WO2017152691A1 - 一种等离子体空气净化无叶电风扇 - Google Patents

一种等离子体空气净化无叶电风扇 Download PDF

Info

Publication number
WO2017152691A1
WO2017152691A1 PCT/CN2016/111984 CN2016111984W WO2017152691A1 WO 2017152691 A1 WO2017152691 A1 WO 2017152691A1 CN 2016111984 W CN2016111984 W CN 2016111984W WO 2017152691 A1 WO2017152691 A1 WO 2017152691A1
Authority
WO
WIPO (PCT)
Prior art keywords
fan
air
conductive
electrode
plasma
Prior art date
Application number
PCT/CN2016/111984
Other languages
English (en)
French (fr)
Inventor
徐宝安
Original Assignee
淄博环能海臣环保技术服务有限公司
徐宝安
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by 淄博环能海臣环保技术服务有限公司, 徐宝安 filed Critical 淄博环能海臣环保技术服务有限公司
Publication of WO2017152691A1 publication Critical patent/WO2017152691A1/zh

Links

Classifications

    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F04POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS
    • F04BPOSITIVE-DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS
    • F04B41/00Pumping installations or systems specially adapted for elastic fluids
    • F04B41/06Combinations of two or more pumps
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B03SEPARATION OF SOLID MATERIALS USING LIQUIDS OR USING PNEUMATIC TABLES OR JIGS; MAGNETIC OR ELECTROSTATIC SEPARATION OF SOLID MATERIALS FROM SOLID MATERIALS OR FLUIDS; SEPARATION BY HIGH-VOLTAGE ELECTRIC FIELDS
    • B03CMAGNETIC OR ELECTROSTATIC SEPARATION OF SOLID MATERIALS FROM SOLID MATERIALS OR FLUIDS; SEPARATION BY HIGH-VOLTAGE ELECTRIC FIELDS
    • B03C3/00Separating dispersed particles from gases or vapour, e.g. air, by electrostatic effect
    • B03C3/34Constructional details or accessories or operation thereof
    • B03C3/38Particle charging or ionising stations, e.g. using electric discharge, radioactive radiation or flames
    • AHUMAN NECESSITIES
    • A61MEDICAL OR VETERINARY SCIENCE; HYGIENE
    • A61LMETHODS 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
    • A61L9/00Disinfection, sterilisation or deodorisation of air
    • A61L9/015Disinfection, sterilisation or deodorisation of air using gaseous or vaporous substances, e.g. ozone
    • AHUMAN NECESSITIES
    • A61MEDICAL OR VETERINARY SCIENCE; HYGIENE
    • A61LMETHODS 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
    • A61L9/00Disinfection, sterilisation or deodorisation of air
    • A61L9/16Disinfection, sterilisation or deodorisation of air using physical phenomena
    • A61L9/22Ionisation
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B01PHYSICAL OR CHEMICAL PROCESSES OR APPARATUS IN GENERAL
    • B01DSEPARATION
    • B01D53/00Separation of gases or vapours; Recovering vapours of volatile solvents from gases; Chemical or biological purification of waste gases, e.g. engine exhaust gases, smoke, fumes, flue gases, aerosols
    • B01D53/32Separation of gases or vapours; Recovering vapours of volatile solvents from gases; Chemical or biological purification of waste gases, e.g. engine exhaust gases, smoke, fumes, flue gases, aerosols by electrical effects other than those provided for in group B01D61/00
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F04POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS
    • F04DNON-POSITIVE-DISPLACEMENT PUMPS
    • F04D25/00Pumping installations or systems
    • F04D25/02Units comprising pumps and their driving means
    • F04D25/08Units comprising pumps and their driving means the working fluid being air, e.g. for ventilation
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F04POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS
    • F04DNON-POSITIVE-DISPLACEMENT PUMPS
    • F04D25/00Pumping installations or systems
    • F04D25/16Combinations of two or more pumps ; Producing two or more separate gas flows
    • F04D25/166Combinations of two or more pumps ; Producing two or more separate gas flows using fans
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F04POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS
    • F04DNON-POSITIVE-DISPLACEMENT PUMPS
    • F04D29/00Details, component parts, or accessories
    • F04D29/70Suction grids; Strainers; Dust separation; Cleaning
    • F04D29/701Suction grids; Strainers; Dust separation; Cleaning especially adapted for elastic fluid pumps
    • F04D29/703Suction grids; Strainers; Dust separation; Cleaning especially adapted for elastic fluid pumps specially for fans, e.g. fan guards
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F04POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS
    • F04FPUMPING OF FLUID BY DIRECT CONTACT OF ANOTHER FLUID OR BY USING INERTIA OF FLUID TO BE PUMPED; SIPHONS
    • F04F5/00Jet pumps, i.e. devices in which flow is induced by pressure drop caused by velocity of another fluid flow
    • F04F5/14Jet pumps, i.e. devices in which flow is induced by pressure drop caused by velocity of another fluid flow the inducing fluid being elastic fluid
    • F04F5/16Jet pumps, i.e. devices in which flow is induced by pressure drop caused by velocity of another fluid flow the inducing fluid being elastic fluid displacing elastic fluids

