TW200836838A - An electrospraying of particles collecting system - Google Patents

An electrospraying of particles collecting system Download PDF

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Publication number
TW200836838A
TW200836838A TW96107403A TW96107403A TW200836838A TW 200836838 A TW200836838 A TW 200836838A TW 96107403 A TW96107403 A TW 96107403A TW 96107403 A TW96107403 A TW 96107403A TW 200836838 A TW200836838 A TW 200836838A
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Taiwan
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particles
charged
electrospraying
collecting
present
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TW96107403A
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Chinese (zh)
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TWI310703B (en
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Wen-Yinn Lin
Sheng-Hsiu Huang
Yao-Chuan Lee
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Univ Nat Taipei Technology
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Abstract

The present invention is related to an Electrospraying of particles collecting system utilizing the Electrospraying of particles production to generate a plurality of Electrospraying. The present invention provides an system that can improve the problems occurred in the conventional electrostatic precipitator, such as electrode contamination, high power consumption and high quantity of ozone. A capillary-shaped electrode is utilized together with the deionized water to inject the deionized water slowly via the syringe pump into an air flow pipe 12 of the testing system to charge high voltage to the bottom end of the coaxial ring in order to generate a high electric field near the location of the syringe needle. When the deionized water is sprayed via the syringe, the voltage is simultaneously adjusted to allow the liquid near the syringe needle becomes the Taylor cone, in such so smaller diameter of the fluidic drops can be produced and sprayed through the fine capillary. Once those fluidic drops break into much smaller fluidic drops with the diameter between 40 nm to 1.8 μm. Once those drops are dried by the thin air to form the Nano-size of particles so that those Nano-size particles will adhere onto the air particles and be re-collected by the a collecting plate of the system. The electrospraying of particles collection system of the present invention can prevent those problems of electrode contamination, high power consumption and producing high quantity of ozone from occurring, therefore, the system of the present invention is suitable to be utilized as an electrostatic precipitator indoor to improve the air quality.

