Dropwise Condensation Studies on Multiple Scales

REFERENCES

• Rose , J. W. 2002 . Dropwise Condensation Theory and Experiments: A Review . Proceedings Institution of Mechanical Engineers , 216 : 115 – 118 .
   Web of Science ®Google Scholar
• Lan , Z. , Ma , X. Z. , Zhang , Y. and Zhou , X. D. 2009 . Theoretical Study of Dropwise Condensation Heat Transfer: Effect of the Liquid–Solid Surface Free Energy Difference . Journal of Enhanced Heat Transfer , 16 : 61 – 71 .
   Web of Science ®Google Scholar
• Lee , L. Y. , Fang , T. H. , Yang , Y. M. and Maa , J. R. 1998 . The Enhancement of Dropwise Condensation by Wettability Modification of Solid Surface . International Communications in Heat and Mass Transfer , 25 ( 8 ) : 1095 – 1103 .
   Web of Science ®Google Scholar
• Boreyko , J. B. and Chen , C. H. 2009 . Self-Propelled Dropwise Condensate on Superhydrophobic Surfaces . Physical Review Letters , 103 : 184501 – 184504 .
   PubMed Web of Science ®Google Scholar
• Tanaka , H. 1975 . A Theoretical Study of Dropwise Condensation . Journal of Heat Transfer , 97 ( 1 ) : 97 – 103 .
   Web of Science ®Google Scholar
• Leach , R. N. , Stevens , F. , Langford , S. C. and Dickinson , J. T. 2006 . Dropwise Condensation: Experiments and Simulations of Nucleation and Growth of Water Drops in a Cooling System . Langmuir , 22 : 8864 – 8872 .
   PubMed Web of Science ®Google Scholar
• Wu , Y. , Yang , C. and Yuan , X. 2001 . Drop Distribution and Numerical Simulation of Dropwise Condensation Heat Transfer . International Journal of Heat and Mass Transfer , 44 : 4455 – 4464 .
   Web of Science ®Google Scholar
• Glassford , A. P. M. 1992 . Practical Model for Molecular Containment Deposition Kinetics . Journal of Thermophysics and Heat Transfer , 6 ( 4 ) : 656 – 664 .
   Web of Science ®Google Scholar
• Tien , C. L. , Majumdar , A. and Gerner , M. 1998 . Microscale Energy Transport , 167 – 183 . New York : Taylor & Francis .
   Google Scholar
• Hashimoto , H. and Kotake , S. 1995 . In-situ Measurement of Clustering Process Near Condensate . Thermal Science and Engineering , 3 : 37 – 43 .
   Google Scholar
• Chen , L. H. , Chen , C. Y. and Lee , Y. L. 1999 . Nucleation and Growth of Clusters in the Process of Vapor Deposition . Surface Science , 429 : 150 – 160 .
   Web of Science ®Google Scholar
• Carey , V. P. 1992 . Liquid–Vapor Phase–Change Phenomena , 2nd ed. , 342 – 351 . New York : Hemisphere Publishing Corporation .
   Google Scholar
• Bonner , R. W. III . Dropwise Condensation in Vapor Chambers . 26th IEEE Semi-Therm. Symposium , pp. 224 – 227 .
   Google Scholar
• Song , T. , Lan , Z. , Ma , X. and Bai , T. 2009 . Molecular Clustering Physical Model of Steam Condensation and the Experimental Study on the Initial Droplet Size Distribution . International Journal of Thermal Sciences , 48 : 2228 – 2236 .
   Web of Science ®Google Scholar
• Bentley , P. D., and Hands , B. A. 1978 . The Condensation of Atmospheric Gases on Cold Surfaces . R. Society London A , 359 : 319 – 343 .
   Google Scholar
• Wang , X. D. , Tian , Y. and Peng , X. F. 2003 . Self-Aggregation of Vapor–Liquid Phase Transition . Progress in Natural Science (Chinese) , 13 : 281 – 286 .
   Google Scholar
• Tian , Y. , Wang , X. D. and Peng , X. F. 2004 . Analysis of Surface Inside Metastable Bulk Phase During Gas–Liquid Phase Transition . Journal of Engineering Thermophysics (Chinese) , 25 : 100 – 102 .
   Google Scholar
• Venables , J. A. 2000 . Introduction to Surface and Thin Film Processes , 144 – 165 . Cambridge, UK : Cambridge University Press .
