Phase Separation Research Papers - Academia.edu (original) (raw)

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- by and +1
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- Chemical Engineering, Thermodynamics, Atomic Force Microscopy, Biological Sciences
- by Sudhir KULKARNI
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- Mechanical Engineering, Chemical Engineering, Thermodynamics, Kinetics
- by Bela Mulder
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- Engineering, Density-functional theory, Mathematical Sciences, Physical sciences
- by Jianshe Chen
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- Strain Rate, Maize, Temperature Dependence, Phase Separation
- by Peter Laggner
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- Engineering, Data Analysis, Small Angle X Ray Scattering, Physical sciences
- by Sadhan De
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- Engineering, Materials Science, Materials, Natural rubber
- by Konrad Knoll
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- Materials Engineering, Mechanical Engineering, Materials Science, Kinetics
- by Marco Cavazzini
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- Chemical Engineering, Phase Separation, Schiff Base
- by M. Akram
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- Chemical Engineering, Biomedical Engineering, Micelles, Urea

The water-binding properties of wheat starch films were studied through the determination of water vapour adsorption isotherms at 20°C. Starch films were obtained by casting after mixing native starch at 95°C for 15min with different ratios of plasticizer (glycerol).Unplasticized starch film was found to adsorb less water than native starch granules. The effect of glycerol on water vapour adsorption by

- by Patrice Dole and +1
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- Food Chemistry, Multidisciplinary, Relative Humidity, Phase Separation
- by Valérie Guillard and +1
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- Organic Chemistry, Phase Separation, Food Sciences, Carbohydrate Polymers
- by George Gilmer and +1
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- Engineering, Kinetics, Atomistic Simulation, Physical sciences

Pegmatite deposits commonly occur in the 1500 km long, N-S-trending, tungstentin-bearing granitoid belt in Myanmar. Pegmatites are emplaced as veins and dikes that cut granitoid, migmatite, granitoid gneiss, gneiss, and schist. The pegmatite veins and dikes are mostly 2 to 5 meters wide and 30 to 150 meters long, and some are traceable over a distance of 300 meters.The pegmatites

- by Zin Zircon
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- Geology, Geochemistry, Geophysics, Potassium
- by Yoav Tsori
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- Thermodynamics, