WO2017008591A1 - 一种智能除湿无叶风扇 - Google Patents

一种智能除湿无叶风扇 Download PDF

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Publication number
WO2017008591A1
WO2017008591A1 PCT/CN2016/084453 CN2016084453W WO2017008591A1 WO 2017008591 A1 WO2017008591 A1 WO 2017008591A1 CN 2016084453 W CN2016084453 W CN 2016084453W WO 2017008591 A1 WO2017008591 A1 WO 2017008591A1
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WIPO (PCT)
Prior art keywords
sump
radiator
dehumidification
air
evaporator
Prior art date
Application number
PCT/CN2016/084453
Other languages
English (en)
French (fr)
Inventor
王东旭
Original Assignee
王东旭
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Publication date
Application filed by 王东旭 filed Critical 王东旭
Priority to CN201680023689.7A priority Critical patent/CN107517591A/zh
Publication of WO2017008591A1 publication Critical patent/WO2017008591A1/zh

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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
    • F24F5/00—Air-conditioning systems or apparatus not covered by F24F1/00 or F24F3/00, e.g. using solar heat or combined with household units such as an oven or water heater
    • A—HUMAN NECESSITIES
    • A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
    • A61L—METHODS OR APPARATUS FOR STERILISING MATERIALS OR OBJECTS IN GENERAL; DISINFECTION, STERILISATION OR DEODORISATION OF AIR; CHEMICAL ASPECTS OF BANDAGES, DRESSINGS, ABSORBENT PADS OR SURGICAL ARTICLES; MATERIALS FOR BANDAGES, DRESSINGS, ABSORBENT PADS OR SURGICAL ARTICLES
    • A61L9/00—Disinfection, sterilisation or deodorisation of air
    • A61L9/16—Disinfection, sterilisation or deodorisation of air using physical phenomena
    • A61L9/18—Radiation
    • A61L9/20—Ultra-violet radiation
    • 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
    • F24F11/30—Control or safety arrangements for purposes related to the operation of the system, e.g. for safety or monitoring
    • 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
    • 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
    • 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
    • F24F3/1405—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 in which the humidity of the air is exclusively affected by contact with the evaporator of a closed-circuit cooling system or heat pump circuit
    • 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
    • F24F3/16—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 purification, e.g. by filtering; by sterilisation; by ozonisation
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F8/00—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying
    • F24F8/10—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by separation, e.g. by filtering
    • F24F8/117—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by separation, e.g. by filtering using wet filtering
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F8/00—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying
    • F24F8/10—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by separation, e.g. by filtering
    • F24F8/15—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by separation, e.g. by filtering by chemical means
    • F24F8/167—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by separation, e.g. by filtering by chemical means using catalytic reactions
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F8/00—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying
    • F24F8/10—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by separation, e.g. by filtering
    • F24F8/192—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by separation, e.g. by filtering by electrical means, e.g. by applying electrostatic fields or high voltages
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F8/00—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying
    • F24F8/20—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by sterilisation
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F8/00—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying
    • F24F8/20—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by sterilisation
    • F24F8/22—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by sterilisation using UV light
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F25—REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
    • F25B—REFRIGERATION MACHINES, PLANTS OR SYSTEMS; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS
    • F25B30/00—Heat pumps
    • F25B30/02—Heat pumps of the compression type
    • 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

Definitions

  • the invention relates to a temperature regulating device, in particular to an intelligent dehumidification bladeless fan.
  • the object of the present invention is to overcome the deficiencies of the prior art and to provide an intelligent dehumidification bladeless fan that meets various needs of indoor use.
  • an intelligent dehumidification bladeless fan including a fluid guiding body 41, an infrared body temperature detector 51 is disposed on the inner side of the top of the fluid guiding body 41, and the infrared body temperature detector 51 is connected to the controller 3, and the fluid guiding body 41
  • the lower part is connected with a main unit 42.
  • the connection between the fluid guiding body 41 and the main unit 42 is provided with a drainage air duct.
  • the main unit 42 includes a heat pump device 1, a water collecting device 2, a controller 3 and a casing 4, and the controller 3 is connected with a control panel.
  • the control panel 25 is provided with a control switch;
  • the heat pump device 1 includes a compressor 5, an evaporator 6, a first radiator 7, a second radiator 8, a solenoid valve 9, a check valve 10, an expansion valve 11, and a fan 12.
  • the refrigerant output joint 13 of the compressor 5 is connected to the first radiator 7 and the solenoid valve 9, the first radiator 7 is connected to the expansion valve 11, the expansion valve 11 is connected to the evaporator 6, and the evaporator 6 is connected to the compressor 5.
  • the solenoid valve 9 is connected to the second radiator 8, the second radiator 8 is connected to the check valve 10, the check valve 10 is connected to the expansion valve 11, and the water collecting device 2 includes the sump 14 and the sump 14 is concave.
  • the boss 17 is provided with a venting hole 18; the outer casing 4 is provided with an exhaust port 19 and an air inlet 20, and the fan 12, The first radiator 7 and the second radiator 8 of the evaporator 6 are disposed between the exhaust port 19 and the intake port 20, the vent hole 18 communicates with the exhaust port 19 and the intake port 20, and the sump 14 is located at the evaporator 6.
  • the controller 3 is connected to the compressor 5 and the fan 12 through a control line; the sump 14 is provided with a plurality of layers, and the groove bottom of the groove 16 of the lowermost layer of the sump 14 is provided
  • the drainage tube 15 has one end connected to the water receiving tank and the other end communicating with the groove 16; the bottom of the groove 16 of the sump 14 of the lowermost layer is provided with a drainage hole 22, and the sump 14 is left between Space, each layer of the sump 14 is provided with a plurality of grooves 16 and a plurality of bosses 17; the controller 3 is provided with a humidity sensor 24 and a control panel 25, the control panel 25 is provided with an automatic control switch 26, a cold air output switch 27 and a stop Switch 35.
  • the fluid guide 41 is annular.
  • the exhaust port 19 is an annular mesh structure, and the exhaust port 19 is plural.
  • An air filter cotton is disposed on the exhaust port 19.
  • the fluid guide 41 is bolted to the main body 42, and the air filter cotton on the exhaust port 19 is a detachable structure.
  • the evaporator 6, the first heat sink 7, and the second heat sink 8 are coated with a nano titanium dioxide coating.
  • the surface of the sump 14 is coated with a nano titanium dioxide coating.
  • the intelligent dehumidification leafless fan includes two working states: dehumidification heating and dehumidification and cooling; the dehumidification heating working state is: when the dehumidification heating work, the intelligent dehumidification bladeless fan is placed in the room requiring dehumidification, and the controller is utilized.
  • the humid air is The air inlet 20 of the outer casing 4 is drawn in, the humid air is first heated and evaporated by the first radiator 7, cooled by the sump 14 to absorb moisture, and then condensed and dehumidified by the evaporator 6, and the air condensed and dehumidified by the evaporator 6 passes through The second radiator 8 is heated, absorbed moisture, condensed and dehumidified, and the heated air is discharged from the exhaust port 19; the water absorbed by the sump 14 and the evaporator 6 is collected into the water tank through the drain pipe, thereby achieving enhanced dehumidification efficiency.
  • the purpose is to provide dry heating to the room; the dehumidification and cooling working state is: when the dehumidification and cooling work is performed, the compressor 5 is controlled by the controller 3 and the fan 9 is operated.
  • the controller 3 is used to control the solenoid valve 9 to be turned off, the solenoid valve 9 is not turned on, so that the second radiator 8 has no refrigerant to enter; the first radiator 7 of the heat pump device 1 is controlled to dissipate heat, and the evaporator 6 is controlled to be cooled;
  • the air is drawn in from the air inlet 20 of the outer casing 4, and the humid air is first heated and evaporated by the first radiator 7, cooled by the sump 14 to absorb moisture, and then condensed and dehumidified by the evaporator 6, and condensed and dehumidified by the evaporator 6
  • the air is discharged from the exhaust port 19; the water absorbed by the sump 14 and the evaporator 6 is collected into the water tank through the drain pipe, thereby
  • the infrared body temperature detector 51 disposed on the upper portion of the fluid guiding body 41 detects the human body temperature, and the infrared body temperature detector 51 and the controller 3 wirelessly connect the result to the controller 3, and then the controller 3 makes a judgment to determine that the device is for the device. Cold or heating.
