor air in the primary air end 7-1 of the plate type heat recoverer; the other path enters the air precooler 5 to precool outdoor fresh air in the primary air end 5-1 of the air precooler, so that indoor exhaust is effectively utilized, and energy consumption is reduced.
The third summer air treatment method comprises the following specific processes: opening a sixth valve 27, closing a fifth valve 26, allowing outdoor air to enter the regenerative heat exchanger 3 from the third air inlet 22 for iso-humidity heating treatment, allowing the air after iso-humidity heating to enter the air-cooled condenser 4 for further heating to reach the regeneration temperature required by the dehumidification turning wheel regeneration area 1-2, allowing the air to enter the dehumidification turning wheel regeneration area 1-2 for iso-enthalpy dehumidification of the air in the dehumidification turning wheel dehumidification area 1-1, and discharging generated regenerated exhaust air through an outdoor regenerated air discharge pipe 25 under the action of a regeneration fan 23; the regenerative heat exchanger 3 and the air-cooled condenser 4 provide a heat source by the summer hot water circulation method;
in specific implementation, outdoor air is heated by the regenerative heat exchanger 3 and then is used as inlet air of the dehumidification runner regeneration area 1-2 after heat exchange is carried out by the air-cooled condenser 4, the regenerative heat exchanger 3 and the air-cooled condenser 4 can provide heat sources by a summer hot water circulation method, and the summer hot water circulation method can utilize one or more of solar energy, biomass energy and air energy, so that a large amount of electric energy is saved compared with electric heating. Under the condition that the regeneration temperature required by the dehumidification rotating wheel 1 is not changed, the regeneration heater 3 increases the inlet air temperature of the dehumidification rotating wheel regeneration area 1-2 and reduces the heating temperature required by the air-cooled condenser 4, so that the low-grade energy required by the whole air-conditioning system is reduced, and the energy consumption of the air-conditioning system is reduced.
The specific process of the summer cold water circulation method comprises the following steps: the seventh valve 37, the eighth valve 38, the ninth valve 42 and the tenth valve 44 are opened, the cold water in the evaporator 32 after heat exchange with the refrigerant is output through the cold water output main pipe 33, and is divided into two paths after the pressurization of the second water pump 34, wherein one path enters the coil 28 through the first cold water output branch pipe 35 and the coil water inlet main pipe 29, and the other path enters the surface cooler 2 through the second cold water output branch pipe 36; cold water entering the coil pipe 28 is used for carrying out dry condition precooling treatment on indoor air through the coil pipe 28, the heated cold water returns to the evaporator 32 through the coil pipe water outlet main pipe 30 and the first cold water return branch pipe 40 under the action of the first water pump 31, the cold water entering the surface cooler 2 is used for carrying out equal-humidity cooling treatment on the air in the first summer air treatment method, and the heated cold water returns to the evaporator 32 through the second cold water return branch pipe 41 under the action of the third water pump 43;
in specific implementation, the summer cold water circulation method can realize the purpose of simultaneously providing cold water for the dehumidification rotary wheel air-conditioning system and the air-conditioning terminal device, and improves the refrigeration capacity and the refrigeration efficiency of the whole system.
The winter working condition using method comprises a first winter air processing method for processing outdoor fresh air, a second winter air processing method for discharging indoor air and utilizing the temperature of the indoor air, a third winter air processing method for providing high-temperature regeneration air for the indoor air, and a winter hot water circulation method;
during specific implementation, in winter working conditions, the cold water circulation system does not work, and the surface cooler 2 does not act.
The specific process of the first winter air treatment method comprises the following steps: opening a second valve 12, closing a first valve 11, enabling outdoor fresh air to enter a primary air end 5-1 of an air precooler from a first air inlet 6 for preheating treatment, enabling the preheated air to enter a dehumidification rotating wheel dehumidification area 1-1 for isenthalpic dehumidification, enabling the preheated and dehumidified air to enter a primary air end 7-1 of a plate type heat recoverer for sensible heat exchange treatment, and then discharging the treated fresh air to the outdoor through an outdoor fresh air discharge pipe 10 under the action of a treatment fan 8;
during specific implementation, the outdoor air is preheated firstly, the temperature difference between the dehumidification rotating wheel dehumidification area 1-1 and the dehumidification rotating wheel regeneration area 1-2 is reduced, dehumidification is carried out again, the dehumidification capacity of the dehumidification rotating wheel 1 can be improved, and energy consumption is saved under the condition that the dehumidification amount is the same.
The specific process of the second winter season air treatment method comprises the following steps: opening a third valve 15 and a fourth valve 19, allowing indoor exhaust air to enter a second exhaust duct 16 from a second air inlet 17 under the action of an exhaust fan 14, dividing the indoor exhaust air into two paths, allowing one path of indoor exhaust air to enter a secondary air end 7-2 of the plate heat recoverer through a first exhaust duct 13 for sensible heat exchange treatment, and allowing the indoor exhaust air to be exhausted outdoors through a first outdoor exhaust duct 20; the other path of indoor exhaust air enters the secondary air end 5-2 of the air precooler through a third exhaust pipe 18, is used for preheating outdoor fresh air in the primary air end 5-1 of the air precooler and is exhausted outdoors through a second outdoor exhaust pipe 21;
during specific implementation, indoor exhaust air is divided into two paths, wherein one path enters the plate type heat recoverer 7 and carries out sensible heat exchange with outdoor air in the primary air end 7-1 of the plate type heat recoverer; the other path enters the air precooler 5 to preheat outdoor fresh air in the primary air end 5-1 of the air precooler, so that indoor exhaust is effectively utilized, and energy consumption is reduced.
The specific process of the third winter season air treatment method comprises the following steps: opening a fifth valve 26, closing a sixth valve 27, allowing outdoor air to enter the regenerative heat exchanger 3 from the third air inlet 22 for iso-wet heating treatment, allowing the air after iso-wet heating to enter the air-cooled condenser 4 for further heating to reach the regeneration temperature required by the dehumidification turning wheel regeneration area 1-2, allowing the air to enter the dehumidification turning wheel regeneration area 1-2 for iso-enthalpy dehumidification of the air in the dehumidification turning wheel dehumidification area 1-1, and allowing the generated regeneration air to be fed into a room through an indoor regeneration air feeding pipe 24 under the action of a regeneration fan 23; the regenerator 3 and the air-cooled condenser 4 provide a heat source by the winter hot water circulation method.
In specific implementation, outdoor air is heated by the regenerative heat exchanger 3 and then is subjected to heat exchange by the air-cooled condenser 4 to serve as inlet air of the dehumidification runner regeneration area 1-2, the regenerative heat exchanger 3 and the air-cooled condenser 4 can provide heat sources by a winter hot water circulation method, and the winter hot water circulation method can utilize one or more of solar energy, biomass energy and air energy, so that compared with electric heating, a large amount of electric energy is saved. Under the condition that the regeneration temperature required by the dehumidification rotating wheel 1 is not changed, the regeneration heater 3 increases the inlet air temperature of the dehumidification rotating wheel regeneration area 1-2 and reduces the heating temperature required by the air-cooled condenser 4, so that the low-grade energy required by the whole air-conditioning system is reduced, and the energy consumption of the air-conditioning system is reduced.
In this embodiment, the summer hot water circulation method includes a summer solar collector independent indirect heat supply method, a summer air source heat pump independent direct heat supply method, a summer biomass boiler independent indirect heat supply method, a summer biomass boiler independent direct heat supply method, a summer solar collector and air source heat pump combined indirect heat supply method, a summer solar collector and biomass boiler combined indirect heat supply method, a summer biomass boiler and air source heat pump combined indirect heat supply method, and a summer biomass boiler and air source heat pump combined direct heat supply method;
in the specific implementation, the indirect heat supply method is to store hot water in the heat storage water tank 54, and when the indirect heat supply method is used, the hot water is conveyed to the regenerative heat exchanger 3, and the direct heat supply method is to convey the hot water to the regenerative heat exchanger 3 directly.
