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TW201116336A - Electrostatic atomization device - Google Patents

Electrostatic atomization device Download PDF

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Publication number
TW201116336A
TW201116336A TW099131717A TW99131717A TW201116336A TW 201116336 A TW201116336 A TW 201116336A TW 099131717 A TW099131717 A TW 099131717A TW 99131717 A TW99131717 A TW 99131717A TW 201116336 A TW201116336 A TW 201116336A
Authority
TW
Taiwan
Prior art keywords
pulse signal
discharge
switching element
comparator
discharge electrode
Prior art date
Application number
TW099131717A
Other languages
Chinese (zh)
Inventor
Bungo Imai
Hiroyasu Kitamura
Mikihiro Yamashita
Original Assignee
Panasonic Elec Works Co Ltd
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 Panasonic Elec Works Co Ltd filed Critical Panasonic Elec Works Co Ltd
Publication of TW201116336A publication Critical patent/TW201116336A/en

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Classifications

    • BPERFORMING OPERATIONS; TRANSPORTING
    • B05SPRAYING OR ATOMISING IN GENERAL; APPLYING FLUENT MATERIALS TO SURFACES, IN GENERAL
    • B05BSPRAYING APPARATUS; ATOMISING APPARATUS; NOZZLES
    • B05B5/00Electrostatic spraying apparatus; Spraying apparatus with means for charging the spray electrically; Apparatus for spraying liquids or other fluent materials by other electric means
    • B05B5/025Discharge apparatus, e.g. electrostatic spray guns
    • B05B5/0255Discharge apparatus, e.g. electrostatic spray guns spraying and depositing by electrostatic forces only
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B05SPRAYING OR ATOMISING IN GENERAL; APPLYING FLUENT MATERIALS TO SURFACES, IN GENERAL
    • B05BSPRAYING APPARATUS; ATOMISING APPARATUS; NOZZLES
    • B05B5/00Electrostatic spraying apparatus; Spraying apparatus with means for charging the spray electrically; Apparatus for spraying liquids or other fluent materials by other electric means
    • B05B5/025Discharge apparatus, e.g. electrostatic spray guns
    • B05B5/053Arrangements for supplying power, e.g. charging power
    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02MAPPARATUS FOR CONVERSION BETWEEN AC AND AC, BETWEEN AC AND DC, OR BETWEEN DC AND DC, AND FOR USE WITH MAINS OR SIMILAR POWER SUPPLY SYSTEMS; CONVERSION OF DC OR AC INPUT POWER INTO SURGE OUTPUT POWER; CONTROL OR REGULATION THEREOF
    • H02M3/00Conversion of DC power input into DC power output
    • H02M3/22Conversion of DC power input into DC power output with intermediate conversion into AC
    • H02M3/24Conversion of DC power input into DC power output with intermediate conversion into AC by static converters
    • H02M3/28Conversion of DC power input into DC power output with intermediate conversion into AC by static converters using discharge tubes with control electrode or semiconductor devices with control electrode to produce the intermediate AC
    • H02M3/325Conversion of DC power input into DC power output with intermediate conversion into AC by static converters using discharge tubes with control electrode or semiconductor devices with control electrode to produce the intermediate AC using devices of a triode or a transistor type requiring continuous application of a control signal
    • H02M3/335Conversion of DC power input into DC power output with intermediate conversion into AC by static converters using discharge tubes with control electrode or semiconductor devices with control electrode to produce the intermediate AC using devices of a triode or a transistor type requiring continuous application of a control signal using semiconductor devices only
    • H02M3/338Conversion of DC power input into DC power output with intermediate conversion into AC by static converters using discharge tubes with control electrode or semiconductor devices with control electrode to produce the intermediate AC using devices of a triode or a transistor type requiring continuous application of a control signal using semiconductor devices only in a self-oscillating arrangement
    • H02M3/3381Conversion of DC power input into DC power output with intermediate conversion into AC by static converters using discharge tubes with control electrode or semiconductor devices with control electrode to produce the intermediate AC using devices of a triode or a transistor type requiring continuous application of a control signal using semiconductor devices only in a self-oscillating arrangement using a single commutation path

Landscapes

  • Electrostatic Spraying Apparatus (AREA)
  • Disinfection, Sterilisation Or Deodorisation Of Air (AREA)

Abstract

An electrostatic atomization device provided with a transformer including primary and secondary coils. A switching element is connected in series to the primary coil. A switching element drive circuit provides the switching element with a pulse signal to perform a switching operation and generate high voltage from the second coil. A discharge unit including a discharge electrode performs electrostatic atomization on liquid supplied to the discharge electrode to generate charged fine liquid droplets when high voltage generates a pulse signal having an oscillation frequency set so that the transformer has drooping characteristics that prevent air discharge from occurring between the discharge electrode and ground even when load on the discharge unit varies and prevents the generation of ozone having a predetermined concentration or greater when the liquid undergoes electrostatic atomization.