  • the dehumidification heating operation of the intelligent dehumidification and leafless fan After the humid air enters through the air inlet 20, it is heated by the first radiator 7 to become water vapor, and the water vapor is vented by the venting hole 18 of the bottommost layer of the sump 14. Into, the evaporation flows to the back position of the upper sump 14 and is continuously cooled into water droplets by the back position thereof, and the water drops to the groove 16 of the lower sump 14 of the lower layer, and the drainage of the groove 16 is performed.
  • the hole 22 flows into the sump 14 of the lowermost layer, and flows from the groove 16 of the bottommost sump 14 through the drainage pipe to the water receiving tank, and the first radiator 7 is used to heat and evaporate the humid air, and the sump 14 is utilized.
  • the moisture absorbed by the humid air is cooled; the humid air after the first dehumidification flows from the vent hole 18 of the uppermost sump 14 to the evaporator 6, and is cooled and condensed into water by the evaporator 6, and the second is humid air.
  • the condensed water is dropped from the evaporator 6 to the lower sump 14, and the condensed water flows into the sump 14 of the lowermost layer through the drain hole 22 of the groove 16 of the sump 11 of the non-final layer, and then From the bottom layer of the sump 14 through the drainage tube
  • the humid air is absorbed by the radiator 7, the sump 14 and the evaporator 6 twice, and then enters the second radiator 8, which is heated by the second radiator 8 and discharged by the exhaust port 19;
  • the cycle continuously absorbs moisture from the indoor air.
  • the humid air enters the air inlet 20, and is heated by the first radiator 7 to become water vapor, and the water vapor is vented by the bottom layer of the sump 14 of the bottom layer.
  • 18 enters, evaporates and flows to the back position of the upper sump 14, and is continuously cooled into water droplets by the back position thereof, and the water drops to the groove 16 of the lower sump 14 of the lower layer, and then the groove 16 thereof
  • the drain hole 22 flows into the sump 14 of the lowermost layer, and flows from the groove 16 of the bottommost sump 14 through the drain pipe 15 to the water receiving tank, and the first radiator 7 is used to heat and evaporate the humid air, and the set is utilized.
  • the water tank 14 cools the moisture absorbed by the humid air; the humid air after the first dehumidification is discharged from the vent hole 18 of the uppermost sump 14 to the evaporator 6, and is cooled and condensed into water by the evaporator 6, and the humid air is performed.
  • the second dehumidification the condensed water is dropped from the evaporator 6 to the lower sump 14, and the condensed water flows into the sump 14 of the lowermost layer through the drainage hole 22 of the groove 16 of the sump 11 of the non-final layer And then drained by the bottom layer of the sump 14
  • the tank 15 is discharged inscribed; humid air through the radiator 7, the sump 14 and the evaporator 6 absorbs moisture twice, dehumidified cool air is discharged from the exhaust port 19; thus Continuous circulation, constantly absorbing moisture from indoor air.
  • the automatic control switch 26 When the intelligent dehumidification and bladeless fan dehumidification heating operation is performed, the automatic control switch 26 is pressed, the controller 3 controls the electromagnetic valve 9 to be energized, the electromagnetic valve 9 is turned on, the second radiator 8 has the refrigerant passed, and the second radiator 8 dissipates heat.
  • the dehumidified air is heated by the dehumidified air, and the exhaust port 19 discharges the dehumidified heating;
  • the intelligent dehumidification bladeless fan dehumidifies the cooling operation when the intelligent dehumidification bladeless fan dehumidifies the cooling operation, the cold air output switch 27 is pressed, the controller 3 controls the solenoid valve 9 to be powered off, and the solenoid valve 9 is not turned on.
  • the second radiator 8 does not pass the refrigerant, the second radiator 8 does not dissipate heat, and the exhaust port 19 discharges the dehumidified cold air.
  • the evaporator 6 is dropped into the sump 14 condensed water, and the drain hole 22 of the groove 16 of the uppermost sump 14 and the vent hole 18 flows into the sump 14 of the next layer, and finally flows to the last layer.
  • the water tank 14 cools the sump 14 of each layer by condensed water, increases the temperature difference between the sump 14 and the humid air heated by the radiator 7, and contacts each of the sump 14 cooled by the condensed water with the warmed humid air.
  • the warmed water vapor is cooled into water droplets to improve the efficiency of dehumidification.
  • the automatic control switch 26 When the intelligent dehumidification and leafless fan dehumidification heating work is performed, the automatic control switch 26 is pressed, and the controller 3 enters the dehumidification heating automatic control working state.
  • the humidity sensor 24 When the indoor air humidity reaches the set humidity upper limit value, the humidity sensor 24 will The humidity signal is transmitted to the controller 3, and the controller 3 controls the power of the compressor 5, the fan 12, and the solenoid valve 9 to be dehumidified by the first radiator 7, the sump 14, and the evaporator 6; Continuously decreasing, when the humidity of the indoor air is lowered to the set lower limit of humidity, the humidity sensor 24 transmits its humidity signal to the controller 3, and the controller 3 cuts off the power of the compressor 5, the fan 12, and the solenoid valve 9, intelligent dehumidification The leafless fan works to stop dehumidification heating.
  • the cold air output switch 27 When the intelligent dehumidification bladeless fan is dehumidifying and cooling, the cold air output switch 27 is pressed, and the controller 3 enters the dehumidification and cooling automatic control working state.
  • the humidity sensor 24 transmits its humidity signal to the controller 3, the controller 3 controls the power of the compressor 5 and the fan 12 to be turned on, cuts off the power of the solenoid valve 9, and dehumidifies with the first radiator 7, the sump 14, and the evaporator 6; The humidity of the indoor air is continuously reduced.
  • the humidity sensor 24 transmits its humidity signal to the controller 3, and the controller 3 cuts off the power of the compressor 5 and the fan 12, and the intelligence Dehumidification and leafless fan work to stop dehumidification and cooling.
  • the humid air entering the radiator 7 is heated into water vapor, and the water vapor enters through the plurality of vent holes 18 of the sump 14 of each layer, and the heated water vapor is directly evaporated to each
  • the back position of the sump 14 of the layer is set by each layer which is cooled by the condensed water.
  • the back surface of the water tank 14 is in full contact with water vapor to cool the steam into water.
  • the condensed water dropped from the evaporator 6 to the lower sump 14 flows from the drain hole 22 of each layer of the sump 14 on the last sump 14 to the sump 14 of the last layer, and is used by the first radiator.
  • the heated humid air passes through the drain holes 22 of the sump 14 of each layer, it is condensed by the drain holes 22 and is absorbed into water, and is discharged into the water tank through the drain pipe 15, thereby further improving the efficiency of dehumidification.
  • the flow of air in the outer casing 4 is directed to the exhaust port 19 by the air inlet 20; when the intelligent dehumidification bladeless fan is in operation, the heat absorbed by the evaporator 6 is converted into the first radiator 7, The first radiator 7 is used to heat and evaporate the humid air.
  • the invention has the beneficial effects that the intelligent dehumidification bladeless fan is provided with a heat pump device and a water collecting device, and after opening, the ultraviolet lamp tube in the device is opened, and the first radiator, the second radiator, the evaporator and the set are coated.
  • the nano titanium dioxide on the surface of the water tank acts as a catalyst to remove formaldehyde from the air and kill various harmful bacteria.
  • the device is provided with a heat pump device and a water collecting device, and the first radiator is used.
  • the second radiator and the sump are dehumidified for the first time, and then dehumidified by the evaporator for the second time, the condensate of the evaporator is used to cool the sump, and the condensed water of the evaporator is used to absorb the steam, and the steam is turned into water.
  • the drainage tube 15 is discharged to the water receiving tank to enhance the dehumidification efficiency; at the same time, the dehumidified air can be automatically selected as heating and cooling according to the result of detecting the human body temperature by the body temperature detecting unit.