The specific process of the independent indirect heat supply method of the solar heat collector in summer comprises the following steps: the thirteenth valve 60, the twentieth valve 78 and the twenty-first valve 80 are opened, the fourteenth valve 63, the fifteenth valve 65, the sixteenth valve 68, the seventeenth valve 70, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 82, the twenty-third valve 84, the twenty-fourth valve 86 and the twenty-fifth valve 88 are closed, the solar heat collector 53 heats water in the solar heat collector 53 by using solar energy, the heated water enters the heat storage water tank 54 through the heat collector hot water header pipe 57, the hot water in the hot water storage tank 54 is introduced into the regenerator 3 through the regenerator inlet pipe 79 by the seventh water pump 72, for heating the air, and then, under the action of the eighth water pump 77, the water heated by the air is returned to the hot water storage tank 54 through the water outlet pipe 76 of the regenerator, the cooled water in the heat storage water tank 54 returns to the solar heat collector 53 through the collector return header 58;
the specific process of the independent indirect heat supply method of the air source heat pump in summer comprises the following steps: the sixteenth valve 68, the seventeenth valve 70, the twentieth valve 78 and the twenty-first valve 80 are opened, the thirteenth valve 60, the fourteenth valve 63, the fifteenth valve 65, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 82, the thirteenth valve 84, the twenty-fourth valve 86 and the twenty-fifth valve 88 are closed, the water-cooled condenser 46 heats the water in the water-cooled condenser 46 by using the heat of air condensation, the heated water enters the heat storage water tank 54 through the water-cooled condenser outlet pipe 66 and the heat collector header pipe 57 under the action of the sixth water pump 67, the hot water in the heat storage water tank 54 enters the regenerative heat exchanger 3 through the regenerative heat exchanger inlet pipe 79 for heating the air under the action of the seventh water pump 72, and then the water after heating the air returns to the water tank 54 through the regenerative heat exchanger outlet pipe 76 under the action of the eighth water pump 77, the cooled water in the heat storage water tank 54 passes through the collector return water header pipe 58 and the water-cooled condenser return pipe 69 and returns to the water-cooled condenser 46;
the specific process of the independent direct heat supply method of the air source heat pump in summer comprises the following steps: the twentieth valve 82 and the twentieth valve 84 are opened, the thirteenth valve 60, the fourteenth valve 63, the fifteenth valve 65, the sixteenth valve 68, the seventeenth valve 70, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 78, the twenty-first valve 80, the twenty-fourth valve 86 and the twenty-fifth valve 88 are closed, the water-cooled condenser 46 heats the water in the water-cooled condenser 46 by using the air condensation heat, the heated water enters the regenerative heat exchanger 3 through the first connecting pipe 81 and the regenerative heat exchanger water inlet pipe 79 under the action of the sixth water pump 67 for heating the air, and then the water after heating the air returns to the water-cooled condenser 46 through the regenerative heat exchanger 76 and the second connecting pipe 83 under the action of the eighth water pump 77;
the specific process of the independent indirect heat supply method of the biomass boiler in summer comprises the following steps: the fourteenth valve 63, the fifteenth valve 65, the twentieth valve 78 and the twenty-first valve 80 are opened, the thirteenth valve 60, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 82, the thirteenth valve 84, the twenty-fourth valve 86 and the twenty-fifth valve 88 are closed, the biomass boiler 55 generates high-temperature steam by using biomass energy, the high-temperature steam enters the hot water heat exchanger 56 to heat water in the hot water heat exchanger 56, the heated water passes through the hot water heat exchanger water outlet pipe 61 and the heat collector hot water manifold 57 under the action of the fifth water pump 62 and enters the heat storage water tank 54, under the action of the seventh water pump 72, the hot water in the heat storage water tank 54 enters the regenerative heat exchanger 3 through the regenerative heat exchanger water inlet pipe 79 for heating air, then, under the action of the eighth water pump 77, the water after heating the air returns to the heat storage water tank 54 through the regenerative heat exchanger water outlet pipe 76, the cooled water in the heat storage water tank 54 passes through the collector return header 58 and the hot water heat exchanger return pipe 64 and returns to the hot water heat exchanger 56;
the specific process of the independent direct heat supply method of the biomass boiler in summer comprises the following steps: opening a twenty-fourth valve 86 and a twenty-fifth valve 88, closing a thirteenth valve 60, a fourteenth valve 63, a fifteenth valve 65, a sixteenth valve 68, a seventeenth valve 70, an eighteenth valve 73, a nineteenth valve 75, a twentieth valve 78, a twenty-first valve 80, a twentieth valve 82 and a twentieth valve 84, generating high-temperature steam by using biomass energy by the biomass boiler 55, heating water in the hot water heat exchanger 56 by the high-temperature steam entering the hot water heat exchanger 56, and allowing the heated water to pass through a hot water heat exchanger water outlet pipe 61, a third connecting pipe 85, a first connecting pipe 81 and a regenerative heat exchanger water inlet pipe 79 under the action of a fifth water pump 62, enter the regenerative heat exchanger 3 for heating air, and then, under the action of an eighth water pump 77, allowing the water after heating the air to pass through a regenerative heat exchanger water outlet pipe 76, a second connecting pipe 83, a regenerative heat exchanger water outlet pipe 83, A fourth connection pipe 87 and a hot water heat exchanger return pipe 64 returning to the hot water heat exchanger 56;
the specific process of the summer solar heat collector and air source heat pump combined indirect heat supply method comprises the following steps: the thirteenth valve 60, the sixteenth valve 68, the seventeenth valve 70, the twentieth valve 78 and the twenty-first valve 80 are opened, the fourteenth valve 63, the fifteenth valve 65, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 82, the thirteenth valve 84, the twenty-fourth valve 86 and the twenty-fifth valve 88 are closed, the solar collector 53 heats the water in the solar collector 53 by using solar energy, the heated water enters the heat storage water tank 54 through the collector hot water manifold 57, meanwhile, the water-cooled condenser 46 heats the water in the water-cooled condenser 46 by using air condensation heat, the heated water enters the heat storage water tank 54 through the water-cooled condenser outlet pipe 66 and the collector hot water manifold 57 under the action of the sixth water pump 67, the hot water in the heat storage water tank 54 enters the regenerative heat exchanger 3 through the regenerative heat exchanger inlet pipe 79 under the action of the seventh water pump 72, the water is used for heating air, then, under the action of an eighth water pump 77, the water after heating the air returns to the heat storage water tank 54 through a water outlet pipe 76 of the regenerative heat exchanger, one path of the water after cooling in the heat storage water tank 54 returns to the solar heat collector 53 through a heat collector return water header pipe 58, and the other path of the water returns to the water-cooled condenser 46 through the heat collector return water header pipe 58 and a water-cooled condenser return water pipe 69;
the specific process of the summer solar heat collector and biomass boiler combined indirect heat supply method comprises the following steps: the thirteenth valve 60, the fourteenth valve 63, the fifteenth valve 65, the twentieth valve 78 and the twenty-first valve 80 are opened, the sixteenth valve 68, the seventeenth valve 70, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 82, the thirteenth valve 84, the twenty-fourth valve 86 and the twenty-fifth valve 88 are closed, the solar heat collector 53 heats the water in the solar heat collector 53 by using solar energy, the heated water enters the heat storage water tank 54 through the heat collector hot water header pipe 57, meanwhile, the biomass boiler 55 generates high-temperature steam by using biomass energy, the high-temperature steam enters the hot water heat exchanger 56 to heat the water in the hot water heat exchanger 56, the heated water enters the heat storage water tank 54 through the hot water heat exchanger water outlet pipe 61 and the heat collector hot water header pipe 57 under the action of the fifth water pump 62, and under the action of the seventh water pump 72, hot water in the heat storage water tank 54 enters the regenerative heat exchanger 3 through a regenerative heat exchanger water inlet pipe 79 for heating air, then, under the action of an eighth water pump 77, the water after heating the air returns to the heat storage water tank 54 through a regenerative heat exchanger water outlet pipe 76, one path of the water after cooling in the heat storage water tank 54 returns to the solar heat collector 53 through the heat collector water return header pipe 58, and the other path of the water returns to the hot water heat exchanger 56 through the heat collector water return header pipe 58 and the hot water heat exchanger water return pipe 64;
the specific process of the summer biomass boiler and air source heat pump combined indirect heat supply method comprises the following steps: opening a fourteenth valve 63, a fifteenth valve 65, a sixteenth valve 68, a seventeenth valve 70, a twentieth valve 78 and a twenty-first valve 80, closing a thirteenth valve 60, an eighteenth valve 73, a nineteenth valve 75, a twentieth valve 82, a thirteenth valve 84, a twenty-fourth valve 86 and a twenty-fifth valve 88, generating high-temperature steam by using biomass energy by the biomass boiler 55, enabling the high-temperature steam to enter the hot water heat exchanger 56 to heat water in the hot water heat exchanger 56, enabling the heated water to pass through the hot water heat exchanger water outlet pipe 61 and the heat collector hot water header pipe 57 and enter the heat storage water tank 54 under the action of the fifth water pump 62, enabling the water in the water-cooled condenser 46 to be heated by using air condensation heat, enabling the heated water to pass through the water-cooled condenser water outlet pipe 66 and the heat collector hot water header pipe 57 under the action of the sixth water pump 67, the hot water enters the heat storage water tank 54, under the action of a seventh water pump 72, the hot water in the heat storage water tank 54 enters the regenerative heat exchanger 3 through a regenerative heat exchanger water inlet pipe 79 and is used for heating air, then, under the action of an eighth water pump 77, the water after heating the air returns to the heat storage water tank 54 through a regenerative heat exchanger water outlet pipe 76, one path of the water after cooling in the heat storage water tank 54 passes through a heat collector water return header pipe 58 and a hot water heat exchanger water return pipe 64 and returns to the hot water heat exchanger 56, and the other path of the water returns to the water-cooled condenser 46 through a heat collector water return header pipe 58 and a water-cooled condenser water return pipe 69;
the specific process of the summer biomass boiler and air source heat pump combined direct heat supply method comprises the following steps: the twenty-second valve 82, the twenty-third valve 84, the twenty-fourth valve 86 and the twenty-fifth valve 88 are opened, the thirteenth valve 60, the fourteenth valve 63, the fifteenth valve 65, the sixteenth valve 68, the seventeenth valve 70, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 78 and the twenty-first valve 80 are closed, the biomass boiler 55 generates high-temperature steam by using biomass energy, the high-temperature steam enters the hot water heat exchanger 56 to heat water in the hot water heat exchanger 56, the heated water enters the regenerative heat exchanger 3 through the hot water heat exchanger water outlet pipe 61, the third connecting pipe 85, the first connecting pipe 81 and the regenerative heat exchanger water inlet pipe 79 under the action of the fifth water pump 62, meanwhile, the water in the water-cooled condenser 46 is heated by using air condensation heat, and the heated water is under the action of the sixth water pump 67, the water enters the regenerative heat exchanger 3 through the first connecting pipe 81 and the regenerative heat exchanger water inlet pipe 79 to heat the air, then, under the action of the eighth water pump 77, one path of the water after heating the air passes through the regenerative heat exchanger water outlet pipe 76, the second connecting pipe 83, the fourth connecting pipe 87 and the hot water heat exchanger water return pipe 64 to return to the hot water heat exchanger 56, and the other path of the water passes through the regenerative heat exchanger water outlet pipe 76 and the second connecting pipe 83 to return to the water-cooled condenser 46.