   Google Scholar
• Amar , J. G. , Popescu , M. N. and Family , F. 1999 . Self-Consistent Rate Equation Approach to Nucleation and Growth in Point/Extended Island Models of 1-D Homoepitaxy . Proceeding of Material Research Society , 570 ( 3 )
   Google Scholar
• Brune , H. 1998 . Microscopic View of Epitaxial Metal Growth: Nucleation and Aggregation . Surface Science Reports , 31 ( 3 ) : 121 – 229 .
   Google Scholar
• Oura , K. , Lifshits , V. G. , Saranin , A. A. , Zotov , A. V. and Katayama , M. 2003 . Surface Science , Springer-Verlag, New York . July
   Google Scholar
• Shi , F. , Shim , Y. and Amar , J. G. 2005 . Island-Size Distribution and Capture Numbers in Three-Dimensional Nucleation: Comparison with Mean-Field Behavior . Physical Review B , 71 : 245411 – 245416 .
   Web of Science ®Google Scholar
• Venables , J. A. and Brune , H. 2002 . Capture Numbers in the Presence of Repulsive Adsorbate Interactions . Physical Review B , 66 : 195404 – 195419 .
   Web of Science ®Google Scholar
• Brune , H. , Bales , G. S. , Jacobsen , J. , Boragno , C. and Kern , K. 1999 . Measuring Surface Diffusion from Nucleation Island Densities . Physical Review B , 60 : 5991 – 6006 .
   Web of Science ®Google Scholar
• Stroscio , J. S. and Pierce , D. T. 1994 . Scaling of Diffusion Mediated Island Growth in Iron-On-Iron Homoepitaxy . Physics Review B , 49 : 8522 – 8525 .
   PubMed Web of Science ®Google Scholar
• Ratsch , C. and Zangwill , A. 1994 . Saturation and Scaling of Epitaxial Island Densities . Physics Review Letters , 72 : 3194 – 3197 .
   PubMed Web of Science ®Google Scholar
• Bartelt , M. C. , Tringides , M. C. and Evans , J. W. 1993 . Island Size Scaling in Surface Deposition Processes . Physics Review B , 47 : 13891 – 13894 .
   Web of Science ®Google Scholar
• Chen , L. Y. , Baldan , M. R. and Ying , S. C. 1996 . Surface Diffusion in the Low-Friction Limit: Processes . Physics Review B , 54 : 8856 – 8861 .
   PubMed Web of Science ®Google Scholar
• Blochl , P. E. , Smargiassi , E. , Car , R. , Laks , D. B. , Andreoni , W. and Pantelides , S. T. 1993 . First Principle Calculations Self-Diffusion Constants in Silicon . Physics Review Letters , 70 : 2435 – 2438 .
   PubMed Web of Science ®Google Scholar
• Ratsch , C. , Seitsonen , A. P. and Scheffler , M. 1997 . Strain Dependence of Surface Diffusion: Ag on Ag(111) and Pt(111) . Physics Review B , 55 : 6750 – 6753 .
   Web of Science ®Google Scholar
• DeGennes , P. G. 1985 . Wetting: Static and Dynamics . Review of Modern Physics , 57 : 827 – 863 .
   Web of Science ®Google Scholar
• Leger , L. and Joany , J. F. 1977 . Liquid Spreading . Reports on Progress in Physics , 57 : 431 – 487 .
   Google Scholar
• Huh , C. and Mason , S. G. 1977 . Effect of Surface Roughness on Wetting (Theoretical) . Journal of Colloids and Interface Science , 60 : 11 – 37 .
   Web of Science ®Google Scholar
• Wenzel , R. N. 1936 . Resistance of Solid Surfaces to Wetting by Water . Industrial and Engineering Chemistry , 28 : 988 – 990 .
   Google Scholar
• Shibuichi , S. , Onda , T. , Satoh , N. and Tsujii , K. 1996 . Super-Water-Repellent Fractal Surfaces . Journal of Physical Chemistry , 100 : 19512 – 19617 .
   Web of Science ®Google Scholar
• Dussan , E. B. 1979 . On the Spreading of Liquid on Solid Surfaces: Static and Dynamic Contact Lines . Annual Review Fluid Mechanics , 11 : 371 – 400 .
   Web of Science ®Google Scholar
• Briscoe , B. J. and Galvin , K. P. 1991 . The Sliding of Sessile and Pendent Droplets the Critical condition . Journal of Colloid and Interface Science , 52 : 219 – 229 .
