Spiral wound modules and spacers - Review and analysis
暂无分享,去创建一个
David F. Fletcher | P. R. Neal | Dianne E. Wiley | J. Schwinge | P. R. Neal | Anthony G. Fane | A. Fane | D. Fletcher | D. Wiley | J. Schwinge
[1] Kamalesh K. Sirkar,et al. Response to comments on "Approximate design equations for reverse osmosis desalination by spiral wound modules" , 1983 .
[2] William G. Light,et al. Improvement of Thin-Channel Design for Pressure-Driven Membrane Systems , 1981 .
[3] J Schwinge,et al. Characterization of a zigzag spacer for ultrafiltration , 2000 .
[4] David F. Fletcher,et al. Techniques for computational fluid dynamics modelling of flow in membrane channels , 2003 .
[5] W. L. Griffith,et al. The role of turbulence promoters in hyperfiltration plant optimization , 1971 .
[6] Alan S. Michaels,et al. SOLUTE POLARIZATION AND CAKE FORMATION IN MEMBRANE ULTRAFILTRATION: CAUSES, CONSEQUENCES, AND CONTROL TECHNIQUES , 1970 .
[7] V. S. Vassiliadis,et al. Optimisation of membrane regeneration scheduling in reverse osmosis networks for seawater desalination , 1999 .
[8] J. S. Watson,et al. Forced convection mass transfer: Part IV. Increased mass transfer in an aqueous medium caused by detached cylindrical turbulence promoters in a rectangular channel , 1967 .
[9] Anthony G. Fane,et al. Optimal channel spacer design for ultrafiltration , 1991 .
[10] Kamalesh K. Sirkar,et al. Approximate design equations for reverse osmosis desalination by spiral-wound modules , 1982 .
[11] Kamalesh K. Sirkar,et al. Analytical design equations for multicomponent reverse osmosis processes by spiral-wound modules , 1985 .
[12] C. E. Milstead,et al. Spiral-wound thin-film composite membrane systems for brackish and seawater desalination by reverse osmosis , 1977 .
[13] Mahmoud M. El-Halwagi,et al. Optimal design and scheduling of flexible reverse osmosis networks , 1997 .
[14] Edward L Cussler,et al. Mass transfer in corrugated membranes , 2000 .
[15] W. J. King,et al. III—Relationship between Heat Transfer and Pressure Drop1 , 1931 .
[16] Ain A. Sonin,et al. Sherwood Number and Friction Factor Correlations for Electrodialysis Systems, with Application to Process Optimization , 1976 .
[17] Jos T. F. Keurentjes,et al. Membrane cascades for the separation of binary mixtures , 1992 .
[18] Robert W. Field,et al. Critical flux measurement for model colloids , 1999 .
[19] F. B. Leitz,et al. Enhanced mass transfer in electrochemical cells using turbulence promoters , 1977 .
[20] Jan Hofman,et al. Simplified modelling of diffusion-controlled membrane systems , 1994 .
[21] Georges Belfort,et al. An experimental study of electrodialysis hydrodynamics , 1972 .
[22] Robert H. Davis,et al. The behavior of suspensions and macromolecular solutions in crossflow microfiltration , 1994 .
[23] Andrzej Burghardt,et al. Effect of mass transport resistances in multicomponent membrane extraction on the overall mass fluxes , 2000 .
[24] Marcel Mulder,et al. Basic Principles of Membrane Technology , 1991 .
[25] R. Rautenbach,et al. Design and optimization of spiral-wound and hollow fiber RO-modules , 1987 .
[26] Allan P. Colburn,et al. Heat Transfer and Pressure Drop in Empty, Baffled, and Packed Tubes1 , 1931 .
[27] M. L. Costa,et al. Modelling of modules and systems in reverse osmosis. Part I: Theoretical system design model development , 1991 .
[28] Kamalesh K. Sirkar,et al. Explicit flux expressions in tubular reverse osmosis desalination , 1978 .
[29] Antonio Dr Chiolle,et al. Mathematical model of reverse osmosis in parallel-wall channels with turbulence promoting nets , 1978 .
[30] David F. Fletcher,et al. Simulation of Unsteady Flow and Vortex Shedding for Narrow Spacer-Filled Channels , 2003 .
[31] Yoshio Taniguchi,et al. An analysis of reverse osmosis characteristics of ROGA spiral-wound modules , 1978 .