Definitions

  • the present invention aims to provide a plasma air purification bladeless electric fan, which not only can efficiently remove the air purification function of solid pollutants and gaseous pollutants in the air, but also has electricity.
  • the fan's air blowing function accelerates air circulation and is an electric fan with high safety factor and high cost performance with air purification function.
  • a plasma air purification bladeless electric fan including a fan base, a casing, a fan motor, a collecting electrode conductive fan, a blowing ring, a shaking head device , plasma high voltage electricity generator.
  • the casing of the plasma air purifying fanless electric fan is connected with the air blowing ring in the same body.
  • the air blowing ring is a closed loop hollow ring, the hollow ring is a air duct, and the inner side of the hollow ring is provided with a throttle annular air outlet.
  • the connection between the root of the air ring and the casing is a fixed connection, or a pitch adjustable movable connection.
  • the lower part of the casing is provided with a fan guard air inlet, and the plasma generating pole is disposed in the air inlet of the fan guard.
  • the collecting electrode conductive fan is connected to the fan motor main shaft and installed inside the casing.
  • the collecting electrode conductive fan is placed in the fan casing.
  • the collecting electrode conductive fan main shaft is coaxially arranged with the fan motor, electrically insulated, and the collecting electrode conductive fan is placed in the plasma. After the pole is generated, the wind generated by the conductive fan of the electrode is collected, blown upward through the air duct of the casing, and the air duct of the casing is connected with the air blowing ring.
  • the conductive fan is a plasma collecting electrode electrically insulated from the fan shroud, the plasma generating pole, the base, the motor, and the ground.
  • the conductive fan is an electric conductor conductive fan, and the conductive fan is electrically insulated from the rotor shaft of the motor.
  • the conductive fan and the positive electrode of the plasma high-voltage generator are electrically connected to the conductive fan through a brush.
  • the absolute value of the high voltage negative electrode voltage of the plasma high voltage generator is higher than the absolute value of the high voltage positive electrode voltage.
  • the conductive fan is made of a metal material, or a plastic material is used as a substrate, and a metal or carbon material film layer is coated on the substrate, or the conductive fan is made of a composite conductive material, or the conductive fan is a plastic electric insulating base.
  • the material is made of a composite conductive film material.
  • the collecting electrode of the collecting electrode starts to rotate, the wind first passes through the fan shroud, and then passes through a plasma generating electrode with a high voltage negative electric charge, and the plasma generating electrode discharges the air, ionizes the air, and makes the air It is filled with negative ions and makes various pollutants in the air negatively charged.
  • Air with a large amount of negative ions and ozone is drawn by a high-voltage positively-charged collector electrode, a fan of air and a positively charged collector electrode, violently colliding with contact discharge, killing bacterial viruses, decomposing organic matter, and carrying negative ions
  • the adsorption of various pollutants is trapped on the fins of the collector fan of the collecting electrode, and the air is obtained from the primary net. Chemical.
  • a plasma air purification bladeless electric fan includes a fan base, a casing, a fan motor, a collecting electrode conductive fan, a blowing ring, a shaking head device, and a plasma high voltage electric generator.
  • a plasma air purifying fanless fan is connected to the air blowing ring in the same body, the blowing ring is a closed loop hollow ring, the hollow ring is a air duct, and the inner side of the hollow ring is provided with a throttle annular air outlet.
  • the connection between the root of the air ring and the casing is fixedly connected, or the pitch is adjustable.
  • the lower part of the casing is provided with a fan guard air inlet, and the plasma is generated in the air inlet of the fan guard.
  • the collecting electrode conductive fan is connected to the fan motor main shaft and installed inside the casing.
  • the collecting electrode conductive fan is placed in the fan casing.
  • the collecting electrode conductive fan main shaft is coaxially arranged with the fan motor, electrically insulated, and the collecting electrode conductive fan is placed in the plasma. After the pole is generated, the wind generated by the conductive fan of the electrode is collected, blown upward through the air duct of the casing, and the air duct of the casing is connected with the air blowing ring.
  • the moving head device is driven by the fan motor, or driven by a separate moving head motor, and the blowing ring is driven by the conventional shifting device and the clutch device to realize the blowing ring shaking head.
  • the plasma high voltage generator is a generator that is connected to a power source and can generate positive and negative high voltage power.
  • the inner air inlet of the air inlet side fan guard is provided with a plasma generating pole electrically insulated from the fan guard, the motor, the conductive fan, and the base.
  • the plasma generation extremely includes a metal needle array electrode, a wire mesh electrode, a wire, a zigzag type, a thorn type or a fishbone type structure electrode.
  • the plasma generating pole is connected to the high voltage negative electrode.
  • the plasma generator pole is integrated with the inlet side fan shroud, or a split combination.
  • the conductive fan is made of a metal material, or a plastic material is used as a substrate, and a metal or carbon material film layer is coated on the substrate, or the conductive fan is made of a composite conductive material, or the conductive fan is a plastic electric insulating base.
  • the material is made of a composite conductive film material.
  • the electrostatic induction collecting electrode conductive grid is electrically insulated from the fan shroud, the plasma generating pole, the base, the motor, the ground, the electrostatic induction collecting electrode conductive grid is made of a metal material, or the static induction collecting electrode is a conductive mesh on the surface of the metal material
  • the electric insulating material is made of a plastic insulating material, or a plastic material is used as a substrate, and a metal or carbon material film layer is coated on the substrate, or the electrostatic induction collecting electrode conductive grid is made of a composite conductive material, or an electrostatic induction collecting electrode conductive net.
  • the grid is made of a plastic electrically insulating substrate and is made of a composite conductive film material.
  • the conductive fan When the conductive fan is turned on, the conductive fan starts to rotate, the wind first passes through the fan shroud, and then passes through a plasma generating pole with a high voltage negative voltage, the plasma generating pole discharges the air, ionizes the air, and the air is filled with negative ions, and The various pollutants in the air are also negatively charged. Air with a large amount of negative ions and ozone is sucked by a high-voltage positively charged plasma collecting electrode conductive fan, air and a positively charged plasma collecting electrode conductive fan, violent collision contact discharge, killing bacterial viruses, decomposing organic matter, and The adsorption of various contaminants with negative ions is trapped on the fins of the conductive fan, and the air is purified first.
  • the air enters the inner cavity of the air blowing ring, and the air with negative ions induces the inner cavity wall of the air blowing ring into a surface with a positively charged film layer, further adsorbs various negatively charged pollutants, and is adsorbed on the air blowing ring.
  • a third purification of the air is achieved.
  • the purified air flows along the flow guiding surface under the action of the flow guiding surface, and is throttled at a high speed through the throttle annular outlet.
  • the utility model comprises a fan base, a casing, a fan motor, a collecting electrode conductive fan, a blowing ring, etc., which are inserted and assembled, and convenient for disassembly and assembly.
  • the plasma air purifying fanless electric fan reaches a certain amount of ash accumulation, the plasma generating electrode, the plasma collecting electrode, the collecting electrode conductive fan, and the air ring of the collecting ring are cleaned and reduced.
  • the conductive grid is a plasma collecting electrode electrically insulated from the fan shroud, the plasma generating pole, the base, the motor, and the ground.
  • the conductive grid is made of a metal material, or a plastic material is used as a substrate. The material is coated with a metal or carbon material film layer, or the conductive mesh grid is made of a composite conductive material, or the conductive mesh grid is a plastic electrically insulating substrate, and the composite conductive film material is made.
  • the conductive grid is electrically insulated from the inlet side fan shroud, or the conductive grid is electrically insulated and separated from the inlet side fan shroud.
  • the conductive grid is electrically connected to the positive electrode of the plasma high voltage generator.
  • the absolute value of the high voltage negative electrode voltage of the plasma high voltage generator is higher than the absolute value of the high voltage positive electrode voltage.
  • the conductive fan is an electrostatic induction collecting electrode electrically insulated from the fan shroud, the plasma generating pole, the base, the motor, and the ground, the conductive fan is an electric conductor conductive fan, the conductive fan is made of a metal material, or the conductive fan is The surface of the metal material is made of an electrically insulating material, or the plastic material is used as a substrate, and a metal or carbon material film layer is coated on the substrate, or the conductive fan is made of a composite conductive material, or the conductive fan is a plastic electric battery.
  • Air with a large amount of negative ions and ozone is attracted by a high-voltage positively charged metal plasma conductive grid collecting electrode, air and a positively charged metal plasma conductive grid collecting electrodes, violent collision contact discharge, killing bacterial viruses, The organic matter is decomposed, and various pollutants with negative ions are adsorbed and trapped on the fins of the plasma conductive grid collecting electrode, and the air is subjected to primary purification.
  • the electrostatic induction collecting electrode conductive fan Since the electrostatic induction collecting electrode conductive fan is located behind the metal plasma conductive grid collecting electrode, the surface of the electrostatic induction collecting electrode conductive fan adjacent to the positively charged metal plasma conductive grid collecting electrode electrostatically induces a negative charge, repels negative ions, and adsorbs Positive ions and various contaminants with positive ions, statically induced collecting electrode on the back side of the conductive fan electrostatically induces a positive charge, repels positive ions, adsorbs negative ions and various contaminants with negative ions, so that the air is purified a second time.
  • the airflow flows upward.
  • the air enters the inner cavity of the air ring, and the air with negative ions induces the inner wall of the air ring into a surface with a positively charged film layer, further adsorbs various negatively charged contaminants, and is adsorbed.
  • a third purification of the air is achieved on the inner wall of the air ring. The purified air flows along the flow guiding surface under the action of the diversion surface, and is throttled at a high speed through the throttle annular outlet.
  • the moving head device is driven by a fan motor, or driven by a unique moving head motor, and the blowing ring is driven by a conventional shifting device and a clutch device to realize a blowing ring shaking head.
  • the plasma high voltage generator is a generator that is connected to a power source and can generate positive and negative high voltage power.
  • the inner air inlet of the air inlet side fan guard is provided with a plasma generating pole electrically insulated from the fan guard, the motor, the conductive fan, and the base.
  • the plasma generation extremely includes a metal needle array electrode, a wire mesh electrode, a wire, a zigzag type, a thorn type or a fishbone type structure electrode.
  • the plasma generating pole is connected to the high voltage negative electrode.
  • the plasma generator pole is integrated with the inlet side fan shroud, or a split combination.
  • the conductive fan is an electrostatic induction collecting electrode electrically insulated from the fan guard, the plasma generating pole, the base, the motor, and the ground.
  • the conductive fan is an electric conductor conductive fan, the conductive fan is made of a metal material, or the conductive fan is a metal material surface. It is made of electric insulating material, or is made of plastic material as substrate, coated with metal or carbon material film on the substrate, or conductive fan is made of composite conductive material, or conductive fan is plastic electrically insulating substrate.
  • the composite conductive film material is made of.
  • the conductive fan is disposed after the plasma generating electrode and before the plasma collecting electrode.
  • the conductive grid is a plasma collecting electrode electrically insulated from the fan shroud, the plasma generating pole, the base, the motor, and the ground.
  • the conductive grid is made of a metal material, or a plastic material is used as a substrate, a metal or carbon material film layer is coated on the substrate, or the conductive grid is made of a composite conductive material, or a conductive grid It is made of a composite conductive film material on a plastic electrically insulating substrate.
  • the conductive grid is electrically insulated from the outlet side fan shroud, or the conductive grid is electrically insulated and separated from the outlet side fan shroud.
  • the conductive grid is electrically connected to the positive electrode of the plasma high voltage generator.
  • the absolute value of the high voltage negative electrode voltage of the plasma high voltage generator is higher than the absolute value of the high voltage positive electrode voltage.
  • static induction collecting electrode conductive fan, static induction collecting electrode conductive fan starts to rotate, the wind first passes through the fan guard, and then passes through the plasma generating electrode with high voltage negative electricity, the plasma generating electrode discharges air, ionizes the air And make various pollutants in the air also negatively charged.
  • the secondary purified air enters the inner cavity of the air blowing ring, and the air with negative ions induces the inner cavity wall of the air blowing ring to be a surface with a positively charged film layer, further adsorbing various negative pollutants, and It is adsorbed on the inner wall of the air ring to achieve the third purification of the air.
  • the purified air flows along the flow guiding surface under the action of the diversion surface, and is throttled at a high speed through the throttle annular outlet.
  • the conductive fan is a plasma collecting electrode electrically insulated from the fan shroud, the plasma generating pole, the base, the motor, and the ground.
  • the conductive fan is an electric conductor conductive fan, and the conductive fan is electrically insulated from the rotor shaft of the motor.
  • the conductive fan and the positive electrode of the plasma high-voltage generator are electrically connected to the conductive fan through a brush.
  • the conductive fan is made of a metal material, or a plastic material is used as a substrate, and a metal or carbon material film layer is coated on the substrate, or the conductive fan is made of a composite conductive material, or the conductive fan is a plastic electric insulating base.
  • the material is made of a composite conductive film material.
  • the absolute value of the high voltage negative electrode voltage of the plasma high voltage generator is higher than the absolute value of the high voltage positive electrode voltage.
  • ⁇ ⁇ collecting electrode conductive fan collecting electrode conductive fan starts to rotate, the wind first passes through the fan shield, and then passes through a plasma generating electrode with a high voltage negative electricity, the plasma generating electrode discharges the air, ionizes the air, and fills the air Negative ions, and the various pollutants in the air are also negatively charged.
  • the air filled with negative ions collects the electrodes through the electrostatic induction conductive grid. Since the electrostatic induction conductive grid collector electrode is located behind the plasma generating electrode, the surface of the electrostatic induction conductive grid collecting electrode adjacent to the negatively charged plasma generating electrode is positively induced. Charge, repel positive ions, adsorb negative ions and various contaminants with negative ions. Electrostatic induction conductive grid collects negative charges on the back side of the collector electrode, repels negative ions, adsorbs positive ions and various contaminants with positive ions, and makes the air preliminary. Purification.
  • the initially purified air collides with the collecting electrode conductive fan to pressurize, so that the negative ions and negatively charged various pollutants in the air are attracted by the collecting electrode conductive fan, collide contact discharge, kill bacterial virus, and decompose
  • the organic matter, and the adsorption of various pollutants with negative ions are trapped on the fins of the conductive fan of the collecting electrode, and the air is purified twice.
  • the collected electrode conductive fan is used to purify the pressurized secondary purified air, and enters the inner cavity of the blowing ring.
  • the air with negative ions induces the inner wall of the blowing ring to be a surface with a positively charged film layer, and further adsorbs each of the negatively charged layers.
  • the pollutants are adsorbed on the inner wall of the air ring to achieve the third purification of the air.
  • the purified air flows along the flow guiding surface under the action of the flow guiding surface, and is throttled at a high speed through the throttle annular air outlet.
  • the plasma air purifying fanless electric fan reaches a certain amount of ash, the plasma generating electrode, the plasma collecting electrode, the collecting electrode conductive fan, and the air ring of the collecting ring are cleaned and restored.
  • the moving head device is driven by the fan motor, or driven by a separate moving head motor, and the blowing ring is driven by the conventional shifting device and the clutch device to realize the blowing ring shaking head.
  • the plasma high voltage generator is a generator that is connected to a power source and can generate positive and negative high voltage power.
  • the inner air inlet of the air inlet side fan guard is provided with a plasma generating pole electrically insulated from the fan guard, the motor, the conductive fan, and the base.
  • the plasma generation extremely includes a metal needle array electrode, a wire mesh electrode, a wire, a zigzag type, a thorn type or a fishbone type structure electrode.
  • the plasma generating pole is connected to the high voltage negative electrode.
  • the plasma generator pole is integrated with the inlet side fan shroud, or a split combination.
  • the conductive fan is a plasma collecting electrode electrically insulated from the fan shroud, the plasma generating pole, the base, the motor, and the ground.
  • the conductive fan is an electric conductor conductive fan, and the conductive fan is electrically insulated from the rotor shaft of the motor.
  • the conductive fan and the negative electrode of the plasma high-voltage generator are electrically connected to the conductive fan through a brush.
  • the electric fan is made of a metal material, or a plastic material is used as a substrate, and a metal or carbon material film layer is coated on the substrate, or the conductive fan is made of a composite conductive material, or the conductive fan is a plastic electric insulating base.
  • the material is made of a composite conductive film material.
  • the absolute value of the high voltage negative electrode voltage of the plasma high voltage generator is higher than the absolute value of the high voltage positive electrode voltage.
  • ⁇ ⁇ collecting electrode conductive fan collecting electrode conductive fan starts to rotate, the wind first passes through the fan shield, and then passes through a plasma generating electrode with high voltage negative electricity, the plasma generating electrode discharges air, ionizes the air, and fills the air Negative ions, and the various pollutants in the air are also negatively charged.
  • the air filled with negative ions collects the electrodes through a conductive grid electrically connected to the positive electrode of the plasma high-voltage generator. Since the conductive grid collecting electrode is located behind the plasma generating electrode, it is positively charged, thus rejecting positive ions, adsorbing negative ions and bands Various pollutants of negative ions allow the air to be initially purified.
  • the collecting electrode conductive fan is electrically connected to the negative electrode of the plasma high voltage electric generator.
  • the initially purified air collides with the negatively charged collector electrode conductive fan to make the positive ions and positively charged various pollutants in the air attract by the collecting electrode conductive fan, collide and discharge, and kill the bacterial virus.
  • the organic matter is decomposed, and various pollutants with positive ions are adsorbed and trapped on the fins of the conductive fan of the collecting electrode, and the air is secondarily purified.
  • the purified air flows along the flow guiding surface under the action of the flow guiding surface, and is throttled at a high speed through the throttle annular air outlet.
  • the plasma air purification bladeless electric fan reaches a certain amount of ash accumulation, the plasma generating electrode, the plasma collecting electrode, the collecting electrode conductive fan, and the blowing ring inner cavity are cleaned and restored.
  • the conductive fan is a plasma collecting electrode electrically insulated from the fan shroud, the plasma generating pole, the base, the motor, and the ground.
  • the conductive fan is an electric conductor conductive fan, and the conductive fan is electrically insulated from the rotor shaft of the motor.
  • the conductive fan and the positive electrode of the plasma high-voltage generator are electrically connected to the conductive fan through a brush.
  • the conductive fan is made of a metal material, or a plastic material is used as a substrate, and a metal or carbon material film layer is coated on the substrate, or the conductive fan is made of a composite conductive material, or the conductive fan is a plastic electric insulating base.
  • the material is made of a composite conductive film material.
  • the conductive fan and the positive electrode of the plasma high-voltage generator are electrically connected to the conductive fan through a brush.
  • the conductive grid collecting electrode is a plasma collecting electrode electrically insulated from the fan shroud, the plasma generating pole, the base, the motor, and the ground.
  • the conductive grid collecting electrode is made of a metal material, or a plastic material is used as a substrate, a metal or carbon material film layer is coated on the substrate, or the conductive grid collecting electrode is made of a composite conductive material.
  • the conductive grid collecting electrode is electrically insulated from the inlet side fan shroud, or the conductive grid collecting electrode and the inlet side fan shroud are electrically insulated and separated.
  • the conductive grid collecting electrode is electrically connected to the cathode of the plasma high voltage generator.
  • the absolute value of the high voltage negative electrode voltage of the plasma high voltage generator is higher than the absolute value of the high voltage positive electrode voltage.
  • ⁇ ⁇ collecting electrode conductive fan collecting electrode conductive fan starts to rotate, the wind first passes through the fan guard, and then passes through a plasma generating electrode with high voltage and negative electricity, the plasma generating electrode discharges air, ionizes the air, and fills the air Negative ions, and the various pollutants in the air are also negatively charged.
  • the air filled with negative ions passes through the collecting electrode conductive fan electrically connected to the positive electrode of the plasma high-voltage generator, repels positive ions, adsorbs negative ions and various pollutants with negative ions, and air filled with negative ions, which is in contact with the collecting electrode conductive fan.
  • the purified air flows along the flow guiding surface under the action of the flow guiding surface, and is throttled at a high speed through the throttle annular air outlet.
  • the plasma air purifying fanless electric fan reaches a certain amount of ash, the plasma generating electrode, the plasma collecting electrode, the collecting electrode conductive fan, and the air ring of the collecting ring are cleaned and restored.
  • the collecting electrode conductive fan is connected to the fan motor main shaft and installed in the casing, and the collecting electrode conductive fan is placed in the fan casing, and the collecting electrode conductive fan main shaft is coaxially arranged with the fan motor, electrically insulated, and the collecting electrode conductive fan is disposed.
  • the wind generated by the conductive fan of the electrode is collected after the plasma generating pole, and is blown upward through the air duct of the casing, and the air duct of the casing is connected with the air blowing ring.
  • the moving head device is driven by the fan motor, or driven by a separate moving head motor, and the blowing ring is driven by a conventional shifting device and a clutch device to realize the blowing ring moving head
  • the plasma high voltage generator is a generator that is connected to a power source and is capable of generating positive and negative high voltage power.
  • a plasma generating pole electrically insulated from the fan guard, the motor, the conductive fan, and the base is provided.
  • the plasma generation extremely includes a metal needle array electrode, a wire mesh electrode, a wire, a zigzag type, a thorn type or a fish bone type structure electrode.
  • the plasma generator is connected to the high voltage negative electrode.
  • the plasma generating pole is integrally provided with the inlet side fan shroud, or is provided in a separate combination.
  • the one side conductive grid collecting electrode is a plasma collecting electrode electrically insulated from the fan shroud, the plasma generating pole, the base, the motor, and the ground.
  • the one side conductive grid collecting electrode is made of a composite electric insulating film layer on one side of the metal material surface, or a plastic material is used as a substrate, and a metal or carbon material film layer is coated on one side of the substrate side, or one side
  • the conductive grid collecting electrode is made of a composite electrically insulating film layer on one side of the composite conductive material.
  • One side of the conductive grid collecting electrode is electrically insulated from the inlet side fan shroud, or one side of the conductive grid collecting electrode and the inlet side fan shroud are electrically insulated and separated.
  • One side of the conductive grid collecting electrode and the plasma generating pole adjacent to the side of the electric insulating film layer, one side of the conductive grid collecting electrode and the plasma high voltage electric generator negative electrode are electrically connected, through the electrically insulating film layer, in the plasma
  • the positively adjacent side electrostatically induces a positive electrode film layer.
  • ⁇ ⁇ collecting electrode conductive fan collecting electrode conductive fan starts to rotate, the wind first passes through the fan shield, and then passes through a plasma generating electrode with high voltage negative electricity, the plasma generating electrode discharges air, ionizes the air, and fills the air Negative ions, and the various pollutants in the air are also negatively charged.
