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      탄소섬유 이오나이저를 적용한 활성탄소섬유 필터의바이오에어로졸 항균 및 집진 성능평가 = Inactivation and Filtration of Bioaerosols Using Carbon Fiber Ionizer Assisted Activated Carbon Fiber Filter

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      https://www.riss.kr/link?id=A101616211

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      다국어 초록 (Multilingual Abstract)

      This paper reports that the installation of a carbon fiber ionizer in front of an activated carbon fiber(ACF) filter enhanced the antibacterial efficiency. In addition, the effect of the ionizer on the filtration of bioaerosols is reported.
      Negative air ions from the ionizer were used as antibacterial agent. The test bacteria(Escherichia coli) were aerosolized using an atomizer and were deposited on the ACF filter media for 10 minutes. E. coli deposited on the filter were exposed to negative air ions for 0, 1, 5 and 10 minutes. Then they were separated from the ACF filter by shaking incubation with nutrient broth for 4 hours. The separated E. coli were spread on nutrient agar plates and incubated at 37℃ for 1~3 days. The antibacterial efficiency of E. coli was measured using a colony counting method. The antibacterial efficiencies of E. coli exposed to negative air ions for 1, 5 and 10 minutes were 14%, 48% and 71%,respectively. The filtration efficiency was evaluated by measuring the number concentration of bioaerosols at the upstream and downstream of the filter media. The increase of filtration efficiency by air ions was 14%, that is similar to the 17% filtration efficiency by none air ions. The ozone concentration was below the detection limit (under 0.01ppm) when the carbon fiber ionizers were on.
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      This paper reports that the installation of a carbon fiber ionizer in front of an activated carbon fiber(ACF) filter enhanced the antibacterial efficiency. In addition, the effect of the ionizer on the filtration of bioaerosols is reported. Negative ...

      This paper reports that the installation of a carbon fiber ionizer in front of an activated carbon fiber(ACF) filter enhanced the antibacterial efficiency. In addition, the effect of the ionizer on the filtration of bioaerosols is reported.
      Negative air ions from the ionizer were used as antibacterial agent. The test bacteria(Escherichia coli) were aerosolized using an atomizer and were deposited on the ACF filter media for 10 minutes. E. coli deposited on the filter were exposed to negative air ions for 0, 1, 5 and 10 minutes. Then they were separated from the ACF filter by shaking incubation with nutrient broth for 4 hours. The separated E. coli were spread on nutrient agar plates and incubated at 37℃ for 1~3 days. The antibacterial efficiency of E. coli was measured using a colony counting method. The antibacterial efficiencies of E. coli exposed to negative air ions for 1, 5 and 10 minutes were 14%, 48% and 71%,respectively. The filtration efficiency was evaluated by measuring the number concentration of bioaerosols at the upstream and downstream of the filter media. The increase of filtration efficiency by air ions was 14%, that is similar to the 17% filtration efficiency by none air ions. The ozone concentration was below the detection limit (under 0.01ppm) when the carbon fiber ionizers were on.

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      다국어 초록 (Multilingual Abstract)

      This paper reports that the installation of a carbon fiber ionizer in front of an activated carbon fiber(ACF) filter enhanced the antibacterial efficiency. In addition, the effect of the ionizer on the filtration of bioaerosols is reported.
      Negative air ions from the ionizer were used as antibacterial agent. The test bacteria(Escherichia coli) were aerosolized using an atomizer and were deposited on the ACF filter media for 10 minutes. E. coli deposited on the filter were exposed to negative air ions for 0, 1, 5 and 10 minutes. Then they were separated from the ACF filter by shaking incubation with nutrient broth for 4 hours. The separated E. coli were spread on nutrient agar plates and incubated at 37℃ for 1~3 days. The antibacterial efficiency of E. coli was measured using a colony counting method. The antibacterial efficiencies of E. coli exposed to negative air ions for 1, 5 and 10 minutes were 14%, 48% and 71%,respectively. The filtration efficiency was evaluated by measuring the number concentration of bioaerosols at the upstream and downstream of the filter media. The increase of filtration efficiency by air ions was 14%, that is similar to the 17% filtration efficiency by none air ions. The ozone concentration was below the detection limit (under 0.01ppm) when the carbon fiber ionizers were on.
      번역하기

      This paper reports that the installation of a carbon fiber ionizer in front of an activated carbon fiber(ACF) filter enhanced the antibacterial efficiency. In addition, the effect of the ionizer on the filtration of bioaerosols is reported. Negative a...