  • the indoor air is purified and dehumidified, and then blown out, and the entire indoor air is cleaned and dehumidified while being used.
  • FIG. 1 is a schematic structural view of an intelligent dehumidification bladeless fan.
  • FIG. 2 is an enlarged schematic view of the drainage duct at A in Figure 1
  • FIG. 1 is a schematic diagram of the structure of the intelligent dehumidification bladeless fan, the intelligent dehumidification bladeless fan, including the fluid guiding body 41, and the infrared body temperature detector 51 is disposed on the inner side of the guiding fluid 41, and the infrared body temperature detector 51 and the controller 3 are adopted.
  • the wireless connection is connected, the lower portion of the fluid guiding body 41 is connected with the main unit 42, and the connecting portion of the guiding fluid 41 and the main unit 42 is provided with a drainage air duct.
  • the main unit 42 includes a heat pump device 1, a water collecting device 2, a controller 3 and a casing 4.
  • controller 3 is connected with control The panel 25, the control panel 25 is provided with a control switch;
  • the heat pump device 1 includes a compressor 5, an evaporator 6, a first radiator 7, a second radiator 8, a solenoid valve 9, a check valve 10, an expansion valve 11, and a fan 12, the refrigerant output joint 13 of the compressor 5 is connected to the first radiator 7 and the solenoid valve 9, the first radiator 7 is connected to the expansion valve 11, the expansion valve 11 is connected to the evaporator 6, and the evaporator 6 and the compressor 5 are connected.
  • the water collecting device 2 includes a sump 14 and the sump 14 is provided.
  • the outer casing 4 is provided with an exhaust port 19 and an air inlet 20, and the fan 12, the evaporator 6 first radiator 7 and the second radiator 8 are disposed between the exhaust port 19 and the air inlet 20, and the vent holes 18 and the row
  • the air port 19 and the air inlet 20 are in communication, the sump 14 is located between the evaporator 6 and the first heat sink 7, and the second heat sink 8 is located in the wind.
  • the controller 3 is connected to the compressor 5 and the fan 12 through a control line;
  • the sump 14 is provided with a plurality of layers, and the bottom of the groove 16 of the lowermost layer of the sump 14 is provided with a drainage tube 15 One end of the drainage tube 15 communicates with the water receiving tank, and the other end communicates with the groove 16;
  • the bottom of the groove 16 of the sump 14 of the lowermost layer is provided with a drainage hole 22, and a space is left between the sump 14 for each
  • the sump 14 is provided with a plurality of grooves 16 and a plurality of bosses 17;
  • the controller 3 is provided with a humidity sensor 24 and a control panel 25, and the control panel 25 is provided with an automatic control switch 26, a cold air output switch 27 and a stop switch 35.
  • the fluid guide 41 is annular.
  • the exhaust port 19 has an annular mesh structure, and the exhaust port 19 is plural.
  • An air filter cotton is disposed on the exhaust port 19.
  • the fluid guide 41 is bolted to the main body 42, and the air filter cotton on the exhaust port 19 is of a detachable structure.
  • the air after purifying and dehumidifying is discharged upward from the exhaust port 19, and a parallel air guiding surface parallel to the air flow and a diagonal wind guiding surface 43 at an angle to the air flow are disposed at the drainage air passage, and the parallel wind guiding surface is passed through the parallel air guiding surface
  • the action of 44 does not change the direction of the airflow, and the portion of the airflow that can be extruded through the inclined guide surface 43 can change the original direction and obliquely guide the flow, thereby providing an upwardly diffused airflow, thereby pulling the side and the back.
  • the airflow runs forward together.
  • the surface of the evaporator 6, the first heat sink 7, and the second heat sink 8 coated with the nano-titanium dioxide coating sump 14 is also coated with a nano-titanium dioxide coating.
  • the working principle of the intelligent dehumidification bladeless fan is: when working, the fan is turned on, the ultraviolet lamp tube 21 is opened, and the nano titanium dioxide coated on the surface of the evaporator 6, the first radiator 7, the second radiator 8 and the sump 14 is applied. It plays a catalytic role in removing harmful substances such as formaldehyde in the air and killing a variety of harmful bacteria.
  • the intelligent dehumidification leafless fan includes dehumidification heating and dehumidification and cooling.
  • the dehumidification heating working state is: when the dehumidification heating work is performed, the intelligent dehumidification bladeless fan is placed in a room where dehumidification is required, and the compressor 5 and the fan 9 of the heat pump device 1 are controlled by the controller 3, and the solenoid valve is controlled by the controller 3. 9 is turned on, so that the first heat sink 7 and the second heat sink 8 dissipate heat to cool the evaporator 6; the humid air is drawn in by the air inlet 20 of the outer casing 4, and the humid air is first heated by the first heat sink 7.
  • the sump 14 After evaporation, the sump 14 cools and absorbs moisture, and then condenses and dehumidifies through the evaporator 6, and the condensed and dehumidified air passes through the evaporator 6 to be heated by the second radiator 8, is absorbed by moisture, condensed and dehumidified, and the air after being heated is exhausted.
  • the mouth 19 is discharged; the water absorbed by the sump 14 and the evaporator 6 is collected into the water receiving tank through the drainage pipe 15, thereby achieving the purpose of improving the dehumidification efficiency, and providing dry heating to the room; the dehumidification and cooling working state is: dehumidification supply
  • the compressor 3 and the fan 9 are controlled by the controller 3, and the solenoid valve 9 is controlled to be turned off by the controller 3, and the solenoid valve 9 is not turned on, so that the second radiator 8 has no refrigerant.
  • the first radiator 7 of the heat pump device 1 is controlled to dissipate heat, and the evaporator 6 is controlled to be cooled; the humid air is drawn in by the air inlet 20 of the outer casing 4, and the humid air is first heated and evaporated by the first radiator 7 by
  • the sump 14 cools and absorbs moisture, and then condenses and dehumidifies through the evaporator 6, and the chilled air that has been condensed and dehumidified by the evaporator 6 is discharged through the exhaust port 19; the sump 14 and the water absorbed by the evaporator 6 are collected and collected through the drain pipe 15.
  • the infrared body temperature detector 51 detects the temperature of the human body, transmits the result to the controller 3, and the controller judges the result to make the device cool or heat.
  • the humid air enters the air inlet 20, and is heated by the first radiator 7 to become water vapor, and the water vapor enters through the vent hole 18 of the bottommost sump 14 and evaporates.
  • Flowing to the back position 21 of the upper sump 14 is continuously cooled into water droplets by the back position 21, and the water drops to the groove 16 of the lower sump 14 and the drain hole of the groove 16 22 flows into the sump 14 of the lowermost layer, and flows from the groove 16 of the bottommost sump 14 through the drainage pipe 15 to the water receiving tank, and the first radiator 7 is used to heat and evaporate the humid air, and the sump 14 is utilized.
  • the moisture absorbed by the humid air is cooled; the humid air after the first dehumidification flows from the vent hole 18 of the uppermost sump 14 to the evaporator 6, and is cooled and condensed into water by the evaporator 6, and the second is humid air.
  • the condensed water is dropped from the evaporator 6 to the lower sump 14, and the condensed water flows into the sump 14 of the lowermost layer through the drain hole 22 of the groove 16 of the sump 11 of the non-final layer, and then From the bottommost sump 14 through the drainage tube 15 Then the tank; humid air through the radiator 7, the sump 14, and After the evaporator 6 absorbs water twice, it enters the second radiator 8, and is heated by the second radiator 8 to be discharged from the exhaust port 19; thus continuously circulating, continuously absorbing moisture which removes indoor air.
  • the humid air enters the air inlet 20, and is heated by the first radiator 7 to become water vapor, and the water vapor enters from the vent hole 18 of the sump 14 of the bottommost layer.
  • the evaporation flows to the back surface position 21 of the upper sump 14, and is continuously cooled by the back surface position 21 into water drops, and the water drops flow into the groove 16 of the lower sump 14 and drained by the groove 16
  • the hole 22 flows into the sump 14 of the lowermost layer, and flows from the groove 16 of the bottommost sump 14 through the drainage pipe 15 to the water receiving tank, and the first radiator 7 is used to heat and evaporate the humid air, and the sump is used.