In specific implementation, the summer hot water circulation method can be complementary according to local conditions and multiple energies, reasonably coordinates energy to be preferentially utilized in a gradient manner, preferentially utilizes the biomass energy in areas with rich biomass energy, such as rural areas, and takes the solar energy and the air energy as auxiliary energy to provide hot water required by heating air for the regenerative heat exchanger 3; in the solar-rich area, solar energy, air energy and biomass energy are preferentially utilized as auxiliary energy sources to provide hot water required for heating air for the regenerative heat exchanger 3; in the areas with abundant biomass energy and abundant solar energy, solar energy and biomass energy are preferentially utilized, and air energy is used as auxiliary energy to provide hot water required by heating air for the regenerative heat exchanger 3. Nine different summer hot water circulation methods are provided according to the regional conditions and the climatic conditions, so that multi-energy complementary heat supply can be realized, the dehumidification rotating wheel can be regenerated, the renewable energy sources are fully utilized, the energy sources are saved, the economic cost is greatly reduced, and the economic benefit of the system is improved.
In this embodiment, the winter hot water circulation method includes a winter solar collector independent indirect heating method, a winter air source heat pump independent indirect heating method, a winter biomass boiler independent indirect heating method, a winter solar collector and air source heat pump combined indirect heating method, a winter solar collector and biomass boiler combined indirect heating method, and a winter biomass boiler and air source heat pump combined indirect heating method;
the specific process of the independent indirect heat supply method of the winter solar heat collector comprises the following steps: the thirteenth valve 60, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 78 and the twenty-first valve 80 are opened, the fourteenth valve 63, the fifteenth valve 65, the sixteenth valve 68, the seventeenth valve 70, the twenty-second valve 82, the twenty-third valve 84, the twenty-fourth valve 86 and the twenty-fifth valve 88 are closed, the solar heat collector 53 heats water in the solar heat collector 53 by using solar energy, the heated water enters the heat storage water tank 54 through the heat collector hot water header pipe 57, under the action of the seventh water pump 72, hot water in the heat storage water tank 54 passes through the first heat storage water tank water outlet pipe 71 and the coil water inlet header pipe 29 and enters the coil 28 for heating indoor air, and the other passes through the regenerative heat exchanger water inlet pipe 79 and enters the regenerative heat exchanger 3; then, under the action of the first water pump 31, the water heated by the air in the coil 28 returns to the heat storage water tank 54 through the coil water outlet header pipe 30 and the first heat storage water tank water return pipe 74, meanwhile, under the action of the eighth water pump 77, the water heated by the air in the regenerative heat exchanger 3 returns to the heat storage water tank 54 through the regenerative heat exchanger water outlet pipe 76, and the water cooled in the heat storage water tank 54 returns to the solar heat collector 53 through the collector water return header pipe 58;
the specific process of the winter air source heat pump independent indirect heat supply method comprises the following steps: the sixteenth valve 68, the seventeenth valve 70, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 78 and the twenty-first valve 80 are opened, the thirteenth valve 60, the fourteenth valve 63, the fifteenth valve 65, the twelfth valve 82, the twenty-third valve 84, the twenty-fourth valve 86 and the twenty-fifth valve 88 are closed, the water-cooled condenser 46 heats the water in the water-cooled condenser 46 by using the condensation heat of the air, the heated water enters the heat storage water tank 54 through the water outlet pipe 66 of the water-cooled condenser and the hot water manifold 57 of the heat collector under the action of the sixth water pump 67, under the action of the seventh water pump 72, hot water in the heat storage water tank 54 flows through the first heat storage water tank outlet pipe 71 and the coil water inlet manifold 29, enters the coil 28, the other path of the air is used for heating indoor air and enters the regenerator 3 through a regenerator water inlet pipe 79; then, under the action of the first water pump 31, the water heated by the air in the coil 28 returns to the heat storage water tank 54 through the coil water outlet header pipe 30 and the first heat storage water tank water return pipe 74, meanwhile, under the action of the eighth water pump 77, the water heated by the air in the regenerative heat exchanger 3 returns to the heat storage water tank 54 through the regenerative heat exchanger water outlet pipe 76, and the water cooled in the heat storage water tank 54 returns to the water-cooled condenser 46 through the heat collector water return header pipe 58 and the water-cooled condenser water return pipe 69;
the specific process of the independent indirect heat supply method of the biomass boiler in winter comprises the following steps: the fourteenth valve 63, the fifteenth valve 65, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 78 and the twenty-first valve 80 are opened, the thirteenth valve 60, the twenty-twelfth valve 82, the twenty-thirteenth valve 84, the twenty-fourth valve 86 and the twenty-fifth valve 88 are closed, the biomass boiler 55 generates high-temperature steam by using biomass energy, the high-temperature steam enters the hot water heat exchanger 56, the water in the hot water heat exchanger 56 is heated, the heated water enters the heat storage water tank 54 through the hot water heat exchanger water outlet pipe 61 and the heat collector hot water header pipe 57 under the action of the fifth water pump 62, under the action of the seventh water pump 72, hot water in the heat storage water tank 54 flows through the first heat storage water tank outlet pipe 71 and the coil water inlet manifold 29, enters the coil 28, the other path of the air is used for heating indoor air and enters the regenerator 3 through a regenerator water inlet pipe 79; then, under the action of the first water pump 31, the water heated by the air in the coil 28 returns to the heat storage water tank 54 through the coil water outlet header pipe 30 and the first heat storage water tank water return pipe 74, meanwhile, under the action of the eighth water pump 77, the water heated by the air in the regenerative heat exchanger 3 returns to the heat storage water tank 54 through the regenerative heat exchanger water outlet pipe 76, and the water cooled in the heat storage water tank 54 returns to the hot water heat exchanger 56 through the heat collector water return header pipe 58 and the hot water heat exchanger water return pipe 64;
the specific process of the winter solar heat collector and air source heat pump combined indirect heat supply method comprises the following steps: the thirteenth valve 60, the sixteenth valve 68, the seventeenth valve 70, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 78 and the twenty-first valve 80 are opened, the fourteenth valve 63, the fifteenth valve 65, the twelfth valve 82, the thirteenth valve 84, the twenty-fourth valve 86 and the twenty-fifth valve 88 are closed, the solar collector 53 heats the water in the solar collector 53 by using solar energy, the heated water enters the heat storage water tank 54 through the collector hot water manifold 57, meanwhile, the water-cooled condenser 46 heats the water in the water-cooled condenser 46 by using air condensation heat, the heated water enters the heat storage water tank 54 through the water-cooled condenser outlet pipe 66 and the collector hot water manifold 57 under the action of the sixth water pump 67, hot water in the heat storage water tank 54 passes through the first heat storage water tank outlet pipe 71 and the coil pipe inlet manifold 29 under the action of the seventh water pump 72, enters the coil 28 for heating the indoor air, and the other path enters the regenerator 3 through a regenerator inlet pipe 79; then, under the action of the first water pump 31, the water heated by the air in the coil 28 returns to the heat storage water tank 54 through the coil water outlet header pipe 30 and the first heat storage water tank water return pipe 74, meanwhile, under the action of the eighth water pump 77, the water heated by the air in the regenerative heat exchanger 3 returns to the heat storage water tank 54 through the regenerative heat exchanger water outlet pipe 76, one path of the water cooled in the heat storage water tank 54 returns to the solar heat collector 53 through the heat collector water return header pipe 58, and the other path of the water cooled water returns to the water-cooled condenser 46 through the heat collector water return header pipe 58 and the water-cooled condenser water return pipe 69;
the specific process of the winter solar heat collector and biomass boiler combined indirect heat supply method comprises the following steps: the thirteenth valve 60, the fourteenth valve 63, the fifteenth valve 65, the eighteenth valve 73, the nineteenth valve 75, the twentieth valve 78 and the twenty-first valve 80 are opened, the sixteenth valve 68, the seventeenth valve 70, the twelfth valve 82, the thirteenth valve 84, the twenty-fourth valve 86 and the twenty-fifth valve 88 are closed, the solar heat collector 53 heats the water in the solar heat collector 53 by using solar energy, the heated water enters the heat storage water tank 54 through the heat collector hot water header pipe 57, meanwhile, the biomass boiler 55 generates high-temperature steam by using biomass energy, the high-temperature steam enters the hot water heat exchanger 56 to heat the water in the hot water heat exchanger 56, the heated water enters the heat storage water tank 54 through the hot water heat exchanger water outlet pipe 61 and the heat collector hot water header pipe 57 under the action of the fifth water pump 62, and under the action of the seventh water pump 72, one path of hot water in the heat storage water tank 54 passes through a first heat storage water tank water outlet pipe 71 and a coil pipe water inlet header pipe 29 and enters a coil pipe 28 to heat indoor air, and the other path of hot water passes through a regenerative heat exchanger water inlet pipe 79 and enters a regenerative heat exchanger 3; then, under the action of the first water pump 31, the water heated by the air in the coil 28 returns to the heat storage water tank 54 through the coil water outlet header pipe 30 and the first heat storage water tank water return pipe 74, meanwhile, under the action of the eighth water pump 77, the water heated by the air in the regenerative heat exchanger 3 returns to the heat storage water tank 54 through the regenerative heat exchanger water outlet pipe 76, one path of the water cooled in the heat storage water tank 54 returns to the solar heat collector 53 through the heat collector water return header pipe 58, and the other path of the water returns to the hot water heat exchanger 56 through the heat collector water return header pipe 58 and the hot water heat exchanger water return pipe 64;
the specific process of the winter biomass boiler and air source heat pump combined indirect heat supply method comprises the following steps: opening a fourteenth valve 63, a fifteenth valve 65, a sixteenth valve 68, a seventeenth valve 70, an eighteenth valve 73, a nineteenth valve 75, a twentieth valve 78 and a twenty-first valve 80, closing a thirteenth valve 60, a twelfth valve 82, a thirteenth valve 84, a twenty-fourth valve 86 and a twenty-fifth valve 88, generating high-temperature steam by using biomass energy by the biomass boiler 55, feeding the high-temperature steam into the hot water heat exchanger 56 to heat water in the hot water heat exchanger 56, feeding the heated water into the heat storage water tank 54 through the hot water heat exchanger water outlet pipe 61 and the heat collector hot water header pipe 57 under the action of the fifth water pump 62, heating the water in the water-cooled condenser 46 by using air condensation heat, feeding the heated water through the water-cooled condenser water outlet pipe 66 and the heat collector hot water header pipe 57 under the action of the sixth water pump 67, the hot water enters the heat storage water tank 54, under the action of a seventh water pump 72, one path of the hot water in the heat storage water tank 54 passes through a first heat storage water tank water outlet pipe 71 and a coil pipe water inlet header pipe 29 and enters the coil pipe 28 to heat the indoor air, and the other path of the hot water enters the regenerative heat exchanger 3 through a regenerative heat exchanger water inlet pipe 79; then, under the action of the first water pump 31, the water heated by the air in the coil 28 returns to the heat storage water tank 54 through the coil outlet header pipe 30 and the first heat storage water tank return pipe 74, meanwhile, under the action of the eighth water pump 77, the water heated by the air in the regenerative heat exchanger 3 returns to the heat storage water tank 54 through the regenerative heat exchanger outlet pipe 76, one path of the cooled water in the heat storage water tank 54 passes through the collector return header pipe 58 and the hot water heat exchanger return pipe 64 and returns to the hot water heat exchanger 56, and the other path passes through the collector return header pipe 58 and the water-cooled condenser return pipe 69 and returns to the water-cooled condenser 46.
In specific implementation, the winter hot water circulation method can be complementary according to local conditions and multiple energies, reasonably coordinates energy sources to be preferentially utilized in a gradient manner, preferentially utilizes the biomass energy in areas with rich biomass energy, such as rural areas, and takes solar energy and air energy as auxiliary energy sources to provide hot water required by heating air for the regenerative heat exchanger 3; in the solar-rich area, solar energy, air energy and biomass energy are preferentially utilized as auxiliary energy sources to provide hot water required for heating air for the regenerative heat exchanger 3; in the areas with abundant biomass energy and abundant solar energy, solar energy and biomass energy are preferentially utilized, air energy is used as auxiliary energy to provide hot water required by heating air for the regenerative heat exchanger 3, and meanwhile, a heat source is provided for an air conditioner terminal device. Six different winter hot water circulation methods are provided according to the regional conditions and the climatic conditions, so that multi-energy complementary heat supply can be realized, the dehumidification rotating wheel can be regenerated, the renewable energy sources are fully utilized, the energy sources are saved, the economic cost is greatly reduced, and the economic benefit of the system is improved.
The above description is only a preferred embodiment of the present invention, and is not intended to limit the present invention, and all simple modifications, changes and equivalent structural changes made to the above embodiment according to the technical spirit of the present invention still fall within the protection scope of the technical solution of the present invention.

Claims (10)

1. The utility model provides a complementary dehumidification rotary air conditioning system of multipotency source, includes dehumidification rotary air conditioning system and sets up at indoor air conditioner end device, its characterized in that: the dehumidification rotary wheel air-conditioning system comprises a dehumidification rotary wheel (1), a surface cooler (2), a regenerative heat exchanger (3) and an air-cooled condenser (4), wherein the regenerative heat exchanger provides a regenerative heat source for the dehumidification rotary wheel (1); surface formula cooler (2) are connected with and are used for providing the cold water circulating system of cold source for surface formula cooler (2), air-cooled condenser (4) are connected with and are used for converting the heat pump circulation system of air energy, regenerator (3) are connected with and are used for converting the hot water circulating system of solar energy and biomass energy, hot water circulating system is connected with heat pump circulation system, air conditioner end device all is connected with cold water circulating system and hot water circulating system.
2. The multi-energy complementary desiccant rotary wheel air conditioning system as claimed in claim 1, wherein: the dehumidification rotating wheel (1) comprises a dehumidification rotating wheel dehumidification area (1-1) and a dehumidification rotating wheel regeneration area (1-2), an air precooler (5) is connected at the inlet end of the dehumidification rotating wheel dehumidification area (1-1), the air precooler (5) comprises an air precooler primary air end (5-1) and an air precooler secondary air end (5-2), an air inlet of the air precooler primary air end (5-1) is a first air inlet (6) of the dehumidification rotating wheel air conditioning system, a plate type heat recoverer (7) is connected between the dehumidification rotating wheel dehumidification area (1-1) and the surface type cooler (2), the plate type heat recoverer (7) comprises a plate type heat recoverer primary air end (7-1) and a plate type heat recoverer secondary air end (7-2), and a processing fan (8) is connected at the air outlet end of the surface type cooler (2), the air outlet of the processing fan (8) is connected with an indoor fresh air feeding pipe (9) for feeding processing fresh air into a room and an outdoor fresh air discharging pipe (10) for discharging the processing fresh air to the outside, a first valve (11) is arranged on the indoor fresh air feeding pipe (9), a second valve (12) is arranged on the outdoor fresh air discharging pipe (10), the inlet end of the secondary air end (7-2) of the plate-type heat recoverer is connected with an air discharging fan (14) through a first air discharging pipe (13), a third valve (15) is arranged on the first air discharging pipe (13), the air discharging fan (14) is communicated with the room through a second air discharging pipe (16), the air inlet of the second air discharging pipe (16) positioned in the room is a second air inlet (17) of the dehumidification rotary wheel air conditioning system, the pre-cooling port of the air discharging fan (14) is connected with the secondary air end (5-2) of the air discharging fan through a third air discharging pipe (18), the air conditioner is characterized in that a fourth valve (19) is arranged on the third exhaust pipe (18), the outlet end of a secondary air end (7-2) of the plate-type heat recoverer is connected with a first outdoor exhaust pipe (20), the outlet end of a secondary air end (5-2) of the air precooler is connected with a second outdoor exhaust pipe (21), the air inlet end of the regenerative heat exchanger (3) is a third air inlet (22) of the dehumidification rotary wheel air-conditioning system, the air outlet end of the regenerative heat exchanger (3) is connected with the air inlet end of the air-cooled condenser (4), the air outlet end of the air-cooled condenser (4) is connected with a dehumidification rotary wheel regeneration area (1-2), the air outlet end of the dehumidification rotary wheel regeneration area (1-2) is connected with a regeneration fan (23), and the air outlet of the regeneration fan (23) is connected with an indoor regeneration air feeding pipe (24) for feeding regeneration air into the room and an outdoor regeneration air discharging the regeneration air to the outside The indoor regenerated air feeding pipe (24) is provided with a fifth valve (26), and the outdoor regenerated air discharging pipe (25) is provided with a sixth valve (27).
3. The multi-energy complementary desiccant rotary wheel air conditioning system as claimed in claim 1, wherein: the air conditioner end device is including setting up coil pipe (28) indoor, the water inlet of coil pipe (28) is connected with coil pipe inlet manifold (29), the delivery port of coil pipe (28) is connected with coil pipe outlet manifold (30), be provided with first water pump (31) on coil pipe outlet manifold (30).
4. A multi-energy complementary desiccant rotary wheel air conditioning system as claimed in claim 3, wherein: the cold water circulating system comprises an evaporator (32), a water outlet of the evaporator (32) is connected with a cold water output main pipe (33), a second water pump (34) is arranged on the cold water output main pipe (33), the cold water output main pipe (33) is connected with a first cold water output branch pipe (35) and a second cold water output branch pipe (36), the first cold water output branch pipe (35) is connected with a coil pipe water inlet main pipe (29), a seventh valve (37) is arranged on the first cold water output branch pipe (35), the second cold water output branch pipe (36) is connected with a water inlet of the surface cooler (2), an eighth valve (38) is arranged on the second cold water output branch pipe (36), a cold water return main pipe (39) is connected with a first cold water return branch pipe (40) and a second cold water return branch pipe (41), the coil pipe water outlet main pipe (30) is connected with a first cold water return branch pipe (40), a ninth valve (42) is arranged on the first cold water return branch pipe (40), a water outlet of the surface cooler (2) is connected with a second cold water return branch pipe (41), and a third water pump (43) and a tenth valve (44) are arranged on the second cold water return branch pipe (41).
5. The multi-energy complementary desiccant rotary wheel air conditioning system as claimed in claim 4, wherein: the heat pump circulating system comprises a compressor (45), a water-cooled condenser (46) and a throttle valve (47), wherein the compressor (45) is connected with a refrigerant outlet of an evaporator (32), a refrigerant outlet of the compressor (45) is connected with a first refrigerant conveying pipe (48) and a second refrigerant conveying pipe (49), the first refrigerant conveying pipe (48) is connected with a refrigerant inlet of the water-cooled condenser (46), an eleventh valve (50) is arranged on the first refrigerant conveying pipe (48), the second refrigerant conveying pipe (49) is connected with a refrigerant inlet of the air-cooled condenser (4), a twelfth valve (51) is arranged on the second refrigerant conveying pipe (49), a refrigerant outlet of the water-cooled condenser (46) is connected with a refrigerant inlet of the air-cooled condenser (4) through a third refrigerant conveying pipe (52), the throttle valve (47) is disposed between a refrigerant outlet of the air-cooled condenser (4) and a refrigerant inlet of the evaporator (32).
6. The multi-energy complementary desiccant rotary wheel air conditioning system as claimed in claim 5, wherein: the hot water circulating system comprises a solar heat collector (53), a heat storage water tank (54), a biomass boiler (55) and a hot water heat exchanger (56), wherein a water outlet of the solar heat collector (53) is connected with a water inlet of the heat storage water tank (54) through a heat collector hot water header pipe (57), a water return port of the solar heat collector (53) is connected with a first water outlet of the heat storage water tank (54) through a heat collector water return header pipe (58), a fourth water pump (59) and a thirteenth valve (60) are arranged on the heat collector water return header pipe (58), a steam inlet of the hot water heat exchanger (56) is connected with a steam outlet of the biomass boiler (55), a water outlet of the hot water heat exchanger (56) is connected with the heat collector hot water header pipe (57) through a hot water heat exchanger water outlet pipe (61), a fifth water pump (62) and a fourteenth valve (63) are arranged on the hot water heat exchanger water outlet pipe (61), the water return port of the hot water heat exchanger (56) is connected with a collector water return main pipe (58) through a hot water heat exchanger water return pipe (64), a fifteenth valve (65) is arranged on the hot water heat exchanger water return pipe (64), the water outlet of the water-cooled condenser (46) is connected with a collector water hot main pipe (57) through a water-cooled condenser water outlet pipe (66), a sixth water pump (67) and a sixteenth valve (68) are arranged on the water-cooled condenser water outlet pipe (66), the water return port of the water-cooled condenser (46) is connected with the collector water return main pipe (58) through a water-cooled condenser water return pipe (69), a seventeenth valve (70) is arranged on the water-cooled condenser water return pipe (69), the second water outlet of the heat storage water tank (54) is connected with a coil water inlet main pipe (29) through a first heat storage water tank (71), be provided with seventh water pump (72) and eighteenth valve (73) on first heat storage water tank outlet pipe (71), the first return port of heat storage water tank (54) is connected with coil pipe outlet manifold (30) through first heat storage water tank wet return (74), be provided with nineteenth valve (75) on first heat storage water tank wet return (74), the delivery port of regenerative heat exchanger (3) is connected with first heat storage water tank wet return (74) through regenerative heat exchanger outlet pipe (76), be provided with eighth water pump (77) and twentieth valve (78) on regenerative heat exchanger outlet pipe (76), the water inlet of regenerative heat exchanger (3) is connected with first heat storage water tank outlet pipe (71) through regenerative heat exchanger inlet tube (79), be provided with twenty first valve (80) on first heat storage water tank outlet pipe (71), water-cooled condenser outlet pipe (66) links to each other with regenerative heat exchanger (79) through first inlet tube connecting pipe (81), water-cooled condenser outlet pipe (66) links to each other Connect, be provided with twelfth valve (82) on first connecting pipe (81), regenerator outlet pipe (76) are connected with water-cooled condenser wet return (69) through second connecting pipe (83), be provided with thirteenth valve (84) on second connecting pipe (83), hot water heat exchanger outlet pipe (61) are connected with first connecting pipe (81) through third connecting pipe (85), be provided with twenty-fourth valve (86) on third connecting pipe (85), second connecting pipe (83) are connected with hot water heat exchanger wet return (64) through fourth connecting pipe (87), be provided with twenty-fifth valve (88) on fourth connecting pipe (87).
7. The multi-energy complementary desiccant rotary wheel air conditioning system as claimed in claim 6, wherein: the third water outlet of the heat storage water tank (54) is connected with a domestic hot water tank (90) through a second heat storage water tank outlet pipe (89), a ninth water pump (91) and a twenty-sixth valve (92) are arranged on the second heat storage water tank outlet pipe (89), a water return port of the domestic hot water tank (90) is connected with a second water return port of the heat storage water tank (54) through a domestic hot water tank water return pipe (93), and a twenty-seventh valve (94) is arranged on the domestic hot water tank water return pipe (93).
8. A method of using a multi-energy complementary desiccant rotor air conditioning system, wherein the system of claims 1-7 is used, the method of using includes a summer operating method and a winter operating method, the summer operating method includes a first summer air treatment method for providing low-temperature and low-humidity air for a room, a second summer air treatment method for discharging the room air and using the temperature of the room air, and a third summer air treatment method for providing a regenerative heat source to the desiccant rotor and performing regenerative exhaust, and a summer cold water circulation method and a summer hot water circulation method;
the first summer air treatment method comprises the following specific processes: opening a first valve (11), closing a second valve (12), enabling outdoor fresh air to enter a primary air end (5-1) of an air precooler from a first air inlet (6) for precooling treatment to reduce the temperature of the fresh air, enabling the precooled air to enter a dehumidification rotating wheel dehumidification area (1-1) for isenthalpic dehumidification treatment, enabling the precooled and dehumidified air to enter a primary air end (7-1) of a plate-type heat recoverer for sensible heat exchange treatment, further carrying out iso-humidity cooling to a low-temperature low-humidity air supply state point through a surface cooler (2), and sending the treated fresh air of the low-temperature low-humidity air supply state point into a room through a fresh air sending pipe (9) under the action of a treatment fan (8); the surface cooler (2) provides a cold source through the summer cold water circulation method;
the second summer air treatment method comprises the following specific processes: opening a third valve (15) and a fourth valve (19), allowing indoor exhaust air to enter a second exhaust pipe (16) from a second air inlet (17) under the action of an exhaust fan (14), dividing the indoor exhaust air into two paths, allowing one path of indoor exhaust air to enter a secondary air end (7-2) of the plate type heat recoverer through a first exhaust pipe (13) for sensible heat exchange treatment, taking away air heat in a primary air end (7-1) of the plate type heat recoverer, and exhausting the air heat out of the room through a first outdoor exhaust pipe (20); the other path of indoor exhaust air enters a secondary air end (5-2) of the air precooler through a third exhaust pipe (18) and is used for precooling outdoor fresh air in the primary air end (5-1) of the air precooler, taking away air heat and exhausting the outdoor fresh air out through a second outdoor exhaust pipe (21);
the third summer air treatment method comprises the following specific processes: opening a sixth valve (27), closing a fifth valve (26), enabling outdoor air to enter a regenerative heat exchanger (3) from a third air inlet (22) for equal-humidity heating treatment, enabling the air after equal-humidity heating to enter an air-cooled condenser (4) for further heating to reach the regeneration temperature required by a dehumidification rotating wheel regeneration area (1-2), then entering the dehumidification rotating wheel regeneration area (1-2) for performing equal-enthalpy dehumidification on the air in the dehumidification rotating wheel dehumidification area (1-1), and discharging generated regeneration exhaust air through an outdoor regeneration air discharge pipe (25) under the action of a regeneration fan (23); the regenerative heat exchanger (3) and the air-cooled condenser (4) provide a heat source by the summer hot water circulation method;
the specific process of the summer cold water circulation method comprises the following steps: opening a seventh valve (37), an eighth valve (38), a ninth valve (42) and a tenth valve (44), outputting cold water subjected to heat exchange with a refrigerant in the evaporator (32) through a cold water output main pipe (33), dividing the cold water into two paths after the pressure action of a second water pump (34), wherein one path enters the coil (28) through a first cold water output branch pipe (35) and a coil water inlet main pipe (29), and the other path enters the surface cooler (2) through a second cold water output branch pipe (36); cold water entering the coil pipe (28) carries out dry working condition precooling treatment on indoor air through the coil pipe (28), the heated cold water returns to the evaporator (32) through the coil pipe water outlet main pipe (30) and the first cold water return branch pipe (40) under the action of the first water pump (31), the cold water entering the surface cooler (2) carries out equal-humidity cooling treatment on the air in the first summer air treatment method, and the heated cold water returns to the evaporator (32) through the second cold water return branch pipe (41) under the action of the third water pump (43);
the winter working condition using method comprises a first winter air processing method for processing outdoor fresh air, a second winter air processing method for discharging indoor air and utilizing the temperature of the indoor air, a third winter air processing method for providing high-temperature regeneration air for the indoor air, and a winter hot water circulation method;
the specific process of the first winter air treatment method comprises the following steps: opening a second valve (12), closing a first valve (11), enabling outdoor fresh air to enter a primary air end (5-1) of an air precooler from a first air inlet (6) for preheating treatment, enabling the preheated air to enter a dehumidification rotating wheel dehumidification area (1-1) for isenthalpic dehumidification, enabling the preheated and dehumidified air to enter a primary air end (7-1) of a plate type heat recoverer for sensible heat exchange treatment, and then discharging the treated fresh air to the outdoor through an outdoor fresh air discharge pipe (10) under the action of a treatment fan (8);
the specific process of the second winter season air treatment method comprises the following steps: opening a third valve (15) and a fourth valve (19), allowing indoor exhaust air to enter a second exhaust pipe (16) from a second air inlet (17) under the action of an exhaust fan (14), dividing the indoor exhaust air into two paths, allowing one path of indoor exhaust air to enter a secondary air end (7-2) of the plate type heat recoverer through a first exhaust pipe (13) for sensible heat exchange treatment, and exhausting the indoor exhaust air out of a room through a first outdoor exhaust pipe (20); the other path of indoor exhaust air enters the secondary air end (5-2) of the air precooler through a third exhaust pipe (18) and is used for preheating outdoor fresh air in the primary air end (5-1) of the air precooler and exhausting the outdoor fresh air out of the room through a second outdoor exhaust pipe (21);
the specific process of the third winter season air treatment method comprises the following steps: opening a fifth valve (26), closing a sixth valve (27), enabling outdoor air to enter a regenerative heat exchanger (3) from a third air inlet (22) for equal-humidity heating treatment, enabling the air after equal-humidity heating to enter an air-cooled condenser (4) for further heating to reach the regeneration temperature required by a dehumidification rotating wheel regeneration area (1-2), then entering the dehumidification rotating wheel regeneration area (1-2) for performing equal-enthalpy dehumidification on the air in the dehumidification rotating wheel dehumidification area (1-1), and enabling generated regeneration air to be sent into a room through an indoor regeneration air sending pipe (24) under the action of a regeneration fan (23); the regenerative heat exchanger (3) and the air-cooled condenser (4) provide a heat source by the winter hot water circulation method.
9. The method of using a multi-energy complementary desiccant rotor air conditioning system as claimed in claim 8, wherein: the summer hot water circulation method comprises a summer solar heat collector independent indirect heat supply method, a summer air source heat pump independent direct heat supply method, a summer biomass boiler independent indirect heat supply method, a summer biomass boiler independent direct heat supply method, a summer solar heat collector and air source heat pump combined indirect heat supply method, a summer solar heat collector and biomass boiler combined indirect heat supply method, a summer biomass boiler and air source heat pump combined indirect heat supply method and a summer biomass boiler and air source heat pump combined direct heat supply method;
the specific process of the independent indirect heat supply method of the solar heat collector in summer comprises the following steps: opening a thirteenth valve (60), a twentieth valve (78) and a twenty-first valve (80), closing a fourteenth valve (63), a fifteenth valve (65), a sixteenth valve (68), a seventeenth valve (70), an eighteenth valve (73), a nineteenth valve (75), a twenty-second valve (82), a thirteenth valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88), heating water in the solar heat collector (53) by solar energy, enabling the heated water to enter a heat storage water tank (54) through a heat collector hot water main pipe (57), enabling hot water in the heat storage water tank (54) to enter a regenerative heat exchanger (3) through a regenerative heat exchanger water inlet pipe (79) under the action of a seventh water pump (72) for heating air, and enabling the hot water to enter a regenerative heat exchanger (3) through an eighth water pump (77), the water after heating the air returns to the heat storage water tank (54) through a water outlet pipe (76) of the regenerative heat exchanger, and the water after cooling in the heat storage water tank (54) returns to the solar heat collector (53) through a collector return header pipe (58);
the specific process of the independent indirect heat supply method of the air source heat pump in summer comprises the following steps: a sixteenth valve (68), a seventeenth valve (70), a twentieth valve (78) and a twenty-first valve (80) are opened, a thirteenth valve (60), a fourteenth valve (63), a fifteenth valve (65), an eighteenth valve (73), a nineteenth valve (75), a twenty-second valve (82), a thirteenth valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88) are closed, the water in the water-cooled condenser (46) is heated by utilizing the air condensation heat, the heated water enters the heat storage water tank (54) through a water outlet pipe (66) of the water-cooled condenser and a hot water header pipe (57) of the heat collector under the action of a sixth water pump (67), and the hot water in the heat storage water tank (54) enters the regenerative heat exchanger (3) through a water inlet pipe (79) of the regenerative heat exchanger under the action of a seventh water pump (72), the water-cooled heat storage water tank is used for heating air, then, under the action of an eighth water pump (77), water after the air is heated returns to the heat storage water tank (54) through a water outlet pipe (76) of the regenerative heat exchanger, and water after the temperature of the heat storage water tank (54) is cooled returns to the water-cooled condenser (46) through a heat collector return water main pipe (58) and a water-cooled condenser return water pipe (69);