   Google Scholar
• Extrand , C. W. and Kumara , Y. 1995 . Liquid Drop on an Inclined Plane: The Relation Between Contact Angles, Drop Shape and Retentive Forces . Journal of Colloid and Interface Science , 170 : 515 – 521 .
   Web of Science ®Google Scholar
• Elsherbine , A. I. and Jacobi , A. M. 2006 . Retention Forces and Contact Angles for Critical Liquid Drops on Non-Horizontal Surfaces . Journal of Colloid and Interface Science , 299 : 841 – 849 .
   PubMed Web of Science ®Google Scholar
• Öner , D. and McCarthy , T. J. 2000 . Ultra-Hydrophobic Surfaces: Effects of Topography Length Scales on Wettability . Langmuir , 16 : 7777 – 7782 .
   Web of Science ®Google Scholar
• Krasovitski , B. and Marmur , A. 2005 . Drops Down the Hill: Theoretical Study of Limiting Contact Angles and the Hysteresis Range on a Tilted Plate . Langmuir , 21 ( 9 ) : 3881 – 3885 .
   PubMed Web of Science ®Google Scholar
• Pierce , E. , Carmona , F. J. and Amirfazli , A. 2008 . Understanding of Sliding and Contact Angles Results in Tilted Plate Experiments . Colloids and Surfaces A: Physicochemical and Engineering Aspects , 323 : 73 – 82 .
   Web of Science ®Google Scholar
• ElSherbini , A. I. and Jacobi , A. M. 2004 . Liquid Drops on Vertical and Inclined Surfaces I: An Experimental Study of Drop Geometry . Journal of Colloid and Interface Science , 273 : 556 – 565 .
   PubMed Web of Science ®Google Scholar
• Elsherbine , A. I. and Jacobi , A. M. 2004 . Liquid Drops on Vertical and Inclined Surfaces II. An Experimental Study of Drop Geometry . Journal of Colloid and Interface Science , 273 : 566 – 575 .
   PubMed Web of Science ®Google Scholar
• Neeumann , A. W. , Abdelmessihm , A. H. and Hameed , A. 1978 . The Role of Contact Angles and Contact Angles Hysteresis in Dropwise Condensation Heat Transfer . International Journal of Heat and Mass Transfer , 21 : 947 – 953 .
   Web of Science ®Google Scholar
• Sikarwar , B. S. , Battoo , N. K. , Khandekar , S. and Muralidhar , K. 2011 . Dropwise Condensation Underneath Chemically Textured Surfaces: Simulation and Experiments . ASME Journal of Heat Transfer , 133 ( Issue 2 ) : 021501 – 15 . 1
   Web of Science ®Google Scholar
• Leipertz , A. and Fröba , A. P. Improvement of Condensation Heat Transfer by Surface Modification . Proceedings 7th ISHMT-ASME International Heat and Mass Transfer Conference , pp. k85 – k99 . , IIT Guwahati (India), K7
   Google Scholar
• Lawal , A. and Brown , R. A. 1982 . The Stability of an Inclined Pendent Drop . Journal of Colloid and Interface Science , 89 : 332 – 345 .
   Web of Science ®Google Scholar
• Rose , J. W. 1976 . Further Aspects of Dropwise Condensation Theory . International Journal of Heat and Mass Transfer , 19 : 1363 – 1370 .
   Web of Science ®Google Scholar
• Zhao , H. and Beysens , D. 1996 . From Droplet Growth to Film Growth on a Heterogeneous Surface: Condensation Associated With a Wettability Gradient . Langmuir , 11 : 627 – 634 .
   Web of Science ®Google Scholar
• Mu , C. , Pang , J. and Liu , T. 2008 . Effect of Surface Topography of Material on Nucleation Site Density of Dropwise Condensation . Chemical Engineering Science , 63 : 874 – 880 .
   Web of Science ®Google Scholar
• Battoo , N. K. , Sikarwar , B. S. , Khandekar , S. and Muralidhar , K. Mathematical Simulation of Dropwise Condensation Exposed to Vapor Flux . Proceeding 9th International ISHMT—ASME Heat and Mass Transfer Conference , pp. 1330 – 1336 . Mumbai, India, 346
   Google Scholar
• Andrieu , C. , Beysens , D. A. , Nikolayev , V. S. and Pomeau , Y. 2002 . Coalescence of Sessile Drops . Journal of Fluid Mechanics , 453 : 427 – 438 .