  • the humid air after the first dehumidification is discharged from the vent hole 18 of the uppermost sump 14 to the evaporator 6, and is cooled and condensed into water by the evaporator 6, and the humid air is subjected to the first The second dehumidification; the condensed water is dropped from the evaporator 6 to the lower sump 14, and the condensed water flows into the sump 14 of the lowermost layer through the drainage hole 22 of the groove 16 of the sump 11 of the non-final layer.
  • the lowermost layer of the sump 14 passes through the drainage tube 15 After the humid air passes through the radiator 7, the sump 14 and the evaporator 6 to absorb the water twice, the dehumidified cold air is discharged from the exhaust port 19; the circulation is continuously circulated, and the moisture of the indoor air is continuously absorbed. .
  • the sump 14 is provided with a plurality of layers, and the bottom of the groove 16 of the lowermost sump 14 is provided with a drainage tube 15, and one end of the drainage tube 15 is connected with the water receiving tank, and One end is in communication with the groove 16; the bottom of the groove 16 of the sump 14 of the non-lowermost layer is provided with a drainage hole 22, and a space is left between the sump 14, and each sump 14 is provided with a plurality of grooves 16 And a plurality of bosses 17, the venting holes 18 of the bosses 17 of the sump 14 of each layer are in communication with each other, and the drain holes 22 of the grooves 16 of the non-lowermost sump 14 of each layer are connected to each other; the sump of each layer a plurality of grooves 16 are provided, each of the grooves 16 communicating with each other; the venting opening 18 of the sump 14 of the lowest layer facing the back surface 21 of the groove
  • the air inlet 20 is disposed on the peripheral wall 29 of the outer casing 4; the fan 12 is located at the exhaust Below the 19, the second radiator 8 is located below the fan 12, the evaporator 6 is located below the second radiator 8, the sump 14 is located below the evaporator 6, and the first radiator 7 is located below the sump 14, the first radiator 7 is located above the air inlet 20; the base of the fan 12, the second radiator 8, the evaporator 6, the sump 14 and the first dispersion
  • the heat exchanger 7 is fixedly connected to the outer casing 4; the sump 14 is composed of an aluminum alloy plate.
  • the controller 3 is provided with a humidity sensor 24 and a control panel 25, and the control panel 25 is provided with an automatic control switch 26, a cold air output switch 27 and a stop switch 35, and the humidity sensor 24 is installed in the The port 20 and the humidity sensor 24 are connected to the controller 3 via a sensing line.
  • the automatic control switch 26 When the intelligent dehumidification and leafless fan dehumidification heating operation is performed, the automatic control switch 26 is pressed, the controller 3 controls the electromagnetic valve 9 to be energized, the electromagnetic valve 9 is turned on, the second radiator 8 has the refrigerant passing, and the second radiator 8 is cooled by the dehumidification.
  • the air is heated, the exhaust port 19 discharges the dehumidified heating; when the intelligent dehumidification bladeless fan dehumidifies the cooling operation, the cold air output switch 27 is pressed, the controller 3 controls the solenoid valve 9 to be powered off, the solenoid valve 9 is not turned on, and the second The radiator 8 does not pass the refrigerant, the second radiator 8 does not dissipate heat, the exhaust port 19 discharges the dehumidified cold air; the evaporator 6 drops to the sump 14 condensed water, and the drainage of the groove 16 of the uppermost sump 14 The hole 22 and the vent hole 18 flow into the sump 14 of the next layer, and finally flow to the sump 14 of the last layer, and the sump 14 of each layer is cooled by the condensed water to increase the moisture of the sump 14 and the temperature raised by the radiator 7.
  • the temperature difference of the air is contacted with the warmed humid air by the sump 14 of each layer cooled by the condensed water, so that the heated water
  • the automatic control switch 26 When the intelligent dehumidification and leafless fan dehumidification heating work is performed, the automatic control switch 26 is pressed, and the controller 3 enters the dehumidification heating automatic control working state. When the indoor air humidity reaches the set humidity upper limit value, the humidity sensor 24 sets its humidity signal.
  • the controller 3 controls the power supply to turn on the compressor 5, the fan 12, and the solenoid valve 9, and dehumidifies with the first radiator 7, the sump 14, and the evaporator 6; as the humidity of the indoor air is continuously lowered,
  • the humidity sensor 24 transmits its humidity signal to the controller 3, and the controller 3 cuts off the power of the compressor 5, the fan 12, and the solenoid valve 9, and the intelligent dehumidification bladeless fan Work stops dehumidification heating.
  • the cold air output switch 27 When the intelligent dehumidification bladeless fan is dehumidifying and cooling, the cold air output switch 27 is pressed, and the controller 3 enters the dehumidification and cooling automatic control working state.
  • the humidity sensor 24 When the indoor air humidity reaches the set humidity upper limit value, the humidity sensor 24 will The humidity signal is transmitted to the controller 3, and the controller 3 controls the power supply of the compressor 5 and the fan 12 to be turned on, the power of the electromagnetic valve 9 is cut off, and the first radiator 7, the sump 14 and the evaporator 6 are used for dehumidification; The humidity of the air is continuously reduced.
  • the humidity sensor 24 transmits its humidity signal to the controller 3, and the controller 3 cuts off the power of the compressor 5 and the fan 12, and intelligent dehumidification without leaves. Fan work Stop dehumidification and cooling.
  • the humid air entering the radiator 7 is heated into water vapor, and the water vapor enters through the plurality of vent holes 18 of the sump 14 of each layer, and the heated water vapor is directly evaporated to the set of the layers.
  • the back surface position 21 of the water tank 14 is sufficiently contacted with water vapor by the back surface position 21 of each layer of the sump 14 cooled by the condensed water to cool the steam into water, and the condensed water dropped from the evaporator 6 to the lower sump 14 is finally
  • the drain holes 22 of the sump 14 of each layer above the sump 14 flow into the sump 14 of the last layer, and the humid air heated by the first radiator 7 passes through the drain holes 22 of the sump 14 of each layer, and is flowed.
  • the condensed water is absorbed into the water through the drainage hole 22, and is discharged into the water receiving tank through the drainage pipe 15, thereby further improving the efficiency of dehumidification; when the fan 12 is in operation, the flow of air in the outer casing 4 is directed to the exhaust port 19 by the air inlet 20; When the intelligent dehumidification bladeless fan is operated, the heat absorbed by the evaporator 6 is converted into the first radiator 7, and the first radiator 7 is used to heat and evaporate the humid air.
  • the heat pump device 1 includes a reservoir 30 and a gas-liquid separator 31; the expansion valve 11 is connected to the reservoir 30, the reservoir 30 is connected to the first radiator 7 and the second radiator 8, and the compressor 5 and the gas-liquid separator 31 are connected.
  • the gas-liquid separator 31 is connected to the evaporator 6;
  • the outer casing 4 is provided with a control chamber 32, the compressor 5, the gas-liquid separator 31, the reservoir 30 and the expansion valve 11 are disposed in the control chamber 32;
  • the control chamber 32 is located Below the port 20, the control chamber 32 is provided with a partition 33 separating the control chamber 32 from the air inlet 20;
  • the water tank is disposed outside the outer casing 4, and the outer casing 4 is provided with a hook 34, and the water tank is hung on the hook 34.