Description

201116336 六、發明說明: 【發明所屬之技術領域】 本發明係關於一種靜電霧化裝置(electrostatic atomization device) ° 【先前技術】 曰本第2006-3345〇3號及第2007-21370號公開專利案均揭露 了靜電霧化裝置的前案,產生了具有奈米尺寸大小的帶電細小 水滴。於使用毛細作用供水至放電電極之遠端的狀態下,靜電 務化裝置提供咼電壓至放電電極。當高壓提供給放電電極時, 提供給放電電極的水將會被充電。這將造成Rayldgh斷裂的重 複發生,並導致水產生靜電霧化。結果,靜電霧化裝置將會產 生具有奈米尺寸大小的帶電細小水滴。 於此種靜贿錄置巾,自紐回描(self_osdllating flyback) 振鈴扼/瓜圈轉換器(Ringing Ch〇ke Converter,RCC)係被用以作 為切換魏供應ϋ。自缝回綠鈐扼流難觀係以繞於高 電壓產生變壓馳近的回麟_(feedbaek eGil)使得冑功率金氧 半場效電晶體(p〇werM〇SFET)進行自振蘆。據此,自振盞回描 =鈴扼=圈轉換H不需額外設置單獨的減·,使得電路規 ^可以細小。因此,自振盪回描振鈴扼流圈轉換器常被使用在 ^ 裝置中再者,對於自振盡回描振鈴扼流圈轉換器之 ^出;控,而° ’回饋控制常被用來依照輸出電Μ容易地啟動高 率金氧半每效電晶體之關閉開關(tum〇ff switch)。 於靜電霧化農置中’當無負載狀態下之電壓太高時,將會產 201116336 霧化。再:,=率=:繼化裝置可能無法進行靜電 流至放1 極的_時,的電流將會 放電電極,因而產生大量的臭氧,導致臭氧濃度變高。 壓電問題,當過多的電流流過時,希望高電 的電麗,來抑制大量臭氧的產生。 狡電電極 【發明内容】 鱗在於提供—種靜電霧化裝置,以低成本的方 式避免空减電與大量臭氧的產生,並且不需執行_控制。 於-實施例中,靜電霧化裝置之變壓器包含主線圈及次線 圈。切換元件係串聯至變壓器的主線圈。切換元件驅動電路= 供脈衝訊號給切換元件,料吻換元件進行城操作,並從變 b的次線誠生高賴。放f單元包含放钱極,當次線5 所產生的同電縣供給放電電極時,放電單元對提供給放 極之液體進行靜電霧化,以產生複數個帶電細小液滴。切換元 件驅動電路產生具有振細輪之崎峨,致錢壓器呈有 減弱(drooping)的特性,敎空氣放電發生於放電電極,當液體 進行靜電霧㈣,即使放電料上的負載改變,聽臭氧 預設濃度或更高濃度。 〃 關於本發明之優點與精神可以藉由以下的發明詳述及所附 圖式得到進一步的瞭解。 【實施方式】 201116336 根據本么月之具體實施例係一靜電霧化 咬 1,圖1係繪示根據本發明 、吻參照圖 路圖。 月之一具體實轭例的靜電霧化裝置之電 如圖1所*靜麵化裝置丨包含高電難生電路2。高電 i電=放與祕端(樓她4)之間提供高電 ^預设距離。於一狀態下,液綠水係妯 =供至放電細的輕,高賴產生馳於極接 電極4之間提供高電壓。 电4 接地 結果,庫I力贿縣放冑雜3之遠 =侧亦。被提高為:= 有電何集巾的城。謂加了電荷濃度,使得高濃度 ^斥力將水打斷(break up)與分散㈣㈣。上述打斷二散7(稱 為Rayleigh斷裂)將會重覆發生,膽電霧化將會進行, =含有活性物⑽ve spedes)之具有奈米尺寸的大量帶電細小水 於圖1中’直流電源供應器£包含正端及負端,用以產生η 伏特的直流輕。串聯電路包含高電壓產生麵⑸的 5a及高功率金氧半場效電晶體6。高功率金氧半場效電晶體6 係作為切換讀,並絲接於直流電源供應紅的正端盘 之間。此外’平滑電解電容器7係耦接於直流電源供應抓 正端與負端之間。直流電源供應ϋΕ提供具扣伏特的 動電壓的震盪電路8,以作為切換元件驅動電路。 直流電源供應器E提供驅動電壓給震盪電路8。震盪電路8 生脈衝訊號ps來啟滅停用高功率錢半場效電晶體6, 過電阻器9提供__PS給高功率錢半場效電晶體6的間 201116336 極端(gate terminal) 〇 時,電晶體6的雜端接㈣脈衝訊號烈 氧半場效電曰許6沾電晶體6將會被啟動或停用。高功率金 應器E接^μ啟動或停用將會職地透過直流電源供 ΐ题產吐二里口阿電屢產生變壓器5的主線圈5a。結果,高201116336 VI. Description of the Invention: [Technical Field] The present invention relates to an electrostatic atomization device. [Prior Art] Patent Nos. 2006-3345-3 and 2007-21370 Both of the prior cases of the electrostatic atomization device have been disclosed, resulting in charged fine water droplets having a nanometer size. The electrostaticizing device supplies a helium voltage to the discharge electrode in a state where water is supplied to the distal end of the discharge electrode by capillary action. When high voltage is supplied to the discharge electrode, the water supplied to the discharge electrode will be charged. This will cause the repetition of the Rayldgh break to occur and cause electrostatic atomization of the water. As a result, the electrostatically atomizing device will produce charged fine water droplets having a nanometer size. In this type of static bribe recording, the self-osdllating flyback is used to switch the supply of the Ringing Ch〇ke Converter (RCC). Self-sewing back to the green turbulence is difficult to achieve around the high voltage to produce a variable pressure close to the _ _ (feedbaek eGil) so that the 胄 power MOS half-effect transistor (p〇werM 〇 SFET) for self-reinforcement. According to this, the self-vibration retrace = bell = circle conversion H does not need to set a separate subtraction, so that the circuit gauge can be small. Therefore, the self-oscillating retrace ringing choke converter is often used in the device, and for the self-vibration, the ringing converter is controlled; and the 'feedback control is often used according to The output cymbal easily activates the high rate MOS half-effect transistor turn-off switch (tum〇ff switch). In the case of electrostatic atomization, when the voltage under no load is too high, it will produce 201116336 atomization. Then: = rate =: When the relay device may not be able to perform static current to the drain of the electrode, the current will discharge the electrode, thus generating a large amount of ozone, resulting in a high ozone concentration. Piezoelectric problems, when too much current flows, it is desirable to suppress the generation of large amounts of ozone. BACKGROUND OF THE INVENTION The scale is to provide an electrostatic atomization device that avoids the generation of air power and large amounts of ozone at a low cost, and does not require the implementation of control. In an embodiment, the transformer of the electrostatically atomizing device comprises a primary coil and a secondary coil. The switching element is connected in series to the main coil of the transformer. Switching component drive circuit = for pulse signal to switch component, material change component for city operation, and from the secondary line of change b. The discharge unit includes a money-discharging pole. When the same electricity source is supplied to the discharge electrode, the discharge unit electrostatically atomizes the liquid supplied to the discharge to generate a plurality of charged fine droplets. The switching element driving circuit generates the ruggedness of the vibrating wheel, and the money compressor has the characteristic of drooping. The air discharge occurs at the discharge electrode, and when the liquid performs electrostatic fog (4), even if the load on the discharge material changes, the listening Ozone preset concentration or higher. The advantages and spirit of the present invention will be further understood from the following detailed description of the invention and the accompanying drawings. [Embodiment] 201116336 According to a specific embodiment of the present month, an electrostatic atomization bite 1, FIG. 1 is a diagram showing a kiss reference diagram according to the present invention. The electro-atomization device of one of the concrete yokes of the month is as shown in Fig. 1. The hydrostatic device 2 includes a high-power-failure circuit 2. High power i power = high frequency between the release and the secret end (she 4). In one state, the liquid green water system 妯 = the light to the discharge is fine, and the high voltage is generated between the electrodes 4 to provide a high voltage. Electricity 4 grounding results, the library I Li Brixian County, noisy 3 far side = side also. Was raised to: = City with electricity and towel. It is said that the charge concentration is increased so that the high concentration repulsion breaks up the water and disperses (4) (4). The above-mentioned breaking 2 (called Rayleigh fracture) will occur repeatedly, and the electro-atomization will be carried out. = A large amount of charged fine water with nanometer size containing active material (10) ve spedes is shown in Figure 1 'DC power supply. The supply £ includes a positive terminal and a negative terminal for generating a η volt DC light. The series circuit includes a high voltage generating surface (5) 5a and a high power gold oxide half field effect transistor 6. The high-power MOS half-effect transistor 6 is used as a switching read and is wired between the positive power supply of the DC power supply. Further, the smoothing electrolytic capacitor 7 is coupled between the positive and negative ends of the DC power supply. The DC power supply ϋΕ provides an oscillating circuit 8 having a volt-voltage dynamic voltage as a switching element drive circuit. The DC power supply E supplies a driving voltage to the oscillating circuit 8. The oscillating circuit 8 generates a pulse signal ps to activate and disable the high-power money half-field effect transistor 6, and the over-resistor 9 provides __PS to the high-power money half-field effect transistor 6 between the 201116336 terminal (gate terminal), the transistor 6 miscellaneous termination (four) pulse signal volt oxygen half-field effect 曰 6 dip transistor 6 will be activated or deactivated. The high-power gold device E is connected to the ^μ to start or deactivate the job. The main coil 5a of the transformer 5 is generated by the DC power supply. Result, high