   Web of Science ®Google Scholar
• Wu , M. , Cubaud , T. and Ho , C. M. 2004 . Scaling Law in Liquid Drop Coalescence Driven by Surface Tension . Physics of Fluids , 16 : L51 – L54 .
   Web of Science ®Google Scholar
• Liao , Q. , Zhu , X. , Xing , S. M. and Wang , H. 2008 . Visualization Study on Coalescences Between Pair of Water Drops On Inclined Surfaces . Experimental Thermal and Fluid Science , 31 : 1647 – 1654 .
   Web of Science ®Google Scholar
• Narhe , R. , Beysens , D. and Nikolayev , V. S. 2004 . Contact Line Dynamics in Drop Coalescences and Spreading . Langmuir , 20 : 1213 – 1221 .
   PubMed Web of Science ®Google Scholar
• Thoroddsen , S. T. , Takehara , K. and Etoh , T. G. 2005 . The Coalescence Speed of Pendent and a Sessile Drop . Journal of Fluid Mechanics , 527 : 85 – 114 .
   Web of Science ®Google Scholar
• Furmidge , C. G. 1962 . The Sliding Drop on Solid Surfaces and a Theory for Spray Retention . Journal of Colloid Science , 17 : 309 – 324 .
   Google Scholar
• Dussan , E. B. 1985 . On the Ability of Drops or Bubbles to Stick to Non-Horizontal Surface of Solids . Journal of Fluid Mechanics , 151 : 1 – 20 .
   Web of Science ®Google Scholar
• Sadhal , S. S. , Ayyaswamy , P. S. and Chung , J. N. 1997 . Transport Phenomena With Drops and Bubbles , 218 – 230 . New York, NY : Springer . Mechanical Engineering Series
   Google Scholar
• Dimitrarakopoulos , P. and Higdon , J. J. L. 1999 . On the Gravitational Displacement of the Three–Dimensional Fluid Droplets from Inclined Solid Surfaces . Journal of Fluid Mechanics , 395 : 181 – 209 .
   Web of Science ®Google Scholar
• Suzuki , S. , Nakajima , A. , Sakai , M. , Song , J. , Yoshida , N. , Kameshima , Y. and Okada , K. 2006 . Sliding Acceleration of Water Droplets on a Surface Coated With Fluoroalkysline and Octadecyltrimethoxysilane . Surface Science , 600 : 2214 – 2219 .
   Web of Science ®Google Scholar
• Annapragada , S. R. , Garimella , V. S. and Murthy , Y. J. Experimental Characterization of Droplet Motion on Inclined Hydrophobic Surfaces . Proceeding of the 9th International ISHMT–ASME Heat and Mass Transfer Conference , pp. 1298 – 1302 . Paper #343, Mumbai, India
   Google Scholar
• Kim , H. , Lee , H. and Kang , B. H. 2002 . Sliding of Drops Down an Inclined Solid Surface . Journal of Colloid Science , 247 : 372 – 382 .
   Google Scholar
• Huang , H. , Liang , D. and Wetton , B. 2004 . Computation of a Moving Drop/Bubble on a Solid Surface Using a Front-Tracking Method . Communications in Mathematical Science , 2 : 535 – 552 .
   Google Scholar
• Gao , L. and McCarthy , T. J. 2006 . Contact Angle Hysteresis Explained . Langmuir , 22 : 6234 – 6237 .
   PubMed Web of Science ®Google Scholar
• Sakai , M. , Song , J. , Yoshida , N. , Suzuki , S. , Kameshima , Y. and Nakajima , A. 2006 . Direct Observation on Internal Fluidity in a Water Droplet During Sliding on Hydrophobic Surfaces . Langmuir , 22 : 4906 – 4909 .
   PubMed Web of Science ®Google Scholar
• Grand , N. L. , Daerr , A. and Limit , L. 2005 . Shape and Motion of Drops Sliding Down an Inclined Plane . Journal of Fluid Mechanics , 541 : 293 – 315 .
   Web of Science ®Google Scholar
• Yoshida , N. , Abe , Y. , Shigeta , H. , Nakajima , A. , Ohsaki , K. and Watanabi , T. 2006 . Sliding Behavior of Droplet on Flat Polymer Surface . Journal of American Chemical Society , 128 : 743 – 747 .
   PubMed Web of Science ®Google Scholar
• Denial , S. , Chaudhury , M. K. and Chen , J. C. 2001 . Fast Drop Movements Resulting From the Phase-Change on a Gradient Surface . Science , 291 : 633 – 636 .