Description

200836838 九、發明說明: 【發明所屬之技術領域】 本聲明係提供-種帶電液滴微粒收集系統,尤相 猎由帶電液滴產生部產生複數帶電液滴,使該 吸附空氣中微粒的系統(帶電液_著於空氣中 其帶電)。 ' 【先前技術】 =電集塵㈣利用電能去除粒狀污染滅的集麵 效率的健魏乃#由有效率並電 :二=塵器相對於其他種類的除塵設備雖然花費: 阿的故置成本’但是因為其崎較小 在操 部是遠低於其他的設備。因此, 塵器來降低空氣中污_微_/料泛地應用靜電集 =晋遍地應用於改善室内空氣品質的家庭用空氣清淨 在—般的靜電隼雇哭φ ^ 粒,然後收集這此帶带微 1用電暈放電產生帶電微 集塵效率,亦即率::吻 些因素包括:電極與隹鹿文到許多因素的影響’這 粒粒徑、微教性質、= 間的距離、電極的形狀、微 ,臭氧是靜供應電㈣大小等。此外 如過程中所產生的副產物。 集廣功能,卜=場之靜電集塵器具有高效率的 疋傳統的靜電集塵器使用產生直流電場的電 200836838 ^ ’長時f後驗"及附在電縣面祕 的問題’降低電晕放電的效率; =直電源尚有高耗電成本的問題·,再者,靜電隹^ 在使用的過程中所產峰沾古 私木塵态 因、网六氧量也是必須解決的問題。 .. 何發明出一種帶電液滴微粒收集夸统,# + :用帶電液滴㈣產生複數帶電液滴,使二:由 【發明内容】 篇. 遂蝎其心智==:憾5發明人有感其未螓於完善: 經驗,進而研發出其從事該項產業多年之累4 電液滴產生部產生複數c粒收集系統,其利麵 氣中的微粒,進而達到::f ’使該些帶電液滴侧 根據上述之目:/微板收集的目的。 統,包括:一帶電:發明之-種帶電液滴微粒收集, 合-毛細針管與」^生部’其藉由-微量注射幫浦g 液滴可吸附複數微3碰生複數帶電液滴,且該些帶; 微粒之帶電液滴;二:集部,可收集該些已吸附該矣 與該,集部所需之電源。电源心供應該帶電液滴產生, 使該些帶電電,滴產生部產生複數帶電液滴, 附項中的微粒(帶電液滴_氣 200836838 中的微粒使其帶電),進而達到微粒收集的目的。 【實施方式】 為充分瞭解本發明之目的、特徵及功效,茲藉由下述 具體之實施例,並配合所附之圖式,對本發明做一詳細說 明,說明如後: 第1圖係本發明之帶電液滴微粒收集系統的一較佳實 施例之實施圖。請參考第1圖,本發明之一種帶電液滴微 粒收集系統1,包括:一帶電液滴產生部2,其藉由一微量 注射幫浦3配合毛細針管4與一同轴環5產生複數帶電液 滴(圖未不),該同轴极的材質為不錄鋼材料’且該些帶電 液滴可吸附複數微粒(圖未示),該些帶電液滴之粒徑約為 40nm至1.8/zm ; —收集部6,可收集該些已吸附該些微粒 之帶電液滴(圖未示),該收集部6更設有材料為金屬(例 如:鋁,但不限於此)之一收集板8 ;以及一電源部9 (例 如:至少一直流高電壓電源供應器),供應該帶電液滴產生 部2與該收集部6所需之電源,且利用該電源部9對該同 軸環5施以高電壓。 以下將說明應用本發明作帶電液滴微粒收集的實驗。 產生帶電液滴 如第1圖所示,本發明利用去離子水,以微量注射幫 浦3將去離子水由中空毛細針管4缓慢注入,並對毛細針 管4與下游端之同軸環5施加高電壓而使針頭處產生極高 200836838 之電場’當去離子水喷出同時藉由調整電壓使毛細針管4 尖端之液體形成泰勒錐,喷出較毛細針管4直徑更細的液 滴’液滴破碎後可形成粒徑約為4〇nm至1.8 /z m之微粒, 再經由稀释氣體乾燥即成為奈米尺寸微粒。 產生微粒 如弟1圖所示’本發明之較佳具體實施例之微粒供應 _ 衣置7產生笔中性微粒’係利用酒石酸卸納(p〇tassiuln200836838 IX. Description of the invention: [Technical field to which the invention pertains] This statement provides a charged droplet particle collection system, in particular, a system for generating a plurality of charged droplets by a charged droplet generating portion to cause the particles in the air to be adsorbed ( The charged liquid is charged in the air. '[Previous technology] = electric dust collection (4) Jian Wei Nai, which uses electric energy to remove the surface efficiency of granular pollution, is efficient and electricity: although the dust is relatively low compared to other types of dust removal equipment: The cost 'but because of its small size in the department is much lower than other equipment. Therefore, the dust collector to reduce the pollution in the air _ micro _ / material application of static electricity set = Jin used to improve the indoor air quality of the household air clean in the general static 隼 哭 φ φ ^ 粒, then collect this band With micro-corona discharge to produce charged micro-dusting efficiency, that is, rate:: kiss factors include: the influence of electrodes and elk to many factors 'this particle size, micro-teaching properties, distance between =, electrode The shape, micro, ozone is the static supply (four) size and so on. In addition, as a by-product produced in the process. The wide-ranging function, Bu = field electrostatic precipitator has high efficiency 疋 traditional electrostatic precipitator uses electricity generated by DC electric field 200836838 ^ 'long-term f posterior' and the problem attached to the electric county secret 'lower Corona discharge efficiency; = Straight power supply still has the problem of high power consumption cost. Moreover, the static electricity 隹^ in the process of use, the peak of the dust, the net hexachlor content is also a problem that must be solved. . .. How to invent a charged droplet particle collection quiz, # + : use charged droplets (four) to generate a plurality of charged droplets, so that two: by [invention content]. 