包高的L 電谷器10的半波(half-wave)整流電路係 的第二Ϊ壓進行整流電路從次線圈5b對高 輸出賴Vo為5千伏1特)。輸出電壓VG(於此實施例中, 將霧1匕裝置1中’當放電電極3上的水量減少時,泰勒錐 曰交小,並且泰勒錐的遠端至接地電極4之距離將會變長, =減夕了放電電流(輸出電流1〇)。於靜電霧化裝置1中,當放 ,極3上的水量持續減少時’放電並不會發生於放電電極3上 2與接地電極4之間。這導致放電炫氣放電)發生於放電電舶 ”接地電極4之間。因此,靜電霧化將不會進行。 另方面’ 4*靜電霧化裝置1之放電電極3上的水量變多時, :勒錐將曰隻大’並且泰勒錐的遠端至接地電極4之距離將會 變短,因而,加了放電電流。於靜電霧化裝置1中,當放電電 極3上的水里持續減少時,接地電極4與水之間的距離變得極 紐,使得&路電流將會流經接地電極4與水之間。因此,並無法 獲得具有想要的液滴直徑的霧氣(mist)。此外,大量的臭氧將會 產生,導致臭氧濃度增加。 據此’空氣放電必須被避免,並且當過多的水聚集於放電 電極3上且衫電流流過時,亦f避免大量臭氧的產生。換句 話說’輸Λ電壓Vo必須低於空氣放電發生的電壓值(亦即空氣 201116336 放電電)。此外,當輪出電流lG過多時,輸出電壓v。必須 低’使得臭氧濃度不會變高。 為了滿足這些需求’無論放電電極3上的水量為何,此實施 例之靜電霧化裝置設定從變壓器5的次線圈5b輸出的輸出電 壓Vo:以避免空氣放電並轉產生的臭氧量少於或等於調整 後的量。輸it}電壓Vo#、錢振細率及脈衝訊號脈衝寬 度(啟動時間)而設定,其中脈衝訊號ps係由震盈電路 高功率金氧半場效電晶體6的閘極端。 〜° 米詳細地說’高電壓產㈣壓器5包含大_散電容。據此, 虽振盛頻率增加時’高電壓產生變壓器5的效率將會降低。因 ^ ’由於如圖2所示之高電壓產生變屋器5的減弱(dr〇〇㈣特 =,—當負載電流(輸出電流][〇)增加時,輸出電魏將會減少; 田輪出電流Ιο高的時候,輸出電壓v〇不會增加。 於此實施例中’減弱特性的梯度係依據振錢率而改變, ,會產生較驢後的量來得多之臭氧量的輸出電歡0。換 :話說’圖2所示之減難性線LUf會根據錄鮮以及震蓋 電路8所輸出之脈衝訊號Ps的脈衝寬度(啟動時間)而改變。 =細地說’為了避免空氣放電,在高電麵生變壓器5的減 2中’舉例而言’輸出電壓v〇必須被設定至少小於或等 壓。。放電電壓Vd ’如圖3所不。因此,考量到高電壓產生變 / ^變化及獨立差異,餘裕電壓㈣咖她㈣^被設 在回電壓產錢壓^5的減弱特性巾,輸丨電壓V。係被設 疋為將空氣放電麵別減去餘裕_vm所得到的電難。 =所㈣減弱特㈣透過設·麵㈣及震盪電财所 别之脈衝訊號PS的脈衝寬度(啟動時間)而得。 圖係',’曰示„周整後之臭氧置產生曲綠L2。調整後之臭氧量產 201116336 生曲線L2指出了對應於預設可容忍臭氧產生量之輸出電壓v〇 及輸出電流Ιο,亦即功率。更精確地說,如圖4所示,由於調 正後之臭氧1產生曲線L2形成了邊界,範圍a中之臭氧產生量 係大於或等於調整後之臭氧量,範圍之臭氧產生量係小於 調整後之臭氧量。因此,高電壓產生變壓器5的減弱特性(減弱 特性線L1)必須被包含在範圍b中。 據此,於高電壓產生變壓器5的減弱特性(減弱特性線Li) 中,為了避免空氣放電及避免臭氧產生量大於或等於調整後 的量,舉例而言,如圖5所示,輸出電壓v〇必須至少大於或等 於空氣放電電壓Vd(包含餘裕電壓Vm),並且功率需小於或等 於調整後之臭氧量產生崎L2所設定的功率。圖5所示之減弱 特性(減弱特性線L1)係透過設定從振盪頻率輸出之脈衝訊號 PS的振盪頻率而得。 } /於此實施例中’圖5所示的高電壓產生變壓器5之減弱特性 係透過測試、實驗及計算而得。此外,於此實施例中,振盛 頻率以及震盪電路8所輸出之脈衝訊號PS的脈衝寬度(啟動時 :)被設定,致使靜電霧化裝置1根據圖5所示之減弱特性而操 據此,震盈電路8提供脈衝訊號ps給高功率金氧半場效•曰 體6 ’脈衝訊號PS具有如圖5所示之振麵率與脈衝寬度^ 時間),以啟域停用高功率金氧半場效電晶 於此情況τ ’絲放f電極3上的水量攸照情況而變 電霧化裝置1仍可避免空氣放電及大量臭氧的產生。 此外,本發明不需要偵測輸出電壓Vo或輸出電流1〇,亦不 需根據偵測到的輸出電義或輸出電流㈣饋控制高功率金 乳半場效電晶體6。據此,本發明不f要能夠回饋控制靜= 201116336 化f f1之輸出的雜且^貴的電路。因此,靜電霧化裝置1可 用較夕的元件及較低的成本被製造出來。 接著’請參照圖6,將針對靜電霧化裝置1的高電壓產生電路 2進行說明。 如圖6所示,震盡電路8包含比較器u。比較器⑽含正輸 入W非反相輸人端)。串聯電路提供分壓至正輸人端。串聯電 ^包含可變電阻拠及第—電阻㈣,並且可變電阻器拙及 第-電阻魏_於直流電縣應駐的正輸人端及負輸入 端之間。串聯電_接於直流電源供應HE的正輸人端及負輸 入端之間’並且可變電阻器Rb及第一電阻器幻係彼此串聯。 可變電阻器Rb及第—電阻器R1之連接點(節點N1)上之電壓 (刀壓)被提A、至比較斋U的正輸入端,以作為輸入電壓VI。 此外’比較器11的正輸入端係透過第二電阻器尺2連接至比 ,器11的輸出端。比較如的負輸入端(反相輸入端)係透過電 容器C1連接至直流電源供應器E的負端。再者,比較器n的負 輸入端係透過第三電阻默3連接至味如的輸出端。、 ^使用比較器11的振盈電路8於其輸出端產生脈衝訊號ps,脈 ,訊號PS具有方波’且包含由第三電阻狀3之電阻值與電容 器C1之電谷值所決定之振盪頻率。透過調整可變電阻器Rb之 電阻值了為正脈衝寬度(啟動時S)的脈衝寬度(啟動時間)或頻 率。 /於此實施例中’脈衝訊號PS的頻率及脈衝寬度(啟動時間) 係預設的。如上所述,圖5所示之高電壓產生變壓器5的減弱 特性係預先透侧試、實驗及計算而得。再者,從振盈電路 8 (比較器11)所輸出的脈衝訊號p s之振盪頻率及脈衝寬度(啟 動時間)係被設定’使得靜電霧化裝置1依照圖5所示之減弱特性 10 201116336 而運作。換句話說’脈衝訊號?8之振盪頻率及脈衝寬度(啟動 時間)係被設定,使得產生的輸出電壓ν〇會小於或等於空氣放 電發生之電壓值(空氣放電電壓),當過多的輸出電流1〇流過 時,可減少輸出電壓Vo,以避免臭氧濃度變高。 於此實施例中,可變電阻器Rb的電阻值被調整以簡單地設 定脈衝訊號PS之振盪頻率及脈衝寬度(啟動時間)。比較器n 的輸出端係透過第四電阻器R4耦接至圖騰柱(totem pole)驅動 电路12。圖騰柱驅動電路丨2包含有NpN電晶體T1&pNp電晶體 T2 〇NPNt Ba0||Tl^PNPt aaB^T2^^(base)^#itii^ m f 阻器R4搞接至比較器h的輸出端。The second voltage of the half-wave rectifying circuit of the high-voltage L-valve 10 is performed by the rectifying circuit from the secondary coil 5b to the high output Vo of 5 kV. The output voltage VG (in this embodiment, when the amount of water on the discharge electrode 3 is reduced in the mist 1 匕 device 1), the Taylor cone is small, and the distance from the distal end of the Taylor cone to the ground electrode 4 becomes long. , = the discharge current (output current 1 〇). In the electrostatic atomization device 1, when the amount of water on the pole 3 continues to decrease, the discharge does not occur on the discharge electrode 3 and the ground electrode 4. This causes the discharge scent discharge to occur between the discharge electrode "ground electrode 4. Therefore, electrostatic atomization will not proceed. On the other hand, the amount of water on the discharge electrode 3 of the 4* electrostatic atomization device 1 is increased. At the time, the :the taper will only be large and the distance from the distal end of the Taylor cone to the ground electrode 4 will be shortened, thus, a discharge current is applied. In the electrostatic atomization device 1, when the discharge electrode 3 is in the water When continuously decreasing, the distance between the ground electrode 4 and the water becomes extremely large, so that the & current will flow between the ground electrode 4 and the water. Therefore, the mist having the desired droplet diameter cannot be obtained ( Mist) In addition, a large amount of ozone will be