  • the air filled with negative ions is collected by a conductive grid electrically connected to the negative electrode of the plasma high-voltage generator, since the conductive grid collecting electrode is located behind the plasma generating electrode, and the adjacent surface of the plasma generating electrode is an electrically insulating film layer Therefore, in the case where the conductive grid collector electrode is negatively charged, a positively charged film layer is induced on the adjacent insulating film layer of the plasma generating electrode through the electrically insulating film layer, and positive ions are repelled, and negative ions and negative ions are adsorbed.
  • the contaminant, the surface of the conductive grid collecting electrode and the opposite side of the collecting electrode of the collecting electrode is an electric conductor surface, which is negatively charged, adsorbs positive ions, repels negative ions, and preliminarily purifies the air.
  • the collecting electrode conductive fan is electrically connected to the positive electrode of the plasma high voltage electric generator.
  • the initially purified air touches the supercharger with the positively charged collector electrode conductive fan, so that the negative ions and negatively charged various pollutants in the air are attracted by the collector electrode conductive fan, collide contact discharge, and kill the bacterial virus.
  • the organic matter is decomposed, and various pollutants with negative ions are adsorbed and trapped on the fins of the collector electrode of the collecting electrode, and the air is secondarily purified.
  • the collected electrode conductive fan is used to purify the pressurized secondary purified air, and enters the inner cavity of the blowing ring.
  • the air with negative ions induces the inner wall of the blowing ring to be a surface with a positively charged film layer, and further adsorbs each of the negatively charged layers.
  • the pollutants are adsorbed on the inner wall of the air ring to achieve the third purification of the air.
  • the purified air flows along the flow guiding surface under the action of the diversion surface, and is throttled at a high speed through a throttling annular air outlet.
  • the utility model comprises a fan base, a casing, a fan motor, a collecting electrode conductive fan, a blowing ring, etc., which are inserted and assembled, and are convenient to disassemble.
  • the plasma air purifying fanless electric fan reaches a certain amount of ash
  • the plasma generating electrode, the plasma collecting electrode, the collecting electrode conductive fan, and the air ring of the collecting ring are cleaned and restored.
  • the conductive fan is a plasma collecting electrode electrically insulated from the fan shroud, the plasma generating pole, the base, the motor, and the ground.
  • the conductive fan is a conductive fan on one side, and the conductive fan on one side is electrically insulated from the rotor shaft of the motor.
  • the conductive grid collecting electrode is a plasma collecting electrode electrically insulated from the fan shroud, the plasma generating pole, the base, the motor, and the ground.
  • the conductive grid collecting electrode is made of a metal material, or a plastic material is used as a substrate, and a metal or carbon material film layer is coated on the substrate, or the conductive grid collecting electrode is made of a composite conductive material, or is electrically conductive.
  • the grid collecting electrode is made of a composite conductive film material on a plastic electrically insulating substrate.
  • the conductive grid collecting electrode is electrically connected to the positive electrode of the plasma high voltage generator.
  • the absolute value of the high voltage negative electrode voltage of the plasma high voltage generator is higher than the absolute value of the high voltage positive electrode voltage.
  • ⁇ ⁇ collecting electrode conductive fan collecting electrode conductive fan starts to rotate, the wind first passes through the fan shield, and then passes through a plasma generating electrode with high voltage and negative electricity, the plasma generating electrode discharges air, ionizes the air, and fills the air Negative ions, and the various pollutants in the air are also negatively charged.
  • Collecting the surface of the opposite side of the conductive fan of the electrode and the collector electrode of the collecting electrode which is an electric conductor surface, has a negative charge, adsorbs positive ions, repels negative ions, and is filled with negative ions.
  • the conductive fan of the collecting electrode touches the pressurized air to cause negative ions in the air.
  • the negatively charged various pollutants are attracted by the collector electrode conductive fan, collide contact discharge, kill the bacterial virus, decompose the organic matter, and trap the various pollutants with negative ions on the fins of the collecting electrode conductive fan to make the air Get a preliminary purification.
  • the conductive grid collecting electrode is electrically connected to the positive electrode of the plasma high-voltage electric generator to obtain preliminary purified air, enters the positively-charged conductive grid collecting electrode, and adsorbs negative ions and various pollutants with negative ions,
  • the air is purified twice.
  • the secondary purified air is collected by the conductive grid to enter the inner cavity of the blowing ring, and the air with negative ions induces the inner wall of the blowing ring to be a surface with a positively charged film layer, further adsorbing various negatively charged pollutions.
  • the object is adsorbed on the inner wall of the air ring to achieve a third purification of the air.
  • the purified air flows along the flow guiding surface under the action of the flow guiding surface, and is throttled at a high speed through the throttle annular air outlet.
  • the plasma air purification bladeless electric fan reaches a certain amount of ash accumulation, the plasma generating electrode, the plasma collecting electrode, the collecting electrode conductive fan, and the blowing ring inner cavity are cleaned and restored.
  • a plasma air purification bladeless electric fan, the motor rotor shaft and the conductive fan main shaft connecting the end, is provided with a permanent magnet toothed disc, or a ferromagnetic material made of a toothed disc, a conductive fan
  • the main shaft connecting end is a toothed disc corresponding to the permanent magnet toothed disc of the motor rotor shaft
  • the conductive fan main shaft is connected with the end toothed disc, is a toothed disc made of ferromagnetic material, or is made of a permanent magnet material. Gum plate.
  • the permanent magnet toothed disc of the motor rotor shaft and the conductive fan main shaft are connected to the end of the permanent magnet toothed disc.
  • the insulating surface is provided with an electrically insulating material layer.
  • a plasma air purification bladeless electric fan, the plasma collecting electrode conductive fan, the brush connected with the positive electrode of the plasma high voltage electric generator is made of graphite material, the brush is passed through the spring, or the brush is built in It has a ferromagnetic material and is electrically connected to the main shaft of the conductive fan by suction.
  • a plasma air purifying bladeless electric fan wherein the air inlet side fan shroud is provided with a ferromagnetic material, or a buckle made of a permanent magnet, and a plasma generating pole is provided with an air inlet side fan
  • the corresponding ferromagnetic material on the shield, or the buckle made of the permanent magnet, the plasma generating pole and the air inlet side fan guard are combined by the female snap fastener.
  • a plasma air purification bladeless electric fan wherein the positive and negative ion generators are installed in the base, and the positive and negative ion generators are provided with a metal shield and grounded.
  • the moving head device is driven by a fan motor or driven by a unique moving head motor.
  • the conductive fan is driven by a conventional shifting device and a clutch device to realize a conductive fan shaking head.
  • the fan guard is made of plastic, made of metal, and the fan guard made of metal is grounded.
  • the motor is wrapped in the fan guard and the stator core of the motor is grounded.
  • a plasma air purification bladeless electric fan comprising an axial flow conductive fan, cross current conduction Fan, centrifugal conductive fan.
  • the conductive fan is a plastic electrically insulating substrate, and the composite conductive film material thereon is an evaporated metal film or a composite carbon material film.
  • the electric fan is provided with a button or a remote controller including a total shutoff, a wind regulation, a wind direction, a fixed enthalpy, and a negative ion generator.
  • the remote control includes a mobile phone that is remotely controlled via a wireless network.
  • the plasma air-purifying bladeless electric fan of the present invention passes through multiple forced reactions, and the plasma is fully used, so that few residual ozone radicals cause damage to the human body and have extremely high safety. Moreover, the air circulation speed is fast, the dust removal efficiency is high, the function of the conductive fan is provided, and the cost performance is high.
  • the electric fan is used to increase the circulation of air, improve the efficiency of purifying air, increase the average distribution of air negative ions, increase the function of the electric fan, improve its utilization rate, and improve the air purification effect. It is a plasma air purifying fanless fan with high safety factor and high cost performance.
  • FIG. 1 is a schematic structural view of a first embodiment of a plasma air purification bladeless electric fan according to the present invention
  • FIG. 2 is a second embodiment of a plasma air purification bladeless electric fan according to the present invention
  • 3 is a schematic structural view of a third embodiment of a plasma air purifying bladeless electric fan according to the present invention
  • FIG. 4 is a plasma air purifying leafless electric fan of the present invention.
  • FIG. 5 is a schematic structural view of a fifth embodiment of a plasma air purification bladeless electric fan according to the present invention
  • FIG. 6 is a plasma air purification method of the present invention.
  • FIG. 7 is a schematic structural view of a seventh embodiment of a plasma air purification bladeless electric fan according to the present invention.
  • FIG. 8 is a plasma of the present invention.
  • FIG. 9 is a schematic structural view of a ninth embodiment of a plasma air-purifying leafless electric fan according to the present invention. [0070] FIG.
  • the conductive fan 6 starts to rotate, and the wind passes through the fan inlet hood 4, enters the plasma generating pole electrically insulating bracket 11, and the plasma generating pole discharge wire 7 discharges the air, ionizing the air, so that The air is filled with negative ions and the various pollutants in the air are also negatively charged. Air with a large amount of negative ions and ozone is sucked by the high-voltage positively-charged collector electrode conductive fan 6, air and positively charged collector electrode conductive fan 6, violent collision contact discharge, killing bacterial virus, decomposing organic matter, and bringing The adsorption of various contaminants of negative ions is trapped on the fins of the collecting electrode conductive fan 6, and the air is subjected to primary purification.
  • the air After the air is rotated and pressurized by the collecting electrode conductive fan 6, the air flows upward. After the preliminary purification of the air, entering the inner cavity of the air ring 3, the air with negative ions induces the inner wall of the air ring 3 into a surface with a positively charged film layer, further adsorbing various negative pollutants, and is Adsorbed on the inner wall of the air ring 3 to achieve a second purification of the air.
  • the purified air flows along the flow guiding surface under the action of the flow guiding surface, and is throttled at a high speed by the throttle ring 5 of the blowing ring 3.
  • the conductive fan 6 When the conductive fan is turned on, the conductive fan 6 starts to rotate, and the wind passes through the fan inlet hood 4, enters the plasma generating pole electrically insulating bracket 11, and the plasma generating pole discharge wire 7 discharges the air, ionizing the air,
  • the air is filled with negative ions and the various pollutants in the air are also negatively charged.
  • the air with a large amount of negative ions and ozone is sucked by the high-voltage positively charged plasma collecting electrode conductive fan 6, the air and the positively charged plasma collecting electrode conductive fan 6, violently colliding with the contact discharge, killing the bacterial virus, decomposing the organic matter
  • the adsorption of various contaminants with negative ions is trapped on the fins of the conductive fan 6, and the air is subjected to primary purification.
  • the air After the air is pressurized by the plasma collecting electrode conductive fan 6 with high voltage positive voltage, the air enters the static induction collecting electrode conductive grid 15 to induce a negatively charged surface on the electrostatic induction collecting electrode conductive grid 15 to further adsorb the positive band.
  • Electric various pollutants the second purification of air.
  • the air enters the inner cavity of the air ring 3, and the air with negative ions induces the inner wall of the air ring 3 into a surface with a positively charged film layer, further adsorbs various negatively charged contaminants, and is adsorbed in the air ring.
  • a third purification of the air is achieved. The purified air flows along the flow guiding surface under the action of the diversion surface.
  • the throttle is discharged at a high speed through the throttled annular air outlet.
  • the plasma air purifying fanless electric fan reaches a certain amount of ash, the plasma generating electrode, the plasma collecting electrode, the collecting electrode conductive fan, and the air ring of the collecting ring are cleaned and restored.
  • a third embodiment of a plasma air purification bladeless electric fan of the present invention operates as follows:
  • the conductive fan 6 When the conductive fan is turned on, the conductive fan 6 starts to rotate, and the wind passes through the fan inlet hood 4, enters the plasma generating pole electrically insulating bracket 11, and the plasma generating pole discharge wire 7 discharges the air, ionizing the air, The air is filled with negative ions and the various pollutants in the air are also negatively charged.
  • the air with a large amount of negative ions and ozone is collected by the collector electrode with a high-voltage positively charged metal plasma conductive grid 15 , and the air and the positively charged metal plasma conductive grid 15 collect the electrodes, violently collide with the contact discharge, kill the bacteria
  • the virus decomposes the organic matter and traps the various contaminants with negative ions on the fins of the collecting electrode of the plasma conductive grid 15 to obtain primary purification.
  • the electrostatic induction collecting electrode conductive fan 6 is located behind the collecting electrode of the metal plasma conductive mesh 15 , the electrostatic induction collecting electrode conductive fan 6 electrostatically induces a negative charge on the surface adjacent to the collector electrode of the positively charged metal plasma conductive grid 15 .
  • Repel negative ions, adsorb positive ions and various contaminants with positive ions statically induce the positive charge on the back side of the conductive fan 6 of the collecting electrode, repel positive ions, adsorb negative ions and various pollutants with negative ions, and make the air get a second time.
  • Purification After the electrostatically induced collecting electrode conductive fan 6 is rotated and pressurized, the airflow flows upward. After the second purified air enters the inner cavity of the air blowing ring 3, the air with negative ions induces the inner wall of the air blowing ring 3 into a surface with a positively charged film layer, further adsorbing various negative pollutants, and It is adsorbed on the inner wall of the air ring 3 to achieve the third purification of the air.
  • a fourth embodiment of a plasma air purification bladeless electric fan of the present invention operates as follows:
  • the electrostatic induction collecting electrode conductive fan 6 Since the electrostatic induction collecting electrode conductive fan 6 is located behind the plasma generating electrode 7, the surface of the electrostatic induction collecting electrode conductive fan 6 adjacent to the negatively charged plasma generating electrode 7 electrostatically induces a positive charge, repels positive ions, adsorbs negative ions and carries negative ions.
  • the supercharged wind is purified by the electrostatic induction collecting electrode conductive fan 6, and the electrode is collected by the high-voltage positively charged metal plasma conductive grid 15 to cause negative ions and negatively charged various pollutants in the air, and the positively charged metal
  • the plasma conductive grid 15 collects the electrode attraction, violently collides with the contact discharge, kills the bacterial virus, decomposes the organic matter, and traps the various contaminants with negative ions on the fins of the plasma conductive grid 15 collecting electrode, and the air is obtained.
  • the second purification is performed by the electrostatic induction collecting electrode conductive fan 6, and the electrode is collected by the high-voltage positively charged metal plasma conductive grid 15 to cause negative ions and negatively charged various pollutants in the air, and the positively charged metal
  • the plasma conductive grid 15 collects the electrode attraction, violently collides with the contact discharge, kills the bacterial virus, decomposes the organic matter, and traps the various contaminants with negative ions on the fins of the plasma conductive grid 15 collecting electrode, and the air is obtained.
  • the secondary purified air enters the internal cavity of the air ring 3, and the air with negative ions induces the inner wall of the air ring 3 into a surface with a positively charged film layer, further adsorbing various negatively charged contaminants, and is Adsorbed on the inner wall of the air ring 3 to achieve a third purification of the air.
  • the purified air flows along the flow guiding surface under the action of the flow guiding surface, and is throttled at a high speed through the throttle annular air outlet 5.
  • the plasma air purifying fanless electric fan reaches a certain amount of ash, the plasma generating electrode, the plasma collecting electrode, the electrostatic induction collecting electrode conductive fan, and the air ring of the air blowing ring are cleaned and restored.
  • the conductive fan 6 When the conductive fan is turned on, the conductive fan 6 starts to rotate, and the wind passes through the fan inlet hood 4, enters the plasma generating pole electrically insulating bracket 11, and the plasma generating pole discharge wire 7 discharges the air, ionizing the air, The air is filled with negative ions and the various pollutants in the air are also negatively charged.
  • the initially purified air touches the booster with the collector electrode conductive fan 6, causing negative ions and negative in the air.
  • the various pollutants of the charge are attracted by the collector electrode conductive fan 6, collide with the contact discharge, kill the bacterial virus, decompose the organic matter, and adsorb the various contaminants with negative ions on the fins of the collecting electrode conductive fan 6, and the air is obtained.
  • Secondary purification is obtained.
  • the collected electrode conductive fan 6 purifies the pressurized secondary purified air, enters the inner cavity of the air blowing ring, and the negative ion air induces the inner cavity wall of the air blowing ring 3 into the surface with the positively charged film layer, and further adsorbs negatively charged
  • the various pollutants are adsorbed on the inner wall of the air ring 3 to achieve a third purification of the air.
  • the purified air flows along the flow guiding surface under the action of the flow guiding surface, and is throttled at a high speed through the throttle annular air outlet 5.
  • the plasma air purifying fanless electric fan reaches a certain amount of ash, the plasma generating electrode, the plasma collecting electrode, the collecting electrode conductive fan, and the air ring of the collecting ring are cleaned and restored.
  • the operating process of the sixth embodiment of the plasma air-purifying leafless electric fan of the present invention is as follows: [0083]
  • the collector electrode is connected to the conductive fan, and the collecting electrode conductive fan 6 starts to rotate, and the wind passes through the fan guard first.
  • the plasma generating electrode 7 with high voltage negative voltage the plasma generating electrode 7 discharges the air, ionizes the air, fills the air with negative ions, and causes various pollutants in the air to also be negatively charged.
  • the air filled with negative ions collects the electrodes through the conductive grid 15 electrically connected to the positive electrode of the plasma high-voltage generator.
  • the collected electrode conductive fan 6 purifies the pressurized secondary purified air, enters the inner cavity of the air blowing ring 3, and the negative ion air induces the inner cavity wall of the air blowing ring 3 into the surface with the positively charged film layer, and further adsorbs the belt. Negatively charged various pollutants are adsorbed on the inner wall of the air ring 3 to achieve a third purification of the air.
  • the purified air flows along the flow guiding surface under the action of the flow guiding surface, and is throttled at a high speed through the throttle annular air outlet 5.
  • the plasma air purification bladeless electric fan reaches a certain amount of ash, the plasma generating electrode, the plasma collecting electrode, and the collecting electrode are electrically conductive.
  • the fan and the inner ring of the air ring are cleaned and restored.
  • a seventh embodiment of a plasma air purification bladeless electric fan of the present invention operates as follows:
  • the air filled with negative ions passes through the collecting electrode conductive fan 6 electrically connected to the positive electrode of the plasma high voltage electric generator 13 to repel positive ions, adsorb negative ions and various negative ions, negative ions, and the collecting electrode conductive fan 6 Touching the booster, causing negative ions and negatively charged various pollutants in the air, attracted by the collector electrode conductive fan 6, colliding with contact discharge, killing bacterial viruses, decomposing organic matter, and adsorbing various pollutants with negative ions It is trapped on the fins of the collector electrode conductive fan 6 to allow preliminary purification of the air.
  • the purified air flows along the flow guiding surface under the action of the flow guiding surface, and is throttled at a high speed through the throttle annular outlet 5 .
  • the plasma air purifying fanless electric fan reaches a certain amount of ash, the plasma generating electrode, the plasma collecting electrode, the collecting electrode conductive fan, and the air ring of the collecting ring are cleaned and restored.
  • the eighth embodiment of the plasma air purification bladeless electric fan of the present invention operates as follows:
  • the collecting electrode conductive fan 6 is collected, the collecting electrode conductive fan 6 starts to rotate, the wind first passes through the fan guard 4, and then passes through the plasma generating electrode 7 with high voltage and negative electricity, and the plasma generating electrode 7 discharges the air, ionizing Air, which fills the air with negative ions, and also makes various pollutants in the air negatively charged.
  • the air filled with negative ions collects the electrodes through the conductive grid 15 electrically connected to the negative electrode of the plasma high-voltage generator 13 because the collector electrode of the conductive grid 15 is located behind the plasma generating electrode 7 and adjacent to the plasma generating electrode 7. It is an electrically insulating film layer.
  • the collecting electrode of the conductive grid 15 is negatively charged, a positively charged film layer is induced on the adjacent insulating film layer of the plasma generating electrode through the electrically insulating film layer, and is repelled. Positive ions, adsorbing negative ions and various contaminants with negative ions.
  • the conductive grid 15 collects the surface of the opposite side of the electrode and the collector electrode of the collector electrode. It is an electric conductor surface, has a negative charge, adsorbs positive ions, repels negative ions, and makes the air preliminary. Purification.
  • the collecting electrode conductive fan 6 is electrically connected to the positive electrode of the plasma high voltage electric generator 13.
  • the initially purified air is in contact with the positively charged collecting electrode conductive fan 6 to pressurize, so that negative ions and negatively charged various pollutants in the air are attracted by the collecting electrode conductive fan 6, colliding contact discharge, killing bacteria
  • the virus decomposes organic matter, and adsorbs various contaminants with negative ions on the fins of the collecting electrode conductive fan 6, and the air is secondarily purified.
  • the collected electrode conductive fan 6 purifies the pressurized secondary purified air, enters the inner cavity of the air blowing ring 3, and the negative ion air induces the inner cavity wall of the air blowing ring 3 into the surface with the positively charged film layer, and further adsorbs the belt.
  • Negatively charged various pollutants are adsorbed on the inner wall of the air ring 3 to achieve a third purification of the air.
  • the purified air flows along the flow guiding surface under the action of the flow guiding surface, and is throttled at a high speed through the throttle annular air outlet 5.
  • the plasma air purifying fanless electric fan reaches a certain amount of ash, the plasma generating electrode, the plasma collecting electrode, the collecting electrode conductive fan, and the air ring of the collecting ring are cleaned and restored.
  • the collecting electrode conductive fan 6 is collected, the collecting electrode conductive fan 6 starts to rotate, the wind first passes through the fan guard 4, and then passes through the plasma generating electrode 7 with high voltage and negative electricity, and the plasma generating electrode 7 discharges the air, ionizing Air, which fills the air with negative ions, and also makes various pollutants in the air negatively charged.
  • the negative ion-laden air passes through the collecting electrode conductive fan 6 electrically connected to the negative electrode of the plasma high-voltage generator 13 because the collecting electrode conductive fan 6 is located behind the plasma generating electrode 7, and is adjacent to the plasma generating electrode 7 to be electrically
  • the insulating film layer therefore, in the case where the collecting electrode conductive fan 6 is negatively charged, a positively charged film layer is induced on the adjacent insulating film layer of the plasma generating electrode 7 through the electrically insulating film layer, repelling positive ions, adsorbing negative ions and bands Various contaminants of negative ions, collecting the surface of the opposite side of the electrode conductive fan 6 and the collecting electrode conductive fan 6, being an electric conductor surface, carrying a negative charge, adsorbing positive ions, repeling negative ions, air filled with negative ions, and colliding with the collecting electrode of the collecting electrode 6 Touching the pressurization, the negative ions and negatively charged various pollutants in the air are attracted by the collector electrode conductive fan 6, colliding with the contact discharge, killing
  • the conductive grid 15 collects the positive electrode and the plasma high voltage generator 13
  • the pole is electrically connected to obtain the preliminary purified air, and enters the positively-charged conductive grid 15 to collect the electrodes, adsorbing negative ions and various pollutants with negative ions, so that the air is purified twice.
  • the secondary purified air of the electrode is collected by the conductive grid 15 and enters the inner cavity of the air blowing ring 3.
  • the air with negative ions induces the inner wall of the air blowing ring 3 into the surface of the positively charged film layer, and further adsorbs the negatively charged layer.
  • Various contaminants are adsorbed on the inner wall of the air ring 3 to achieve a third purification of the air.
  • the purified air flows along the flow guiding surface under the action of the flow guiding surface, and is throttled at a high speed through the throttle annular air outlet 5.
  • the plasma air purifying fanless electric fan reaches a certain amount of ash, the plasma generating electrode, the plasma collecting electrode, the collecting electrode conductive fan, and the air ring of the collecting ring are cleaned and restored.