遂蝎其心智==: regret 5 inventors have I feel that it has not been perfected: experience, and then developed its work in the industry for many years. The electric droplet generation department produces a complex c-collection system, which is used to make particles in the surface gas, and then achieve::f ' The charged droplet side is based on the above purpose: / microplate collection purpose. System, including: a charged: invented - a kind of charged droplets collection, a - capillary tube and "the Ministry of Health" through the micro-injection of the pump g droplets can adsorb a plurality of micro-three collisions of multiple charged droplets, And the strips; the charged droplets of the particles; and the second: the collecting portion, which can collect the power sources required to adsorb the crucible and the assembly. The power supply center supplies the charged liquid droplets to generate, and the plurality of charged liquid droplets are generated by the power generation, and the particles in the attached item (charged droplets of the charged liquid_gas 200836838 are charged), thereby achieving the purpose of collecting the particles. . DETAILED DESCRIPTION OF THE INVENTION In order to fully understand the object, features and effects of the present invention, the present invention will be described in detail by the following specific embodiments and the accompanying drawings. An embodiment of a preferred embodiment of the charged charged droplet collection system of the invention. Referring to FIG. 1, a charged droplet particle collecting system 1 of the present invention comprises: a charged droplet generating portion 2 which is coupled to a capillary tube 4 and a coaxial ring 5 to generate a plurality of charged portions by a microinjection pump 3. The droplets (not shown), the material of the coaxial pole is a non-recording steel material' and the charged droplets can adsorb a plurality of particles (not shown), and the charged droplets have a particle diameter of about 40 nm to 1.8/ The collecting portion 6 collects the charged droplets (not shown) that have adsorbed the particles, and the collecting portion 6 is further provided with a collecting plate whose material is metal (for example, aluminum, but not limited thereto). And a power supply unit 9 (for example, at least a high-voltage power supply), supplying the power required by the charged liquid droplet generating unit 2 and the collecting unit 6, and applying the power supply unit 9 to the coaxial ring 5 With high voltage. An experiment using the present invention for the collection of charged droplet particles will be described below. Producing charged droplets As shown in Fig. 1, the present invention uses deionized water to slowly inject deionized water from the hollow capillary tube 4 by microinjection of the pump 3, and applies high to the capillary tube 4 and the coaxial ring 5 at the downstream end. The voltage causes an extremely high electric field of 200836838 at the needle'. When the deionized water is ejected, the liquid at the tip of the capillary tube 4 is formed into a Taylor cone by adjusting the voltage, and the thinner droplets of the capillary tube 4 are ejected. After that, particles having a particle diameter of about 4 〇 nm to 1.8 / zm can be formed, and dried by a diluent gas to become nano-sized particles. Producing microparticles as shown in Fig. 1 'The preferred embodiment of the present invention provides a microparticle supply _ garment 7 produces pen neutral microparticles' which is unloaded with tartaric acid (p〇tassiuln