produced, resulting in an increase in ozone concentration. This 'air discharge must be avoided, and when too much water accumulates on the discharge electrode 3 and the current flows through it, f also avoids the generation of a large amount of ozone. In other words, the 'transmission voltage Vo must be lower than the voltage value at which the air discharge occurs. (ie, air 201116336 discharge). In addition, when the wheel current lG is excessive, the output voltage v must be low 'so that the ozone concentration does not become high. To meet these demands' regardless of the amount of water on the discharge electrode 3, this implementation The electrostatic atomization device of the example sets the output voltage Vo outputted from the secondary coil 5b of the transformer 5: the amount of ozone generated by the air discharge to avoid the air discharge is less than or equal to the adjusted amount. The input voltage}Vo#, the money vibration rate And the pulse signal pulse width (starting time) is set, wherein the pulse signal ps is the gate terminal of the high-power MOS field-effect transistor 6 of the tremor circuit. ~° m in detail, the high-voltage (four) voltage device 5 contains large _Frequent capacitance. According to this, although the frequency of the vibration is increased, the efficiency of the high voltage generating transformer 5 will be lowered. Because of the high voltage generated as shown in Fig. 2, the variator 5 is weakened (dr〇〇(四) special=, - When the load current (output current) [〇) increases, the output power will decrease; when the field current Ιο is high, the output voltage v〇 will not increase. In this example, the gradient of the weakening characteristic It is changed according to the rate of vibration, and it will produce a much larger amount of ozone output than the subsequent amount. In other words, the LUF line shown in Figure 2 will be based on the recording and shock circuit 8 The pulse width (starting time) of the output pulse signal Ps changes. = In detail, in order to avoid air discharge, in the high-power transformer 5 reduction 2, for example, the output voltage v〇 must be set at least Less than or equal pressure. The discharge voltage Vd ' is not shown in Figure 3. Therefore, considering the high voltage generation change / ^ change and independent difference, the margin voltage (four) coffee her (four) ^ is set in the back voltage production pressure ^ 5 weakening Characteristic towel, output voltage V. It is set to reduce the electric difficulty obtained by subtracting the margin _vm from the air discharge surface. = (4) Attenuation (4) is obtained by the pulse width (starting time) of the pulse signal PS of the set surface (4) and the oscillating power. The figure ',' indicates that the ozone after the whole week is set to produce a curved green L2. The adjusted ozone mass production 201116336 The raw curve L2 indicates the output voltage v〇 and the output current Ιο corresponding to the preset tolerable ozone generation amount. That is, power. More precisely, as shown in FIG. 4, since the adjusted ozone L generation curve L2 forms a boundary, the amount of ozone generated in the range a is greater than or equal to the adjusted amount of ozone, and the range of ozone is generated. The amount is smaller than the adjusted amount of ozone. Therefore, the weakening characteristic (attenuation characteristic line L1) of the high voltage generating transformer 5 must be included in the range b. Accordingly, the weakening characteristic of the transformer 5 is generated at a high voltage (attenuation characteristic line Li) In order to avoid air discharge and to prevent the amount of ozone generated from being greater than or equal to the adjusted amount, for example, as shown in FIG. 5, the output voltage v〇 must be at least greater than or equal to the air discharge voltage Vd (including the margin voltage Vm), And the power needs to be less than or equal to the adjusted amount of ozone to generate the power set by the S3. The weakening characteristic (the weakened characteristic line L1) shown in FIG. 5 is transmitted through the pulse signal PS which is output from the oscillation frequency. The frequency of the high voltage generating transformer 5 shown in Fig. 5 is transmitted through tests, experiments and calculations. In addition, in this embodiment, the frequency of the oscillation and the oscillating circuit are obtained. The pulse width (starting time:) of the output pulse signal PS of 8 is set, so that the electrostatic atomizing device 1 operates according to the weakening characteristic shown in FIG. 5, and the seismic circuit 8 provides the pulse signal ps to the high power metal oxygen. Half-field effect • The body 6' pulse signal PS has the vibration plane rate and pulse width ^ time as shown in Fig. 5, to deactivate the high-power gold-oxygen half-field effect crystal in this case. τ 'Wire-f electrode 3 The amount of water on the electrospraying device 1 can still avoid the air discharge and the generation of a large amount of ozone. Furthermore, the present invention does not need to detect the output voltage Vo or the output current 1〇, and does not need to be based on the detected output. The electric or output current (four) feeds the high-power golden half-field effect transistor 6. According to the invention, the invention is not capable of feeding back the control circuit that controls the output of the f f1 and the expensive circuit. Therefore, the electrostatic atomization Device 1 can be used for Eve components and lower The cost is manufactured. Next, referring to Fig. 6, the high voltage generating circuit 2 for the electrostatic atomizing device 1 will be described. As shown in Fig. 6, the shock circuit 8 includes a comparator u. The comparator (10) includes a positive input W. Non-inverting input terminal. The series circuit provides partial voltage to the positive input terminal. The series circuit includes a variable resistor 拠 and a first resistor (four), and the variable resistor 拙 and the first-resistance Wei _ are in DC county The positive input terminal and the negative input terminal are connected in series between the positive input terminal and the negative input terminal of the DC power supply HE and the variable resistor Rb and the first resistor are connected in series with each other. The voltage (squeezing pressure) at the connection point (node N1) of the variable resistor Rb and the first resistor R1 is raised to the positive input terminal of the comparator U as the input voltage VI. Further, the positive input terminal of the comparator 11 is connected to the output terminal of the comparator 11 through the second resistor scale 2. A negative input (inverting input) is connected to the negative terminal of the DC power supply E through the capacitor C1. Furthermore, the negative input of comparator n is connected to the output of the scent via a third resistor. Using the oscillating circuit 8 of the comparator 11 to generate a pulse signal ps at its output, the pulse, the signal PS has a square wave 'and includes an oscillation determined by the resistance value of the third resistance 3 and the electric valley of the capacitor C1. frequency. The pulse width (starting time) or frequency of the positive pulse width (S at startup) is adjusted by adjusting the resistance value of the variable resistor Rb. / In this embodiment, the frequency and pulse width (starting time) of the pulse signal PS are preset. As described above, the weakening characteristic of the high voltage generating transformer 5 shown in Fig. 5 is obtained by a prior side test, experiment, and calculation. Furthermore, the oscillation frequency and the pulse width (starting time) of the pulse signal ps outputted from the oscillation circuit 8 (comparator 11) are set to 'the electrostatic atomization device 1 according to the attenuation characteristic 10 201116336 shown in FIG. 5 Operation. In other words, 'pulse signal? The oscillation frequency and pulse width (starting time) of 8 are set so that the generated output voltage ν 〇 is less than or equal to the voltage value (air discharge voltage) at which the air discharge occurs, and can be reduced when excessive output current 1 〇 flows. The voltage Vo is output to prevent the ozone concentration from becoming high. In this embodiment, the resistance value of the variable resistor Rb is adjusted to simply set the oscillation frequency and pulse width (starting time) of the pulse signal PS. The output of the comparator n is coupled to the totem pole drive circuit 12 via a fourth resistor R4. The totem pole driving circuit 丨2 includes an NpN transistor T1&pNp transistor T2 〇NPNt Ba0||Tl^PNPt aaB^T2^^(base)^#itii^ mf The resistor R4 is connected to the output of the comparator h .