   PubMed Web of Science ®Google Scholar
• Sakai , M. and Hashimoto , A. 2007 . Image Analysis System for Evaluating Sliding Behavior of a Liquid Droplet on a Hydrophobic Surface . Review of Scientific Instruments , 78 : 045105 – 045109 .
   PubMed Web of Science ®Google Scholar
• Suzuki , S. , Nakajima , A. , Sakai , M. , Song , J. , Yoshida , N. , Kameshima , Y. and Okada , K. 2008 . Slipping and Rolling Ratio of Sliding Acceleration for a Water Droplet Sliding on Fluoroalkylsilane Coating of Different Roughness . Chemistry Letters , 37 : 58 – 59 .
   Web of Science ®Google Scholar
• Das , A. K. and Das , P. K. 2009 . Simulation of Drop Movement Over an Inclined Surface Using Smoothed Particle Hydrodynamics . Langmuir , 25 : 11459 – 11466 .
   PubMed Web of Science ®Google Scholar
• Sikarwar , B. S. , Muralidhar , K. and Khandekar , S. Flow and Heat Transfer in a Pendant Liquid Drop Sliding on an Inclined Plane . Proceeding of the 9th International ISHMT–ASME Heat and Mass Transfer Conference , pp. 1322 – 1329 . Paper #345, Mumbai, India
   Google Scholar
• Barth , T. J. and Jespersen , D. C. 1989 . The Design and Application of Upwind Schemes on Unstructured Meshes . AIAA , 89 Paper #0366
   Google Scholar
• Frink , N. T. , Paresh , P. and Shahyar , P. 1991 . A Fast Upwind Solver for the Euler Equations on Three Dimensional Unstructured Meshes . AIAA , 91 Paper #0102
   Google Scholar
• Date , A. W. 2005 . Solution of Transport Equations on Unstructured Meshes With Cell Centered Collocated Variables. Part I: Discretization . International Journal of Heat and Mass Transfer , 48 : 1117 – 1127 .
   Web of Science ®Google Scholar
• Blackman , L. C. F. , Dewar , M. J. S. and Hampson , H. 1957 . An Investigation of Compounds Promoting the Dropwise Condensation of Stem . Applied Chemistry , 7 : 160 – 157 .
   Google Scholar
• Watson , R. G. H. , Birt , D. C. P. , Honour , C. W. and Ash , B. W. 1962 . The Promotion of Dropwise Condensation by Montan Wax I. Heat Transfer Measurements . Journal of Applied Chemistry , 12 ( 12 ) : 539 – 546 .
   Google Scholar
• Erb , R. A. and Thelen , E. 1966 . Dropwise Condensation Characteristics of Permanent Hydrophobic System 54 – 57 . U. S. Department of Interior, R&D Report # 184
   Google Scholar
• Erb , R. A. 1965 . Promoting Permanent Dropwise Condensation . Industrial and Engineering Chemistry , 57 : 49 – 52 .
   Web of Science ®Google Scholar
• Marto , P. J. , Looney , D. J. and Rose , J. W. 1986 . Evaluation of Organic Coating for the Promotion of Dropwise Condensation of Steam . International Journal of Heat and Mass Transfer , 29 : 1109 – 1117 .
   Web of Science ®Google Scholar
• Mori , K. , Fujita , N. , Horie , H. , More , S. , Miyashita , M. and Matsuda , M. 1991 . Heat Transfer Promotion of Aluminum–Brass Cooling Tube by Surface Treatment With Triazinethiols . Langmuir , 7 : 1161 – 1166 .
   Web of Science ®Google Scholar
• Zhang , D. C. , Lin , Z. Q. and Lin , J. F. 1986 . New Materials for Dropwise Condensation . Proceedings 8th International Heat Transfer Conference , 4 : 1677 – 1682 .
   Google Scholar
• Zhao , Q. , Zhang , D. C. and Lin , J. F. 1991 . Surface Materials With Dropwise Condensation Mode by Ion Implantation Technology . International Heat and Mass Transfer , 34 : 2833 – 2835 .
   Web of Science ®Google Scholar
• Koch , G. , Zhang , D. C. and Leiertz , A. 1997 . Condensation of Steam on the Surface of Hard Coated Copper Discs . Heat and Mass Transfer , 32 : 149 – 297 .
