Bubble and Drop Interfaces

Contents

- Preliminary Material (i-viii) (135K)
  - Jump to section:
  - Progress In Colloid And Interface Science (PCIS)
  - Content
- Introduction Drops And Bubbles As Effective Tools For Interfacial Studies (1-6) by R. Miller and L. Liggieri (262K)
  - Jump to section:
  - A. General Introduction
  - B. Basic Drop And Bubble Methods
  - C. Drop Methodologies With Particular Applications
  - D. Drop–Drop And Bubble–Bubble Interactions In Foams And Emulsions
  - E. Outlook
  - F. References
- Determination Of Interfacial Properties By The Pendant Drop Tensiometry: Optimisation Of Experimental And Calculation Procedures (7-38) by G. Loglio, P. Pandolfini, L. Liggieri, A.V. Makievski and F. Ravera (1M)
  - Jump to section:
  - A. Introduction
  - B. Fine Tuning Of Optical Calibration
  - C. Combination Of Profile-Analysis Tensiometry With Capillary-Pressure Tensiometry
  - D. Analysis Of Optical Noisy Images
  - E. Study Of Interfacial Responses To Perturbations Of Interfacial Area
  - F. Summary
  - G. Acknowledgements
  - H. References
- Advances In Calculation Methods For The Determination Of Surface Tensions In Drop Profile Analysis Tensiometry (39-60) by S.A. Zholob, A.V. Makievski, R. Miller and V.B. Fainerman (292K)
  - Jump to section:
  - A. Introduction
  - B. Experimental Aspects Of Drop Profile Analysis Tensiometry
  - C. Improvement In The Extraction Of Profile Coordinates
  - D. Initial Estimation Of Adjustable Parameters
  - E. Transformation Of The Gauss–Laplace Equation To Avoid Interpolation
  - F. Experimental Results
  - G. Conclusion
  - H. Acknowledgements
  - I. References
- Axisymmetric Drop Shape Analysis With Anisotropic Interfacial Stresses: Deviations From The Young-Laplace Equation (61-74) by J.K. Ferri and P.A.L. Fernandes (415K)
  - Jump to section:
  - A. Introduction
  - B. Theory
  - C. Results And Discussion
  - D. Conclusions And Prospectus
  - E. Acknowledgements
  - F. References
- Maximum Bubble Pressure Tensiometry: Theory, Analysis Of Experimental Constrains And Applications (75-118) by V.B. Fainerman and R. Miller (753K)
  - Jump to section:
  - A. Introduction
  - B. The Optimum Design Of Bubble Pressure Tensiometers And Measuring Procedure
  - C. Surface Tension Determination
  - D. Bubble Time And Its Constituents
  - E. Analysis Of Experimental Constrains
  - F. Examples Of Experimental Results
  - G. Conclusions
  - H. List Of Symbols
  - I. References
- Drop Volume Tensiometry (119-142) by A. Javadi, V.B. Fainerman and R. Miller (470K)
  - Jump to section:
  - A. Historical Survey
  - B. The Drop Volume Experiment
  - C. Effect Of Hydrodynamics On Measured Drop Volumes
  - D. Theory Of Surfactant Adsorption At The Surface Of Growing Drops
  - E. Experimental Results
  - F. Summary And Conclusions
  - G. Acknowledgements
  - H. List Of Symbols
  - I. References
- Studies In Capillary Pressure Tensiometry And Interfacial Dilational Rheology (143-178) by V.I. Kovalchuk, F. Ravera, L. Liggieri, G. Loglio, A. Javadi, N.M. Kovalchuk and J. Krägel (1M)
  - Jump to section:
  - A. Introduction
  - B. Experimental Techniques For Capillary Pressure Tensiometry And Dilational Rheology
  - C. Theoretical Basis Of Capillary Pressure Tensiometry
  - D. Critical Aspects In Capillary Pressure Tensiometry
  - E. Capillary Pressure Instruments For Space Experiments
  - F. Experimental Results
  - G. Conclusions
  - H. Acknowledgements
  - I. References
- Direct Determination Of Protein And Surfactant Adsorption By Drop And Bubble Profile Tensiometry (179-194) by V.B. Fainerman and R. Miller (683K)
  - Jump to section:
  - A. Introduction
  - B. Experiments And Determination Of Adsorption
  - C. Results And Discussion
  - D. Conclusions
  - E. Acknowledgements
  - F. References
- Coaxial Capillary Pendant Drop Experiments With Subphase Exchange (195-222) by J.K. Ferri, A.D. Cramer, C. Kotsmar and R. Miller (2M)
  - Jump to section:
  - A. Introduction
  - B. A New Drop Methodology: Coaxial Capillary Pendant Drop (CCPD) Method
  - C. Surfactant And Small Amphiphile Exchange
  - D. Polymers, Biomacromolecules And Mixed Systems
  - E. Ultrathin Surface Composites And Membranes
  - F. Other Applications
  - G. Acknowledgements
  - H. References
- Wetting Dynamics Of Aqueous Solutions On Solid Surfaces (223-242) by V. Dutschk (968K)
  - Jump to section:
  - A. Essentials Of Wetting
  - B. Wetting Dynamics
  - C. Dynamic Contact Angle Measurements
  - D. Summary
  - E. Acknowledgements
  - F. References
- Bubbles Rising In Solutions; Local And Terminal Velocities, Shape Variations And Collisions With Free Surface (243-292) by K. Malysa, J. Zawala, M. Krzan and M. Krasowska (1M)