NPN電晶體τ 1的集極(collector)端係祕至直流電源供應器E 的正端,而PNP電晶體T2的集極(c〇ilector)端係輕接至直流電源 供應|§E的負端。NPN電晶體ι^ΡΝΡ電晶體T2的射極(emitter) 端係彼此搞接。NPN電晶體τ 1與PNP電晶體T2的連接點(節點N2) 係透過電阻H9¾接至高功率金氧半場效電晶體6的閘極端。 當從比較器11之輸出端所輸出的脈衝訊號ps具有高準位 時,NPN電晶體T1將會被啟動且PNpf晶體T2將會被停用。結 具有I2伏制高轉賴被提供至高神金氧半場效電 晶體6的閘極端,以啟動高功率金氧半場效電晶體6,並且直 流電源供應器Ε將會供電給高電壓產生變壓器5的主線圈5 &。 另一方面,當從比較器n之輸出端所輸出的脈衝訊號卩§具 有低準位⑽卩失去脈衝訊號PS)時,電晶體m會被停^用 且PNP電晶體T2將會被啟動。、结果,具有〇伏特的低位準電壓 被提供^高功率金氧半場效電晶體6_極端,以啟動高功率 金氧半場效電晶體6,並且不供電給高電壓產生變壓器 線圈5a。 η 201116336 半場效電晶體6係依照比較1111所輪出的脈衝 壓的二:或停用。這將會間歇地供電給高電壓產生變 生變壓器5的=圈高的第二電壓將會產生於高電壓產 所的半波整流1路將會對次線圈% 4之Π提彳Γ5^ί賴進雜流,以毅1電極3與接地電極 4之間ki、5千伏特的輸出電壓ν〇。 及比較器11所產生的脈衝訊號ps之震廬頻率 及脈衝寬度(啟動時間)係被設定,以得到高電壓產生變 的減弱特性4中輸出賴V。係至少小於鱗於空氣放電 壓’ f功率係小於或等於調整後之臭氧量產生曲線L2之功 ,。這避免了线放電的產生且避免減產生量變成大 4於調整後的量。 因此’當過多的電流lG流過時,不必進行複__控制及 減少輸出電壓Vo ’靜電霧化裝置丨所產生的輸出電壓%即會小 於或等於魏放電發生時之輕(空氣放電電壓別)。結果,無 順在放電電極3上的水量依照情況如何改變,靜電霧化裝置1 將會避免發生空氣放電與產生大量的臭氧。 此外,於此實施例中,震盛電路8係由比較器n所形成。因 此,相較於傳、统的LC震盈電路或類似電路而言,以簡單的電 路架構所產生的脈衝訊號之震盪頻率較為恆等地穩定。 再者,於此實施例中,脈衝訊號PS2震盪頻率可簡易地透 過改變可Μ阻URb之雜麵妨纏。這可容易地獲得 想要的高電壓產生變壓器5的減弱特性。 對此領域習知技藝之人而言,报明顯可知,本發明亦可以未 偏離本發明之範疇的其他許多不同特定形式實現之,尤其需說 201116336 明的是,本發明能夠以下列型式實現之。 於上,實施例中’設置於整流電財之二極體D的負電極係 麵接至tBJ電愿產生變麗器$的次線圈%。然而,如圖7所示, 叹置於整流電路中之二極體D的負電極可轉接至電容器。當 圖斤示之鬲電壓產生電路2於放電電極3與接地電極4之間提 供正的輸出電壓V。’圖7所示之高電壓產生電路2於放電電極3 與接地電極4之間提供負的輸出電壓v〇。 。。於上述實施例中,耦接至比較器丨丨的正輸出端之可變電阻 器Rbf電阻值係被改變,以調整脈衝訊號ps的震盪頻率。亦 P咼電壓產生變壓益5的減弱特性是改變的。反之,舉例而 言,第一電阻器R1可被可變電阻器所取代,抑或電容器^可 被可變電容器所取代。可變電阻器的電阻值或可變電容器的 電容值可被改變,以調整脈衝訊號Ps的震盪頻率。此外:電 阻器、可變電阻器Rb及可變電容器中之至少一者可依照要求 而被改變,以調整脈衝訊號PS的震盪頻率。 於上述實施例中,高功率金氧半場效電晶體6係用以作為切 換元件。然而’亦可使用雙極性電晶體(bip〇lartransist〇r)取代 高功率金氧半場效電晶體6作為切換元件。 於上述實施例中,半波整流電路係用以對於次線圈5b所產 生的第二電壓進行整流。然而,整流電路亦可以是一個全波 (full-wave)整流電路。 於上述實施例中,振盪電路8係由比較器丨丨進行操作。除此The collector end of the NPN transistor τ 1 is secreted to the positive terminal of the DC power supply E, and the collector terminal of the PNP transistor T2 is lightly connected to the DC power supply | end. The emitter terminals of the NPN transistor ι^ΡΝΡ transistor T2 are connected to each other. The junction point (node N2) of the NPN transistor τ 1 and the PNP transistor T2 is connected to the gate terminal of the high-power MOS field-effect transistor 6 through the resistor H93⁄4. When the pulse signal ps output from the output of the comparator 11 has a high level, the NPN transistor T1 will be activated and the PNpf crystal T2 will be deactivated. The junction has an I2 volt system high turn-on that is supplied to the gate terminal of the high god MOS field effect transistor 6, to activate the high power MOS half field effect transistor 6, and the DC power supply Ε will supply power to the high voltage generating transformer 5 The main coil 5 & On the other hand, when the pulse signal 卩§ output from the output of the comparator n has a low level (10) and the pulse signal PS is lost, the transistor m is stopped and the PNP transistor T2 is activated. As a result, a low level voltage having a volt volt is supplied to the high power MOS field-effect transistor 6_extreme to activate the high-power MOS field-effect transistor 6, and no power is supplied to the high-voltage generating transformer coil 5a. η 201116336 Half-field effect transistor 6 is based on the comparison of the pulse pressure of 1111: or deactivated. This will intermittently supply power to the high voltage generating transformer 5. The second voltage of the coil height will be generated at the high voltage source. The half-wave rectification 1 will increase the secondary coil %4. Laijin spurt, the output voltage ν ki between the 1 electrode 3 and the ground electrode 4, ki, 5 kV. The jitter frequency and the pulse width (starting time) of the pulse signal ps generated by the comparator 11 are set to obtain the output voltage V of the high voltage generating variable weakening characteristic 4. It is at least less than the scale of the air discharge pressure 'f power system is less than or equal to the adjusted ozone amount production curve L2. This avoids the generation of the line discharge and prevents the amount of reduction from becoming larger than the adjusted amount. Therefore, when too much current lG flows, it is not necessary to perform complex __ control and reduce the output voltage Vo. The output voltage % generated by the electrostatic atomization device 小于 will be less than or equal to the light when the discharge occurs (air discharge voltage) . As a result, the amount of water which does not flow on the discharge electrode 3 changes depending on the situation, and the electrostatic atomization device 1 will prevent the occurrence of air discharge and generation of a large amount of ozone. Further, in this embodiment, the oscillation circuit 8 is formed by the comparator n. Therefore, compared with the LC shock circuit or the like, the oscillation frequency of the pulse signal generated by the simple circuit structure is relatively constant. Moreover, in this embodiment, the oscillation frequency of the pulse signal PS2 can be easily changed by changing the miscellaneous surface of the URb. This makes it easy to obtain the desired low voltage generating transformer 5 with reduced characteristics. It will be apparent to those skilled in the art that the present invention may be practiced in many other specific forms without departing from the scope of the invention. In particular, it is claimed that the present invention can be implemented in the following forms. . As described above, in the embodiment, the negative electrode surface of the diode D disposed in the rectifying power is connected to the secondary coil % of the tBJ electric wisher. However, as shown in FIG. 7, the negative electrode of the diode D which is placed in the rectifier circuit can be switched to the capacitor. When the voltage is generated, the voltage generating circuit 2 supplies a positive output voltage V between the discharge electrode 3 and the ground electrode 4. The high voltage generating circuit 2 shown in FIG. 7 supplies a negative output voltage v〇 between the discharge electrode 3 and the ground electrode 4. . . In the above embodiment, the resistance value of the variable resistor Rbf coupled to the positive output terminal of the comparator 系 is changed to adjust the oscillation frequency of the pulse signal ps. Also, the attenuation characteristic of the voltage change 5 of the P 咼 voltage is changed. On the contrary, for example, the first resistor R1 can be replaced by a variable resistor, or the capacitor can be replaced by a variable capacitor. The resistance value of the variable resistor or the capacitance value of the variable capacitor can be changed to adjust the oscillation frequency of the pulse signal Ps. Further, at least one of the resistor, the variable resistor Rb, and the variable capacitor may be changed as required to adjust the oscillation frequency of the pulse signal PS. In the above embodiment, the high power MOS field effect transistor 6 is used as a switching element. However, a bipolar transistor (bip〇lartransist〇r) can also be used instead of the high-power MOS field-effect transistor 6 as a switching element. In the above embodiment, the half-wave rectifying circuit is used to rectify the second voltage generated by the secondary coil 5b. However, the rectifier circuit can also be a full-wave rectifier circuit. In the above embodiment, the oscillating circuit 8 is operated by the comparator 丨丨. In addition to this