   Web of Science ®Google Scholar
• Grischke , M. , Trojan , K. and Dimigen , H. Deposition of Low Energy Coating With DLC-Like Properties . Proceedings 11th Conference on High Vacuum , pp. 433 – 436 . , Interfaces and Thin Films
   Google Scholar
• Zhao , Q. , Zhang , D. C. , Zhu , X. B. , Xu , D. Q. , Lin , Z. Q. and Lin , J. F. Industrial Application of Dropwise Condensation . Proceedings 9th International Heat Transfer Conference , Vol. 4 , pp. 391 – 394 .
   Google Scholar
• Zhao , Q. and Burnside , B. M. 1994 . Dropwise Condensation of Steam on Ion Implanted Condenser Surfaces . Heat Recovery Systems & CHP , 14 : 525 – 534 .
   Google Scholar
• Rausch , M. H. , Fröba , A. P. and Leipertz , A. 2007 . Dropwise Condensation on Plasma–Ion Implanted Aluminum Surface . International Journal of Heat and Mass Transfer , 51 : 1061 – 1070 .
   Web of Science ®Google Scholar
• Vemuri , S. , Kim , K. J. , Wood , B. D. , Govindraju , S. and Bell , T. W. 2006 . Long Term Testing for Dropwise Condensation Using Self-Assembled Monolayer Coating on n-Octadecycl Mercaptin . Applied Thermal Engineering , 26 : 421 – 429 .
   Web of Science ®Google Scholar
• Das , A. K. , Kilty , H. P. and Marto , P. J. 2000 . The Use of an Organic Self-Assembled Monolayer Coating to Promote Dropwise Condensation of Steam on Horizontal Tubes . ASME Journal of Heat Transfer , 122 ( 2 ) : 278 – 286 .
   Web of Science ®Google Scholar
• Das , A. K. , Kilty , H .P. and Marto , P. J. 2000 . Dropwise Condensation of Steam on Horizontal Corrugated Tubes Using an Organic Self-Assembled Monolayer Coating . Journal Enhanced Heat Transfer , 7 ( 2 ) : 109 – 123 .
   Web of Science ®Google Scholar
• Koch , G. , Zhang , D. and Leipertz , A. 1998 . Study of Plasma Enhanced CVD Coated Material to Promote Dropwise Condensation . International Journal of Heat and Mass Transfer , 41 ( 13 ) : 1899 – 1900 .
   Web of Science ®Google Scholar
• Leipertz , A. and Choi , K. H. Dropwise Condensation on Ion Implanted Metallic Surfaces . Proceedings 3rd European Thermal Sciences Conference , pp. 917 – 921 .
   Google Scholar
• Ma , X. and Wang , B. 1999 . Life Time Test of Dropwise Condensation on Polymer-Coated Surfaces . Heat Transfer–Asian Research , 28 ( 7 ) : 551 – 558 .
   Google Scholar
• Rausch , M. H. , Leipertz , A. and Fröba , A. P. 2010 . Dropwise Condensation of Steam on Ion Implanted Titanium Surfaces . International Journal of Heat and Mass Transfer , 53 : 423 – 430 .
   Web of Science ®Google Scholar
• Cras , J. J. , Rowe-Tait , C. A , Nivens , D. A. and Ligler , F. S. 1999 . Comparison of Chemical Cleaning Methods of Glass in Preparation for Silanization . Biosensors and Bioelectronics , 14 : 683 – 688 .
   Web of Science ®Google Scholar
• Genzer , J. and Efimenko , K. 2000 . Creating Long-Lived Super Hydrophobic Polymer Surface Through Mechanically Assembled Monolayer . Science , 290 : 2130 – 2133 .
   PubMed Web of Science ®Google Scholar
• Ma , X. H. , Wang , B. X. , Xu , D. Q. and Lin , J. F. 1999 . Life Time Test of Dropwise Condensation on Polymer-Coated Surfaces . Heat Transfer—Asian Research , 28 ( 7 ) : 551 – 558 .
   Google Scholar
• Ma , X. , Tao , B. , Chen , J. , Xu , D. and Lin , J. 2000 . Dropwise Condensation Heat Transfer of Steam on a Polytethefluoroethylene Film . Journal of Thermal Science , 10 ( 3 ) : 247 – 253 .
   Google Scholar
• Jain , V. and Nema , S. K. 2007 . Deposition of Super-Hydrophobic Nanostructure Teflon-Like Coating Using Expanding Plasma Arc . Applied Surface Science , 253 : 5462 – 5466 .