Sodium Tartrate Tetrahydrate,PST)為溶質,使用定量輸出 務化态 10(Constant Output Atomizer, Model 3075, TSI I尽cSodium Tartrate Tetrahydrate, PST) is a solute, using a quantitative output of 10 (Constant Output Atomizer, Model 3075, TSI I)

St· Paul,MN,U.S.A·)來產生次微米多粒徑的氣懸微粒(微 粒粒控小於1微米),由於剛產生的氣懸微粒往往帶有電 荷,因此為了使實驗結果不受到微粒帶電的影響以及提高 實驗系統的穩定程度,所以將產生的氣懸微粒經過κ峨 中和器11中和微粒電性後,再將其稀釋並乾燥,即成為所 ⑩需的測試用氣懸微粒,注入測試系統的氣流管12中。 帶電液滴微粒收集 當帶負電之液滴微粒進人㈣部6,可被帶正電雜 收集板8補集。本發明使用收集板8搭配—△ ο。=略 電源供應器9調整控制供給收集板8之電壓 供應器9在實驗過程中,為了使實 戈 ^ ^ 一從Λ驗糸統輪出電壓的 疋,均利用二用電錶經由高壓衰減棒, 旦 源供應器9所輸出之電壓值來監_制電壓^仏, 200836838 微粒檢測 氣懸微粒的檢測係使用作為粒徑分析裝置13之微粒 宅移動度掃瞄分徑器15(Scanning Mobility ParticleSt. Paul, MN, USA·) to produce submicron multi-particle size aerosol particles (particle size control less than 1 micron), since the airborne particles just generated tend to be charged, so the experimental results are not subject to particle charging The effect and the stability of the experimental system are improved. Therefore, the generated aerosol particles are passed through the κ峨 neutralizer 11 and the microparticles are electrically charged, and then diluted and dried to become the required air suspension particles for testing. Inject into the gas flow tube 12 of the test system. Charged droplet collection When the negatively charged droplet particles enter the human (four) section 6, they can be supplemented by the positively charged collection plate 8. The present invention uses the collecting plate 8 in combination with -Δ ο. = slightly power supply 9 adjusts the voltage supply 9 that controls the supply of the collecting plate 8. During the experiment, in order to make the voltage of the voltage from the test system, the dual-meter is used to pass the high-voltage attenuation rod. The voltage value outputted by the source 9 is used to monitor the voltage. 2008, 200836838 The detection of the particulate detection aerosol is used as the particle size analyzer 13 of the particle size analyzer 13 (Scanning Mobility Particle)