the specific process of the independent direct heat supply method of the air source heat pump in summer comprises the following steps: opening a twenty-second valve (82) and a twenty-third valve (84), closing a thirteenth valve (60), a fourteenth valve (63), a fifteenth valve (65), a sixteenth valve (68), a seventeenth valve (70), an eighteenth valve (73), a nineteenth valve (75), a twentieth valve (78), a twenty-first valve (80), a twenty-fourth valve (86) and a twenty-fifth valve (88), heating water in the water-cooled condenser (46) by using air condensation heat, entering the heated water into the regenerative heat exchanger (3) through a first connecting pipe (81) and a regenerative heat exchanger water inlet pipe (79) under the action of a sixth water pump (67) for heating air, and then passing the water after heating the air through a regenerative heat exchanger water outlet pipe (76) and a second connecting pipe (83) under the action of an eighth water pump (77), returning to the water-cooled condenser (46);
the specific process of the independent indirect heat supply method of the biomass boiler in summer comprises the following steps: opening a fourteenth valve (63), a fifteenth valve (65), a twentieth valve (78) and a twenty-first valve (80), closing a thirteenth valve (60), an eighteenth valve (73), a nineteenth valve (75), a twenty-second valve (82), a twenty-third valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88), generating high-temperature steam by biomass energy by the biomass boiler (55), enabling the high-temperature steam to enter a hot water heat exchanger (56) to heat water in the hot water heat exchanger (56), enabling the heated water to enter a heat storage water tank (54) through a hot water heat exchanger water outlet pipe (61) and a heat collector hot water header pipe (57) under the action of a fifth water pump (62), enabling the hot water in the heat storage water tank (54) to enter a regenerative heat exchanger (3) through a regenerative heat exchanger water inlet pipe (79) under the action of a seventh water pump (72), the water-cooled heat exchanger is used for heating air, then, under the action of an eighth water pump (77), the water after heating the air returns to the heat storage water tank (54) through a water outlet pipe (76) of the regenerative heat exchanger, and the water after cooling in the heat storage water tank (54) returns to the hot water heat exchanger (56) through a heat collector return water main pipe (58) and a hot water heat exchanger return water pipe (64);
the specific process of the independent direct heat supply method of the biomass boiler in summer comprises the following steps: opening a twenty-fourth valve (86) and a twenty-fifth valve (88), closing a thirteenth valve (60), a fourteenth valve (63), a fifteenth valve (65), a sixteenth valve (68), a seventeenth valve (70), an eighteenth valve (73), a nineteenth valve (75), a twentieth valve (78), a twenty-first valve (80), a twenty-twelfth valve (82) and a twenty-thirteenth valve (84), wherein the biomass boiler (55) generates high-temperature steam by using biomass energy, the high-temperature steam enters the hot water heat exchanger (56) to heat water in the hot water heat exchanger (56), and the heated water enters the regenerative heat exchanger (3) through the hot water heat exchanger water outlet pipe (61), the third connecting pipe (85), the first connecting pipe (81) and the regenerative heat exchanger water inlet pipe (79) under the action of a fifth water pump (62) for heating air, then, under the action of an eighth water pump (77), the water heated by the air returns to the hot water heat exchanger (56) through a water outlet pipe (76) of the regenerative heat exchanger, a second connecting pipe (83), a fourth connecting pipe (87) and a water return pipe (64) of the hot water heat exchanger;
the specific process of the summer solar heat collector and air source heat pump combined indirect heat supply method comprises the following steps: opening a thirteenth valve (60), a sixteenth valve (68), a seventeenth valve (70), a twentieth valve (78) and a twenty-first valve (80), closing a fourteenth valve (63), a fifteenth valve (65), an eighteenth valve (73), a nineteenth valve (75), a twenty-second valve (82), a thirteenth valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88), heating the water in the solar heat collector (53) by solar energy, feeding the heated water into a heat storage water tank (54) through a heat collector hot water header pipe (57), simultaneously heating the water in the water-cooled condenser (46) by air condensation heat, and feeding the heated water through a water cooling condenser water outlet pipe (66) and the heat collector hot water header pipe (57) under the action of a sixth water pump (67), the hot water in the heat storage water tank (54) enters the regenerative heat exchanger (3) through a regenerative heat exchanger water inlet pipe (79) under the action of a seventh water pump (72) for heating air, then, under the action of an eighth water pump (77), the water after heating the air returns to the heat storage water tank (54) through a regenerative heat exchanger water outlet pipe (76), one path of the water after cooling in the heat storage water tank (54) returns to the solar heat collector (53) through a heat collector water return header pipe (58), and the other path of the water after cooling returns to the water-cooled condenser (46) through the heat collector water return header pipe (58) and a water-cooled condenser water return pipe (69);
the specific process of the summer solar heat collector and biomass boiler combined indirect heat supply method comprises the following steps: opening a thirteenth valve (60), a fourteenth valve (63), a fifteenth valve (65), a twentieth valve (78) and a twenty-first valve (80), closing a sixteenth valve (68), a seventeenth valve (70), an eighteenth valve (73), a nineteenth valve (75), a twenty-second valve (82), a thirteenth valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88), heating water in the solar heat collector (53) by solar energy, enabling the heated water to enter a heat storage water tank (54) through a heat collector hot water main pipe (57), simultaneously enabling the biomass boiler (55) to generate high-temperature steam by biomass energy, enabling the high-temperature steam to enter a hot water heat exchanger (56), heating the water in the hot water heat exchanger (56), and enabling the heated water to be under the action of a fifth water pump (62), the hot water enters a heat storage water tank (54) through a hot water outlet pipe (61) of the hot water heat exchanger and a hot water main pipe (57) of the heat collector, under the action of a seventh water pump (72), the hot water in the heat storage water tank (54) enters a regenerative heat exchanger (3) through a regenerative heat exchanger water inlet pipe (79) and is used for heating air, then, under the action of an eighth water pump (77), the water after heating the air returns to the heat storage water tank (54) through a regenerative heat exchanger water outlet pipe (76), one path of the cooled water in the heat storage water tank (54) returns to the solar heat collector (53) through a heat collector water return main pipe (58), and the other path of the cooled water returns to the hot water heat exchanger (56) through the heat collector water return main pipe (58) and a hot water heat exchanger water return pipe (64);
the specific process of the summer biomass boiler and air source heat pump combined indirect heat supply method comprises the following steps: opening a fourteenth valve (63), a fifteenth valve (65), a sixteenth valve (68), a seventeenth valve (70), a twentieth valve (78) and a twenty-first valve (80), closing a thirteenth valve (60), an eighteenth valve (73), a nineteenth valve (75), a twenty-second valve (82), a thirteenth valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88), wherein the biomass boiler (55) generates high-temperature steam by using biomass energy, the high-temperature steam enters the hot water heat exchanger (56) to heat water in the hot water heat exchanger (56), the heated water enters the heat storage water tank (54) through the hot water heat exchanger water outlet pipe (61) and the heat collector hot water main pipe (57) under the action of a fifth water pump (62), and meanwhile, the water in the water-cooled condenser (46) is heated by using air condensation heat, the heated water enters a heat storage water tank (54) through a water-cooled condenser water outlet pipe (66) and a heat collector hot water main pipe (57) under the action of a sixth water pump (67), the hot water in the heat storage water tank (54) enters a regenerative heat exchanger (3) through a regenerative heat exchanger water inlet pipe (79) for heating air under the action of a seventh water pump (72), then, the water heated with the air returns to the heat storage water tank (54) through a regenerative heat exchanger water outlet pipe (76) under the action of an eighth water pump (77), one path of the water cooled in the heat storage water tank (54) passes through a heat collector water return main pipe (58) and a hot water heat exchanger water return pipe (64) and returns to the hot water heat exchanger (56), and the other path of the water passes through the heat collector water return main pipe (58) and a water-cooled condenser water return pipe (69) and returns to the water-cooled condenser (46);
the specific process of the summer biomass boiler and air source heat pump combined direct heat supply method comprises the following steps: opening a twenty-second valve (82), a twenty-third valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88), closing a thirteenth valve (60), a fourteenth valve (63), a fifteenth valve (65), a sixteenth valve (68), a seventeenth valve (70), an eighteenth valve (73), a nineteenth valve (75), a twentieth valve (78) and a twenty-first valve (80), wherein the biomass boiler (55) generates high-temperature steam by using biomass energy, the high-temperature steam enters the hot water heat exchanger (56) to heat water in the hot water heat exchanger (56), and the heated water enters the regenerative heat exchanger (3) through the hot water heat exchanger water outlet pipe (61), the third connecting pipe (85), the first connecting pipe (81) and the regenerative heat exchanger water inlet pipe (79) under the action of a fifth water pump (62), and simultaneously, the water-cooled condenser (46) utilizes the air condensation heat to heat the water in the water-cooled condenser (46), the water after heating is under the effect of sixth water pump (67), through first connecting pipe (81) and regenerator inlet tube (79), get into regenerator (3), heat the air, then, under eighth water pump (77) effect, the water after the heated air, pass through regenerator outlet pipe (76) all the way, second connecting pipe (83), fourth connecting pipe (87) and hot water heat exchanger wet return (64), return in the hot water heat exchanger (56), another way passes through regenerator outlet pipe (76) and second connecting pipe (83), return in the water-cooled condenser (46).