[32] Saravanamuthu Vigneswaran,et al. Influence of particle size and surface charge on critical flux of crossflow microfiltration , 1998 .
[33] Anthony G. Fane,et al. Net-Type Spacers: Effect of Configuration on Fluid Flow Path and Ultrafiltration Flux , 1994 .
[34] David G. Thomas. Forced convection mass transfer: Part II. Effect of wires located near the edge of the laminar boundary layer on the rate of forced convection from a flat plate , 1965 .
[35] Peter F. Levy,et al. THE EFFECT OF CHANNEL HEIGHT AND CHANNEL SPACERS ON FLUX AND ENERGY REQUIREMENTS IN CROSSFLOW FILTRATION , 1994 .
[36] David F. Fletcher,et al. Simulation of the Flow around Spacer Filaments between Narrow Channel Walls. 1. Hydrodynamics , 2002 .
[37] Ashish Kulkarni,et al. MULTICOMPONENT TRANSPORT OF ELECTROLYTES THROUGH CELLULOSE ACETATE MEMBRANES , 1996 .
[38] Pierre Aimar,et al. On an experimental method to measure critical flux in ultrafiltration , 2002 .
[39] Lloyd P. M. Johnston,et al. Optimal design of reverse osmosis module networks , 2000 .
[40] James M. Dickson,et al. Dilute single and mixed solute systems in a spiral wound reserve osmosis module Part I: Theoretical model development , 1992 .
[41] Gunnar Eigil Jonsson,et al. OPTIMAL DESIGN AND PERFORMANCE OF SPIRAL WOUND MODULES II: ANALYTICAL METHOD , 1988 .
[42] Nikolaos A. Peppas,et al. Friction coefficient analysis of multicomponent solute transport through polymer membranes , 1996 .
[43] Hongyu Li,et al. An assessment of depolarisation models of crossflow microfiltration by direct observation through the membrane , 2000 .
[44] Haruhiko Ohya,et al. An analysis of reverse osmotic characteristics of B-9 hollow fiber module , 1977 .
[45] Nieck E. Benes,et al. comparison of macro and microscopic theories describing multicomponent mass transport in microporous media , 1999 .
[46] Shoji Kimura,et al. Mass Transfer Coefficients for Use in Reverse Osmosis Process Design , 1968 .
[47] A. Katchalsky,et al. Thermodynamic analysis of the permeability of biological membranes to non-electrolytes. , 1958, Biochimica et biophysica acta.
[48] P. R. Neal,et al. Estimation of foulant deposition across the leaf of a spiral-wound module☆ , 2002 .
[49] J. Howell,et al. Sub-critical flux operation of microfiltration , 1995 .
[50] A. Fane,et al. Particle deposition during membrane filtration of colloids: transition between concentration polarization and cake formation , 1997 .
[51] A. B. de Haan,et al. Study of flow patterns for mass transfer enhancement by spacers in spiral wound module by CFD simulation , 2001 .
[52] Sayed Siavash Madaeni,et al. The effect of operating conditions on critical flux in membrane filtration of latexes , 1997 .
[53] David F. Fletcher,et al. Computational fluid dynamics modelling of flow and permeation for pressure-driven membrane processes , 2002 .
[54] Günther Laufenberg,et al. Rejection of acetic acid and its improvement by combination with organic acids in dilute solutions using reverse osmosis , 1996 .
[55] A. B. de Haan,et al. Optimization of commercial net spacers in spiral wound membrane modules , 2002 .
[56] V. Kottke,et al. Effects of spacer geometry on pressure drop, mass transfer, mixing behavior, and residence time distribution , 1996 .
[57] L. T. Fan,et al. Analysis and optimization of a reverse osmosis water purification system—part II. Optimization , 1969 .
[58] R. Field,et al. Critical flux concept for microfiltration fouling , 1995 .
[59] Mourad Ben Boudinar. Performance prediction and optimisation of spiral wound modules , 1991 .
[60] James M. Dickson,et al. Dilute single and mixed solute systems in a spiral wound reverse osmosis module: Part II. Experimental data and application of the model , 1994 .
[61] Z.E.H. Otten,et al. New strategies for economic optimal membrane fouling control based on dynamic optimization , 1993 .
[62] Vassilis Gekas,et al. Mass transfer in the membrane concentration polarization layer under turbulent cross flow , 1987 .
[63] Franco Evangelista,et al. An improved analytical method for the design of spiral-wound modules , 1988 .