Sizer),量測靜電集塵器(收集部6)上游與下游次微米之 粒徑範圍氣懸微粒濃度。由於無法被收集部6所捕獲收集 之微粒,帶有相當高的電量,因此,為了使實驗結果不父 到微粒帶電的影響,所以將通過集塵器之氣懸微粒,先經 過中和益14(Απι241)中和微粒電性後,再進行氣懸微粒I /貝[男、驗中在同一設定條件下,分別進行四次下面定義的 貝牙率之測試,最後取其平均值為實驗結果。由靜電集塵 器的上游與下游氣懸微粒濃度之差異,可得知不同粒徑區 間與設定條件下的穿透率,穿透率定義如下: cin 其中,P :靜電集塵器微粒穿透率,係表徵收集微粒 效率, :靜電集塵器上游微粒濃度, C〇如:靜電集塵器下游微粒濃度。 以下將就本發明所使用的裝置作一詳細說明: 1·帶電液滴產生部2 :本發明使用之奈米微粒產生儀 器為微量注射幫浦及電喷式霧化器,可產生1〇 nm 至50 nm的微粒,幾何偏差值約為L1至1β25。 2·定量輸出霧化器(Constant Output Atomizer,Model 200836838 3075, TSI Inc·,St· Paul,MN,U,S.A,)10 :用來產生次 微米粒徑範圍多粒徑分布(polydisperse)的氣懸微 粒。其原理是使高壓空氣經一直徑為〇·343 mm的微 孔並以高速射出,根據伯努利(Bern〇ulli)原理,高 速區的氣壓較低,因此液體被吸入低壓區,藉著前 述之咼速空氣柱將液體破碎成微小的液滴。由於設 計上的關係,較微小的液滴可經9〇度的轉彎而離開 • 霧化器ι〇,較大的液滴會因為慣性衝擊的作用而被 截取下來,並流入儲液容器中。所建議使用的空氣 壓力為35 psi,此壓力可視需要做調整,所產生的 液滴數目中位粒径(number median diameter)約為 0.3 μπι’ 幾何標準偏差(geometric standard deviation) 小於1.9。微粒粒徑的大小主要是藉著調整溶液中不 揮發性溶質所佔的體積分率來決定。 3·中和器14(Am241) ·· Am-241是為一放射性物質,真 ⑩ 半衰期為432年,其中和微粒帶電的原理是利用其衰 變的過程中所釋放出的粒子將空氣分子解離成正、 負離子之後,再藉著這些離子附著到帶電微粒的表 面,以達到中和的目的。 4·微粒電移動度掃聪分控器(Scanning Mobility Particle Sizer)15 :包括靜電分徑儀(Electrostatic Classifier Model 3080, TSI Inc” St· Paul, MN)和凝結 核微粒計數器(Condensation Particle Counter Model 3025A,TSI Inc·,St· Paul,MN)兩個部分。靜電分徑 11 200836838 儀利用微粒電移動度的不同,來區分微粒的粒徑; 凝結核微粒計數器的原理是讓微粒通過一充滿正丁 醇飽和蒸氣的管子,在37t下與飽和正丁醇蒸汽混 合,此混合氣體通過一溫度為10°C的管子,使正丁 醇凝結於微粒表面,微粒因而長大至可偵測的範 圍,再利用光偵測器可得知微粒的數目,CPC偵測 微粒濃度的範圍為1(Γ2〜1〇5 particles/cm3,所量測的 粒徑範圍是5〜1000 nm。 _ 由以上所述可以清楚地明瞭,本發明係提供一種帶電 液滴微粒收集系統,其可利用帶電液滴產生部產生複數帶 電液滴,使該些帶電液滴吸附空氣中的微粒,進而達到微 粒收集的目的。因此,本發明在專利的角度上具備了新穎 性與進步性,市場上更具備了產業上的利用性,足適貴 ~ 審查委員給予專利。 以上已將本發明專利申請案做一詳細說明,惟以上所 述者,僅為本發明專利申請案之較佳實施例而已,當不能 ⑩ 限定本發明專利申請案實施之範圍。即凡依本發明專利申 請案申請範圍所作之均等變化與修飾等,皆應仍屬本發明 專利申請案之專利涵蓋範圍内。 【圖式簡單說明】 第1圖係本發明之帶電液滴微粒收集系統的一較佳實 施例之貫施圖。 12 200836838Sizer), measuring the concentration of aerosol particles in the particle size range upstream and downstream of the electrostatic precipitator (collection portion 6). Since the collected particles cannot be captured by the collecting unit 6 and have a relatively high amount of electric power, in order to make the experimental result unaffected by the particle charging effect, the airborne particles passing through the dust collector are first passed through the neutralization benefit 14 (Απι241) After neutralizing the electrical properties of the microparticles, the airborne microparticles I/Bei were then carried out. [Men, under the same set conditions, the test of the shellfish rate defined below was carried out four times, and the average value was taken as the experimental result. . From the difference between the concentration of the upstream and downstream aerosol particles of the electrostatic precipitator, the transmittance of different particle size intervals and set conditions can be known. The penetration rate is defined as follows: cin where P: electrostatic dust collector particle penetration Rate, which characterizes the efficiency of collecting particles: the concentration of particles upstream of the electrostatic precipitator, such as the concentration of particles downstream of the electrostatic precipitator. Hereinafter, the device used in the present invention will be described in detail: 1. Charged droplet generating portion 2: The nanoparticle generating device used in the present invention is a microinjection pump and an electrospray atomizer, which can generate 1 〇 nm. Particles up to 50 nm have geometric deviations of approximately L1 to 1β25. 2. Quantitative Output Atomizer (Model 200836838 3075, TSI Inc., St. Paul, MN, U, SA,) 10: Gas used to produce polydisperse in the submicron particle size range Hanging particles. The principle is that the high-pressure air is injected through a micro hole having a diameter of 〇·343 mm and is emitted at a high speed. According to the Bernumulli principle, the air pressure in the high-speed zone is low, so that the liquid is sucked into the low-pressure zone, by the foregoing The idle air column breaks up the liquid into tiny droplets. Due to the design relationship, the tiny droplets can leave with a 9-degree turn. • The atomizer 〇, the larger droplets are intercepted by the inertial impact and flow into the reservoir. The recommended air pressure is 35 psi. This pressure can be adjusted as needed. The number of droplets produced has a number median diameter of about 0.3 μπι' and a geometric standard deviation of less than 1.9. The size of the particle size is mainly determined by adjusting the volume fraction of the non-volatile solutes in the solution. 3. Neutralizer 14 (Am241) · Am-241 is a radioactive material with a true half-life of 432 years. The principle of charging particles with particles is to dissociate the air molecules into positive particles by using the particles released during the decay process. After the negative ions, these ions are attached to the surface of the charged particles to achieve the purpose of neutralization. 4. Scanning Mobility Particle Sizer 15 : Electrostatic Classifier Model 3080 (TSI Inc) St Paul, MN and Condensation Particle Counter Model 3025A , TSI Inc., St. Paul, MN). Electrostatic Separation 11 200836838 The instrument uses the difference in the mobility of the particles to distinguish the particle size of the particles. The principle of the condensation tuber counter is to let the particles pass through a positive The alcohol-saturated vapor tube is mixed with saturated n-butanol vapor at 37t. The mixed gas is passed through a tube at a temperature of 10 ° C to condense n-butanol on the surface of the particle, and the particle grows to a detectable range. The number of particles can be known by using a photodetector. The range of CPC detection particle concentration is 1 (Γ2~1〇5 particles/cm3, and the measured particle size range is 5~1000 nm. _ It is clear that the present invention provides a charged droplet particle collection system that utilizes a charged droplet generating portion to generate a plurality of charged droplets that cause the charged droplets to adsorb particles in the air. Furthermore, the object of particle collection is achieved. Therefore, the present invention has novelty and progress in terms of patents, and the market has more industrial applicability, and it is more expensive. The examination committee gives a patent. The application is described in detail, but the above is only a preferred embodiment of the patent application of the present invention, and the scope of application of the patent application of the present invention cannot be limited. Equivalent changes and modifications, etc., should still be within the scope of the patent application of the present invention. [FIG. 1] FIG. 1 is a preferred embodiment of the charged droplet collection system of the present invention. Shi Tu. 12 200836838