Abstract

一种智能除湿无叶风扇，包括导流体（41），导流体（41）顶部内侧连接有红外体温探测器（51），下部连接有主机（42），导流体（41）与主机（42）的连接处设置有引流风道，主机（42）包括有热泵装置（1）、集水装置（2）、控制器（3）以及外壳（4）；热泵装置（1）包括有压缩机（5）、蒸发器（6）、第一散热器（7）、第二散热器（8）、电磁阀（9）、单向阀（10）、膨胀阀（11）以及风机（12），集水装置（2）包括有集水槽（14），集水槽（14）设有凹槽（16）以及凸台（17），凸台（17）内部中空，设置有紫外线灯管（21）。

Description

一种智能除湿无叶风扇 技术领域
本发明涉及一种温度调节装置，特别涉及一种智能除湿无叶风扇。
背景技术
目前，因为室外空气污染的问题，导致人们开窗换气的时间越来越少，导致室内有害细菌滋生、室内空气不流通以及室内潮湿等问题，直接危害到人们的身体健康和生活质量。普通的除湿机和空气净化机功能单一，效果不好，满足不了人们的需求。
发明内容
本发明的目的是克服现有技术的不足，提供一种智能除湿无叶风扇，满足室内使用的多种需求。
本发明的所采取的技术方案是：智能除湿无叶风扇，包括导流体41，导流体41顶部内侧设置有红外体温探测器51，所述红外体温探测器51与控制器3连接，导流体41下部连接有主机42，导流体41与主机42的连接处设置有引流风道，主机42包括，包括有热泵装置1、集水装置2、控制器3以及外壳4，控制器3连接有控制面板25，控制面板25设有控制开关；热泵装置1包括有压缩机5、蒸发器6、第一散热器7、第二散热器8、电磁阀9、单向阀10、膨胀阀11以及风机12，压缩机5的冷媒输出接头13与第一散热器7以及电磁阀9连接，第一散热器7与膨胀阀11连接，膨胀阀11连接与蒸发器6连接，蒸发器6与压缩机5连接，电磁阀9与第二散热器8连接，第二散热器8与单向阀10连接，单向阀10与膨胀阀11连接；集水装置2包括有集水槽14，集水槽14设有凹槽16、凸台17以及引流管15，引流管15一端连接至净化装置外侧另一端与凹槽16，凸台17内部中空，设置有紫外线灯管21，凸台17设有透气孔18；外壳4设有排气口19以及进气口20，风机12、蒸发器6第一散热器7以及第二散热器8设于排气口19与进气口20之间，透气孔18与排气口19以及进气口20连通，集水槽14位于蒸发器6与第一散热器7之间，第二散热器 8位于风机12与蒸发器6之间；控制器3通过控制线与压缩机5以及风机12连接；集水槽14设有多层，最下面一层集水槽14的凹槽16的槽底设有引流管15，引流管15一端与接水箱连通，另一端与凹槽16连通；非最下面一层的集水槽14的凹槽16的槽底设有排水孔22，集水槽14之间留有空间，每层集水槽14设有多个凹槽16以及多个凸台17；控制器3设有湿度传感器24以及控制面板25，控制面板25设有自动控制开关26、冷气输出开关27以及停止开关35。所述导流体41为环形。
述排气口19为环形网状结构，所述排气口19为多个。
所述排气口19上设置有空气滤棉。
所述导流体41用螺栓连接在主体42上，所述排气口19上的空气滤棉为可拆卸结构。
所述蒸发器6、第一散热器7及第二散热器8表面涂有纳米二氧化钛涂层。
所述集水槽14表面涂有纳米二氧化钛涂层。
其工作原理是：智能除湿无叶风扇包括有除湿供暖以及除湿供冷两种工作状态；除湿供暖工作状态是：除湿供暖工作时，将智能除湿无叶风扇置于需要除湿的室内，利用控制器3控制热泵装置1的压缩机5以及风机9运行，利用控制器3控制电磁阀9导通，使第一散热器7以及第二散热器8散发热量，使蒸发器6制冷；潮湿的空气由外壳4的进气口20抽入，潮湿的空气先经过第一散热器7加热蒸发，由集水槽14冷却吸收水分，然后经过蒸发器6冷凝除湿，经过蒸发器6冷凝除湿后的空气再经过第二散热器8升温，被吸收水分、冷凝除湿以及升温后的空气由排气口19排出；集水槽14以及蒸发器6吸收的水通过引流管被收集到接水箱内，从而到达提高除湿效率的目的，以及向室内提供干燥的暖气；除湿供冷工作状态是：除湿供冷工作时，利用控制器3控制压缩机5以及风机9运行，利用控制器3控制电磁阀9关断，电磁阀9不导通，使第二散热器8没有冷媒进入；控制热泵装置1的第一散热器7散发热量，以及控制蒸发器6制冷；潮湿的空气由外壳4的进气口20抽入，潮湿的空气先经过第一散热器7加热蒸发，由集水槽14冷却吸收水分，然后经过蒸发器6冷凝除湿，经过蒸发器6冷凝除湿后的冷空气由排气口19排出；集水槽14以及蒸发器6吸收的水通过引流管被收集到接水箱内，从而到达提高除湿效率 的目的，以及向室内提供干燥的冷气。设置于导流体41上部的红外体温探测器51探测人体温度，红外体温探测器51与控制器3采用无线连接方式将结果反馈给控制器3，然后由控制器3做出判断来决定设备是供冷还是供暖。
所述的智能除湿无叶风扇除湿供暖工作时，潮湿的空气由进气口20进入后，经过第一散热器7加热成为水蒸气，水蒸气由最底下一层的集水槽14的透气孔18进入，蒸发流动到上一层集水槽14的背面位置上，被其背面位置不断冷却成水珠，水珠流到下面一层集水槽14的凹槽16内，再由其凹槽16的排水孔22流到最下面一层的集水槽14内，由最底下一层的集水槽14的凹槽16通过引流管流到接水箱，利用第一散热器7加热蒸发潮湿空气，利用集水槽14冷却吸收潮湿空气的水分；经过第一次除湿后的潮湿空气，由最上面一层集水槽14的透气孔18流到蒸发器6，被蒸发器6降温冷凝成水，对潮湿空气进行第二次除湿；冷凝水由蒸发器6滴下到下面的集水槽14，冷凝水经非最后一层各层的集水槽11的凹槽16的排水孔22流入最下一层的集水槽14内，再由最下面一层集水槽14通过引流管排到接水箱内；潮湿的空气经过散热器7、集水槽14以及蒸发器6两次吸收水分后，进入到第二散热器8,经第二散热器8加热后由排气口19排出；如此不断循环，不断吸收去除室内空气的湿气。
所述的智能除湿无叶风扇除湿供冷工作时，潮湿的空气由进气口20进入后，经过第一散热器7加热成为水蒸气，水蒸气由最底下一层的集水槽14的透气孔18进入，蒸发流动到上一层集水槽14的背面位置上，被其背面位置不断冷却成水珠，水珠流到下面一层集水槽14的凹槽16内，再由其凹槽16的排水孔22流到最下面一层的集水槽14内，由最底下一层的集水槽14的凹槽16通过引流管15流到接水箱，利用第一散热器7加热蒸发潮湿空气，利用集水槽14冷却吸收潮湿空气的水分；经过第一次除湿后的潮湿空气，由最上面一层集水槽14的透气孔18排出到蒸发器6，被蒸发器6降温冷凝成水，对潮湿空气进行第二次除湿；冷凝水由蒸发器6滴下到下面的集水槽14，冷凝水经非最后一层各层的集水槽11的凹槽16的排水孔22流入最下一层的集水槽14内，再由最下面一层集水槽14通过引流管15排到接水箱内；潮湿的空气经过散热器7、集水槽14以及蒸发器6两次吸收水分后，由排气口19排出除湿后的冷空气；如此 不断循环，不断吸收去除室内空气的湿气。
所述的智能除湿无叶风扇除湿供暖工作时，按下自动控制开关26，控制器3控制电磁阀9通电，电磁阀9导通，第二散热器8有冷媒通过，第二散热器8散热将通过除湿空气加热，排气口19排出除湿后的暖气；智能除湿无叶风扇除湿供冷工作时，按下冷气输出开关27，控制器3控制电磁阀9断电，电磁阀9不导通，第二散热器8没有冷媒通过，第二散热器8不散热，排气口19排出除湿后的冷空气。
