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空氣淨化革命-高含水靜電霧化技術分析

Air Purification Revolution: Analysis of High-Moisture Electrostatic Atomization Technology

摘要


隨著疫情解封,口罩逐漸退去,但人們對室內空氣品質(IAQ)的重視程度卻愈加提升,健康科技因此成為未來生活中不可或缺的一環,市面上一款被稱為奈米水離子的空氣清淨技術在疫情期間被大量應用,這項技術基於傳統負離子原理進化而來,通過在特殊鈦金屬圓形導體上高壓電擊冷凝水,產生含水量比傳統負離子多約1000倍的奈米水離子團,這些離子團在空氣中的存活時間可達600秒(相比傳統離子的100秒),奈米水離子技術具備保濕、除臭和抑菌三大功能,相比負離子,奈米水離子團具有更多的水離子、高活性的氫氧離子及自由基,能迅速有效地抑制空氣中的污染物和過敏原,本文將探討奈米水離子技術的原理、開發背景、應用場域,並展示實驗數據,以說明奈米水離子在健康科技中的效用。

並列摘要


As the pandemic restrictions are lifted and masks become less common, the importance of indoor air quality (IAQ) has increased significantly. Consequently, health technology has become an essential aspect of future living. One notable technology that gained widespread use during the pandemic is nanoe^(TM). This air purification technology, derived from traditional negative ion principles, involves high-voltage electrostatic atomization of water on a specialized titanium conductor, producing nano-sized water ions that have approximately 1000 times more water content than conventional negative ions and can survive in the air for up to 600 seconds (compared to around 100 seconds for traditional ions). Nanoe^(TM) technology offers three primary benefits: moisturizing, deodorizing, and antibacterial properties. Unlike traditional negative ions, nanoe^(TM) clusters contain more water ions, highly active hydroxyl ions, and radicals, which can quickly and effectively neutralize airborne pollutants and allergens. This paper explores the principles, development background, and application areas of nanoe^(TM) technology, and presents experimental data to illustrate its effectiveness in health technology.

參考文獻


https://www.hiroshima-u.ac.jp/eng/news/11565 産学官連携功労者表彰「経済産業大臣賞」,(2012)
須田洋、岩本成正、松井康訓、山内俊幸、奥山喜久夫(2003)。静電霧化を用いた応用研究。静電気学会講演文集。2003,237-238。
Lehr, W.,Hiller, W.(1993).Electrostatic atomization of liquid hydrocarbons.Journal of Electrostatics.30,433-440.
https://holdings.panasonic/jp/corporate/about/history/panasonic-museum/know-ism/stories/stories-20210225.html
Hudson, Eric R.,Ticknor, Christopher,Sawyer, Brian C.,Taatjes, Craig A.,Lewandowski, H. J.,Bochinski, J. R.,Bohn, J. L.,Ye, Jun(2006).Production of cold formaldehyde molecules for study and control of chemical reaction dynamics with hydroxyl radicals.Phys. Rev. A.73

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