Abstract

一种等离子体空气净化无叶电风扇,包括风扇底座、机壳(1)、风机电机、收集电极导电风扇(6)、吹风环(3)、摇头装置、等离子体高压电产生器(13),等离子体发生极(7)设于风扇护罩进风口内,当开启收集电极导电风扇(6)并使其旋转时,空气先经过风扇护罩,再经过带高压负电的等离子体发生极(7)被电离并充满负离子;空气经过带高压正电的收集电极导电风扇(6)并被初步净化,之后气流向上流动进入吹风环(3)的内部空腔,带负离子的空气将吹风环(3)的内腔壁感应成带正电荷膜层的面,实现空气的第二次净化。这种无叶风扇通过多重强制反应,等离子体被充分使用,因此少有残余的臭氧自由基对人体造成损害,安全性好,而且空气循环速度快,除尘效率高,改善空气净化效果。

Description

说明书 发明名称:一种等离子体空气净化无叶电风扇 技术领域
[0001] 本发明涉及一种等离子体空气净化无叶电风扇, 尤其涉及一种高效安全的等离 子体空气净化无叶电风扇, 还涉及空气净化装置。
背景技术
[0002] 目前, 人类经常活动的室内环境经受着各种各样的污染, 它们已经影响到了我 们生活的方方面面。 有些污染会造成人们头晕、 恶心等症状, 从而严重影响人 们的工作效率。 尤其是有机污染、 细菌污染和 PM2.5的污染, 对人们生活质量的 提高产生了严重的阻碍。 现有的电风扇只具有吹风功能。 因此, 只在天热吋使 用, 利用率不高, 但却占据空间。 而空气净化器, 一般具有除烟尘、 脱异味、 除细菌及负离子发生等作用, 但无吹风功能。 在污染的空气中, 负离子吸附或 凝聚尘埃、 细菌而成为重负离子, 对人体有害无益。 而且空气循环效率低, 使 得臭氧浓度梯度大, 利用不充分。 且负离子发生器, 或等离子体发生器用途单 一, 占用空间。
技术问题
[0003] 现有的电风扇只具有吹风功能。 因此, 只在天热吋使用, 利用率不高, 但却占 据空间。 而空气净化器, 一般具有除烟尘、 脱异味、 除细菌及负离子发生等作 用, 但无吹风功能。
问题的解决方案
技术解决方案
[0004] 针对现有产品技术的不足, 本发明旨在提供一种等离子体空气净化无叶电风扇 , 其不仅能够高效去除空气中的固态污染物和气态污染物的空气净化功能, 还 具有电风扇的吹风功能, 可加快空气循环, 是一种安全系数高、 性价比高具有 空气净化功能的电风扇。
[0005] 本发明解决其技术问题所采用的技术方案是: 一种等离子体空气净化无叶电风 扇, 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇、 吹风环、 摇头装置 、 等离子体高压电产生器。 一种等离子体空气净化无叶电风扇的机壳与吹风环 同体连接, 吹风环为闭环空心圈, 空心圈内为风道, 空心圈的内侧设有节流环 形出风口。 吹风环的根部与机壳的连接处为固定连接, 或为俯仰可调活动连接 。 机壳下部设有风扇护罩进风口, 等离子体发生极设于风扇护罩进风口内。 收 集电极导电风扇与风机电机主轴连接安装在机壳内部, 收集电极导电风扇置于 风机壳内, 收集电极导电风扇主轴与风机电机同轴布置, 电绝缘连接, 收集电 极导电风扇置于等离子体发生极之后, 收集电极导电风扇产生的风, 通过机壳 风道向上吹, 机壳风道与吹风环连接。
[0006] 摇头装置为风机电机带动, 或为独设的摇头电机带动, 通过常规的变速装置和 离合装置带动吹风环, 实现吹风环摇头。 等离子高压电产生器为与电源连接, 能产生正负高压电的产生器。 风扇护罩的内侧进风口处, 设有与风扇护罩、 电 机、 导电风扇、 机座电绝缘的等离子体发生极。 等离子体发生极为包括金属针 状阵列电极, 金属丝网状电极, 线状、 锯齿型、 芒刺型或鱼骨型结构电极。 等 离子体发生极, 与高压负电极连接。 等离子体发生极与风扇护罩一体设置, 或 分体组合设置。
[0007] 导电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子 体收集电极, 导电风扇为电导体导电风扇, 导电风扇与电机的转子转轴电绝缘 连接。 导电风扇与等离子高压电产生器正极, 通过电刷与导电风扇电连接。 等 离子高压电产生器的高压负电极电压的绝对值, 高于高压正电极电压的绝对值 。 导电风扇为包括金属材料制成, 或将塑胶材料作为基材, 在基材上涂覆金属 或碳材料膜层制成, 或导电风扇为复合导电材料制成, 或导电风扇为塑胶电绝 缘基材上, 复合导电薄膜材料制成。
[0008] 当幵启收集电极导电风扇, 收集电极导电风扇幵始旋转, 风先经过风扇护罩, 再经过带高压负电的等离子体发生电极, 等离子体发生电极对空气放电, 电离 空气, 使空气充满负离子, 并使空气中的各种污染物也带负电荷。 带有大量负 离子和臭氧的空气, 被带高压正电的收集电极导电风扇吸入, 空气和带正电的 收集电极导电风扇, 猛烈碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带 负离子的各种污染物吸附截留在收集电极导电风扇的翅片上, 空气得到初级净 化。
[0009] 空气在经过收集电极导电风扇旋转增压之后, 气流向上流动。 经过初步净化后 的空气, 进入吹风环的内部空腔, 带负离子的空气将吹风环的内腔壁感应成带 正电荷膜层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹风环的内腔 壁上, 实现空气的第二次净化。 净化的空气在导流面的作用下, 沿着导流面变 向流动, 通过节流环形出风口, 节流高速排出。 包括风扇底座、 机壳、 风机电 机、 收集电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便拆装。 当等离子 体空气净化无叶电风扇达到一定积灰量吋, 对等离子体发生电极、 收集电极导 电风扇、 吹风环内腔进行清洗还原。
[0010] 一种等离子体空气净化无叶电风扇, 包括风扇底座、 机壳、 风机电机、 收集电 极导电风扇、 吹风环、 摇头装置、 等离子体高压电产生器。 一种等离子体空气 净化无叶电风扇的机壳与吹风环同体连接, 吹风环为闭环空心圈, 空心圈内为 风道, 空心圈的内侧设有节流环形出风口。 吹风环的根部与机壳的连接处为固 定连接, 或为俯仰可调活动连接。 机壳下部设有风扇护罩进风口, 等离子体发 生极设于风扇护罩进风口内。 收集电极导电风扇与风机电机主轴连接安装在机 壳内部, 收集电极导电风扇置于风机壳内, 收集电极导电风扇主轴与风机电机 同轴布置, 电绝缘连接, 收集电极导电风扇置于等离子体发生极之后, 收集电 极导电风扇产生的风, 通过机壳风道向上吹, 机壳风道与吹风环连接。
[0011] 摇头装置为风机电机带动, 或为独设的摇头电机带动, 通过常规的变速装置和 离合装置带动吹风环, 实现吹风环摇头。 等离子高压电产生器为与电源连接, 能产生正负高压电的产生器。 进风侧风扇护罩的内侧进风口处, 设有与风扇护 罩、 电机、 导电风扇、 机座电绝缘的等离子体发生极。 等离子体发生极为包括 金属针状阵列电极, 金属丝网状电极, 线状、 锯齿型、 芒刺型或鱼骨型结构电 极。 等离子体发生极, 与高压负电极连接。 等离子体发生极与进风侧风扇护罩 一体设置, 或分体组合设置。
[0012] 导电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子 体收集电极, 导电风扇为电导体导电风扇, 导电风扇与电机的转子转轴电绝缘 连接。 导电风扇与等离子高压电产生器正极, 通过电刷与导电风扇电连接。 等 离子高压电产生器的高压负电极电压的绝对值, 高于高压正电极电压的绝对值 。 导电风扇为包括金属材料制成, 或将塑胶材料作为基材, 在基材上涂覆金属 或碳材料膜层制成, 或导电风扇为复合导电材料制成, 或导电风扇为塑胶电绝 缘基材上, 复合导电薄膜材料制成。 静电感应收集电极导电网栅与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘, 静电感应收集电极导电网栅为包 括金属材料制成, 或静电感应收集电极导电网栅为金属材料表面上包裹电绝缘 材料制成, 或将塑胶材料作为基材, 在基材上涂覆金属或碳材料膜层制成, 或 静电感应收集电极导电网栅为复合导电材料制成, 或静电感应收集电极导电网 栅为塑胶电绝缘基材上, 复合导电薄膜材料制成。
[0013] 当幵启导电风扇, 导电风扇幵始旋转, 风先经过风扇护罩, 再经过带高压负电 的等离子体发生极, 等离子体发生极对空气放电, 电离空气, 使空气充满负离 子, 并使空气中的各种污染物也带负电荷。 带有大量负离子和臭氧的空气, 被 带高压正电的等离子体收集电极导电风扇吸入, 空气和带正电的等离子体收集 电极导电风扇, 猛烈碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离 子的各种污染物吸附截留在导电风扇的翅片上, 空气得到初级净化。 空气在经 过带高压正电的等离子体收集电极导电风扇增压之后, 空气进入静电感应收集 电极导电网栅, 在静电感应收集电极导电网栅上感应出带负电荷的表面, 进一 步吸附带正电的各种污染物, 实现空气的第二次净化。
[0014] 空气进入吹风环的内部空腔, 带负离子的空气将吹风环的内腔壁感应成带正电 荷膜层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹风环的内腔壁上 , 实现空气的第三次净化。 净化的空气在导流面的作用下, 沿着导流面变向流 动, 通过节流环形出风口, 节流高速排出。
[0015] 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇、 吹风环等, 为插装、 套 装卡合, 方便拆装。 当等离子体空气净化无叶电风扇达到一定积灰量吋, 对等 离子体发生电极、 等离子体收集电极、 收集电极导电风扇、 吹风环内腔进行清 洗还原。
[0016] 或导电网栅为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离 子体收集电极。 导电网栅为包括金属材料制成, 或将塑胶材料作为基材, 在基 材上涂覆金属或碳材料膜层制成, 或导电网栅为复合导电材料制成, 或导电网 栅为塑胶电绝缘基材上, 复合导电薄膜材料制成。 导电网栅与进风侧风扇护罩 电绝缘一体设置, 或导电网栅与进风侧风扇护罩电绝缘分体组合设置。 导电网 栅与等离子高压电产生器正极电连接。 等离子高压电产生器的高压负电极电压 的绝对值, 高于高压正电极电压的绝对值。
[0017] 导电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的静电感 应收集电极, 导电风扇为电导体导电风扇, 导电风扇为包括金属材料制成, 或 导电风扇为金属材料表面上包裹电绝缘材料制成, 或将塑胶材料作为基材, 在 基材上涂覆金属或碳材料膜层制成, 或导电风扇为复合导电材料制成, 或导电 风扇为塑胶电绝缘基材上, 复合导电薄膜材料制成。 幵启静电感应收集电极导 电风扇, 静电感应收集电极导电风扇幵始旋转, 风先经过风扇护罩, 再经过带 高压负电的等离子体发生电极, 等离子体发生电极对空气放电, 电离空气, 使 空气充满负离子, 并使空气中的各种污染物也带负电荷。 带有大量负离子和臭 氧的空气, 通过带高压正电的金属等离子体导电网栅收集电极吸引, 空气和带 正电的金属等离子体导电网栅收集电极, 猛烈碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的各种污染物吸附截留在等离子体导电网栅收集电 极的翅片上, 空气得到初级净化。 由于静电感应收集电极导电风扇位于金属等 离子体导电网栅收集电极之后, 因此, 静电感应收集电极导电风扇与带正电的 金属等离子体导电网栅收集电极相邻的面静电感应出负电荷, 排斥负离子, 吸 附正离子和带正离子的各种污染物, 静电感应收集电极导电风扇的背面静电感 应出正电荷, 排斥正离子, 吸附负离子和带负离子的各种污染物, 使空气得到 第二次净化。
[0018] 在经过静电感应收集电极导电风扇旋转增压之后, 气流向上流动。 经过二次净 化后的空气, 进入吹风环的内部空腔, 带负离子的空气将吹风环的内腔壁感应 成带正电荷膜层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹风环的 内腔壁上, 实现空气的第三次净化。 净化的空气在导流面的作用下, 沿着导流 面变向流动, 通过节流环形出风口, 节流高速排出。 包括风扇底座、 机壳、 风 机电机、 静电感应收集电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便拆 装。 当等离子体空气净化无叶电风扇达到一定积灰量吋, 对等离子体发生电极 、 等离子体收集电极、 静电感应收集电极导电风扇、 吹风环内腔进行清洗还原
[0019] 一种等离子体空气净化无叶电风扇, 包括风扇底座、 机壳、 风机电机、 静电感 应收集电极导电风扇、 吹风环、 摇头装置、 等离子体高压电产生器。 一种等离 子体空气净化无叶电风扇的机壳与吹风环同体连接, 吹风环为闭环空心圈, 空 心圈内为风道, 空心圈的内侧设有节流环形出风口。 吹风环的根部与机壳的连 接处为固定连接, 或为俯仰可调活动连接。 机壳下部设有风扇护罩进风口, 等 离子体发生极设于风扇护罩进风口内。 静电感应收集电极导电风扇与风机电机 主轴连接安装在机壳内部, 静电感应收集电极导电风扇置于风机壳内, 静电感 应收集电极导电风扇主轴与风机电机同轴布置, 电绝缘连接, 静电感应收集电 极导电风扇置于等离子体发生极之后静电感应收集电极导电风扇产生的风, 通 过机壳风道向上吹, 机壳风道与吹风环连接。
[0020] 摇头装置为风机电机带动, 或为独设的摇头电机带动, 通过常规的变速装置和 离合装置带动吹风环, 实现吹风环摇头。 等离子高压电产生器为与电源连接, 能产生正负高压电的产生器。 进风侧风扇护罩的内侧进风口处, 设有与风扇护 罩、 电机、 导电风扇、 机座电绝缘的等离子体发生极。 等离子体发生极为包括 金属针状阵列电极, 金属丝网状电极, 线状、 锯齿型、 芒刺型或鱼骨型结构电 极。 等离子体发生极, 与高压负电极连接。 等离子体发生极与进风侧风扇护罩 一体设置, 或分体组合设置。 导电风扇为与风扇护罩、 等离子体发生极、 机座 、 电机、 大地电绝缘的静电感应收集电极, 导电风扇为电导体导电风扇, 导电 风扇为包括金属材料制成, 或导电风扇为金属材料表面上包裹电绝缘材料制成 , 或将塑胶材料作为基材, 在基材上涂覆金属或碳材料膜层制成, 或导电风扇 为复合导电材料制成, 或导电风扇为塑胶电绝缘基材上, 复合导电薄膜材料制 成。 导电风扇设于等离子体发生极之后, 等离子体收集电极之前。
[0021] 导电网栅为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子 体收集电极。 导电网栅为包括金属材料制成, 或将塑胶材料作为基材, 在基材 上涂覆金属或碳材料膜层制成, 或导电网栅为复合导电材料制成, 或导电网栅 为塑胶电绝缘基材上, 复合导电薄膜材料制成。 导电网栅与出风侧风扇护罩电 绝缘一体设置, 或导电网栅与出风侧风扇护罩电绝缘分体组合设置。 导电网栅 与等离子高压电产生器正极电连接。 等离子高压电产生器的高压负电极电压的 绝对值, 高于高压正电极电压的绝对值。 幵启静电感应收集电极导电风扇, 静 电感应收集电极导电风扇幵始旋转, 风先经过风扇护罩, 再经过带高压负电的 等离子体发生电极, 等离子体发生电极对空气放电, 电离空气, 使空气充满负 离子, 并使空气中的各种污染物也带负电荷。 带有大量负离子和臭氧的空气, 与静电感应收集电极导电风扇碰触增压。 由于静电感应收集电极导电风扇位于 等离子体发生电极之后, 因此, 静电感应收集电极导电风扇与带负电的等离子 体发生电极相邻的面静电感应出正电荷, 排斥正离子, 吸附负离子和带负离子 的各种污染物, 静电感应收集电极导电风扇的背面静电感应出负电荷, 排斥负 离子, 吸附正离子和带正离子的各种污染物, 使空气得到初步净化。
[0022] 通过静电感应收集电极导电风扇净化增压的风, 通过带高压正电的金属等离子 体导电网栅收集电极, 使空气中带负离子和带负电荷的各种污染物, 被带正电 的金属等离子体导电网栅收集电极吸引, 猛烈碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的各种污染物吸附截留在等离子体导电网栅收集电 极的翅片上, 空气得到第二次净化。
[0023] 二次净化后的空气, 进入吹风环的内部空腔, 带负离子的空气将吹风环的内腔 壁感应成带正电荷膜层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹 风环的内腔壁上, 实现空气的第三次净化。 净化的空气在导流面的作用下, 沿 着导流面变向流动, 通过节流环形出风口, 节流高速排出。
[0024] 包括风扇底座、 机壳、 风机电机、 静电感应收集电极导电风扇、 吹风环等, 为 插装、 套装卡合, 方便拆装。 当等离子体空气净化无叶电风扇达到一定积灰量 吋, 对等离子体发生电极、 等离子体收集电极、 静电感应收集电极导电风扇、 吹风环内腔进行清洗还原。
[0025] 静电感应收集电极导电网栅与风扇护罩、 等离子体发生极、 机座、 电机、 大地 电绝缘, 静电感应收集电极导电网栅为包括金属材料制成, 或静电感应收集电 极导电网栅为金属材料表面上包裹电绝缘材料制成, 或将塑胶材料作为基材, 在基材上涂覆金属或碳材料膜层制成, 或静电感应收集电极导电网栅为复合导 电材料制成, 或静电感应收集电极导电网栅为塑胶电绝缘基材上, 复合导电薄 膜材料制成。 静电感应收集电极导电网栅与进风侧风扇护罩一体设置, 或分体 组合设置。
[0026] 导电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子 体收集电极, 导电风扇为电导体导电风扇, 导电风扇与电机的转子转轴电绝缘 连接。 导电风扇与等离子高压电产生器正极, 通过电刷与导电风扇电连接。 导 电风扇为包括金属材料制成, 或将塑胶材料作为基材, 在基材上涂覆金属或碳 材料膜层制成, 或导电风扇为复合导电材料制成, 或导电风扇为塑胶电绝缘基 材上, 复合导电薄膜材料制成。 等离子高压电产生器的高压负电极电压的绝对 值, 高于高压正电极电压的绝对值。