   Web of Science ®Google Scholar
• Bansal , G. D. , Khandekar , S. and Muralidhar , K. 2009 . Measurement of Heat Transfer During Dropwise Condensation of Water on Polyethylene . Nanoscale and Microscale Thermophysical Engineering , 13 : 184 – 201 .
   Web of Science ®Google Scholar
• Collier , J. G. 1981 . Convective Boiling and Condensation , 2nd ed. , New York : McGraw-Hill .
   Google Scholar
• Rose , J. W. 1998 . Condensation Heat Transfer Fundamentals . Transactions of the AIChE , 76A : 143 – 152 .
   Google Scholar
• Rose , J. W. 1981 . Condensation Theory . International Journal of Heat and Mass Transfer , 24 : 191 – 194 .
   Web of Science ®Google Scholar
• Goldstein , R. J. , Ibele , W. E. , Patankar , S. V. , Simon , T. W. , Kuehn , T. H. , Strykowski , P. J. , Tamma , K. K. , Heberlein , J. V. R. , Davidson , J. H. , Bischof , J. , Kulacki , F. A. , Kortshagen , U. , Garrick , S. and Srinivasan , V. 2006 . Heat Transfer—A Review of 2003 Literature . International Journal of Heat and Mass Transfer , 49 : 451 – 534 .
   Web of Science ®Google Scholar
• Ma , X. , Rose , J. W. , Xu , D. , Lin , J. and Wang , B. 2000 . Advances in Dropwise Condensation Heat Transfer . Chinese Research—Chemical Engineering Journal , 78 : 78 – 93 .
   Google Scholar
• Rose , J. W. 2004 . Surface Tension Effects and Enhancements of Condensation Heat Transfer . Chemical Engineering Research and Design , 82 : 419 – 429 .
   Web of Science ®Google Scholar
• Rose , J. , Utaka , Y. and Tanasawa , I. 1999 . Dropwise Condensation . Hand Book of Phase Change: Boiling and Condensation , : 581 – 594 . Randlikar, S. G., ed. Taylor & Francis, USA,
   Google Scholar
• Tsuruta , T. and Tanaka , H. 1991 . A Theoretical Study on the Constriction Resistance in Dropwise Condensation . International Journal of Heat and Mass Transfer , 34 ( 11 ) : 2779 – 2786 .
   Web of Science ®Google Scholar
• Tsuruta , T. , Tanaka , H. and Togashi , S. 1991 . Experimental Verification of Constriction Resistance Theory in Dropwise Condensation Heat Transfer . International Journal of Heat and Mass Transfer , 34 ( 11 ) : 2787 – 2796 .
   Web of Science ®Google Scholar
• Tanner , D. W. , Potter , C. J. , Pope , D. and West , D. 1965 . Heat Transfer in Dropwise Condensation: Part II—Surface Chemistry . International Journal of Heat and Mass Transfer , 8 : 427 – 436 .
   Google Scholar
• Tanner , D. W. , Pope , D. , Potter , C. J. and West , D. 1968 . Heat Transfer in Dropwise Condensation at Low Stem Pressure in the Absence of Non-Condensable Gas . International Journal of Heat and Mass Transfer , 11 : 181 – 190 .
   Web of Science ®Google Scholar
• Wilkins , D. and Bromley , L. 1973 . Dropwise Condensation Phenomena . AIChE Journal , 19 : 839 – 845 .
   Web of Science ®Google Scholar
• Tsuruta , T. Constriction Resistance in Dropwise Condensation . Proceeding of the ASME Engineering Foundation Conference on Condensation and Condenser Design , pp. 109 – 170 .
   Google Scholar
• Stylianou , S. A. and Rose , J. W. 1980 . Dropwise Condensation on Surface Having Different Thermal Conductivities . ASME Journal of Heat Transfer , 102 : 477 – 482 .
   Web of Science ®Google Scholar
• Stylianou , S. A. and Rose , J. W. 1975 . Drop-to-Filmwise Condensation Transition: Heat Transfer Measurements for Ethanediol . International Journal of Heat and Mass Transfer , 97 : 72 – 98 .
   Google Scholar
• McCormick , J. L. and Westwater , J. W. 1965 . Nucleation Sites for Dropwise Condensation . Chemical Engineering Science , 20 : 1021 – 1031 .