之外,另一種輸出脈衝訊號以啟動及停用切換元件之振^電 路亦可被使用。 X 於上述實施例中,係採用提供U伏特電壓的直流電源供應 器E。然而,舉例而言,亦可採用以全波整流電路對市電進^ 201116336 整流的直流電源供應器來取代之。 於上述實施例中,靜電霧化裝置係透過對水執行靜電霧化 而產生帶電的細小水滴。然而,靜電霧化裝置亦可霧化水之 外的其他液體,例如潤膚霜或化學藥品,以產生具有奈米尺 寸的帶電細小液滴。 藉由以上較佳具體實施例之詳述,In addition, another type of oscillator circuit that outputs a pulse signal to activate and deactivate the switching element can also be used. X In the above embodiment, a DC power supply E that supplies a U volt is used. However, for example, a DC power supply with a full-wave rectification circuit for rectifying the mains input into the 201116336 can also be used. In the above embodiment, the electrostatically atomizing device generates charged fine water droplets by performing electrostatic atomization on water. However, the electrostatically atomizing device can also atomize other liquids other than water, such as moisturizers or chemicals, to produce charged fine droplets having a nanometer size. By the detailed description of the above preferred embodiments,

•於上述貫施例中,接地電極4係朝向放電電極3而設置。然 而’接地電極4的設置及位置並無制的關。此外,對應於 接,電極4的部何域電霧絲置以殼财彡成。… 儀希珍能更加清楚描述 的較佳具體實施 目的是希望能涵 .申請之專利範圍 201116336 【圖式簡單說明】 圖1係繪示根據本發明之一具體實施例的靜電霧化穿 路圖。 電 圖2係繪示變壓器之減弱(drooping)特性的示意圖。 圖3係綠衫氣放電f顯顯H的翻雜之間的關係。 ^ 4鱗示娜後的臭緑生餘對於髓 輸出電流之間的關係。 ]出電崚及 夂氣放 ,5係緣示於此實施例中之變壓器的蘭雛相 〜、麼及調整後的臭氧產生曲狀_義。 ' 圖6 會示此實施例之靜電霧化褒置的詳細電路圖。 圖7鱗示另一實施例之靜電霧化裳置的詳細電路圖 【主要元件符號說明】 1 :靜電霧化裝置 3:放電電極 5 :高電壓產生變壓器 7:平滑電解電容器 9 :電阻器 5a :主線圈 ^ 一極體 :脈衝訊號 2·鬲電壓產生電路 4:接地電極 6:高功率金氧半場致電晶 8:震靈電路 10 :電容器 5b :次線圈 E.直流電源供應器 1〇 :輸出電流 201116336• In the above embodiment, the ground electrode 4 is provided toward the discharge electrode 3. However, the setting and position of the ground electrode 4 are not closed. In addition, corresponding to the connection, the portion of the electrode 4 is placed in the shell. The preferred embodiment of the instrument can be more clearly described. It is intended to cover the patent scope of the application 201116336. [Simplified illustration of the drawings] FIG. 1 is a diagram showing the electrostatic atomization passage according to an embodiment of the present invention. . Figure 2 is a schematic diagram showing the drooping characteristics of the transformer. Fig. 3 shows the relationship between the clogging of the green shirt gas discharge f and H. ^ 4 The relationship between the stinking green after the scent of the navel for the output current of the medulla. ] The electricity output and the helium gas discharge, the 5 series edge shows the blue phase of the transformer in the embodiment, and the adjusted ozone produces a curved shape. Figure 6 shows a detailed circuit diagram of the electrostatically atomizing device of this embodiment. Fig. 7 is a detailed circuit diagram showing the electrostatic atomization of another embodiment. [Main component symbol description] 1 : Electrostatic atomization device 3: Discharge electrode 5: High voltage generation transformer 7: Smooth electrolytic capacitor 9: Resistor 5a: Main coil ^ One pole body: Pulse signal 2 · 鬲 Voltage generating circuit 4: Grounding electrode 6: High power gold oxygen half field call crystal 8: Shock circuit 10: Capacitor 5b: Secondary coil E. DC power supply 1 〇: Output Current 201116336