[0027] 幵启收集电极导电风扇, 收集电极导电风扇幵始旋转, 风先经过风扇护罩, 再 经过带高压负电的等离子体发生电极, 等离子体发生电极对空气放电, 电离空 气, 使空气充满负离子, 并使空气中的各种污染物也带负电荷。 充满负离子的 空气, 通过静电感应导电网栅收集电极, 由于静电感应导电网栅收集电极位于 等离子体发生电极之后, 因此, 静电感应导电网栅收集电极与带负电的等离子 体发生电极相邻的面静电感应出正电荷, 排斥正离子, 吸附负离子和带负离子 的各种污染物, 静电感应导电网栅收集电极的背面静电感应出负电荷, 排斥负 离子, 吸附正离子和带正离子的各种污染物, 使空气得到初步净化。
[0028] 初步净化的空气, 与收集电极导电风扇碰触增压, 使空气中带负离子和带负电 荷的各种污染物, 被收集电极导电风扇吸引, 碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的各种污染物吸附截留在收集电极导电风扇的翅片 上, 空气得到二次净化。 通过收集电极导电风扇净化增压二次净化后的空气, 进入吹风环的内部空腔, 带负离子的空气将吹风环的内腔壁感应成带正电荷膜 层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹风环的内腔壁上, 实 现空气的第三次净化。
[0029] 净化的空气在导流面的作用下, 沿着导流面变向流动, 通过节流环形出风口, 节流高速排出。 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇、 吹风环 等, 为插装、 套装卡合, 方便拆装。 当等离子体空气净化无叶电风扇达到一定 积灰量吋, 对等离子体发生电极、 等离子体收集电极、 收集电极导电风扇、 吹 风环内腔进行清洗还原。
[0030] 一种等离子体空气净化无叶电风扇, 包括风扇底座、 机壳、 风机电机、 收集电 极导电风扇、 吹风环、 摇头装置、 等离子体高压电产生器。 一种等离子体空气 净化无叶电风扇的机壳与吹风环同体连接, 吹风环为闭环空心圈, 空心圈内为 风道, 空心圈的内侧设有节流环形出风口。 吹风环的根部与机壳的连接处为固 定连接, 或为俯仰可调活动连接。 机壳下部设有风扇护罩进风口, 等离子体发 生极设于风扇护罩进风口内。 收集电极导电风扇与风机电机主轴连接安装在机 壳内部, 收集电极导电风扇置于风机壳内, 收集电极导电风扇主轴与风机电机 同轴布置, 电绝缘连接, 收集电极导电风扇置于等离子体发生极之后收集电极 导电风扇产生的风, 通过机壳风道向上吹, 机壳风道与吹风环连接。
[0031] 摇头装置为风机电机带动, 或为独设的摇头电机带动, 通过常规的变速装置和 离合装置带动吹风环, 实现吹风环摇头。 等离子高压电产生器为与电源连接, 能产生正负高压电的产生器。 进风侧风扇护罩的内侧进风口处, 设有与风扇护 罩、 电机、 导电风扇、 机座电绝缘的等离子体发生极。 等离子体发生极为包括 金属针状阵列电极, 金属丝网状电极, 线状、 锯齿型、 芒刺型或鱼骨型结构电 极。 等离子体发生极, 与高压负电极连接。 等离子体发生极与进风侧风扇护罩 一体设置, 或分体组合设置。
[0032] 导电网栅为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子 体收集电极。 导电网栅为包括金属材料制成, 或将塑胶材料作为基材, 在基材 上涂覆金属或碳材料膜层制成, 或导电网栅为复合导电材料制成, 或导电网栅 为塑胶电绝缘基材上, 复合导电薄膜材料制成。 导电网栅与进风侧风扇护罩电 绝缘一体设置, 或导电网栅与进风侧风扇护罩电绝缘分体组合设置。 导电网栅 与等离子高压电产生器正极电连接。
[0033] 导电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子 体收集电极, 导电风扇为电导体导电风扇, 导电风扇与电机的转子转轴电绝缘 连接。 导电风扇与等离子高压电产生器负极, 通过电刷与导电风扇电连接。 导 电风扇为包括金属材料制成, 或将塑胶材料作为基材, 在基材上涂覆金属或碳 材料膜层制成, 或导电风扇为复合导电材料制成, 或导电风扇为塑胶电绝缘基 材上, 复合导电薄膜材料制成。 等离子高压电产生器的高压负电极电压的绝对 值, 高于高压正电极电压的绝对值。
[0034] 幵启收集电极导电风扇, 收集电极导电风扇幵始旋转, 风先经过风扇护罩, 再 经过带高压负电的等离子体发生电极, 等离子体发生电极对空气放电, 电离空 气, 使空气充满负离子, 并使空气中的各种污染物也带负电荷。 充满负离子的 空气, 通过与等离子体高压电产生器正极电连接的导电网栅收集电极, 由于导 电网栅收集电极位于等离子体发生电极之后, 带正电, 因此, 排斥正离子, 吸 附负离子和带负离子的各种污染物, 使空气得到初步净化。
[0035] 收集电极导电风扇与等离子体高压电产生器的负极电连接。 初步净化的空气, 与带负电的收集电极导电风扇碰触增压, 使空气中带正离子和带正电荷的各种 污染物, 被收集电极导电风扇吸引, 碰撞接触放电, 杀死细菌病毒, 分解有机 物, 并将带正离子的各种污染物吸附截留在收集电极导电风扇的翅片上, 空气 得到二次净化。
[0036] 通过收集电极导电风扇净化增压二次净化后的空气, 进入吹风环的内部空腔, 带负离子的空气将吹风环的内腔壁感应成带正电荷膜层的面, 进一步吸附带负 电的各种污染物, 并被吸附在吹风环的内腔壁上, 实现空气的第三次净化。
[0037] 净化的空气在导流面的作用下, 沿着导流面变向流动, 通过节流环形出风口, 节流高速排出。 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇、 吹风环 等, 为插装、 套装卡合, 方便拆装。 当等离子体空气净化无叶电风扇达到一定 积灰量吋, 对等离子体发生电极、 等离子体收集电极、 收集电极导电风扇、 吹 风环内腔进行清洗还原。
[0038] 导电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子 体收集电极。 导电风扇为电导体导电风扇, 导电风扇与电机的转子转轴电绝缘 连接。 导电风扇与等离子高压电产生器正极, 通过电刷与导电风扇电连接。 导 电风扇为包括金属材料制成, 或将塑胶材料作为基材, 在基材上涂覆金属或碳 材料膜层制成, 或导电风扇为复合导电材料制成, 或导电风扇为塑胶电绝缘基 材上, 复合导电薄膜材料制成。 导电风扇与等离子高压电产生器正极, 通过电 刷与导电风扇电连接。
[0039] 导电网栅收集电极为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘 的等离子体收集电极。 导电网栅收集电极为包括金属材料制成, 或将塑胶材料 作为基材, 在基材上涂覆金属或碳材料膜层制成, 或导电网栅收集电极为复合 导电材料制成。 导电网栅收集电极与进风侧风扇护罩电绝缘一体设置, 或导电 网栅收集电极与进风侧风扇护罩电绝缘分体组合设置。 导电网栅收集电极与等 离子高压电产生器负极电连接。 等离子高压电产生器的高压负电极电压的绝对 值, 高于高压正电极电压的绝对值。
[0040] 幵启收集电极导电风扇, 收集电极导电风扇幵始旋转, 风先经过风扇护罩, 再 经过带高压负电的等离子体发生电极, 等离子体发生电极对空气放电, 电离空 气, 使空气充满负离子, 并使空气中的各种污染物也带负电荷。 充满负离子的 空气, 通过与等离子体高压电产生器正极电连接的收集电极导电风扇, 排斥正 离子, 吸附负离子和带负离子的各种污染物, 充满负离子的空气, 与收集电极 导电风扇碰触增压, 使空气中带负离子和带负电荷的各种污染物, 被收集电极 导电风扇吸引, 碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的 各种污染物吸附截留在收集电极导电风扇的翅片上, 使空气得到初步净化。
[0041] 导电网栅收集电极与等离子体高压电产生器的负极电连接, 得到初步净化的空 气, 进入带负电的导电网栅收集电极, 吸附正离子和带正离子的各种污染物, 使空气得到二次净化。 通过导电网栅收集电极二次净化后的空气, 进入吹风环 的内部空腔, 带负离子的空气将吹风环的内腔壁感应成带正电荷膜层的面, 进 一步吸附带负电的各种污染物, 并被吸附在吹风环的内腔壁上, 实现空气的第 三次净化。
[0042] 净化的空气在导流面的作用下, 沿着导流面变向流动, 通过节流环形出风口, 节流高速排出。 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇、 吹风环 等, 为插装、 套装卡合, 方便拆装。 当等离子体空气净化无叶电风扇达到一定 积灰量吋, 对等离子体发生电极、 等离子体收集电极、 收集电极导电风扇、 吹 风环内腔进行清洗还原。 [0043] 一种等离子体空气净化无叶电风扇, 包括风扇底座、 机壳、 风机电机、 收集电 极导电风扇、 吹风环、 摇头装置、 等离子体高压电产生器。 一种等离子体空气 净化无叶电风扇的机壳与吹风环同体连接, 吹风环为闭环空心圈, 空心圈内为 风道, 空心圈的内侧设有节流环形出风口。 吹风环的根部与机壳的连接处为固 定连接, 或为俯仰可调活动连接。 机壳下部设有风扇护罩进风口, 等离子体发 生极设于风扇护罩进风口内。
[0044] 收集电极导电风扇与风机电机主轴连接安装在机壳内部, 收集电极导电风扇置 于风机壳内, 收集电极导电风扇主轴与风机电机同轴布置, 电绝缘连接, 收集 电极导电风扇置于等离子体发生极之后收集电极导电风扇产生的风, 通过机壳 风道向上吹, 机壳风道与吹风环连接。 摇头装置为风机电机带动, 或为独设的 摇头电机带动, 通过常规的变速装置和离合装置带动吹风环, 实现吹风环摇头
[0045] 等离子高压电产生器为与电源连接, 能产生正负高压电的产生器。 进风侧风扇 护罩的内侧进风口处, 设有与风扇护罩、 电机、 导电风扇、 机座电绝缘的等离 子体发生极。 等离子体发生极为包括金属针状阵列电极, 金属丝网状电极, 线 状、 锯齿型、 芒刺型或鱼骨型结构电极。 等离子体发生极, 与高压负电极连接 。 等离子体发生极与进风侧风扇护罩一体设置, 或分体组合设置。
[0046] 一侧导电网栅收集电极为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电 绝缘的等离子体收集电极。 一侧导电网栅收集电极为金属材料表面一侧上复合 电绝缘膜层制成, 或将塑胶材料作为基材, 在基材一侧上涂覆金属或碳材料膜 层制成, 或一侧导电网栅收集电极为复合导电材料一侧上复合电绝缘膜层制成 。 一侧导电网栅收集电极与进风侧风扇护罩电绝缘一体设置, 或一侧导电网栅 收集电极与进风侧风扇护罩电绝缘分体组合设置。 一侧导电网栅收集电极与等 离子体发生极相邻侧复合有电绝缘膜层, 一侧导电网栅收集电极与等离子高压 电产生器负极电连接, 通过电绝缘膜层, 在等离子体发生极相邻侧静电感应出 正电膜层。
[0047] 导电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子 体收集电极, 导电风扇为电导体导电风扇, 导电风扇与电机的转子转轴电绝缘 连接。 导电风扇与等离子高压电产生器正极, 通过电刷与导电风扇电连接。 导 电风扇为包括金属材料制成, 或将塑胶材料作为基材, 在基材上涂覆金属或碳 材料膜层制成, 或导电风扇为复合导电材料制成, 或导电风扇为塑胶电绝缘基 材上, 复合导电薄膜材料制成。 等离子高压电产生器的高压负电极电压的绝对 值, 高于高压正电极电压的绝对值。
[0048] 幵启收集电极导电风扇, 收集电极导电风扇幵始旋转, 风先经过风扇护罩, 再 经过带高压负电的等离子体发生电极, 等离子体发生电极对空气放电, 电离空 气, 使空气充满负离子, 并使空气中的各种污染物也带负电荷。 充满负离子的 空气, 通过与等离子体高压电产生器负极电连接的导电网栅收集电极, 由于导 电网栅收集电极位于等离子体发生电极之后, 且与等离子体发生电极相邻面为 电绝缘膜层, 因此在导电网栅收集电极带负电的情况下, 通过电绝缘膜层, 在 等离子体发生电极相邻绝缘膜层面上感应出正电荷膜层, 排斥正离子, 吸附负 离子和带负离子的各种污染物, 导电网栅收集电极与收集电极导电风扇相对侧 的面, 为电导体面, 带负电荷, 吸附正离子, 排斥负离子, 使空气得到初步净 化。
[0049] 收集电极导电风扇与等离子体高压电产生器的正极电连接。 初步净化的空气, 与带正电的收集电极导电风扇碰触增压, 使空气中带负离子和带负电荷的各种 污染物, 被收集电极导电风扇吸引, 碰撞接触放电, 杀死细菌病毒, 分解有机 物, 并将带负离子的各种污染物吸附截留在收集电极导电风扇的翅片上, 空气 得到二次净化。 通过收集电极导电风扇净化增压二次净化后的空气, 进入吹风 环的内部空腔, 带负离子的空气将吹风环的内腔壁感应成带正电荷膜层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹风环的内腔壁上, 实现空气的 第三次净化。 净化的空气在导流面的作用下, 沿着导流面变向流动, 通过节流 环形出风口, 节流高速排出。
[0050] 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇、 吹风环等, 为插装、 套 装卡合, 方便拆装。 当等离子体空气净化无叶电风扇达到一定积灰量吋, 对等 离子体发生电极、 等离子体收集电极、 收集电极导电风扇、 吹风环内腔进行清 洗还原。 [0051] 或导电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离 子体收集电极。 导电风扇为一侧导电风扇, 一侧导电风扇与电机的转子转轴电 绝缘连接。 一侧导电风扇为金属材料一侧表面复合电绝缘膜层制成, 或导电风 扇为复合导电材料一侧表面复合电绝缘膜层制成。 导电风扇与等离子体发生极 相邻侧, 复合有电绝缘膜层, 导电风扇与等离子高压电产生器负极电连接, 通 过导电风扇的电绝缘膜层, 在等离子体发生极相邻侧, 静电感应出正电膜层。 导电风扇与等离子高压电产生器负极, 通过电刷与导电风扇电连接。
[0052] 导电网栅收集电极为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘 的等离子体收集电极。 导电网栅收集电极为包括金属材料制成, 或将塑胶材料 作为基材, 在基材上涂覆金属或碳材料膜层制成, 或导电网栅收集电极为复合 导电材料制成, 或导电网栅收集电极为塑胶电绝缘基材上, 复合导电薄膜材料 制成。 导电网栅收集电极与等离子高压电产生器正极电连接。 等离子高压电产 生器的高压负电极电压的绝对值, 高于高压正电极电压的绝对值。
[0053] 幵启收集电极导电风扇, 收集电极导电风扇幵始旋转, 风先经过风扇护罩, 再 经过带高压负电的等离子体发生电极, 等离子体发生电极对空气放电, 电离空 气, 使空气充满负离子, 并使空气中的各种污染物也带负电荷。 充满负离子的 空气, 通过与等离子体高压电产生器负极电连接的收集电极导电风扇, 由于收 集电极导电风扇位于等离子体发生电极之后, 且与等离子体发生电极相邻面为 电绝缘膜层, 因此在收集电极导电风扇带负电的情况下, 通过电绝缘膜层, 在 等离子体发生电极相邻绝缘膜层面上感应出正电荷膜层, 排斥正离子, 吸附负 离子和带负离子的各种污染物, 收集电极导电风扇与收集电极导电风扇相对侧 的面, 为电导体面, 带负电荷, 吸附正离子, 排斥负离子, 充满负离子的空气 , 与收集电极导电风扇碰触增压, 使空气中带负离子和带负电荷的各种污染物 , 被收集电极导电风扇吸引, 碰撞接触放电, 杀死细菌病毒, 分解有机物, 并 将带负离子的各种污染物吸附截留在收集电极导电风扇的翅片上, 使空气得到 初步净化。
[0054] 导电网栅收集电极与等离子体高压电产生器的正极电连接, 得到初步净化的空 气, 进入带正电的导电网栅收集电极, 吸附负离子和带负离子的各种污染物, 使空气得到二次净化。 通过导电网栅收集电极二次净化后的空气, 进入吹风环 的内部空腔, 带负离子的空气将吹风环的内腔壁感应成带正电荷膜层的面, 进 一步吸附带负电的各种污染物, 并被吸附在吹风环的内腔壁上, 实现空气的第 三次净化。
[0055] 净化的空气在导流面的作用下, 沿着导流面变向流动, 通过节流环形出风口, 节流高速排出。 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇、 吹风环 等, 为插装、 套装卡合, 方便拆装。 当等离子体空气净化无叶电风扇达到一定 积灰量吋, 对等离子体发生电极、 等离子体收集电极、 收集电极导电风扇、 吹 风环内腔进行清洗还原。
[0056] 一种等离子体空气净化无叶电风扇, 其电机转子转轴与导电风扇主轴连接端头 , 为设有的永久磁铁齿楞盘, 或为铁磁材料制成的齿楞盘, 导电风扇主轴连接 端头, 为与电机转子转轴的永久磁铁齿楞盘对应的齿楞盘, 导电风扇主轴连接 端头齿楞盘, 为铁磁材料制成的齿楞盘, 或为永久磁铁材料制成齿楞盘。 电机 转子转轴的永久磁铁齿楞盘与导电风扇主轴连接端头永久磁铁齿楞盘的连接吸 合面上, 设有电绝缘材料层。
[0057] 一种等离子体空气净化无叶电风扇, 其等离子体收集电极导电风扇, 与等离子 高压电产生器正极连接的电刷为石墨材料制成, 电刷通过弹簧, 或电刷内设有 铁磁材料, 通过吸合与导电风扇主轴贴合电连接。
[0058] 一种等离子体空气净化无叶电风扇, 其进风侧风扇护罩上设有铁磁材料, 或永 久磁铁制成的卡扣, 等离子体发生极上, 设有与进风侧风扇护罩上卡扣对应的 铁磁材料, 或永久磁铁制成的卡扣, 等离子体发生极与进风侧风扇护罩, 通过 子母卡扣吸合分体组合。
[0059] 一种等离子体空气净化无叶电风扇, 其正负离子发生器安装于机座内, 正负离 子发生器设有金属屏蔽罩, 并接地。 摇头装置为风机电机带动, 或为独设的摇 头电机带动, 通过常规的变速装置和离合装置带动导电风扇, 实现导电风扇摇 头。 风扇护罩包括塑胶制成, 金属制成, 金属制成的风扇护罩接地。 电机包裹 在风扇护罩内, 电机定子铁芯接地。
[0060] 一种等离子体空气净化无叶电风扇, 其导电风扇包括轴流导电风扇, 贯流导电 风扇, 离心式导电风扇。 导电风扇为塑胶电绝缘基材, 其上复合的导电薄膜材 料为蒸镀的金属薄膜, 或为复合的碳材料薄膜。 电风扇设有包括总幵关、 风力 调节, 风向, 定吋, 负离子发生器幵关的按键或遥控器。 遥控器包括通过无线 网络遥控的手机。
发明的有益效果
有益效果