10. The method of using a multi-energy complementary desiccant rotor air conditioning system as claimed in claim 8, wherein: the winter hot water circulation method comprises a winter solar heat collector independent indirect heat supply method, a winter air source heat pump independent indirect heat supply method, a winter biomass boiler independent indirect heat supply method, a winter solar heat collector and air source heat pump combined indirect heat supply method, a winter solar heat collector and biomass boiler combined indirect heat supply method and a winter biomass boiler and air source heat pump combined indirect heat supply method;
the specific process of the independent indirect heat supply method of the winter solar heat collector comprises the following steps: opening a thirteenth valve (60), an eighteenth valve (73), a nineteenth valve (75), a twentieth valve (78) and a twenty-first valve (80), closing a fourteenth valve (63), a fifteenth valve (65), a sixteenth valve (68), a seventeenth valve (70), a twenty-second valve (82), a twenty-third valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88), the solar heat collector (53) heats water in the solar heat collector (53) by utilizing solar energy, the heated water enters the heat storage water tank (54) through the heat collector hot water main pipe (57), under the action of a seventh water pump (72), one path of hot water in the heat storage water tank (54) passes through a first heat storage water tank water outlet pipe (71) and a coil pipe water inlet header pipe (29) and enters a coil pipe (28), the other path of the air is used for heating indoor air and enters the regenerative heat exchanger (3) through a regenerative heat exchanger water inlet pipe (79); then, under the action of a first water pump (31), water heated by air in the coil (28) returns to the heat storage water tank (54) through a coil water outlet header pipe (30) and a first heat storage water tank water return pipe (74), meanwhile, under the action of an eighth water pump (77), water heated by air in the regenerative heat exchanger (3) returns to the heat storage water tank (54) through a regenerative heat exchanger water outlet pipe (76), and water cooled in the heat storage water tank (54) returns to the solar heat collector (53) through a collector water return header pipe (58);
the specific process of the winter air source heat pump independent indirect heat supply method comprises the following steps: opening a sixteenth valve (68), a seventeenth valve (70), an eighteenth valve (73), a nineteenth valve (75), a twentieth valve (78) and a twenty-first valve (80), closing a thirteenth valve (60), a fourteenth valve (63), a fifteenth valve (65), a twenty-second valve (82), a thirteenth valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88), heating water in the water-cooled condenser (46) by using air condensation heat, leading the heated water to enter the heat storage water tank (54) through a water outlet pipe (66) of the water-cooled condenser and a hot water header pipe (57) of the heat collector under the action of a sixth water pump (67), leading hot water in the heat storage water tank (54) to pass through a water outlet pipe (71) of the first water tank and a water inlet header pipe (29) of the coil pipe under the action of a seventh water pump (72), the air enters a coil pipe (28) for heating indoor air, and the other path of air enters a regenerative heat exchanger (3) through a regenerative heat exchanger water inlet pipe (79); then, under the action of a first water pump (31), water heated by air in the coil (28) returns to the heat storage water tank (54) through a coil water outlet header pipe (30) and a first heat storage water tank water return pipe (74), meanwhile, under the action of an eighth water pump (77), water heated by air in the regenerative heat exchanger (3) returns to the heat storage water tank (54) through a regenerative heat exchanger water outlet pipe (76), and water cooled in the heat storage water tank (54) returns to the water-cooled condenser (46) through a heat collector water return header pipe (58) and a water-cooled condenser water return pipe (69);
the specific process of the independent indirect heat supply method of the biomass boiler in winter comprises the following steps: opening a fourteenth valve (63), a fifteenth valve (65), an eighteenth valve (73), a nineteenth valve (75), a twentieth valve (78) and a twenty-first valve (80), closing a thirteenth valve (60), a twenty-second valve (82), a twenty-third valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88), wherein the biomass boiler (55) generates high-temperature steam by using biomass energy, the high-temperature steam enters the hot water heat exchanger (56) to heat water in the hot water heat exchanger (56), the heated water passes through a hot water heat exchanger water outlet pipe (61) and a heat collector hot water header pipe (57) under the action of a fifth water pump (62) and enters the heat storage water tank (54), and hot water in the heat storage water tank (54) passes through a first water tank water outlet pipe (71) and a heat storage coil water inlet header pipe (29) under the action of a seventh water pump (72), the air enters a coil pipe (28) for heating indoor air, and the other path of air enters a regenerative heat exchanger (3) through a regenerative heat exchanger water inlet pipe (79); then, under the action of a first water pump (31), water heated by air in the coil (28) returns to the heat storage water tank (54) through a coil water outlet header pipe (30) and a first heat storage water tank water return pipe (74), meanwhile, under the action of an eighth water pump (77), water heated by air in the regenerative heat exchanger (3) returns to the heat storage water tank (54) through a regenerative heat exchanger water outlet pipe (76), and water cooled in the heat storage water tank (54) returns to the hot water heat exchanger (56) through a heat collector water return header pipe (58) and a hot water heat exchanger water return pipe (64);
the specific process of the winter solar heat collector and air source heat pump combined indirect heat supply method comprises the following steps: opening a thirteenth valve (60), a sixteenth valve (68), a seventeenth valve (70), an eighteenth valve (73), a nineteenth valve (75), a twentieth valve (78) and a twenty-first valve (80), closing a fourteenth valve (63), a fifteenth valve (65), a twenty-second valve (82), a thirteenth valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88), heating water in the solar heat collector (53) by solar energy, enabling the heated water to enter a heat storage water tank (54) through a heat collector hot water main pipe (57), simultaneously heating water in a water-cooled condenser (46) by air condensation heat, enabling the heated water to pass through a water cooling condenser water outlet pipe (66) and the heat collector hot water main pipe (57) under the action of a sixth water pump (67), the hot water enters the heat storage water tank (54), under the action of a seventh water pump (72), one path of the hot water in the heat storage water tank (54) passes through a first heat storage water tank water outlet pipe (71) and a coil pipe water inlet header pipe (29) and enters a coil pipe (28) for heating indoor air, and the other path of the hot water enters a regenerative heat exchanger (3) through a regenerative heat exchanger water inlet pipe (79); then, under the action of a first water pump (31), water heated by air in the coil (28) returns to the heat storage water tank (54) through a coil water outlet header pipe (30) and a first heat storage water tank water return pipe (74), meanwhile, under the action of an eighth water pump (77), water heated by air in the regenerative heat exchanger (3) returns to the heat storage water tank (54) through a regenerative heat exchanger water outlet pipe (76), one path of the water cooled in the heat storage water tank (54) returns to the solar heat collector (53) through a heat collector water return header pipe (58), and the other path of the water cooled in the heat storage water tank (54) returns to the water-cooled condenser (46) through the heat collector water return header pipe (58) and a water-cooled condenser water return pipe (69);
the specific process of the winter solar heat collector and biomass boiler combined indirect heat supply method comprises the following steps: opening a thirteenth valve (60), a fourteenth valve (63), a fifteenth valve (65), an eighteenth valve (73), a nineteenth valve (75), a twentieth valve (78) and a twenty-first valve (80), closing a sixteenth valve (68), a seventeenth valve (70), a twenty-second valve (82), a thirteenth valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88), heating water in the solar heat collector (53) by solar energy, enabling the heated water to enter a heat storage water tank (54) through a heat collector hot water main pipe (57), simultaneously enabling the biomass boiler (55) to generate high-temperature steam by biomass energy, enabling the high-temperature steam to enter a hot water heat exchanger (56), heating the water in the hot water heat exchanger (56), and enabling the heated water to be under the action of a fifth water pump (62), the hot water in the heat storage water tank (54) flows through a water outlet pipe (61) of the hot water heat exchanger and a hot water header pipe (57) of the heat collector and enters the heat storage water tank (54), one path of the hot water in the heat storage water tank (54) flows through a water outlet pipe (71) of the first heat storage water tank and a coil pipe water inlet header pipe (29) and enters a coil pipe (28) to heat indoor air, and the other path of the hot water flows through a water inlet pipe (79) of the regenerative heat exchanger and enters the regenerative heat exchanger (3); then, under the action of a first water pump (31), water heated by air in the coil (28) returns to the heat storage water tank (54) through a coil water outlet header pipe (30) and a first heat storage water tank water return pipe (74), meanwhile, under the action of an eighth water pump (77), water heated by air in the regenerative heat exchanger (3) returns to the heat storage water tank (54) through a regenerative heat exchanger water outlet pipe (76), one path of the water cooled in the heat storage water tank (54) returns to the solar heat collector (53) through a heat collector water return header pipe (58), and the other path of the water returns to the hot water heat exchanger (56) through the heat collector water return header pipe (58) and a hot water heat exchanger water return pipe (64);
the specific process of the winter biomass boiler and air source heat pump combined indirect heat supply method comprises the following steps: opening a fourteenth valve (63), a fifteenth valve (65), a sixteenth valve (68), a seventeenth valve (70), an eighteenth valve (73), a nineteenth valve (75), a twentieth valve (78) and a twenty-first valve (80), closing a thirteenth valve (60), a twenty-second valve (82), a thirteenth valve (84), a twenty-fourth valve (86) and a twenty-fifth valve (88), wherein the biomass boiler (55) generates high-temperature steam by using biomass energy, the high-temperature steam enters the hot water heat exchanger (56) to heat water in the hot water heat exchanger (56), the heated water enters the heat storage water tank (54) through a hot water heat exchanger water outlet pipe (61) and a heat collector hot water main pipe (57) under the action of a fifth water pump (62), and meanwhile, the water in the water-cooled condenser (46) is heated by using air condensation heat, the heated water enters the heat storage water tank (54) through a water-cooled condenser water outlet pipe (66) and a heat collector hot water main pipe (57) under the action of a sixth water pump (67), one path of hot water in the heat storage water tank (54) passes through a first heat storage water tank water outlet pipe (71) and a coil pipe water inlet main pipe (29) and enters a coil pipe (28) for heating indoor air, and the other path of hot water enters a regenerative heat exchanger (3) through a regenerative heat exchanger water inlet pipe (79); then, under the action of a first water pump (31), water heated by air in the coil (28) returns to the heat storage water tank (54) through a coil water outlet header pipe (30) and a first heat storage water tank water return pipe (74), meanwhile, under the action of an eighth water pump (77), water heated by air in the regenerative heat exchanger (3) returns to the heat storage water tank (54) through a regenerative heat exchanger water outlet pipe (76), and water cooled in the heat storage water tank (54) returns to the hot water heat exchanger (56) through a heat collector water return header pipe (58) and a hot water heat exchanger water return pipe (64), and the other water returns to the water-cooled condenser (46) through a heat collector water return header pipe (58) and a water-cooled condenser water return pipe (69).
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