【主要元件符號說明】 1 帶電液滴微粒收集系統 2 帶電液滴產生部 3 微量注射幫浦 4 毛細針管 5 同轴環 6 收集部 7 微粒供應裝置 8 收集板 9 南電壓電源供應器 10 霧化器 11 Kr-85中和器 12 氣流管 13 粒徑分析裝置 14 Am241中和器 15 微粒電移動度掃瞄分徑器 13[Main component symbol description] 1 Charged droplet particle collection system 2 Charged droplet generation section 3 Micro injection pump 4 Capillary needle 5 Coaxial ring 6 Collection part 7 Particle supply device 8 Collection plate 9 South voltage power supply 10 Atomization 11 Kr-85 Neutralizer 12 Airflow Tube 13 Particle Size Analyzer 14 Am241 Neurator 15 Particle Electromotive Scanning Splitter 13

Claims (1)

200836838 十、申請專利範圍: 1. 一種帶電液滴微粒收集系統,包括: 一帶電液滴產生部,其藉由一微量注射幫浦配合一 毛細針管與一同軸環產生複數帶電液滴,且該些帶電液 滴可吸附複數微粒; 一收集部,可收集該些已吸附該些微粒之帶電液 滴;以及 一電源部,供應該帶電液滴產生部與該收集部所需 之電源。 2. 如申請專利範圍第1項所述之帶電液滴微粒收集系統, 其中,利用該電源部對該同轴環施以高電壓。 3. 如申請專利範圍第1項所述之帶電液滴微粒收集系統, 其中,該些帶電液滴之粒徑約為40nm至1.8〃m。 4. 如申請專利範圍第1項所述之帶電液滴微粒收集系統, 其中’該同轴樣為不鱗鋼材料。 5. 如申請專利範圍第1項所述之帶電液滴微粒收集系統, 其中,該收集部更設有材料為金屬之一收集板。 6. 如申請專利範圍第5項所述之帶電液滴微粒收集系統, 其中,該收集板的材料為鋁。 7. 如申請專利範圍第1項所述之帶電液滴微粒收集系統, 其中,該電源部更包括至少一直流高壓電源供應器。 14200836838 X. Patent application scope: 1. A charged droplet particle collecting system, comprising: a charged droplet generating portion, which generates a plurality of charged droplets by a micro-injection pump coupled with a capillary tube and a coaxial ring, and The charged droplets can adsorb the plurality of particles; a collecting portion collects the charged droplets that have adsorbed the particles; and a power supply portion that supplies the charged droplet generating portion and the power source required by the collecting portion. 2. The charged droplet particle collection system according to claim 1, wherein the power supply unit applies a high voltage to the coaxial ring. 3. The charged droplet particle collection system of claim 1, wherein the charged droplets have a particle size of about 40 nm to 1.8 〃m. 4. The charged droplet particle collection system of claim 1, wherein the coaxial sample is a non-scale steel material. 5. The charged droplet particle collecting system of claim 1, wherein the collecting portion is further provided with a material collecting plate. 6. The charged droplet particle collection system of claim 5, wherein the collection plate is made of aluminum. 7. The charged droplet particle collection system of claim 1, wherein the power supply unit further comprises at least a continuous high voltage power supply. 14
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* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI636002B (en) * 2016-05-20 2018-09-21 鴻海精密工業股份有限公司 Device for making electrical nanoparticles and preparation method thereof

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI636002B (en) * 2016-05-20 2018-09-21 鴻海精密工業股份有限公司 Device for making electrical nanoparticles and preparation method thereof

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