[0061] 本发明的等离子体空气净化无叶电风扇通过多重强制反应,等离子体被充分使用 , 因此少有残余的臭氧自由基对人体造成损害, 具有极高的安全性。 而且空气 循环速度快, 除尘效率高, 具有导电风扇的功能, 性价比高。 利用电风扇加大 空气的循环, 提高净化空气效率, 提高空气负离子的平均分布, 增加电风扇的 功能, 提高其利用率, 改善空气净化效果。 是一种安全系数高、 性价比高的等 离子体空气净化无叶电风扇。
对附图的简要说明
附图说明
[0062] 图 1是本发明一种等离子体空气净化无叶电风扇第 1种实施例的结构示意图; [0063] 图 2是本发明一种等离子体空气净化无叶电风扇第 2种实施例的结构示意图; [0064] 图 3是本发明一种等离子体空气净化无叶电风扇第 3种实施例的结构示意图; [0065] 图 4是本发明一种等离子体空气净化无叶电风扇第 4种实施例的结构示意图; [0066] 图 5是本发明一种等离子体空气净化无叶电风扇第 5种实施例的结构示意图; [0067] 图 6是本发明一种等离子体空气净化无叶电风扇第 6种实施例的结构示意图; [0068] 图 7是本发明一种等离子体空气净化无叶电风扇第 7种实施例的结构示意图; [0069] 图 8是本发明一种等离子体空气净化无叶电风扇第 8种实施例的结构示意图; [0070] 图 9是本发明一种等离子体空气净化无叶电风扇第 9种实施例的结构示意图。
[0071] 图中: 1风扇机壳、 2风扇进风罩、 3吹风环、 4风扇进风罩护网、 5节流环形出 风口、 6导电风扇、 7等离子体发生极放电丝、 8电绝缘永久磁铁齿楞盘连接器、 9风扇电机、 10电刷、 11等离子体发生极电绝缘支架、 12风扇轴、 13等离子体高 压产生器、 14风扇底座、 15导电网栅。
[0072] 具体实施方式: 本发明一种等离子体空气净化无叶电风扇第 1种实施例的运行 过程如下:
[0073] 当幵启风扇, 导电风扇 6幵始旋转, 风通过风扇进风罩护网 4, 进入等离子体发 生极电绝缘支架 11, 等离子体发生极放电丝 7对空气放电, 电离空气, 使空气充 满负离子, 并使空气中的各种污染物也带负电荷。 带有大量负离子和臭氧的空 气, 被带高压正电的收集电极导电风扇 6吸入, 空气和带正电的收集电极导电风 扇 6, 猛烈碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的各种污 染物吸附截留在收集电极导电风扇 6的翅片上, 空气得到初级净化。 空气在经过 收集电极导电风扇 6旋转增压之后, 气流向上流动。 经过初步净化后的空气, 进 入吹风环 3的内部空腔, 带负离子的空气将吹风环 3的内腔壁感应成带正电荷膜 层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹风环 3的内腔壁上, 实 现空气的第二次净化。 净化的空气在导流面的作用下, 沿着导流面变向流动, 通过吹风环 3的节流环形出风口 5, 节流高速排出。 包括风扇底座、 机壳、 风机 电机、 收集电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便拆装。 当等离 子体空气净化无叶电风扇达到一定积灰量吋, 对等离子体发生电极、 收集电极 导电风扇、 吹风环内腔进行清洗还原。
[0074] 本发明一种等离子体空气净化无叶电风扇第 2种实施例的运行过程如下:
[0075] 当幵启导电风扇, 导电风扇 6幵始旋转, 风通过风扇进风罩护网 4, 进入等离子 体发生极电绝缘支架 11, 等离子体发生极放电丝 7对空气放电, 电离空气, 使空 气充满负离子, 并使空气中的各种污染物也带负电荷。 带有大量负离子和臭氧 的空气, 被带高压正电的等离子体收集电极导电风扇 6吸入, 空气和带正电的等 离子体收集电极导电风扇 6, 猛烈碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的各种污染物吸附截留在导电风扇 6的翅片上, 空气得到初级净化 。 空气在经过带高压正电的等离子体收集电极导电风扇 6增压之后, 空气进入静 电感应收集电极导电网栅 15, 在静电感应收集电极导电网栅 15上感应出带负电 荷的表面, 进一步吸附带正电的各种污染物, 实现空气的第二次净化。 空气进 入吹风环 3的内部空腔, 带负离子的空气将吹风环 3的内腔壁感应成带正电荷膜 层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹风环的内腔壁上, 实 现空气的第三次净化。 净化的空气在导流面的作用下, 沿着导流面变向流动, 通过节流环形出风口, 节流高速排出。 包括风扇底座、 机壳、 风机电机、 收集 电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便拆装。 当等离子体空气净 化无叶电风扇达到一定积灰量吋, 对等离子体发生电极、 等离子体收集电极、 收集电极导电风扇、 吹风环内腔进行清洗还原。
[0076] 本发明一种等离子体空气净化无叶电风扇第 3种实施例的运行过程如下:
[0077] 当幵启导电风扇, 导电风扇 6幵始旋转, 风通过风扇进风罩护网 4, 进入等离子 体发生极电绝缘支架 11, 等离子体发生极放电丝 7对空气放电, 电离空气, 使空 气充满负离子, 并使空气中的各种污染物也带负电荷。 带有大量负离子和臭氧 的空气, 通过带高压正电的金属等离子体导电网栅 15收集电极吸引, 空气和带 正电的金属等离子体导电网栅 15收集电极, 猛烈碰撞接触放电, 杀死细菌病毒 , 分解有机物, 并将带负离子的各种污染物吸附截留在等离子体导电网栅 15收 集电极的翅片上, 空气得到初级净化。 由于静电感应收集电极导电风扇 6位于金 属等离子体导电网栅 15收集电极之后, 因此, 静电感应收集电极导电风扇 6与带 正电的金属等离子体导电网栅 15收集电极相邻的面静电感应出负电荷, 排斥负 离子, 吸附正离子和带正离子的各种污染物, 静电感应收集电极导电风扇 6的背 面静电感应出正电荷, 排斥正离子, 吸附负离子和带负离子的各种污染物, 使 空气得到第二次净化。 在经过静电感应收集电极导电风扇 6旋转增压之后, 气流 向上流动。 经过二次净化后的空气, 进入吹风环 3的内部空腔, 带负离子的空气 将吹风环 3的内腔壁感应成带正电荷膜层的面, 进一步吸附带负电的各种污染物 , 并被吸附在吹风环 3的内腔壁上, 实现空气的第三次净化。 净化的空气在导流 面的作用下, 沿着导流面变向流动, 通过节流环形出风口 5, 节流高速排出。 包 括风扇底座、 机壳、 风机电机、 静电感应收集电极导电风扇、 吹风环等, 为插 装、 套装卡合, 方便拆装。 当等离子体空气净化无叶电风扇达到一定积灰量吋 , 对等离子体发生电极、 等离子体收集电极、 静电感应收集电极导电风扇、 吹 风环内腔进行清洗还原。
[0078] 本发明一种等离子体空气净化无叶电风扇第 4种实施例的运行过程如下:
[0079] 当幵启导电风扇, 导电风扇 6幵始旋转, 风通过风扇进风罩护网 4, 进入等离子 体发生极电绝缘支架 11, 等离子体发生极放电丝 7对空气放电, 电离空气, 使空 气充满负离子, 并使空气中的各种污染物也带负电荷。 带有大量负离子和臭氧 的空气, 与静电感应收集电极导电风扇 6碰触增压。 由于静电感应收集电极导电 风扇 6位于等离子体发生电极 7之后, 因此, 静电感应收集电极导电风扇 6与带负 电的等离子体发生电极 7相邻的面静电感应出正电荷, 排斥正离子, 吸附负离子 和带负离子的各种污染物, 静电感应收集电极导电风扇 6的背面静电感应出负电 荷, 排斥负离子, 吸附正离子和带正离子的各种污染物, 使空气得到初步净化 。 通过静电感应收集电极导电风扇 6净化增压的风, 通过带高压正电的金属等离 子体导电网栅 15收集电极, 使空气中带负离子和带负电荷的各种污染物, 被带 正电的金属等离子体导电网栅 15收集电极吸引, 猛烈碰撞接触放电, 杀死细菌 病毒, 分解有机物, 并将带负离子的各种污染物吸附截留在等离子体导电网栅 1 5收集电极的翅片上, 空气得到第二次净化。 二次净化后的空气, 进入吹风环 3 的内部空腔, 带负离子的空气将吹风环 3的内腔壁感应成带正电荷膜层的面, 进 一步吸附带负电的各种污染物, 并被吸附在吹风环 3的内腔壁上, 实现空气的第 三次净化。 净化的空气在导流面的作用下, 沿着导流面变向流动, 通过节流环 形出风口 5, 节流高速排出。 包括风扇底座、 机壳、 风机电机、 静电感应收集电 极导电风扇、 吹风环等, 为插装、 套装卡合, 方便拆装。 当等离子体空气净化 无叶电风扇达到一定积灰量吋, 对等离子体发生电极、 等离子体收集电极、 静 电感应收集电极导电风扇、 吹风环内腔进行清洗还原。
[0080] 本发明一种等离子体空气净化无叶电风扇第 5种实施例的运行过程如下:
[0081] 当幵启导电风扇, 导电风扇 6幵始旋转, 风通过风扇进风罩护网 4, 进入等离子 体发生极电绝缘支架 11, 等离子体发生极放电丝 7对空气放电, 电离空气, 使空 气充满负离子, 并使空气中的各种污染物也带负电荷。 带有大量负离子和臭氧 的空气, 通过静电感应导电网栅 15收集电极, 由于静电感应导电网栅 15收集电 极位于等离子体发生电极之后, 因此, 静电感应导电网栅 15收集电极与带负电 的等离子体发生电极相邻的面静电感应出正电荷, 排斥正离子, 吸附负离子和 带负离子的各种污染物, 静电感应导电网栅 15收集电极的背面静电感应出负电 荷, 排斥负离子, 吸附正离子和带正离子的各种污染物, 使空气得到初步净化 。 初步净化的空气, 与收集电极导电风扇 6碰触增压, 使空气中带负离子和带负 电荷的各种污染物, 被收集电极导电风扇 6吸引, 碰撞接触放电, 杀死细菌病毒 , 分解有机物, 并将带负离子的各种污染物吸附截留在收集电极导电风扇 6的翅 片上, 空气得到二次净化。 通过收集电极导电风扇 6净化增压二次净化后的空气 , 进入吹风环的内部空腔, 带负离子的空气将吹风环 3的内腔壁感应成带正电荷 膜层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹风环 3的内腔壁上, 实现空气的第三次净化。 净化的空气在导流面的作用下, 沿着导流面变向流动 , 通过节流环形出风口 5, 节流高速排出。 包括风扇底座、 机壳、 风机电机、 收 集电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便拆装。 当等离子体空气 净化无叶电风扇达到一定积灰量吋, 对等离子体发生电极、 等离子体收集电极 、 收集电极导电风扇、 吹风环内腔进行清洗还原。
[0082] 本发明一种等离子体空气净化无叶电风扇第 6种实施例的运行过程如下: [0083] 幵启收集电极导电风扇, 收集电极导电风扇 6幵始旋转, 风先经过风扇护罩, 再经过带高压负电的等离子体发生电极 7, 等离子体发生电极 7对空气放电, 电 离空气, 使空气充满负离子, 并使空气中的各种污染物也带负电荷。 充满负离 子的空气, 通过与等离子体高压电产生器正极电连接的导电网栅 15收集电极, 由于导电网栅 15收集电极位于等离子体发生电极 7之后, 带正电, 因此, 排斥正 离子, 吸附负离子和带负离子的各种污染物, 使空气得到初步净化。 收集电极 导电风扇 6与等离子体高压电产生器 13的负极电连接。 初步净化的空气, 与带负 电的收集电极导电风扇 6碰触增压, 使空气中带正离子和带正电荷的各种污染物 , 被收集电极导电风扇 6吸引, 碰撞接触放电, 杀死细菌病毒, 分解有机物, 并 将带正离子的各种污染物吸附截留在收集电极导电风扇 6的翅片上, 空气得到二 次净化。 通过收集电极导电风扇 6净化增压二次净化后的空气, 进入吹风环 3的 内部空腔, 带负离子的空气将吹风环 3的内腔壁感应成带正电荷膜层的面, 进一 步吸附带负电的各种污染物, 并被吸附在吹风环 3的内腔壁上, 实现空气的第三 次净化。 净化的空气在导流面的作用下, 沿着导流面变向流动, 通过节流环形 出风口 5, 节流高速排出。 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇 、 吹风环等, 为插装、 套装卡合, 方便拆装。 当等离子体空气净化无叶电风扇 达到一定积灰量吋, 对等离子体发生电极、 等离子体收集电极、 收集电极导电 风扇、 吹风环内腔进行清洗还原。
[0084] 本发明一种等离子体空气净化无叶电风扇第 7种实施例的运行过程如下:
[0085] 幵启收集电极导电风扇 6, 收集电极导电风扇 6幵始旋转, 风先经过风扇护罩 4 , 再经过带高压负电的等离子体发生电极 7, 等离子体发生电极 7对空气放电, 电离空气, 使空气充满负离子, 并使空气中的各种污染物也带负电荷。 充满负 离子的空气, 通过与等离子体高压电产生器 13正极电连接的收集电极导电风扇 6 , 排斥正离子, 吸附负离子和带负离子的各种污染物, 充满负离子的空气, 与 收集电极导电风扇 6碰触增压, 使空气中带负离子和带负电荷的各种污染物, 被 收集电极导电风扇 6吸引, 碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带 负离子的各种污染物吸附截留在收集电极导电风扇 6的翅片上, 使空气得到初步 净化。 导电网栅 15收集电极与等离子体高压电产生器 13的负极电连接, 得到初 步净化的空气, 进入带负电的导电网栅 15收集电极, 吸附正离子和带正离子的 各种污染物, 使空气得到二次净化。 通过导电网栅 15收集电极二次净化后的空 气, 进入吹风环 3的内部空腔, 带负离子的空气将吹风环 3的内腔壁感应成带正 电荷膜层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹风环 3的内腔壁 上, 实现空气的第三次净化。 净化的空气在导流面的作用下, 沿着导流面变向 流动, 通过节流环形出风口 5, 节流高速排出。 包括风扇底座、 机壳、 风机电机 、 收集电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便拆装。 当等离子体 空气净化无叶电风扇达到一定积灰量吋, 对等离子体发生电极、 等离子体收集 电极、 收集电极导电风扇、 吹风环内腔进行清洗还原。
[0086] 本发明一种等离子体空气净化无叶电风扇第 8种实施例的运行过程如下:
[0087] 幵启收集电极导电风扇 6, 收集电极导电风扇 6幵始旋转, 风先经过风扇护罩 4 , 再经过带高压负电的等离子体发生电极 7, 等离子体发生电极 7对空气放电, 电离空气, 使空气充满负离子, 并使空气中的各种污染物也带负电荷。 充满负 离子的空气, 通过与等离子体高压电产生器 13负极电连接的导电网栅 15收集电 极, 由于导电网栅 15收集电极位于等离子体发生电极 7之后, 且与等离子体发生 电极 7相邻面为电绝缘膜层, 因此在导电网栅 15收集电极带负电的情况下, 通过 电绝缘膜层, 在等离子体发生电极相邻绝缘膜层面上感应出正电荷膜层, 排斥 正离子, 吸附负离子和带负离子的各种污染物, 导电网栅 15收集电极与收集电 极导电风扇 6相对侧的面, 为电导体面, 带负电荷, 吸附正离子, 排斥负离子, 使空气得到初步净化。 收集电极导电风扇 6与等离子体高压电产生器 13的正极电 连接。 初步净化的空气, 与带正电的收集电极导电风扇 6碰触增压, 使空气中带 负离子和带负电荷的各种污染物, 被收集电极导电风扇 6吸引, 碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的各种污染物吸附截留在收集电极 导电风扇 6的翅片上, 空气得到二次净化。 通过收集电极导电风扇 6净化增压二 次净化后的空气, 进入吹风环 3的内部空腔, 带负离子的空气将吹风环 3的内腔 壁感应成带正电荷膜层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹 风环 3的内腔壁上, 实现空气的第三次净化。 净化的空气在导流面的作用下, 沿 着导流面变向流动, 通过节流环形出风口 5, 节流高速排出。 包括风扇底座、 机 壳、 风机电机、 收集电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便拆装 。 当等离子体空气净化无叶电风扇达到一定积灰量吋, 对等离子体发生电极、 等离子体收集电极、 收集电极导电风扇、 吹风环内腔进行清洗还原。
[0088] 本发明一种等离子体空气净化无叶电风扇第 9种实施例的运行过程如下:
[0089] 幵启收集电极导电风扇 6, 收集电极导电风扇 6幵始旋转, 风先经过风扇护罩 4 , 再经过带高压负电的等离子体发生电极 7, 等离子体发生电极 7对空气放电, 电离空气, 使空气充满负离子, 并使空气中的各种污染物也带负电荷。 充满负 离子的空气, 通过与等离子体高压电产生器 13负极电连接的收集电极导电风扇 6 , 由于收集电极导电风扇 6位于等离子体发生电极 7之后, 且与等离子体发生电 极 7相邻面为电绝缘膜层, 因此在收集电极导电风扇 6带负电的情况下, 通过电 绝缘膜层, 在等离子体发生电极 7相邻绝缘膜层面上感应出正电荷膜层, 排斥正 离子, 吸附负离子和带负离子的各种污染物, 收集电极导电风扇 6与收集电极导 电风扇 6相对侧的面, 为电导体面, 带负电荷, 吸附正离子, 排斥负离子, 充满 负离子的空气, 与收集电极导电风扇 6碰触增压, 使空气中带负离子和带负电荷 的各种污染物, 被收集电极导电风扇 6吸引, 碰撞接触放电, 杀死细菌病毒, 分 解有机物, 并将带负离子的各种污染物吸附截留在收集电极导电风扇 6的翅片上 , 使空气得到初步净化。 导电网栅 15收集电极与等离子体高压电产生器 13的正 极电连接, 得到初步净化的空气, 进入带正电的导电网栅 15收集电极, 吸附负 离子和带负离子的各种污染物, 使空气得到二次净化。 通过导电网栅 15收集电 极二次净化后的空气, 进入吹风环 3的内部空腔, 带负离子的空气将吹风环 3的 内腔壁感应成带正电荷膜层的面, 进一步吸附带负电的各种污染物, 并被吸附 在吹风环 3的内腔壁上, 实现空气的第三次净化。 净化的空气在导流面的作用下 , 沿着导流面变向流动, 通过节流环形出风口 5, 节流高速排出。 包括风扇底座 、 机壳、 风机电机、 收集电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便 拆装。 当等离子体空气净化无叶电风扇达到一定积灰量吋, 对等离子体发生电 极、 等离子体收集电极、 收集电极导电风扇、 吹风环内腔进行清洗还原。