所述的蒸发器6滴下到集水槽14冷凝水，由最上一层集水槽14其凹槽16的排水孔22以及透气孔18流入下一层的集水槽14，最后流到最后一层的集水槽14，利用冷凝水将各层的集水槽14降温，增加集水槽14与被散热器7升温的潮湿空气的温差，利用被冷凝水降温的各层集水槽14与升温的潮湿空气接触，使升温的水蒸汽冷却成水珠，提高除湿的效率。
所述的智能除湿无叶风扇除湿供暖工作时，按下自动控制开关26，控制器3进入除湿供暖自动控制工作状态，当室内的空气湿度达到设定的湿度上限值时，湿度传感器24将其湿度信号传输给控制器3，控制器3控制接通压缩机5、风机12以及电磁阀9的电源，利用第一散热器7、集水槽14以及蒸发器6除湿；随着室内的空气湿度不断降低，当室内空气的湿度降低设定的湿度下限值时，湿度传感器24将其湿度信号传输给控制器3，控制器3切断压缩机5、风机12以及电磁阀9的电源，智能除湿无叶风扇工作停止除湿供暖。
所述的智能除湿无叶风扇除湿供冷工作时，按下冷气输出开关27，控制器3进入除湿供冷自动控制工作状态，当室内的空气湿度达到设定的湿度上限值时，湿度传感器24将其湿度信号传输给控制器3，控制器3控制接通压缩机5以及风机12的电源，切断电磁阀9的电源，利用第一散热器7、集水槽14以及蒸发器6除湿；随着室内的空气湿度不断降低，当室内空气的湿度降低设定的湿度下限值时，湿度传感器24将其湿度信号传输给控制器3，控制器3切断压缩机5、风机12的电源，智能除湿无叶风扇工作停止除湿供冷。
所述的智能除湿无叶风扇工作时，进入散热器7的湿空气被加热成为水蒸气，水蒸气由各层的集水槽14的多个透气孔18进入，被升温的水蒸气直接蒸发到各层的集水槽14的背面位置，利用被冷凝水降温的各层集 水槽14的背面位置与水蒸气充分接触，使蒸汽冷却为水。
所述的由蒸发器6滴下到下面集水槽14的冷凝水，由最后一层集水槽14上面各层集水槽14的排水孔22流到最后一层的集水槽14中，被第一散热器7加热的湿空气经过各层集水槽14的排水孔22时，被流经排水孔22冷凝水吸收变成水，通过引流管15排到接水箱中，进一步提高除湿的效率。
所述的风机12运行时，外壳4内空气的流向是由进气口20指向排气口19；智能除湿无叶风扇工作时,利用蒸发器6吸收空气的热量转化到第一散热器7，利用第一散热器7加热蒸发潮湿空气。
本发明的有益效果是：智能除湿无叶风扇设有热泵装置以及集水装置，开启后，装置内的紫外线灯管随之打开，涂与第一散热器、第二散热器、蒸发器及集水槽表面的纳米二氧化钛起到催化作用，能达到去除空气中的甲醛，灭杀多种有害细菌的效果，在净化的过程中，装置内设有热泵装置以及集水装置，利用第一散热器、第二散热器以及集水槽进行第一次除湿，再利用蒸发器进行第二次除湿，利用蒸发器的冷凝水将集水槽降温，以及利用蒸发器的冷凝水吸收蒸汽，把蒸汽变成水通过引流管15排到接水箱，增强了除湿效率；同时，除湿后的空气还能根据体温检测单元检测人体温度的结果自动选择为加热以及制冷两种方式。将室内空气净化并除湿后再吹出，在使用的同时对整个室内的空气起到净化并除湿的作用。
附图说明
图1是智能除湿无叶风扇的结构示意图。
图2是图1中A处引流风道的放大示意图
具体实施方式
下面结合附图与具体实施例对本发明进行进一步的说明：
图1所示的智能除湿无叶风扇的结构示意图，智能除湿无叶风扇，包括导流体41，导流体41顶部内侧设置有红外体温探测器51，所述红外体温探测器51与控制器3采用无线连接方式连接，导流体41下部连接有主机42，导流体41与主机42的连接处设置有引流风道，主机42包括，包括有热泵装置1、集水装置2、控制器3以及外壳4，控制器3连接有控制 面板25，控制面板25设有控制开关；热泵装置1包括有压缩机5、蒸发器6、第一散热器7、第二散热器8、电磁阀9、单向阀10、膨胀阀11以及风机12，压缩机5的冷媒输出接头13与第一散热器7以及电磁阀9连接，第一散热器7与膨胀阀11连接，膨胀阀11连接与蒸发器6连接，蒸发器6与压缩机5连接，电磁阀9与第二散热器8连接，第二散热器8与单向阀10连接，单向阀10与膨胀阀11连接；集水装置2包括有集水槽14，集水槽14设有凹槽16、凸台17以及引流管15，引流管15一端连接至净化装置外侧另一端与凹槽16，凸台17内部中空，设置有紫外线灯管21，凸台17设有透气孔18；外壳4设有排气口19以及进气口20，风机12、蒸发器6第一散热器7以及第二散热器8设于排气口19与进气口20之间，透气孔18与排气口19以及进气口20连通，集水槽14位于蒸发器6与第一散热器7之间，第二散热器8位于风机12与蒸发器6之间；控制器3通过控制线与压缩机5以及风机12连接；集水槽14设有多层，最下面一层集水槽14的凹槽16的槽底设有引流管15，引流管15一端与接水箱连通，另一端与凹槽16连通；非最下面一层的集水槽14的凹槽16的槽底设有排水孔22，集水槽14之间留有空间，每层集水槽14设有多个凹槽16以及多个凸台17；控制器3设有湿度传感器24以及控制面板25，控制面板25设有自动控制开关26、冷气输出开关27以及停止开关35。导流体41为环形。排气口19为环形网状结构，排气口19为多个。排气口19上设置有空气滤棉。导流体41用螺栓连接在主体42上，排气口19上的空气滤棉为可拆卸结构。净化除湿后的空气由排气口19向上排出，引流风道处设置与出风气流相平行的平行导风面和与出风气流成一定角度的斜向导风面43，通过该平行导风面44的作用其可不改变气流方向，而通过斜向导风面43可将出风口挤出的部份气流可改变原有方向并斜向导流，由此可提供向上扩散的气流，从而拉动侧面和后面的气流一起向前运行。蒸发器6、第一散热器7及第二散热器8表面涂有纳米二氧化钛涂层集水槽14表面也涂有纳米二氧化钛涂层。
智能除湿无叶风扇的工作原理是：工作时，将风扇开启，紫外线灯管21随之打开，涂与蒸发器6、第一散热器7、第二散热器8及集水槽14表面的纳米二氧化钛起到催化作用，去除空气中的甲醛等有害物质，灭杀多种有害细菌，智能除湿无叶风扇包括有除湿供暖以及除湿供冷两种工作状 态；除湿供暖工作状态是：除湿供暖工作时，将智能除湿无叶风扇置于需要除湿的室内，利用控制器3控制热泵装置1的压缩机5以及风机9运行，利用控制器3控制电磁阀9导通，使第一散热器7以及第二散热器8散发热量，使蒸发器6制冷；潮湿的空气由外壳4的进气口20抽入，潮湿的空气先经过第一散热器7加热蒸发，由集水槽14冷却吸收水分，然后经过蒸发器6冷凝除湿，经过蒸发器6冷凝除湿后的空气再经过第二散热器8升温，被吸收水分、冷凝除湿以及升温后的空气由排气口19排出；集水槽14以及蒸发器6吸收的水通过引流管15被收集到接水箱内，从而到达提高除湿效率的目的，以及向室内提供干燥的暖气；除湿供冷工作状态是：除湿供冷工作时，利用控制器3控制压缩机5以及风机9运行，利用控制器3控制电磁阀9关断，电磁阀9不导通，使第二散热器8没有冷媒进入；控制热泵装置1的第一散热器7散发热量，以及控制蒸发器6制冷；潮湿的空气由外壳4的进气口20抽入，潮湿的空气先经过第一散热器7加热蒸发，由集水槽14冷却吸收水分，然后经过蒸发器6冷凝除湿，经过蒸发器6冷凝除湿后的冷空气由排气口19排出；集水槽14以及蒸发器6吸收的水通过引流管15被收集到接水箱内，从而到达提高除湿效率的目的，以及向室内提供干燥的冷气。在使用的过程中，红外体温探测器51探测人体温度，将结果传输给控制器3，有控制器判断结果使设备供冷或者供暖。
