References
[1] Qian F P,Yu X K.Numerical simulation to study the effect of the particle deposition morphology on the filtration efficiency of the fibrous media.Advanced Materials Research,2012,518:1767-1770.
[2] Qian F P,Huang N J,Zhu X J,et al.Numerical study of the gas-solid flow characteristic of fibrous media based on SEM using CFD-DEM.Powder Technology,2013,249:63-70.
[3] Lighty J S,Veranth J M,Sarofim A F.Combustion aerosols:factors governing their size and composition and implications to human health.Journal of the Air and Waste Management Association.2000,50:1565-1618.
[4] Karadimos A,Ocone R.The effect of the flow field recalculation on fibrous filter loading:a numerical simulation.Powder Technology,2003,137:109-119.
[5] Dunnett S J,Clement C F.A numerical study of the effects of loading from diffusive deposition on the efficiency of fibrous filters.Journal of Aerosol Science,2006,37:1116-1139.
[6] Hai-Ming F U,Hui Z.Simulating deposition of aerosol particles on single fiber surface.Journal of Donghua University (English Edition),2009,26:252-258.
[7] Hosseini S A,Tafreshi H V.3-D simulation of particle filtration in electrospun nanofibrous filters.Powder Technology,2010,201:153-160.
[8] Kanaoka C,Hiragi S,Tanthapanichakoon W.Stochastic simulation of the agglomerative deposition process of aerosol particles on an electret fiber.Powder Technology,2001,118:97-106.
[9] Tanthapanichakoon W,Maneeintr K,Charinpanitkul T,et al.Estimation of collection efficiency enhancement factor for an electret fiber with dust load.Journal of Aerosol Science,2003,34:1505-1522.
[10] RafałPrzekop,Krzysztof Grzybowski,Leon Gradoń.Energy-balanced oscillatory model for description of particles deposition and re-entrainment on fiber collector.Aerosol Science and Technology,2004,38:330-337.
[11] Zhong W,Pan N.Aerosol filtration by fibrous filters:a statistical mechanics approach.Textile Research Journal,2007,77:284-289.
[12] Mead-Hunter R,King A J C,Kasper G,et al.Computational fluid dynamics (CFD) simulation of liquid aerosol coalescing filters.Journal of Aerosol Science,2013,61:36-49.
[13] Herman P K,Lehmann M J,Velu Y K.Predicting initial pressure drop of fibrous filter media-typical models and recent improvements.Journal of Textile and Apparel Technology and Management,2006,5:1-15.
[14] Wang Q,Maze B,Tafreshi H V,et al.A case study of simulating submicron aerosol filtration via lightweight spun-bonded filter media.Chemical Engineering Science,2006,61:4871-4883.
[15] Lux J,Delisée C,Thibault X.3D characterization of wood based fibrous materials:an application.Image Analysis and Stereology,2011,25:25-35.
[16] Faessel M,Delisée C,Bos F,et al.3D modelling of random cellulosic fibrous networks based on X-ray tomography and image analysis.Composites Science and Technology,2005,65:1931-1940.
[17] Schladitz K,Peters S,Reinel-Bitzer D,et al.Design of acoustic trim based on geometric modeling and flow simulation for non-woven.Computational Materials Science,2007,38:56-66.
[18] Lehmann M J,Hardy E H,Meyer J,et al.Fibrous filters:non-invasive determination of local 3D fiber structure by MRI.Filtration,2005,5:62-67.
[19] Hoferer J,Hardy E H,Meyer J,et al.Measuring particle deposition within fibrous filter media by magnetic resonance imaging.Filtration,2007,7:154-158.
[20] Jaganathan S,Tafreshi H V,Pourdeyhimi B.A realistic approach for modeling permeability of fibrous media:3-D imaging coupled with CFD simulation.Chemical Engineering Science,2008,63:244-252.
[21] Zhu X J,Qian F P,Lu J L,et al.Numerical study of the solid volume fraction and pressure drop of fibrous media by response surface methodology.Chemical Engineering and Technology,2013,36:788-794.
[22] Müller T,Meyer J,Kasper G.Low Reynolds number drag and particle collision efficiency of a cylindrical fiber within a parallel array.Journal of Aerosol Science,2014,77:50-66.