Claims

权利要求书
[权利要求 1] 一种等离子体空气净化无叶电风扇, 包括风扇底座、 机壳、 风机电机
、 收集电极导电风扇、 吹风环、 摇头装置、 等离子体高压电产生器; 其特征是: 机壳与吹风环同体连接, 吹风环为闭环空心圈, 空心圈内 为风道, 空心圈的内侧设有节流环形出风口; 吹风环的根部与机壳的 连接处为固定连接, 或为俯仰可调活动连接; 机壳下部设有风扇护罩 进风口, 等离子体发生极设于风扇护罩进风口内; 收集电极导电风扇 与风机电机主轴连接安装在机壳内部, 收集电极导电风扇置于风机壳 内, 收集电极导电风扇主轴与风机电机同轴布置, 电绝缘连接, 收集 电极导电风扇置于等离子体发生极之后, 收集电极导电风扇产生的风 , 通过机壳风道向上吹, 机壳风道与吹风环连接; 摇头装置为风机电 机带动, 或为独设的摇头电机带动, 通过常规的变速装置和离合装置 带动吹风环, 实现吹风环摇头; 等离子高压电产生器为与电源连接, 能产生正负高压电的产生器; 风扇护罩的内侧进风口处, 设有与风扇 护罩、 电机、 导电风扇、 机座电绝缘的等离子体发生极; 等离子体发 生极为包括金属针状阵列电极, 金属丝网状电极, 线状、 锯齿型、 芒 刺型或鱼骨型结构电极; 等离子体发生极, 与高压负电极连接; 等离 子体发生极与风扇护罩一体设置, 或分体组合设置; 导电风扇为与风 扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子体收集 电极, 导电风扇为电导体导电风扇, 导电风扇与电机的转子转轴电绝 缘连接; 导电风扇与等离子高压电产生器正极, 通过电刷与导电风扇 电连接; 等离子高压电产生器的高压负电极电压的绝对值, 高于高压 正电极电压的绝对值; 导电风扇为包括金属材料制成, 或将塑胶材料 作为基材, 在基材上涂覆金属或碳材料膜层制成, 或导电风扇为复合 导电材料制成, 或导电风扇为塑胶电绝缘基材上, 复合导电薄膜材料 制成; 当幵启收集电极导电风扇, 收集电极导电风扇幵始旋转, 风先 经过风扇护罩, 再经过带高压负电的等离子体发生电极, 等离子体发 生电极对空气放电, 电离空气, 使空气充满负离子, 并使空气中的各 种污染物也带负电荷; 带有大量负离子和臭氧的空气, 被带高压正电 的收集电极导电风扇吸入, 空气和带正电的收集电极导电风扇, 猛烈 碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的各种污 染物吸附截留在收集电极导电风扇的翅片上, 空气得到初级净化; 空 气在经过收集电极导电风扇旋转增压之后, 气流向上流动; 经过初步 净化后的空气, 进入吹风环的内部空腔, 带负离子的空气将吹风环的 内腔壁感应成带正电荷膜层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹风环的内腔壁上, 实现空气的第二次净化; 净化的空气 在导流面的作用下, 沿着导流面变向流动, 通过节流环形出风口, 节 流高速排出; 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便拆装; 当等离子体空气净化无叶 电风扇达到一定积灰量吋, 对等离子体发生电极、 收集电极导电风扇 、 吹风环内腔进行清洗还原。
[权利要求 2] —种等离子体空气净化无叶电风扇, 包括风扇底座、 机壳、 风机电机
、 收集电极导电风扇、 吹风环、 摇头装置、 等离子体高压电产生器; 其特征是: 机壳与吹风环同体连接, 吹风环为闭环空心圈, 空心圈内 为风道, 空心圈的内侧设有节流环形出风口; 吹风环的根部与机壳的 连接处为固定连接, 或为俯仰可调活动连接; 机壳下部设有风扇护罩 进风口, 等离子体发生极设于风扇护罩进风口内; 收集电极导电风扇 与风机电机主轴连接安装在机壳内部, 收集电极导电风扇置于风机壳 内, 收集电极导电风扇主轴与风机电机同轴布置, 电绝缘连接, 收集 电极导电风扇置于等离子体发生极之后, 收集电极导电风扇产生的风 , 通过机壳风道向上吹, 机壳风道与吹风环连接; 摇头装置为风机电 机带动, 或为独设的摇头电机带动, 通过常规的变速装置和离合装置 带动吹风环, 实现吹风环摇头; 等离子高压电产生器为与电源连接, 能产生正负高压电的产生器; 进风侧风扇护罩的内侧进风口处, 设有 与风扇护罩、 电机、 导电风扇、 机座电绝缘的等离子体发生极; 等离 子体发生极为包括金属针状阵列电极, 金属丝网状电极, 线状、 锯齿 型、 芒刺型或鱼骨型结构电极; 等离子体发生极, 与高压负电极连接 ; 等离子体发生极与进风侧风扇护罩一体设置, 或分体组合设置; 导 电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的 等离子体收集电极, 导电风扇为电导体导电风扇, 导电风扇与电机的 转子转轴电绝缘连接; 导电风扇与等离子高压电产生器正极, 通过电 刷与导电风扇电连接; 等离子高压电产生器的高压负电极电压的绝对 值, 高于高压正电极电压的绝对值; 导电风扇为包括金属材料制成, 或将塑胶材料作为基材, 在基材上涂覆金属或碳材料膜层制成, 或导 电风扇为复合导电材料制成, 或导电风扇为塑胶电绝缘基材上, 复合 导电薄膜材料制成; 静电感应收集电极导电网栅与风扇护罩、 等离子 体发生极、 机座、 电机、 大地电绝缘, 静电感应收集电极导电网栅为 包括金属材料制成, 或静电感应收集电极导电网栅为金属材料表面上 包裹电绝缘材料制成, 或将塑胶材料作为基材, 在基材上涂覆金属或 碳材料膜层制成, 或静电感应收集电极导电网栅为复合导电材料制成 , 或静电感应收集电极导电网栅为塑胶电绝缘基材上, 复合导电薄膜 材料制成; 当幵启导电风扇, 导电风扇幵始旋转, 风先经过风扇护罩 , 再经过带高压负电的等离子体发生极, 等离子体发生极对空气放电 , 电离空气, 使空气充满负离子, 并使空气中的各种污染物也带负电 荷; 带有大量负离子和臭氧的空气, 被带高压正电的等离子体收集电 极导电风扇吸入, 空气和带正电的等离子体收集电极导电风扇, 猛烈 碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的各种污 染物吸附截留在导电风扇的翅片上, 空气得到初级净化; 空气在经过 带高压正电的等离子体收集电极导电风扇增压之后, 空气进入静电感 应收集电极导电网栅, 在静电感应收集电极导电网栅上感应出带负电 荷的表面, 进一步吸附带正电的各种污染物, 实现空气的第二次净化 ; 空气进入吹风环的内部空腔, 带负离子的空气将吹风环的内腔壁感 应成带正电荷膜层的面, 进一步吸附带负电的各种污染物, 并被吸附 在吹风环的内腔壁上, 实现空气的第三次净化; 净化的空气在导流面 的作用下, 沿着导流面变向流动, 通过节流环形出风口, 节流高速排 出; 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇、 吹风环等 , 为插装、 套装卡合, 方便拆装; 当等离子体空气净化无叶电风扇达 到一定积灰量吋, 对等离子体发生电极、 等离子体收集电极、 收集电 极导电风扇、 吹风环内腔进行清洗还原; 或导电网栅为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子体收集电极; 导 电网栅为包括金属材料制成, 或将塑胶材料作为基材, 在基材上涂覆 金属或碳材料膜层制成, 或导电网栅为复合导电材料制成, 或导电网 栅为塑胶电绝缘基材上, 复合导电薄膜材料制成; 导电网栅与进风侧 风扇护罩电绝缘一体设置, 或导电网栅与进风侧风扇护罩电绝缘分体 组合设置; 导电网栅与等离子高压电产生器正极电连接; 等离子高压 电产生器的高压负电极电压的绝对值, 高于高压正电极电压的绝对值 ; 导电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝 缘的静电感应收集电极, 导电风扇为电导体导电风扇, 导电风扇为包 括金属材料制成, 或导电风扇为金属材料表面上包裹电绝缘材料制成 , 或将塑胶材料作为基材, 在基材上涂覆金属或碳材料膜层制成, 或 导电风扇为复合导电材料制成, 或导电风扇为塑胶电绝缘基材上, 复 合导电薄膜材料制成; 幵启静电感应收集电极导电风扇, 静电感应收 集电极导电风扇幵始旋转, 风先经过风扇护罩, 再经过带高压负电的 等离子体发生电极, 等离子体发生电极对空气放电, 电离空气, 使空 气充满负离子, 并使空气中的各种污染物也带负电荷; 带有大量负离 子和臭氧的空气, 通过带高压正电的金属等离子体导电网栅收集电极 吸引, 空气和带正电的金属等离子体导电网栅收集电极, 猛烈碰撞接 触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的各种污染物吸 附截留在等离子体导电网栅收集电极的翅片上, 空气得到初级净化; 由于静电感应收集电极导电风扇位于金属等离子体导电网栅收集电极 之后, 因此, 静电感应收集电极导电风扇与带正电的金属等离子体导 电网栅收集电极相邻的面静电感应出负电荷, 排斥负离子, 吸附正离 子和带正离子的各种污染物, 静电感应收集电极导电风扇的背面静电 感应出正电荷, 排斥正离子, 吸附负离子和带负离子的各种污染物, 使空气得到第二次净化; 在经过静电感应收集电极导电风扇旋转增压 之后, 气流向上流动; 经过二次净化后的空气, 进入吹风环的内部空 腔, 带负离子的空气将吹风环的内腔壁感应成带正电荷膜层的面, 进 一步吸附带负电的各种污染物, 并被吸附在吹风环的内腔壁上, 实现 空气的第三次净化; 净化的空气在导流面的作用下, 沿着导流面变向 流动, 通过节流环形出风口, 节流高速排出; 包括风扇底座、 机壳、 风机电机、 静电感应收集电极导电风扇、 吹风环等, 为插装、 套装卡 合, 方便拆装; 当等离子体空气净化无叶电风扇达到一定积灰量吋, 对等离子体发生电极、 等离子体收集电极、 静电感应收集电极导电风 扇、 吹风环内腔进行清洗还原。
[权利要求 3] —种等离子体空气净化无叶电风扇, 包括风扇底座、 机壳、 风机电机
、 静电感应收集电极导电风扇、 吹风环、 摇头装置、 等离子体高压电 产生器; 其特征是: 机壳与吹风环同体连接, 吹风环为闭环空心圈, 空心圈内为风道, 空心圈的内侧设有节流环形出风口; 吹风环的根部 与机壳的连接处为固定连接, 或为俯仰可调活动连接; 机壳下部设有 风扇护罩进风口, 等离子体发生极设于风扇护罩进风口内; 静电感应 收集电极导电风扇与风机电机主轴连接安装在机壳内部, 静电感应收 集电极导电风扇置于风机壳内, 静电感应收集电极导电风扇主轴与风 机电机同轴布置, 电绝缘连接, 静电感应收集电极导电风扇置于等离 子体发生极之后静电感应收集电极导电风扇产生的风, 通过机壳风道 向上吹, 机壳风道与吹风环连接; 摇头装置为风机电机带动, 或为独 设的摇头电机带动, 通过常规的变速装置和离合装置带动吹风环, 实 现吹风环摇头; 等离子高压电产生器为与电源连接, 能产生正负高压 电的产生器; 进风侧风扇护罩的内侧进风口处, 设有与风扇护罩、 电 机、 导电风扇、 机座电绝缘的等离子体发生极; 等离子体发生极为包 括金属针状阵列电极, 金属丝网状电极, 线状、 锯齿型、 芒刺型或鱼 骨型结构电极; 等离子体发生极, 与高压负电极连接; 等离子体发生 极与进风侧风扇护罩一体设置, 或分体组合设置; 导电风扇为与风扇 护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的静电感应收集电 极, 导电风扇为电导体导电风扇, 导电风扇为包括金属材料制成, 或 导电风扇为金属材料表面上包裹电绝缘材料制成, 或将塑胶材料作为 基材, 在基材上涂覆金属或碳材料膜层制成, 或导电风扇为复合导电 材料制成, 或导电风扇为塑胶电绝缘基材上, 复合导电薄膜材料制成 ; 导电风扇设于等离子体发生极之后, 等离子体收集电极之前; 导电 网栅为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等 离子体收集电极; 导电网栅为包括金属材料制成, 或将塑胶材料作为 基材, 在基材上涂覆金属或碳材料膜层制成, 或导电网栅为复合导电 材料制成, 或导电网栅为塑胶电绝缘基材上, 复合导电薄膜材料制成 ; 导电网栅与出风侧风扇护罩电绝缘一体设置, 或导电网栅与出风侧 风扇护罩电绝缘分体组合设置; 导电网栅与等离子高压电产生器正极 电连接; 等离子高压电产生器的高压负电极电压的绝对值, 高于高压 正电极电压的绝对值; 幵启静电感应收集电极导电风扇, 静电感应收 集电极导电风扇幵始旋转, 风先经过风扇护罩, 再经过带高压负电的 等离子体发生电极, 等离子体发生电极对空气放电, 电离空气, 使空 气充满负离子, 并使空气中的各种污染物也带负电荷; 带有大量负离 子和臭氧的空气, 与静电感应收集电极导电风扇碰触增压; 由于静电 感应收集电极导电风扇位于等离子体发生电极之后, 因此, 静电感应 收集电极导电风扇与带负电的等离子体发生电极相邻的面静电感应出 正电荷, 排斥正离子, 吸附负离子和带负离子的各种污染物, 静电感 应收集电极导电风扇的背面静电感应出负电荷, 排斥负离子, 吸附正 离子和带正离子的各种污染物, 使空气得到初步净化; 通过静电感应 收集电极导电风扇净化增压的风, 通过带高压正电的金属等离子体导 电网栅收集电极, 使空气中带负离子和带负电荷的各种污染物, 被带 正电的金属等离子体导电网栅收集电极吸引, 猛烈碰撞接触放电, 杀 死细菌病毒, 分解有机物, 并将带负离子的各种污染物吸附截留在等 离子体导电网栅收集电极的翅片上, 空气得到第二次净化; 二次净化 后的空气, 进入吹风环的内部空腔, 带负离子的空气将吹风环的内腔 壁感应成带正电荷膜层的面, 进一步吸附带负电的各种污染物, 并被 吸附在吹风环的内腔壁上, 实现空气的第三次净化; 净化的空气在导 流面的作用下, 沿着导流面变向流动, 通过节流环形出风口, 节流高 速排出; 包括风扇底座、 机壳、 风机电机、 静电感应收集电极导电风 扇、 吹风环等, 为插装、 套装卡合, 方便拆装; 当等离子体空气净化 无叶电风扇达到一定积灰量吋, 对等离子体发生电极、 等离子体收集 电极、 静电感应收集电极导电风扇、 吹风环内腔进行清洗还原; 静电 感应收集电极导电网栅与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘, 静电感应收集电极导电网栅为包括金属材料制成, 或静 电感应收集电极导电网栅为金属材料表面上包裹电绝缘材料制成, 或 将塑胶材料作为基材, 在基材上涂覆金属或碳材料膜层制成, 或静电 感应收集电极导电网栅为复合导电材料制成, 或静电感应收集电极导 电网栅为塑胶电绝缘基材上, 复合导电薄膜材料制成; 静电感应收集 电极导电网栅与进风侧风扇护罩一体设置, 或分体组合设置; 导电风 扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离 子体收集电极, 导电风扇为电导体导电风扇, 导电风扇与电机的转子 转轴电绝缘连接; 导电风扇与等离子高压电产生器正极, 通过电刷与 导电风扇电连接; 导电风扇为包括金属材料制成, 或将塑胶材料作为 基材, 在基材上涂覆金属或碳材料膜层制成, 或导电风扇为复合导电 材料制成, 或导电风扇为塑胶电绝缘基材上, 复合导电薄膜材料制成 ; 等离子高压电产生器的高压负电极电压的绝对值, 高于高压正电极 电压的绝对值; 幵启收集电极导电风扇, 收集电极导电风扇幵始旋转 , 风先经过风扇护罩, 再经过带高压负电的等离子体发生电极, 等离 子体发生电极对空气放电, 电离空气, 使空气充满负离子, 并使空气 中的各种污染物也带负电荷; 充满负离子的空气, 通过静电感应导电 网栅收集电极, 由于静电感应导电网栅收集电极位于等离子体发生电 极之后, 因此, 静电感应导电网栅收集电极与带负电的等离子体发生 电极相邻的面静电感应出正电荷, 排斥正离子, 吸附负离子和带负离 子的各种污染物, 静电感应导电网栅收集电极的背面静电感应出负电 荷, 排斥负离子, 吸附正离子和带正离子的各种污染物, 使空气得到 初步净化; 初步净化的空气, 与收集电极导电风扇碰触增压, 使空气 中带负离子和带负电荷的各种污染物, 被收集电极导电风扇吸引, 碰 撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的各种污染 物吸附截留在收集电极导电风扇的翅片上, 空气得到二次净化; 通过 收集电极导电风扇净化增压二次净化后的空气, 进入吹风环的内部空 腔, 带负离子的空气将吹风环的内腔壁感应成带正电荷膜层的面, 进 一步吸附带负电的各种污染物, 并被吸附在吹风环的内腔壁上, 实现 空气的第三次净化; 净化的空气在导流面的作用下, 沿着导流面变向 流动, 通过节流环形出风口, 节流高速排出; 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便 拆装; 当等离子体空气净化无叶电风扇达到一定积灰量吋, 对等离子 体发生电极、 等离子体收集电极、 收集电极导电风扇、 吹风环内腔进 行清洗还原。
[权利要求 4] 一种等离子体空气净化无叶电风扇, 包括风扇底座、 机壳、 风机电机
、 收集电极导电风扇、 吹风环、 摇头装置、 等离子体高压电产生器; 其特征是: 机壳与吹风环同体连接, 吹风环为闭环空心圈, 空心圈内 为风道, 空心圈的内侧设有节流环形出风口; 吹风环的根部与机壳的 连接处为固定连接, 或为俯仰可调活动连接; 机壳下部设有风扇护罩 进风口, 等离子体发生极设于风扇护罩进风口内; 收集电极导电风扇 与风机电机主轴连接安装在机壳内部, 收集电极导电风扇置于风机壳 内, 收集电极导电风扇主轴与风机电机同轴布置, 电绝缘连接, 收集 电极导电风扇置于等离子体发生极之后收集电极导电风扇产生的风, 通过机壳风道向上吹, 机壳风道与吹风环连接; 摇头装置为风机电机 带动, 或为独设的摇头电机带动, 通过常规的变速装置和离合装置带 动吹风环, 实现吹风环摇头; 等离子高压电产生器为与电源连接, 能 产生正负高压电的产生器; 进风侧风扇护罩的内侧进风口处, 设有与 风扇护罩、 电机、 导电风扇、 机座电绝缘的等离子体发生极; 等离子 体发生极为包括金属针状阵列电极, 金属丝网状电极, 线状、 锯齿型
、 芒刺型或鱼骨型结构电极; 等离子体发生极, 与高压负电极连接; 等离子体发生极与进风侧风扇护罩一体设置, 或分体组合设置; 导电 网栅为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等 离子体收集电极; 导电网栅为包括金属材料制成, 或将塑胶材料作为 基材, 在基材上涂覆金属或碳材料膜层制成, 或导电网栅为复合导电 材料制成, 或导电网栅为塑胶电绝缘基材上, 复合导电薄膜材料制成
; 导电网栅与进风侧风扇护罩电绝缘一体设置, 或导电网栅与进风侧 风扇护罩电绝缘分体组合设置; 导电网栅与等离子高压电产生器正极 电连接; 导电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大 地电绝缘的等离子体收集电极, 导电风扇为电导体导电风扇, 导电风 扇与电机的转子转轴电绝缘连接; 导电风扇与等离子高压电产生器负 极, 通过电刷与导电风扇电连接; 导电风扇为包括金属材料制成, 或 将塑胶材料作为基材, 在基材上涂覆金属或碳材料膜层制成, 或导电 风扇为复合导电材料制成, 或导电风扇为塑胶电绝缘基材上, 复合导 电薄膜材料制成; 等离子高压电产生器的高压负电极电压的绝对值, 高于高压正电极电压的绝对值; 幵启收集电极导电风扇, 收集电极导 电风扇幵始旋转, 风先经过风扇护罩, 再经过带高压负电的等离子体 发生电极, 等离子体发生电极对空气放电, 电离空气, 使空气充满负 离子, 并使空气中的各种污染物也带负电荷; 充满负离子的空气, 通 过与等离子体高压电产生器正极电连接的导电网栅收集电极, 由于导 电网栅收集电极位于等离子体发生电极之后, 带正电, 因此, 排斥正 离子, 吸附负离子和带负离子的各种污染物, 使空气得到初步净化; 收集电极导电风扇与等离子体高压电产生器的负极电连接; 初步净化 的空气, 与带负电的收集电极导电风扇碰触增压, 使空气中带正离子 和带正电荷的各种污染物, 被收集电极导电风扇吸引, 碰撞接触放电 , 杀死细菌病毒, 分解有机物, 并将带正离子的各种污染物吸附截留 在收集电极导电风扇的翅片上, 空气得到二次净化; 通过收集电极导 电风扇净化增压二次净化后的空气, 进入吹风环的内部空腔, 带负离 子的空气将吹风环的内腔壁感应成带正电荷膜层的面, 进一步吸附带 负电的各种污染物, 并被吸附在吹风环的内腔壁上, 实现空气的第三 次净化; 净化的空气在导流面的作用下, 沿着导流面变向流动, 通过 节流环形出风口, 节流高速排出; 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便拆装; 当等 离子体空气净化无叶电风扇达到一定积灰量吋, 对等离子体发生电极 、 等离子体收集电极、 收集电极导电风扇、 吹风环内腔进行清洗还原 ; 导电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝 缘的等离子体收集电极; 导电风扇为电导体导电风扇, 导电风扇与电 机的转子转轴电绝缘连接; 导电风扇与等离子高压电产生器正极, 通 过电刷与导电风扇电连接; 导电风扇为包括金属材料制成, 或将塑胶 材料作为基材, 在基材上涂覆金属或碳材料膜层制成, 或导电风扇为 复合导电材料制成, 或导电风扇为塑胶电绝缘基材上, 复合导电薄膜 材料制成; 导电风扇与等离子高压电产生器正极, 通过电刷与导电风 扇电连接; 导电网栅收集电极为与风扇护罩、 等离子体发生极、 机座 、 电机、 大地电绝缘的等离子体收集电极; 导电网栅收集电极为包括 金属材料制成, 或将塑胶材料作为基材, 在基材上涂覆金属或碳材料 膜层制成, 或导电网栅收集电极为复合导电材料制成; 导电网栅收集 电极与进风侧风扇护罩电绝缘一体设置, 或导电网栅收集电极与进风 侧风扇护罩电绝缘分体组合设置; 导电网栅收集电极与等离子高压电 产生器负极电连接; 等离子高压电产生器的高压负电极电压的绝对值 , 高于高压正电极电压的绝对值; 幵启收集电极导电风扇, 收集电极 导电风扇幵始旋转, 风先经过风扇护罩, 再经过带高压负电的等离子 体发生电极, 等离子体发生电极对空气放电, 电离空气, 使空气充满 负离子, 并使空气中的各种污染物也带负电荷; 充满负离子的空气, 通过与等离子体高压电产生器正极电连接的收集电极导电风扇, 排斥 正离子, 吸附负离子和带负离子的各种污染物, 充满负离子的空气, 与收集电极导电风扇碰触增压, 使空气中带负离子和带负电荷的各种 污染物, 被收集电极导电风扇吸引, 碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的各种污染物吸附截留在收集电极导电风 扇的翅片上, 使空气得到初步净化; 导电网栅收集电极与等离子体高 压电产生器的负极电连接, 得到初步净化的空气, 进入带负电的导电 网栅收集电极, 吸附正离子和带正离子的各种污染物, 使空气得到二 次净化; 通过导电网栅收集电极二次净化后的空气, 进入吹风环的内 部空腔, 带负离子的空气将吹风环的内腔壁感应成带正电荷膜层的面 , 进一步吸附带负电的各种污染物, 并被吸附在吹风环的内腔壁上, 实现空气的第三次净化; 净化的空气在导流面的作用下, 沿着导流面 变向流动, 通过节流环形出风口, 节流高速排出; 包括风扇底座、 机 壳、 风机电机、 收集电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便拆装; 当等离子体空气净化无叶电风扇达到一定积灰量吋, 对等 离子体发生电极、 等离子体收集电极、 收集电极导电风扇、 吹风环内 腔进行清洗还原。
[权利要求 5] —种等离子体空气净化无叶电风扇, 包括风扇底座、 机壳、 风机电机
、 收集电极导电风扇、 吹风环、 摇头装置、 等离子体高压电产生器; 其特征是: 机壳与吹风环同体连接, 吹风环为闭环空心圈, 空心圈内 为风道, 空心圈的内侧设有节流环形出风口; 吹风环的根部与机壳的 连接处为固定连接, 或为俯仰可调活动连接; 机壳下部设有风扇护罩 进风口, 等离子体发生极设于风扇护罩进风口内; 收集电极导电风扇 与风机电机主轴连接安装在机壳内部, 收集电极导电风扇置于风机壳 内, 收集电极导电风扇主轴与风机电机同轴布置, 电绝缘连接, 收集 电极导电风扇置于等离子体发生极之后收集电极导电风扇产生的风, 通过机壳风道向上吹, 机壳风道与吹风环连接; 摇头装置为风机电机 带动, 或为独设的摇头电机带动, 通过常规的变速装置和离合装置带 动吹风环, 实现吹风环摇头; 等离子高压电产生器为与电源连接, 能 产生正负高压电的产生器; 进风侧风扇护罩的内侧进风口处, 设有与 风扇护罩、 电机、 导电风扇、 机座电绝缘的等离子体发生极; 等离子 体发生极为包括金属针状阵列电极, 金属丝网状电极, 线状、 锯齿型 、 芒刺型或鱼骨型结构电极; 等离子体发生极, 与高压负电极连接; 等离子体发生极与进风侧风扇护罩一体设置, 或分体组合设置; 一侧 导电网栅收集电极为与风扇护罩、 等离子体发生极、 机座、 电机、 大 地电绝缘的等离子体收集电极; 一侧导电网栅收集电极为金属材料表 面一侧上复合电绝缘膜层制成, 或将塑胶材料作为基材, 在基材一侧 上涂覆金属或碳材料膜层制成, 或一侧导电网栅收集电极为复合导电 材料一侧上复合电绝缘膜层制成; 一侧导电网栅收集电极与进风侧风 扇护罩电绝缘一体设置, 或一侧导电网栅收集电极与进风侧风扇护罩 电绝缘分体组合设置; 一侧导电网栅收集电极与等离子体发生极相邻 侧复合有电绝缘膜层, 一侧导电网栅收集电极与等离子高压电产生器 负极电连接, 通过电绝缘膜层, 在等离子体发生极相邻侧静电感应出 正电膜层; 导电风扇为与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子体收集电极, 导电风扇为电导体导电风扇, 导电 风扇与电机的转子转轴电绝缘连接; 导电风扇与等离子高压电产生器 正极, 通过电刷与导电风扇电连接; 导电风扇为包括金属材料制成, 或将塑胶材料作为基材, 在基材上涂覆金属或碳材料膜层制成, 或导 电风扇为复合导电材料制成, 或导电风扇为塑胶电绝缘基材上, 复合 导电薄膜材料制成; 等离子高压电产生器的高压负电极电压的绝对值 , 高于高压正电极电压的绝对值; 幵启收集电极导电风扇, 收集电极 导电风扇幵始旋转, 风先经过风扇护罩, 再经过带高压负电的等离子 体发生电极, 等离子体发生电极对空气放电, 电离空气, 使空气充满 负离子, 并使空气中的各种污染物也带负电荷; 充满负离子的空气, 通过与等离子体高压电产生器负极电连接的导电网栅收集电极, 由于 导电网栅收集电极位于等离子体发生电极之后, 且与等离子体发生电 极相邻面为电绝缘膜层, 因此在导电网栅收集电极带负电的情况下, 通过电绝缘膜层, 在等离子体发生电极相邻绝缘膜层面上感应出正电 荷膜层, 排斥正离子, 吸附负离子和带负离子的各种污染物, 导电网 栅收集电极与收集电极导电风扇相对侧的面, 为电导体面, 带负电荷 , 吸附正离子, 排斥负离子, 使空气得到初步净化; 收集电极导电风 扇与等离子体高压电产生器的正极电连接; 初步净化的空气, 与带正 电的收集电极导电风扇碰触增压, 使空气中带负离子和带负电荷的各 种污染物, 被收集电极导电风扇吸引, 碰撞接触放电, 杀死细菌病毒 , 分解有机物, 并将带负离子的各种污染物吸附截留在收集电极导电 风扇的翅片上, 空气得到二次净化; 通过收集电极导电风扇净化增压 二次净化后的空气, 进入吹风环的内部空腔, 带负离子的空气将吹风 环的内腔壁感应成带正电荷膜层的面, 进一步吸附带负电的各种污染 物, 并被吸附在吹风环的内腔壁上, 实现空气的第三次净化; 净化的 空气在导流面的作用下, 沿着导流面变向流动, 通过节流环形出风口 , 节流高速排出; 包括风扇底座、 机壳、 风机电机、 收集电极导电风 扇、 吹风环等, 为插装、 套装卡合, 方便拆装; 当等离子体空气净化 无叶电风扇达到一定积灰量吋, 对等离子体发生电极、 等离子体收集 电极、 收集电极导电风扇、 吹风环内腔进行清洗还原; 或导电风扇为 与风扇护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子体 收集电极; 导电风扇为一侧导电风扇, 一侧导电风扇与电机的转子转 轴电绝缘连接; 一侧导电风扇为金属材料一侧表面复合电绝缘膜层制 成, 或导电风扇为复合导电材料一侧表面复合电绝缘膜层制成; 导电 风扇与等离子体发生极相邻侧, 复合有电绝缘膜层, 导电风扇与等离 子高压电产生器负极电连接, 通过导电风扇的电绝缘膜层, 在等离子 体发生极相邻侧, 静电感应出正电膜层; 导电风扇与等离子高压电产 生器负极, 通过电刷与导电风扇电连接; 导电网栅收集电极为与风扇 护罩、 等离子体发生极、 机座、 电机、 大地电绝缘的等离子体收集电 极; 导电网栅收集电极为包括金属材料制成, 或将塑胶材料作为基材 , 在基材上涂覆金属或碳材料膜层制成, 或导电网栅收集电极为复合 导电材料制成, 或导电网栅收集电极为塑胶电绝缘基材上, 复合导电 薄膜材料制成; 导电网栅收集电极与等离子高压电产生器正极电连接
; 等离子高压电产生器的高压负电极电压的绝对值, 高于高压正电极 电压的绝对值; 幵启收集电极导电风扇, 收集电极导电风扇幵始旋转 , 风先经过风扇护罩, 再经过带高压负电的等离子体发生电极, 等离 子体发生电极对空气放电, 电离空气, 使空气充满负离子, 并使空气 中的各种污染物也带负电荷; 充满负离子的空气, 通过与等离子体高 压电产生器负极电连接的收集电极导电风扇, 由于收集电极导电风扇 位于等离子体发生电极之后, 且与等离子体发生电极相邻面为电绝缘 膜层, 因此在收集电极导电风扇带负电的情况下, 通过电绝缘膜层, 在等离子体发生电极相邻绝缘膜层面上感应出正电荷膜层, 排斥正离 子, 吸附负离子和带负离子的各种污染物, 收集电极导电风扇与收集 电极导电风扇相对侧的面, 为电导体面, 带负电荷, 吸附正离子, 排 斥负离子, 充满负离子的空气, 与收集电极导电风扇碰触增压, 使空 气中带负离子和带负电荷的各种污染物, 被收集电极导电风扇吸引, 碰撞接触放电, 杀死细菌病毒, 分解有机物, 并将带负离子的各种污 染物吸附截留在收集电极导电风扇的翅片上, 使空气得到初步净化; 导电网栅收集电极与等离子体高压电产生器的正极电连接, 得到初步 净化的空气, 进入带正电的导电网栅收集电极, 吸附负离子和带负离 子的各种污染物, 使空气得到二次净化; 通过导电网栅收集电极二次 净化后的空气, 进入吹风环的内部空腔, 带负离子的空气将吹风环的 内腔壁感应成带正电荷膜层的面, 进一步吸附带负电的各种污染物, 并被吸附在吹风环的内腔壁上, 实现空气的第三次净化; 净化的空气 在导流面的作用下, 沿着导流面变向流动, 通过节流环形出风口, 节 流高速排出; 包括风扇底座、 机壳、 风机电机、 收集电极导电风扇、 吹风环等, 为插装、 套装卡合, 方便拆装; 当等离子体空气净化无叶 电风扇达到一定积灰量吋, 对等离子体发生电极、 等离子体收集电极 、 收集电极导电风扇、 吹风环内腔进行清洗还原。
根据权利要求 1、 2、 3、 4或 5所述的一种等离子体空气净化无叶电风 扇, 其特征是: 电机转子转轴与导电风扇主轴连接端头, 为设有的永 久磁铁齿楞盘, 或为铁磁材料制成的齿楞盘, 导电风扇主轴连接端头 , 为与电机转子转轴的永久磁铁齿楞盘对应的齿楞盘, 导电风扇主轴 连接端头齿楞盘, 为铁磁材料制成的齿楞盘, 或为永久磁铁材料制成 齿楞盘; 电机转子转轴的永久磁铁齿楞盘与导电风扇主轴连接端头永 久磁铁齿楞盘的连接吸合面上, 设有电绝缘材料层。
根据权利要求 1、 2、 3、 4或 5所述的一种等离子体空气净化无叶电风 扇, 其特征是: 等离子体收集电极导电风扇, 与等离子高压电产生器 正极连接的电刷为石墨材料制成, 电刷通过弹簧, 或电刷内设有铁磁 材料, 通过吸合与导电风扇主轴贴合电连接。
根据权利要求 1、 2、 3、 4或 5所述的一种等离子体空气净化无叶电风 扇, 其特征是: 进风侧风扇护罩上设有铁磁材料, 或永久磁铁制成的 卡扣, 等离子体发生极上, 设有与进风侧风扇护罩上卡扣对应的铁磁 材料, 或永久磁铁制成的卡扣, 等离子体发生极与进风侧风扇护罩, 通过子母卡扣吸合分体组合。
根据权利要求 1、 2、 3、 4或 5所述的一种等离子体空气净化无叶电风 扇, 其特征是: 正负离子发生器安装于机座内, 正负离子发生器设有 金属屏蔽罩, 并接地; 摇头装置为风机电机带动, 或为独设的摇头电 机带动, 通过常规的变速装置和离合装置带动导电风扇, 实现导电风 扇摇头; 风扇护罩包括塑胶制成, 金属制成, 金属制成的风扇护罩接 地; 电机包裹在风扇护罩内, 电机定子铁芯接地。
根据权利要求 1、 2、 3、 4或 5所述的一种等离子体空气净化无叶电风 扇, 其特征是: 导电风扇包括轴流导电风扇, 贯流导电风扇, 离心式 导电风扇; 导电风扇为塑胶电绝缘基材, 其上复合的导电薄膜材料为 蒸镀的金属薄膜, 或为复合的碳材料薄膜; 电风扇设有包括总幵关、 风力调节, 风向, 定吋, 负离子发生器幵关的按键或遥控器; 遥控器 包括通过无线网络遥控的手机。
PCT/CN2016/111984 2016-03-06 2016-12-25 一种等离子体空气净化无叶电风扇 WO2017152691A1 (zh)