   Web of Science ®Google Scholar
• Peterson , A. C. and Westwater , J. W. 1966 . Dropwise Condensation of Ethylene and Glycol . Chemical Engineering Progress Symposium Series , 64 : 135 – 142 .
   Google Scholar
• Umur , A. and Griffith , P. 1965 . Mechanism of Dropwise Condensation . ASME Journal of Heat Transfer , 87 : 275 – 282 .
   Web of Science ®Google Scholar
• Ivanovskii , M. N. , Subbotin , V. I. and Milovanov , Y. V. 1967 . Heat Transfer With Dropwise Condensation of Mercury Vapor . Teploenergetika , 14 : 81 – 85 .
   Google Scholar
• Rausch , M. H. , Leipertz , A. and Fröba , A. P. 2010 . On the Mechanism of Dropwise Condensation on Ion Implanted Metallic Surface . ASME Journal of Heat Transfer , 132 ( 1–3 ) : 94503
   Web of Science ®Google Scholar
• Le Fevre , E. J. and Rose , J. W. A Theory of Heat Transfer by Dropwise Condensation . Proceedings of the 3rd International Heat Transfer Conference , Vol. II , pp. 362 – 375 .
   Google Scholar
• Glicksman , R. L. and Hunt , W. A. 1972 . Numerical Simulation of Dropwise Condensation . International Journal of Heat and Mass Transfer , 15 : 2251 – 2269 .
   Web of Science ®Google Scholar
• Wu , W. H. and Maa , J. R. 1976 . On the Heat Transfer in Dropwise Condensation . Chemical Engineering Journal , 12 : 225 – 231 .
   Web of Science ®Google Scholar
• Abu-Orabi , M. 1998 . Modeling of Heat Transfer in Dropwise Condensation . International Journal of Heat and Mass Transfer , 41 : 81 – 87 .
   Web of Science ®Google Scholar
• Rose , J. W. and Glicksman , L. R. 1973 . Dropwise Condensation—The Distribution of Drop Sizes . International Journal of Heat and Mass Transfer , 16 : 411 – 425 .
   Web of Science ®Google Scholar
• Gose , E. , Mucciordi , A. N. and Baer , E. 1976 . Model for Dropwise Condensation on Randomly Distributed Sites . International Journal of Heat and Mass Transfer , 10 : 15 – 22 .
   Web of Science ®Google Scholar
• Burnside , B. M. and Hadi , H. A. 1999 . Digital Computer Simulation of Dropwise Condensation From Equilibrium Droplet to Detectable Size . International Journal of Heat and Mass Transfer , 42 : 3137 – 3146 .
   Web of Science ®Google Scholar
• Vemuri , S. and Kim , K. J. 2006 . An Experimental and Theoretical Study on the Concept of Dropwise Condensation . International Journal of Heat and Mass Transfer , 49 : 649 – 657 .
   Web of Science ®Google Scholar
• Chatterjee , J. 2001 . A Criterion for Buoyancy Induced Drop Detachment Based on an Analytical Approximation of the Drop Shape . Colloids and Surfaces A: Physicochemical and Engineering Aspects , 178 : 249 – 263 .
   Web of Science ®Google Scholar
• Chatterjee , J. 2002 . Critical Eötvös Numbers for Buoyancy-Induced Oil Drop Detachment based on Shape Analysis . Advances in Colloid and Interface Science , 98 : 245 – 283 .
   PubMed Web of Science ®Google Scholar
• Lexmond , A. S. and Geld , C. W. M. 2005 . The Effect of Plate Thickness, Surface Tension and Fluid Flow on Detachment of Drop from a Plate . Experimental Thermal and Fluid Science , 29 : 813 – 819 .
   Web of Science ®Google Scholar
• Sikarwar , B. S. , Muralidhar , K. and Khandekar , S. Flow and Thermal Fields in a Pendant Droplet Moving on Lyophobic Surface . Proceedings 14th International IHTC–ASME Heat and Mass Transfer Conference , pp. 169 – 178 . Washington, DC Paper #IHTC14–22520
   Google Scholar
• Mills , A. F. and Seban , R. A. 1967 . The Condensation Coefficient of Water . International Journal of Heat and Mass Transfer , 10 : 1815 – 1827 .
   Web of Science ®Google Scholar
• Sukhatme , S. P. and Rohsenow , W. M. 1966 . Heat Transfer During Film Condensation of a Liquid Metal Vapor . ASME Journal of Heat Transfer , 88 : 19 – 28 .
   Web of Science ®Google Scholar