  - Jump to section:
  - A. Introduction
  - B. Bubble Formation
  - C. Initial Acceleration Of The Bubble
  - D. Local Velocity Profiles
  - E. Inducement Of Dynamic Structure Of The Adsorption Layer (DAL) On The Rising Bubble
  - F. Terminal Velocity Of The Bubbles
  - G. Bubble Collisions With Liquid/Gas Interface
  - H. Bubble Velocity As A Tool To Monitor Organic Contaminations In Water
  - I. List Of Symbols And Abbreviations
  - J. References
- Surface Tension Measurement Of Polymer Melts In Supercritical Fluids (293-324) by H. Wei, R.B. Thompson, C.B. Park and P. Chen (588K)
  - Jump to section:
  - A. Introduction
  - B. Experimental Section
  - C. Surface Tension Of Polystyrene (PS) In Supercritical CO
  - D. Surface Tension Of High Density Polyethylene (HDPE) In Supercritical N
  - E. Conclusions
  - F. Acknowledgements
  - G. References
- Accumulation Of Surfactant In The Top Foam Layer Caused By Ruptured Foam Films (325-350) by S.S. Dukhin, V.I. Kovalchuk, E.V. Aksenenko and R. Miller (450K)
  - Jump to section:
  - A. Introduction
  - B. Qualitative Mechanism Of Surfactant Accumulation In The Top Bubble Layer Of A Foam Caused By External Film Rupture
  - C. Estimation Of Surfactant Loss
  - D. Capillary Hydrodynamic Phenomena Following The Rupture Of A Single External Foam Film
  - E. Surfactant Accumulation Due To Multiple Ruptures Of External Films
  - F. SAFT And Surface Rheology
  - G. Conditions For The Onset Of SAFT
  - H. Droplet Formation During Breakage Of Foam Films And Its Influence On Surfactant Accumulation
  - I. Discussion And Conclusions
  - J. Appendix
  - K. Acknowledgements
  - L. References
- Particle-Bubble Interaction In Flotation (351-384) by A.V. Nguyen (918K)
  - Jump to section:
  - A. Introduction
  - B. Collision
  - C. Attachment
  - D. Stability And Detachment
  - E. Conclusions
  - F. Acknowledgement
  - G. References
- Experimental Observation Of Drop-Drop Coalescence In Liquid-Liquid Systems: Instrument Design And Features (385-400) by G. Loglio, P. Pandolfini, F. Ravera, R. Pugh, A.V. Makievski, A. Javadi and R. Miller (971K)
  - Jump to section:
  - A. Introduction
  - B. Importance Of Drop–Drop Coalescence
  - C. The Drop/Bubble Micro-Manipulator (DBMM)
  - D. Examples Of Application Results
  - E. Summary
  - F. Acknowledgements
  - G. References
- The Tensiograph Platform For Optical Measurement (401-480) by N.D. McMillan, S.R.P. Smith, M. O’ Neill, K. Tiernan, D. Morrin, P. Pringuet, G. Doyle, B. O’Rourke, A.C. Bertho, J. Hammond, D.D.G. McMillan, S. Riedel, D. Carbery, A. Augousti, N. Wüstneck, R. Wüstneck, F. Colin, P. Hennerbert, G. Pottecher, D. Kennedy and N. Barnett (2M)
  - Jump to section:
  - A. Introduction
  - B. Drop Shape/Tensiotrace Model
  - C. Drop Spectroscopy
  - D. Refractive Index-Rainbow Peak —Bulk Properties
  - E. Surface Tension —Drop Period And Tensiopeak Period Relationship
  - F. Calibration Standards For Tensiographic Fingerprinting
  - G. Conclusion
  - H. References
- Emulsification With Micro-Structured Membranes And Micro-Engineered Systems (481-502) by R.M. Boom and C.G.P.H. Schroën (796K)
  - Jump to section:
  - A. Emulsification With Membranes And Micro-Engineered Systems
  - B. Droplet Snap-Off Induced By Localized Shear Flow
  - C. Droplet Snap-Off Induced By Interfacial Tension Effects
  - D. Premix Membrane Emulsification
  - E. Coflowing Systems
  - F. Concluding Remarks
  - G. Acknowledgement
  - H. References
- Manipulation Of Droplets Onto A Planar Interface (503-520) by T. Gilet, D. Terwagne, N. Vandewalle and S. Dorbolo (591K)
  - Jump to section:
  - A. Introduction
  - B. Delayed Coalescence On A Planar Interface At Rest
  - C. Delayed Coalescence On A Vertically Vibrated Bath
  - D. Partial Coalescence
  - E. Influence Of Viscosities
  - F. Mixing Droplets Together
  - G. Control Of The Partial Coalescence With Bouncing
  - H. Conclusion
  - I. Acknowledgements
  - J. References
- Interfacial Mass Transfer Of Growing Drops In Liquid-Liquid Systems (521-550) by A. Javadi, D. Bastani, M. Taeibi-Rahni, M. Karbaschi and R. Miller (1M)
  - Jump to section:
  - A. Introduction
  - B. Hydrodynamics Of Drop Formation
  - C. Interfacial Mass Transfer Of Growing Drops
  - D. Conclusion
  - E. Acknowledgements
  - F. List Of Symbols
  - G. References
- Subject Index (551-558) (97K)

Book: Bubble and Drop Interfaces
Publication Year: 2010
Edited by: Miller and Liggieri
ISBN: 9789004174955
e-ISBN: 9789047428411
Subject: Materials & Surface Science
DOI: 10.1163/ej.9789004174955.i-558

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