Applications Claiming Priority (2)

Application Number Priority Date Filing Date Title
CN201610123362.9 2016-03-06
CN201610123362.9A CN105781947B (zh) 2016-03-06 2016-03-06 一种等离子体空气净化无叶电风扇

Publications (1)

Publication Number Publication Date
WO2017152691A1 true WO2017152691A1 (zh) 2017-09-14

Family

ID=56387921

Family Applications (1)

Application Number Title Priority Date Filing Date
PCT/CN2016/111984 WO2017152691A1 (zh) 2016-03-06 2016-12-25 一种等离子体空气净化无叶电风扇

Country Status (2)

Country Link
CN (1) CN105781947B (zh)
WO (1) WO2017152691A1 (zh)

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN113310008A (zh) * 2021-06-07 2021-08-27 何育林 一种设置有负离子净化装置的路灯
CN114534915A (zh) * 2022-01-08 2022-05-27 南昌大学 一种带微静电过滤器的吊扇

Families Citing this family (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN105781947B (zh) * 2016-03-06 2019-08-27 淄博环能海臣环保技术服务有限公司 一种等离子体空气净化无叶电风扇
JP7050600B2 (ja) * 2018-07-09 2022-04-08 トヨタ自動車株式会社 車両用除電装置および車両
CN110793100A (zh) * 2019-11-15 2020-02-14 珠海格力电器股份有限公司 等离子发生器、空调器和等离子换热器的控制方法

Citations (10)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN1364100A (zh) * 2000-03-03 2002-08-14 松下精工株式会社 集尘装置及空调装置
CN2721236Y (zh) * 2004-02-17 2005-08-31 福建卫东环保科技股份有限公司 感应极与阳极组合收尘板排
CN101539315A (zh) * 2009-04-23 2009-09-23 广东美的电器股份有限公司 空气调节器室内机及其运行模式
CN201786778U (zh) * 2010-09-20 2011-04-06 李德正 无叶片风扇
WO2012033517A1 (en) * 2010-08-28 2012-03-15 Glj, Llc Air blowing device
CN103244469A (zh) * 2012-02-06 2013-08-14 戴森技术有限公司 风扇组件
CN103691554A (zh) * 2013-12-24 2014-04-02 河南师范大学 一种除尘装置及使用该除尘装置的机箱
CN104874482A (zh) * 2015-06-09 2015-09-02 苏州云远网络技术有限公司 一种电脑双风扇散热除尘器
CN105041625A (zh) * 2015-07-01 2015-11-11 冯林 一种具有空气净化功能的无叶风扇
CN105781947A (zh) * 2016-03-06 2016-07-20 淄博环能海臣环保技术服务有限公司 一种等离子体空气净化无叶电风扇

Family Cites Families (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN201671896U (zh) * 2010-05-27 2010-12-15 章恒毅 一种带负离子发生器的无风叶风扇
CN201696366U (zh) * 2010-06-13 2011-01-05 周云飞 风扇
CN201843807U (zh) * 2010-11-18 2011-05-25 赵东平 多功能无风叶电风扇
CN201972937U (zh) * 2010-12-13 2011-09-14 何信 一种无叶风扇
CN202560662U (zh) * 2012-04-10 2012-11-28 深圳市艾克派特科技开发有限公司 带有触摸屏控制的负氧离子无叶电风扇
CN202746302U (zh) * 2012-07-31 2013-02-20 卢远志 负离子活氧生态无叶风扇
CN103883567A (zh) * 2013-12-19 2014-06-25 青岛威力电子科技有限公司 一种无叶片的智能空气护理系统

Patent Citations (10)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN1364100A (zh) * 2000-03-03 2002-08-14 松下精工株式会社 集尘装置及空调装置
CN2721236Y (zh) * 2004-02-17 2005-08-31 福建卫东环保科技股份有限公司 感应极与阳极组合收尘板排
CN101539315A (zh) * 2009-04-23 2009-09-23 广东美的电器股份有限公司 空气调节器室内机及其运行模式
WO2012033517A1 (en) * 2010-08-28 2012-03-15 Glj, Llc Air blowing device
CN201786778U (zh) * 2010-09-20 2011-04-06 李德正 无叶片风扇
CN103244469A (zh) * 2012-02-06 2013-08-14 戴森技术有限公司 风扇组件
CN103691554A (zh) * 2013-12-24 2014-04-02 河南师范大学 一种除尘装置及使用该除尘装置的机箱
CN104874482A (zh) * 2015-06-09 2015-09-02 苏州云远网络技术有限公司 一种电脑双风扇散热除尘器
CN105041625A (zh) * 2015-07-01 2015-11-11 冯林 一种具有空气净化功能的无叶风扇
CN105781947A (zh) * 2016-03-06 2016-07-20 淄博环能海臣环保技术服务有限公司 一种等离子体空气净化无叶电风扇

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN113310008A (zh) * 2021-06-07 2021-08-27 何育林 一种设置有负离子净化装置的路灯
CN113310008B (zh) * 2021-06-07 2022-09-06 何育林 一种设置有负离子净化装置的路灯
CN114534915A (zh) * 2022-01-08 2022-05-27 南昌大学 一种带微静电过滤器的吊扇
CN114534915B (zh) * 2022-01-08 2023-06-27 南昌大学 一种带微静电过滤器的吊扇

Also Published As

Publication number Publication date
CN105781947B (zh) 2019-08-27
CN105781947A (zh) 2016-07-20

Similar Documents

Publication Publication Date Title
WO2017152691A1 (zh) 一种等离子体空气净化无叶电风扇
WO2017152693A1 (zh) 一种空调空气净化组合模块
CN105782085B (zh) 一种空气净化电风扇
WO2017152694A1 (zh) 一种双扇头空气净化电风扇
WO2017128694A1 (zh) 高速离子风自吸式低温等离子体空气净化设备
WO2017152696A1 (zh) 一种热传导对流换气静电感应吸尘多功能复合玻璃幕墙
WO2011047549A1 (zh) 高效率迷宫式空气处理装置
CN106642396A (zh) 一体化复合空气净化器及空气净化方法
CN102661624A (zh) 具有空气净化机构的空调器
CN107694755A (zh) 静电除尘模块及空气调节装置
JP2008034220A (ja) 放電電極素子およびイオナイザー
WO2017152695A1 (zh) 一种多效等离子体空气净化无叶电风扇
CN201049090Y (zh) 具有高浓度负离子辐射的空气净化器
CN2883984Y (zh) 复合式油烟净化装置
CN201205520Y (zh) 静音微电耗空气净化器
CN206996842U (zh) 静电除尘模块及空气调节装置
CN202086827U (zh) 一种点环放电单元式空气净化器
CN213161319U (zh) 一种空气清新机
CN204421200U (zh) 一种基于水离子的空气处理设备
CN202129146U (zh) 一种多极电离电磁空气滤清器
CN208261009U (zh) 涡卷式静电集尘装置
CN207999864U (zh) 一种油污离心和静电吸附系统
CN101011593A (zh) 具有高浓度负离子辐射的空气净化器
CN206556144U (zh) 一体化复合空气净化器
CN117563773A (zh) 一种静电式空气净化器

Legal Events

Date Code Title Description
NENP Non-entry into the national phase

Ref country code: DE

121 Ep: the epo has been informed by wipo that ep was designated in this application

Ref document number: 16893334

Country of ref document: EP

Kind code of ref document: A1

122 Ep: pct application non-entry in european phase

Ref document number: 16893334

Country of ref document: EP

Kind code of ref document: A1