智能除湿无叶风扇除湿供暖工作时，潮湿的空气由进气口20进入后，经过第一散热器7加热成为水蒸气，水蒸气由最底下一层的集水槽14的透气孔18进入，蒸发流动到上一层集水槽14的背面位置21上，被其背面位置21不断冷却成水珠，水珠流到下面一层集水槽14的凹槽16内，再由其凹槽16的排水孔22流到最下面一层的集水槽14内，由最底下一层的集水槽14的凹槽16通过引流管15流到接水箱，利用第一散热器7加热蒸发潮湿空气，利用集水槽14冷却吸收潮湿空气的水分；经过第一次除湿后的潮湿空气，由最上面一层集水槽14的透气孔18流到蒸发器6，被蒸发器6降温冷凝成水，对潮湿空气进行第二次除湿；冷凝水由蒸发器6滴下到下面的集水槽14，冷凝水经非最后一层各层的集水槽11的凹槽16的排水孔22流入最下一层的集水槽14内，再由最下面一层集水槽14通过引流管15排到接水箱内；潮湿的空气经过散热器7、集水槽14以及 蒸发器6两次吸收水分后，进入到第二散热器8,经第二散热器8加热后由排气口19排出；如此不断循环，不断吸收去除室内空气的湿气。
智能除湿无叶风扇除湿供冷工作时，潮湿的空气由进气口20进入后，经过第一散热器7加热成为水蒸气，水蒸气由最底下一层的集水槽14的透气孔18进入，蒸发流动到上一层集水槽14的背面位置21上，被其背面位置21不断冷却成水珠，水珠流到下面一层集水槽14的凹槽16内，再由其凹槽16的排水孔22流到最下面一层的集水槽14内，由最底下一层的集水槽14的凹槽16通过引流管15流到接水箱，利用第一散热器7加热蒸发潮湿空气，利用集水槽14冷却吸收潮湿空气的水分；经过第一次除湿后的潮湿空气，由最上面一层集水槽14的透气孔18排出到蒸发器6，被蒸发器6降温冷凝成水，对潮湿空气进行第二次除湿；冷凝水由蒸发器6滴下到下面的集水槽14，冷凝水经非最后一层各层的集水槽11的凹槽16的排水孔22流入最下一层的集水槽14内，再由最下面一层集水槽14通过引流管15排到接水箱内；潮湿的空气经过散热器7、集水槽14以及蒸发器6两次吸收水分后，由排气口19排出除湿后的冷空气；如此不断循环，不断吸收去除室内空气的湿气。
为了实施提高智能除湿无叶风扇的除湿效果，集水槽14设有多层，最下面一层集水槽14的凹槽16的槽底设有引流管15，引流管15一端与接水箱连通，另一端与凹槽16连通；非最下面一层的集水槽14的凹槽16的槽底设有排水孔22，集水槽14之间留有空间，每层集水槽14设有多个凹槽16以及多个凸台17，每层的集水槽14的凸台17的透气孔18互相连通，每层非最下面一层集水槽14的凹槽16的排水孔22互相连通；每层的集水槽14的凹槽16设有多个，每个凹槽16相互连通；最低一层的集水槽14的透气孔18，对着上一层集水槽14的凹槽16的背面位置21；上一层的凹槽16的背面位置21对着下一层凸台17的透气孔18；使由透气孔18出来的湿蒸汽直接喷在凹槽16的背面位置21上；排气口19设有多个，排气口19设于主机的上端面28，进气口20设有多个，进气口20设于外壳4的周壁29；风机12位于排气口19的下面，第二散热器8位于风机12的下面，蒸发器6位于第二散热器8下面，集水槽14位于蒸发器6下面，第一散热器7位于集水槽14下面，第一散热器7位于进气口20的上方；风机12的机座、第二散热器8、蒸发器6、集水槽14以及第一散 热器7与外壳4的固定连接；集水槽14由铝合金板构成。
为了实施提高智能除湿无叶风扇的控制功能，控制器3设有湿度传感器24以及控制面板25，控制面板25设有自动控制开关26、冷气输出开关27以及停止开关35，湿度传感器24安装于进气口20，湿度传感器24通过传感线与控制器3连接。
智能除湿无叶风扇除湿供暖工作时，按下自动控制开关26，控制器3控制电磁阀9通电，电磁阀9导通，第二散热器8有冷媒通过，第二散热器8散热将通过除湿空气加热，排气口19排出除湿后的暖气；智能除湿无叶风扇除湿供冷工作时，按下冷气输出开关27，控制器3控制电磁阀9断电，电磁阀9不导通，第二散热器8没有冷媒通过，第二散热器8不散热，排气口19排出除湿后的冷空气；蒸发器6滴下到集水槽14冷凝水，由最上一层集水槽14其凹槽16的排水孔22以及透气孔18流入下一层的集水槽14，最后流到最后一层的集水槽14，利用冷凝水将各层的集水槽14降温，增加集水槽14与被散热器7升温的潮湿空气的温差，利用被冷凝水降温的各层集水槽14与升温的潮湿空气接触，使升温的水蒸汽冷却成水珠，提高除湿的效率。
智能除湿无叶风扇除湿供暖工作时，按下自动控制开关26，控制器3进入除湿供暖自动控制工作状态，当室内的空气湿度达到设定的湿度上限值时，湿度传感器24将其湿度信号传输给控制器3，控制器3控制接通压缩机5、风机12以及电磁阀9的电源，利用第一散热器7、集水槽14以及蒸发器6除湿；随着室内的空气湿度不断降低，当室内空气的湿度降低设定的湿度下限值时，湿度传感器24将其湿度信号传输给控制器3，控制器3切断压缩机5、风机12以及电磁阀9的电源，智能除湿无叶风扇工作停止除湿供暖。
智能除湿无叶风扇除湿供冷工作时，按下冷气输出开关27，控制器3进入除湿供冷自动控制工作状态，当室内的空气湿度达到设定的湿度上限值时，湿度传感器24将其湿度信号传输给控制器3，控制器3控制接通压缩机5以及风机12的电源，切断电磁阀9的电源，利用第一散热器7、集水槽14以及蒸发器6除湿；随着室内的空气湿度不断降低，当室内空气的湿度降低设定的湿度下限值时，湿度传感器24将其湿度信号传输给控制器3，控制器3切断压缩机5、风机12的电源，智能除湿无叶风扇工作 停止除湿供冷。
智能除湿无叶风扇工作时，进入散热器7的湿空气被加热成为水蒸气，水蒸气由各层的集水槽14的多个透气孔18进入，被升温的水蒸气直接蒸发到各层的集水槽14的背面位置21，利用被冷凝水降温的各层集水槽14的背面位置21与水蒸气充分接触，使蒸汽冷却为水；由蒸发器6滴下到下面集水槽14的冷凝水，由最后一层集水槽14上面各层集水槽14的排水孔22流到最后一层的集水槽14中，被第一散热器7加热的湿空气经过各层集水槽14的排水孔22时，被流经排水孔22冷凝水吸收变成水，通过引流管15排到接水箱中，进一步提高除湿的效率；风机12运行时，外壳4内空气的流向是由进气口20指向排气口19；智能除湿无叶风扇工作时,利用蒸发器6吸收空气的热量转化到第一散热器7，利用第一散热器7加热蒸发潮湿空气。
热泵装置1包括有储存器30以及气液分离器31；膨胀阀11与储存器30连接，储存器30与第一散热器7以及第二散热器8连接；压缩机5与气液分离器31连接，气液分离器31与蒸发器6连接；外壳4设有控制室32，压缩机5、气液分离器31、储存器30以及膨胀阀11设于控制室32内；控制室32位于进气口20的下方，控制室32设有隔板33，将控制室32与进气口20隔开；接水箱设于外壳4外面，外壳4设有挂钩34，接水箱挂在挂钩34上。

Claims (10)