Vo :輸出電壓 L1 :減弱特性線 Vd :空氣放電電壓 Vm :餘裕電壓 L2 :調整後之臭氧量產生曲線 A、B :範圍 Vi :輸入電壓 C1 :電容器 R1 :第一電阻器 R2 :第二電阻器 R3 ··第三電阻器 R4 :第四電阻器 Rb :可變電阻器 m、N2 :節點 T2 : PNP電晶體 T1 : NPN電晶體 11 :比較器 12 :圖騰柱驅動電路 16Vo : output voltage L1 : weakening characteristic line Vd : air discharge voltage Vm : residual voltage L2 : adjusted ozone amount generating curve A, B : range Vi : input voltage C1 : capacitor R1 : first resistor R2 : second resistor R3 ··third resistor R4: fourth resistor Rb: variable resistor m, N2: node T2: PNP transistor T1: NPN transistor 11: comparator 12: totem pole drive circuit 16

Claims (1)

201116336 七、申請專利範圍: 1. 一種靜電霧化裝置,包含: 一變壓器(transformer) ’包含一主線圈(primary c〇il)及—次線 圈(secondary coil); 一切換元件,搞接至該變壓器的該主線圈; 一切換元件驅動電路,用以提供一脈衝訊號給該切換元件, 以和該切換元件進行一切換操作,並從該變壓器的該次線 圈產生一高電壓;以及 一放電單元,包含一放電電極,當該次線圈所產生的該高電 壓提供給該放電電極時,該放電單元對提供給該放電電極 之一液體進行靜電霧化,以產生複數個帶電細小液滴; 其中,該切換兀件驅動電路產生具有一振盪頻率組之一脈衝訊 號,致使該變壓ϋ具有減弱(dro〇ping)的特性,避免空氣放電發 生於該放電電極,當該液體進行靜電霧化時,即使該放電單元 上的負載改變,避免臭氧具有一預設濃度或更高濃度。 2. 如申請專利範圍第1項之靜電霧化裝置,其中該放電單元包含 -接地電極,該接地電極倾該放電電極間隔―怪定距離,該 靜電霧化裝置進一步包含: ° 一整流電路(rectification circuit) ’輕接於該變壓器的該次線 圈、該放電電極及該接地電極,該整流電路整流該第二線 圈所產生之該高電壓’並提供經整流後的該高電壓於該放 電電極及該接地電極之間。 3. 如申請專利範圍第1項之靜電霧储置,其中該切換元他驅動 電路包含產生該脈衝訊號之一振盈電路。 17 201116336 4. 如申請專利範圍第3項之靜電霧化裝置,其中該振盪電路包含 一比較器(comparator)。 5. 如申請專利範圍第丨項之靜電霧化裝置,其中該切換元件驅 電路包含: 一固定電阻器及一可變電阻器,係彼此串聯; 一比較器,包含: 一反相輸入端及一非反相輸入端’搞接至該固定電阻哭與 該可變電阻器之間的一節點;以及 一輪出端,用以輸出該脈衝訊號;以及 一電容器’耦接至該比較器之該反相輸入端; 其中,該振盪頻率係透過調整該可變電阻器之電阻值而設定。 6. 如申請專纖圍第1項之靜化裝置,其巾該切航件驅動 電路包含: 一第一固定電阻器及一第二固定電阻器,係彼此串聯; 一比較器,包含: 一反相輪入端及一非反相輸入端,耦接至該第一固定電阻 器與该第二固定電阻器之間的一節點;以及 輸出端,用以輸出該脈衝訊號;以及 可憂電容器’ 1¾接至該味壯該反相輸入端; -中’ 4振魏率係透過調整該可變電容器之電容值而設定。 如申明專她圍第1項之靜電霧化裝置,其巾該切換元件驅動 電路包含: 201116336 一第一可變電阻器及—第二可變電阻器,係彼此串聯; 一比較器,包含: -反相輸人端及-非反相輸人端,_至該第—可變 器與該第二可變電阻器之間m邊 一輸出端’用以輸出該脈衝訊號;以及 一可變電容H,祕至較器之該反相輸入端; ,中,該減頻率係透過調整該第—可變電阻器之電阻值、該 第二可變電阻器之電阻值與該可變電容器之電容值中之至二 一者而設定。 v 8.如申請專利範圍第5項至第7項之靜電霧化裝置,其中該切換元 件驅動電路包含: ' 一圖騰柱(totem pole)驅動電路,轉接至該比較器的該輸出 端’該圖騰柱驅動電路自該比較器接收並放大該脈衝訊號 後,提供放大後之該脈衝訊號至該切換元件。 19201116336 VII. Patent application scope: 1. An electrostatic atomization device comprising: a transformer (including a primary coil) and a secondary coil; a switching element that is connected to the a main coil of the transformer; a switching element driving circuit for supplying a pulse signal to the switching element for performing a switching operation with the switching element, and generating a high voltage from the secondary coil of the transformer; and a discharge unit a discharge electrode, wherein when the high voltage generated by the secondary coil is supplied to the discharge electrode, the discharge unit electrostatically atomizes a liquid supplied to the discharge electrode to generate a plurality of charged fine droplets; The switching element driving circuit generates a pulse signal having an oscillation frequency group, so that the voltage transformation has a characteristic of dro〇ping, preventing air discharge from occurring at the discharge electrode, and when the liquid is electrostatically atomized Even if the load on the discharge cell changes, ozone is prevented from having a predetermined concentration or higher. 2. The electrostatic atomization device of claim 1, wherein the discharge unit comprises a ground electrode, the ground electrode is inclined to the discharge electrode interval, and the electrostatic atomization device further comprises: a rectifier circuit ( Rectification circuit) 'lighting the secondary coil of the transformer, the discharge electrode and the ground electrode, the rectifier circuit rectifies the high voltage generated by the second coil' and providing the rectified high voltage to the discharge electrode And between the ground electrodes. 3. The electrostatic mist storage according to claim 1 of the patent scope, wherein the switching circuit of the driving circuit comprises a vibration generating circuit for generating the pulse signal. The invention relates to an electrostatically atomizing device according to claim 3, wherein the oscillating circuit comprises a comparator. 5. The electrostatically atomizing device of claim 2, wherein the switching element driving circuit comprises: a fixed resistor and a variable resistor connected in series; a comparator comprising: an inverting input and a non-inverting input terminal is coupled to a node between the fixed resistor and the variable resistor; and a round of output for outputting the pulse signal; and a capacitor coupled to the comparator An inverting input terminal; wherein the oscillation frequency is set by adjusting a resistance value of the variable resistor. 6. If the static device of the first item is applied, the driving device of the cutting device comprises: a first fixed resistor and a second fixed resistor connected in series; a comparator comprising: An inverting wheel terminal and a non-inverting input terminal are coupled to a node between the first fixed resistor and the second fixed resistor; and an output terminal for outputting the pulse signal; and a worry capacitor ' 13⁄4 is connected to the inverting input of the flavor; - Medium '4 vibration rate is set by adjusting the capacitance value of the variable capacitor. For example, the electrostatic atomizing device of the first item is specified, and the switching element driving circuit comprises: 201116336 a first variable resistor and a second variable resistor are connected in series; a comparator comprising: - an inverting input terminal and a non-inverting input terminal, _ to the m-side and an output end of the second variable resistor and the second variable resistor for outputting the pulse signal; and a variable The capacitance H is secreted to the inverting input terminal of the comparator; wherein, the frequency is reduced by adjusting the resistance value of the first variable resistor, the resistance value of the second variable resistor, and the variable capacitor Set one of the capacitance values to two. 8. The electrostatically atomizing device of claim 5, wherein the switching element driving circuit comprises: 'a totem pole driving circuit, which is switched to the output of the comparator' The totem pole driving circuit receives and amplifies the pulse signal from the comparator, and provides the amplified pulse signal to the switching component. 19
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WO2011037074A2 (en) 2011-03-31
WO2011037074A3 (en) 2011-05-12

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