      This paper reports that the installation of a carbon fiber ionizer in front of an activated carbon fiber(ACF) filter enhanced the antibacterial efficiency. In addition, the effect of the ionizer on the filtration of bioaerosols is reported.
      Negative air ions from the ionizer were used as antibacterial agent. The test bacteria(Escherichia coli) were aerosolized using an atomizer and were deposited on the ACF filter media for 10 minutes. E. coli deposited on the filter were exposed to negative air ions for 0, 1, 5 and 10 minutes. Then they were separated from the ACF filter by shaking incubation with nutrient broth for 4 hours. The separated E. coli were spread on nutrient agar plates and incubated at 37℃ for 1~3 days. The antibacterial efficiency of E. coli was measured using a colony counting method. The antibacterial efficiencies of E. coli exposed to negative air ions for 1, 5 and 10 minutes were 14%, 48% and 71%,respectively. The filtration efficiency was evaluated by measuring the number concentration of bioaerosols at the upstream and downstream of the filter media. The increase of filtration efficiency by air ions was 14%, that is similar to the 17% filtration efficiency by none air ions. The ozone concentration was below the detection limit (under 0.01ppm) when the carbon fiber ionizers were on.

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      참고문헌 (Reference)

      1 김상국, "활성탄소섬유 흡착bed에서의 톨루엔 흡착특성" 한국대기환경학회 24 (24): 220-228, 2008

      2 윤기영, "박테리아에 대한 나노 입자의 항균 특성 평가" 한국실내환경학회 2 (2): 46-53, 2005

      3 Fischer, G, "Speices-specific production of microbial volatile organic compounds(MVOC) by airborne fungi from a compost facility" 39 (39): 795-810, 1999

      4 Huang, R, "Removal of viable bioaerosol particles with a low-efficiency HVAC filter enhanced by continuous emission of unipolar air ions" 18 : 106-112, 2008

      5 박재홍, "Removal of submicron aerosol particles and bioaerosols using carbon fiber ionizer assisted fibrous medium filter media" 대한기계학회 23 (23): 1846-1851, 2009

      6 Park, S.J, "Preparation and chracterization of activated carbon fibers supported with silver metal for antibacterial behavior" 261 : 238-243, 2003

      7 Oh, W.C, "Physical properties and biological effects of activated carbon fibers treated with the herbs" 41 : 1737-1742, 2003

      8 Huertas, M. L., "Measurement of mobility and mass of atmospheric ions" 2 : 145-150, 1971

      9 Hunt, N.K, "Inactivation of Escherichia coli with ozone : chemical and inactivation kinetics" 33 (33): 2633-2641, 1999

      10 Lee, B.U, "Effect of relative humidity and variation of particle number size distribution on the inactivation effectiveness of airborne silver nanoparticles against bacteria bioaerosols deposited on a filter" 41 : 447-456, 2010

      1 김상국, "활성탄소섬유 흡착bed에서의 톨루엔 흡착특성" 한국대기환경학회 24 (24): 220-228, 2008

      2 윤기영, "박테리아에 대한 나노 입자의 항균 특성 평가" 한국실내환경학회 2 (2): 46-53, 2005

      3 Fischer, G, "Speices-specific production of microbial volatile organic compounds(MVOC) by airborne fungi from a compost facility" 39 (39): 795-810, 1999

      4 Huang, R, "Removal of viable bioaerosol particles with a low-efficiency HVAC filter enhanced by continuous emission of unipolar air ions" 18 : 106-112, 2008

      5 박재홍, "Removal of submicron aerosol particles and bioaerosols using carbon fiber ionizer assisted fibrous medium filter media" 대한기계학회 23 (23): 1846-1851, 2009

      6 Park, S.J, "Preparation and chracterization of activated carbon fibers supported with silver metal for antibacterial behavior" 261 : 238-243, 2003

      7 Oh, W.C, "Physical properties and biological effects of activated carbon fibers treated with the herbs" 41 : 1737-1742, 2003

      8 Huertas, M. L., "Measurement of mobility and mass of atmospheric ions" 2 : 145-150, 1971

      9 Hunt, N.K, "Inactivation of Escherichia coli with ozone : chemical and inactivation kinetics" 33 (33): 2633-2641, 1999

      10 Lee, B.U, "Effect of relative humidity and variation of particle number size distribution on the inactivation effectiveness of airborne silver nanoparticles against bacteria bioaerosols deposited on a filter" 41 : 447-456, 2010

      11 Byeon, J.H, "Chracteristics of electroless copper-deposited activated carbon fibers for antibacterial action and adsorption-desorption of volatile organic compounds" 45 : 2307-2320, 2007

      12 Yoon, K.Y, "Bioaerosol removal characteristics of electroless silver-plated activated carbon fiber filters" 3 (3): 141-149, 2006

      13 Fletcher, L. A., "Bactericidal action of positive and negative ions in air, BMC Microbiology" 7 : 32-, 2007

      14 Kim, Y.S, "Application of air ions for bacterial de-colonization in air filters contaminated by air borne bacteria; Mechanism involved in antibacterial action of air ions" The graduate school yonsei university department of mechanical engineering 2010

      15 Yoon, K. Y., "Antimicrobial effect of silver particles on bacterial contamination of activated carbon fibers" 42 : 1251-1255, 2008

      16 Kim, B.J, "Antibacterial behavior od transition-metals-decorated activated carbon fibers" 325 : 297-299, 2008

      17 Brown, R. C., "Air filtration" PergamonPress 1993

      18 Yang, R. T., "Adsorbents: Fundamentals and applications" John wiley & Sons, Inc 104-109, 2003

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