  1. 一种智能除湿无叶风扇，其特征在于：包括导流体(41)，导流体(41)下部连接有主机(42)，导流体(41)与主机(42)的连接处设置有引流风道，导流体(41)顶部内侧设置有红外体温探测器(51)，所述红外体温探测器(51)与控制器(3)连接；主机(42)包括，包括有热泵装置(1)、集水装置(2)、控制器(3)以及外壳(4)，控制器(3)连接有控制面板(25)，控制面板(25)设有控制开关；热泵装置(1)包括有压缩机(5)、蒸发器(6)、第一散热器(7)、第二散热器(8)、电磁阀(9)、单向阀(10)、膨胀阀(11)以及风机(12)，压缩机(5)的冷媒输出接头(13)与第一散热器(7)以及电磁阀(9)连接，第一散热器(7)与膨胀阀(11)连接，膨胀阀(11)连接与蒸发器(6)连接，蒸发器(6)与压缩机(5)连接，电磁阀(9)与第二散热器(8)连接，第二散热器(8)与单向阀(10)连接，单向阀(10)与膨胀阀(11)连接；集水装置(2)包括有集水槽(14)，集水槽(14)设有凹槽(16)、凸台(17)以及引流管(15)，引流管(15)一端连接至净化装置外侧另一端与凹槽(16)，凸台(17)内部中空，设置有紫外线灯管(21)，凸台(17)设有透气孔(18)；外壳(4)设有排气口(19)以及进气口(20)，风机(12)、蒸发器(6)第一散热器(7)以及第二散热器(8)设于排气口(19)与进气口(20)之间，透气孔(18)与排气口(19)以及进气口(20)连通，集水槽(14)位于蒸发器(6)与第一散热器(7)之间，第二散热器(8)位于风机(12)与蒸发器(6)之间；控制器(3)通过控制线与压缩机(5)以及风机(12)连接；集水槽(14)设有多层，最下面一层集水槽(14)的凹槽(16)的槽底设有引流管(15)，引流管(15)一端与接水箱连通，另一端与凹槽(16)连通；非最下面一层的集水槽(14)的凹槽(16)的槽底设有排水孔(22)，集水槽(14)之间留有空间，每层集水槽(14)设有多个凹槽(16)以及多个凸台(17)；控制器(3)设有湿度传感器(24)以及控制面板(25)，控制面板(25)设有自动控制开关(26)、冷气输出开关(27)以及停止开关(35)。
  2. 根据权利要求1所述的一种智能除湿无叶风扇，其特征在于，所述导流体(41)为环形。
  3. 根权利要求1所述的一种智能除湿无叶风扇，其特征在于，所述排气口(19)为环形网状结构，所述排气口(19)为多个。
  4. 根权利要求1所述的一种智能除湿无叶风扇，其特征在于，其特征在于，所述排气口(19)上设置有空气滤棉。
  5. 根据权利要求4所述的一种具有智能除湿和空气净化功能的空气温度调节装置，其特征在于，所述导流体(41)用螺栓连接在主体(42)上，所述排气口(19)上的空气滤棉为可拆卸结构。
  6. 根据权利要求1所述的具有智能除湿和空气净化功能的空气温度调节装置，所述蒸发器(6)、第一散热器(7)及第二散热器(8)表面涂有纳米二氧化钛涂层。
  7. 根据权利要求1所述的具有智能除湿和空气净化功能的空气温度调节装置，所述集水槽(14)表面涂有纳米二氧化钛涂层。
  8. 根据权利要求1-7任一所述的具有智能除湿和空气净化功能的空气温度调节装置，其工作原理是：智能除湿无叶风扇包括有除湿供暖以及除湿供冷两种工作状态；除湿供暖工作状态是：除湿供暖工作时，将智能除湿无叶风扇置于需要除湿的室内，利用控制器(3)控制热泵装置(1)的压缩机(5)以及风机(9)运行，利用控制器(3)控制电磁阀(9)导通，使第一散热器(7)以及第二散热器(8)散发热量，使蒸发器(6)制冷；潮湿的空气由外壳(4)的进气口(20)抽入，潮湿的空气先经过第一散热器(7)加热蒸发，由集水槽(14)冷却吸收水分，然后经过蒸发器(6)冷凝除湿，经过蒸发器(6)冷凝除湿后的空气再经过第二散热器(8)升温，被吸收水分、冷凝除湿以及升温后的空气由排气口(19)排出；集水槽(14)以及蒸发器(6)吸收的水通过引流管(15)被收集到接水箱内，从而到达提高除湿效率的目的，以及向室内提供干燥的暖气；除湿供冷工作状态是：除湿供冷工作时，利用控制器(3)控制压缩机(5)以及风机(9)运行，利用控制器(3)控制电磁阀(9)关断，电磁阀(9)不导通，使第二散热器(8)没有冷媒进入；控制热泵装置(1)的第一散热器(7)散发热量，以及控制蒸发器(6)制冷；潮湿的空气由外壳(4)的进气口(20)抽入，潮湿的空气先经过第一散热器(7)加热蒸发，由集水槽(14)冷却吸收水分，然后经过蒸发器(6)冷凝除湿，经过蒸发器(6)冷凝除湿后的冷空气由排气口(19)排出；集水槽(14)以及蒸发器(6)吸收的水通过引流管(15)被收集到接水箱内，从而到达提高除湿效率的目的，以及向室内提供干燥的冷气。
  9. 根据权利要求8所述的智能除湿无叶风扇，其特征在于：所述的智能除湿无叶风扇除湿供暖工作时，潮湿的空气由进气口(20)进入后，经过第一散热器(7)加热成为水蒸气，水蒸气由最底下一层的集水槽(14)的透气孔(18)进入，蒸发流动到上一层集水槽(14)的背面位置上，被其背面位置不断冷却成水珠，水珠流到下面一层集水槽(14)的凹槽(16)内，再由其凹槽(16)的排水孔(22)流到最下面一层的集水槽(14)内，由最底下一层的集水槽(14)的凹槽(16)通过引流管(15)流到接水箱，利用第一散热器(7)加热蒸发潮湿空气，利用集水槽(14)冷却吸收潮湿空气的水分；经过第一次除湿后的潮湿空气，由最上面一层集水槽(14)的透气孔(18)流到蒸发器(6)，被蒸发器(6)降温冷凝成水，对潮湿空气进行第二次除湿；冷凝水由蒸发器(6)滴下到下面的集水槽(14)，冷凝水经非最后一层各层的集水槽(11)的凹槽(16)的排水孔(22)流入最下一层的集水槽(14)内，再由最下面一层集水槽(14)通过引流管(15)排到接水箱内；潮湿的空气经过散热器(7)、集水槽(14)以及蒸发器(6)两次吸收水分后，进入到第二散热器(8),经第二散热器(8)加热后由排气口(19)排出；如此不断循环，不断吸收去除室内空气的湿气。
  10. 根据权利要求8所述的智能除湿无叶风扇，其特征在于：所述的智能除湿无叶风扇除湿供冷工作时，潮湿的空气由进气口(20)进入后，经过第一散热器(7)加热成为水蒸气，水蒸气由最底下一层的集水槽(14)的透气孔(18)进入，蒸发流动到上一层集水槽(14)的背面位置上，被其背面位置不断冷却成水珠，水珠流到下面一层集水槽(14)的凹槽(16)内，再由其凹槽(16)的排水孔(22)流到最下面一层的集水槽(14)内，由最底下一层的集水槽(14)的凹槽(16)通过引流管(15)流到接水箱，利用第一散热器(7)加热蒸发潮湿空气，利用集水槽(14)冷却吸收潮湿空气的水分；经过第一次除湿后的潮湿空气，由最上面一层集水槽(14)的透气孔(18)排出到蒸发器(6)，被蒸发器(6)降温冷凝成水，对潮湿空气进行第二次除湿；冷凝水由蒸发器(6)滴下到下面的集水槽(14)，冷凝水经非最后一层各层的集水槽(11)的凹槽(16)的排水孔(22)流入最下一层的集水槽(14)内，再由最下面一层集水槽(14)通过引流管(15)排到接水箱内；潮湿的空气经过散热器(7)、集水槽(14)以及蒸 发器(6)两次吸收水分后，由排气口(19)排出除湿后的冷空气；如此不断循环，不断吸收去除室内空气的湿气。
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