[64] David F. Fletcher,et al. Simulation of the Flow around Spacer Filaments between Channel Walls. 2. Mass-Transfer Enhancement , 2002 .
[65] Takeshi Matsuura,et al. Specification of commercial reverse osmosis modules and predictability of their performance for water treatment applications , 1980 .
[66] Franco Evangelista,et al. Improved graphical-analytical method for the design of reverse-osmosis plants , 1986 .
[67] Y. Winograd,et al. Mass transfer in narrow channels in the presence of turbulence promoters , 1973 .
[68] Shyam S. Sablani,et al. Influence of spacer thickness on permeate flux in spiral-wound seawater reverse osmosis systems , 2002 .
[69] S. Avlonitis,et al. Flow parameter profiles in the crossflow of a two-component fluid through semipermeable membranes , 1997 .
[70] Hans G.L. Coster,et al. Observation of deposition and removal behaviour of submicron bacteria on the membrane surface during crossflow microfiltration , 2003 .
[71] Ho Nam Chang,et al. Experimental study of mass transfer around a turbulence promoter by the limiting current method , 1983 .
[72] In Seok Kang,et al. The effect of turbulence promoters on mass transfer—numerical analysis and flow visualization , 1982 .
[73] Benito Jose Marinas,et al. MODELING CONCENTRATION-POLARIZATION IN REVERSE OSMOSIS SPIRAL-WOUND ELEMENTS , 1996 .
[74] Hans G.L. Coster,et al. Direct observation of particle deposition on the membrane surface during crossflow microfiltration , 1998 .
[75] Shoji Kimura,et al. Stagewise Reverse Osmosis Process Design , 1969 .
[76] Mika Mänttäri,et al. Critical flux in NF of high molar mass polysaccharides and effluents from the paper industry , 2000 .
[77] W. T. Hanbury,et al. Numerical simulation and optimisation of spiral-wound modules , 1992 .
[78] Vicki Chen,et al. Performance of partially permeable microfiltration membranes under low fouling conditions , 1998 .
[79] Dianne E. Wiley,et al. Factors influencing critical flux in membrane filtration of activated sludge , 1999 .
[80] Dianne E. Wiley,et al. Ultrafiltration of whey protein solutions in spacer-filled flat channels , 1993 .
[81] Anthony G. Fane,et al. Experimental determination of critical flux in cross-flow microfiltration , 2000 .
[82] Mahmoud M. El-Halwagi,et al. Synthesis of reverse‐osmosis networks for waste reduction , 1992 .
[83] J Baeyens,et al. Macroscopic fluid flow conditions in spiral-wound membrane elements , 1997 .
[84] Joseph W. McCutchan,et al. Systems analysis of a multi-stage tubular module reverse osmosis plant for sea water desalination , 1974 .
[85] Shoji Kimura,et al. Analysis of data in reverse osmosis with porous cellulose acetate membranes used , 1967 .
[86] R. W. Lawrence,et al. Calculation of the expected performance of reverse osmosis plants , 1982 .
[87] Ronald F. Probstein,et al. Ultrafiltration of macromolecular solutions at high polarization in laminar channel flow , 1977 .
[88] V. Kottke,et al. Comparison of heat and mass transfer in different heat exchanger geometries with corrugated walls , 2002 .
[89] Franco Evangelista,et al. Explicit expressions for permeate flux and concentration in hyperfiltration , 1986 .
[90] W. R. Mixon,et al. Effect of Axial Velocity and Initial Flux on Flux Decline of Cellulose Acetate Membranes in Hyperfiltration of Primary Sewage Effluents , 1972 .
[91] J Baeyens,et al. Macroscopic fluid flow conditions in spiral wound membrane elements: packed bed approach , 2000 .
[92] L. T. Fan,et al. Analysis and optimization of a reverse osmosis water purification system Part I. Process analysis and simulation , 1968 .
[93] Takeshi Matsuura,et al. Synthetic Membranes and Membrane Separation Processes , 1993 .
[94] R. H. Muller,et al. MASS TRANSFER ENHANCEMENT BY SMALL FLOW OBSTACLES IN ELECTROCHEMICAL CELLS , 1985 .
[95] Haruhiko Ohya,et al. An analysis of reverse osmotic characteristics of ROGA-4000 spiral-wound module , 1975 .
[96] Haruhiko Ohya,et al. Some general equations for reverse osmosis process design , 1969 .