[23] Amaroli A.Numerical study of the effects of particles on the near wake around a circular cylinder.International Journal of Computational Fluid Dynamics,2015,29:150-160.
[24] Lantermann U,Hänel D.Particle Monte Carlo and Lattice-Boltzmann methods for simulations of gas-particle flows.Computers and Fluids,2007,36:407-422.
[25] Rebaï M,Drolet F,Vidal D,et al.A Lattice Boltzmann approach for predicting the capture efficiency of random fibrous media.Asia-Pacific Journal of Chemical Engineering,2015,6:29-37.
[26] Wang H M,Zhao H B,Guo Z L,et al.Numerical simulation of particle capture process of fibrous filters using Lattice Boltzmann two-phase flow model.Powder Technology,2012,227:111-122.
[27] Wang H M,Zhao H B,Wang K,et al.Simulation of filtration process for multi-fiber filter using the Lattice-Boltzmann two-phase flow model.Journal of Aerosol Science,2013,66:164-178.
[28] Wang H M,Zhao H B,Guo Z L,et al.Lattice Boltzmann method for simulations of gas-particle flows over a backward-facing step.Journal of Computational Physics,2013,239:57-71.
[29] Hosseini S A,Tafreshi H V.Modeling particle-loaded single fiber efficiency and fiber drag using ANSYS-Fluent CFD code.Computers and Fluids,2012,66:157-166.
[30] Saleh A M,Hosseini S A,Tafreshi H V,et al.3-D microscale simulation of dust-loading in thin flat-sheet filters:a comparison with 1-D macroscale simulations.Chemical Engineering Science,2013,99:284-291.
[31] Qian F P,Huang N J,Lu J,et al.CFD-DEM simulation of the filtration performance for fibrous media based on the mimic structure.Computers and Chemical Engineering,2014,71:478-488.
[32] Liu C,Hsu P C,Lee H W,et al.Transparent air filter for high-efficiency PM2.5 capture.Nature Communications,2014,6:6205.
[33] Nemoto J,Saito T,Isogai A.Simple freeze-drying procedure for producing nanocellulose aerogel-containing,high-performance air filters.ACS Applied Materials and Interfaces,2015,7:19809-19815.
[34] Patankar S V.Numerical heat transfer and fluid flow.Hemisphere Publishing Corporation,1980.
[35] Paz C,Suárez E,Gil C,et al.Numerical study of the impact of windblown sand particles on a high-speed train.Journal of Wind Engineering and Industrial Aerodynamics,2015,145:87-93.
[36] Li A,Ahmadi G.Dispersion and deposition of spherical particles from point sources in a turbulent channel flow.Aerosol Science and Technology,1992,16:209-226.
[37] Qian F P,Zhang J G,Huang Z J.Retraction:effects of the operating conditions and geometry parameter on the filtration performance of the fibrous filter.Chemical Engineering and Technology,2015,32:789-797.
[38] Liu Z G,Wang P K.Pressure drop and interception efficiency of multi-fibers filters.Aerosol Science and Technology,1997,25:375-391.
[39] Kuwabara S.The forces experienced by randomly distributed parallel circular cylinders or spheres in a viscous flow at small reynolds numbers.Journal of the Physical Society of Japan,2007,14:527-532.
[40] Kaplun S.Low Reynolds number flow past a circular cylinder.Fluid Mechanics and Singular Perturbations,1967,6:52-63.
[41] Mccormick B W.Aerodynamics,aeronautics,and flight mechanics.John Wiley New-York,1995.
[42] Hinds W C.Aerosol technology:properties,behavior,and measurement of airborne particles.Journal of Aerosol Science,1982,31:1121-1122.
[43] Brown R C,Air filtration:an integrated approach to the theory and applications of fibrous filters.Pergamon,1993.
[44] Stechkina I B,Kirsch A A,Fuchs N A.Studies on fibrous aerosol filters. Ⅳ.Calculation of aerosol deposition in model filters in the range of maximum penetration.Annals of Occupational Hygiene,1969,12:1-8.
[45] Ounis H,Ahmadi G.A comparison of brownian and turbulent diffusion.Aerosol Science and Technology,1990,13:47-53.
[46] Kirsh V A.Deposition of aerosol nanoparticles in fibrous filters.Colloid Journal,2003,65:726-732.