[97] David F. Fletcher,et al. A CFD study of unsteady flow in narrow spacer-filled channels for spiral-wound membrane modules , 2002 .
[98] Andrew L. Zydney,et al. Influence of protein–protein interactions on bulk mass transport during ultrafiltration , 1997 .
[99] Stamatios Avlonitis. Investigation and Prediction of Spiral Wound Reverse Osmosis Membrane Performance , 1991 .
[100] S. V. Polyakov,et al. Turbulence promoter geometry: its influence on salt rejection and pressure losses of a composite-membrane spiral would module , 1992 .
[101] Gunnar Eigil Jonsson,et al. Flow dynamics and concentration polarisation in spacer-filled channels☆ , 2002 .
[102] Douglas R. Lloyd,et al. Multicomponent effects in the pressure-driven membrane separation of dilute solutions of nonelectrolytes , 1989 .
[103] Viriato Semiao,et al. The effect of the ladder-type spacers configuration in NF spiral-wound modules on the concentration boundary layers disruption☆ , 2002 .
[104] Y. Winograd,et al. An analytical model for mass transfer in an electrodialysis cell with spacer of finite mesh , 1971 .
[105] Dianne E. Wiley,et al. CFD simulations of net-type turbulence promoters in a narrow channel , 2001 .
[106] Franco Evangelista. A short cut method for the design of reverse osmosis desalination plants , 1985 .
[107] J. C. van Dijk,et al. Theoretical optimization of spiral-wound and capillary nanofiltration modules , 1997 .
[108] J. Fárková,et al. The pressure drop in membrane module with spacers , 1991 .
[109] William B. Krantz,et al. Real-time measurement of inorganic fouling of RO desalination membranes using ultrasonic time-domain reflectometry , 1999 .
[110] N. Ibl,et al. The use of eddy promoters for the enhancement of mass transport in electrolytic cells , 1980 .
[111] Viriato Semiao,et al. Numerical modelling of mass transfer in slits with semi‐permeable membrane walls , 2000 .
[112] J. C. van Dijk,et al. Mathematical model of nanofiltration systems , 1996 .
[113] Ronald F. Probstein,et al. Turbulence Promotion and Hydrodynamic Optimization in an Ultrafiltration Process , 1979 .
[114] Munir Cheryan,et al. Ultrafiltration and Microfiltration Handbook , 1998 .
[115] Vítor Geraldes,et al. Flow and mass transfer modelling of nanofiltration , 2001 .
[116] A. B. de Haan,et al. Optimization of non-woven spacers by CFD and validation by experiments , 2002 .
[117] G. Schock,et al. Mass transfer and pressure loss in spiral wound modules , 1987 .
[118] E. N. Sieder,et al. Heat Transfer and Pressure Drop of Liquids in Tubes , 1936 .
[119] A.J.B. van Boxtel,et al. Dynamic optimization of a one-stage reverse-osmosis installation with respect to membrane fouling , 1992 .
[120] Sandeep K. Karode,et al. Flow visualization through spacer filled channels by computational fluid dynamics I. , 2001 .
[121] Edwin N. Lightfoot,et al. Protein ultrafiltration: A general example of boundary layer filtration , 1972 .
[122] Julia E. Nemeth. Innovative system designs to optimize performance of ultra-low pressure reverse osmosis membranes , 1998 .
[123] P. R. Neal,et al. The effect of filament orientation on critical flux and particle deposition in spacer-filled channels , 2003 .
[124] J. Howell,et al. Critical flux in ultrafiltration of myoglobin and baker’s yeast , 2002 .
[125] A. Colburn,et al. Mass Transfer (Absorption) Coefficients Prediction from Data on Heat Transfer and Fluid Friction , 1934 .
[126] David G. Thomas. Forced Convection Mass Transfer in Hyperfiltration at High Fluxes , 1973 .
[127] David G. Thomas. Forced convection mass transfer: Part III. Increased mass transfer from a flat plate caused by the wake from cylinders located near the edge of the boundary layer , 1966 .
[128] V. A. Klyachko,et al. Hydraulic principles for the design of electrodialysis desalination plants , 1967 .
[129] W. T. Hanbury,et al. Spiral wound modules performance an analytical solution: Part II , 1991 .
[130] Nuri Yucel,et al. Laminar flow and mass transfer in channels with a porous bottom wall and with fins attached to the top wall , 2000 .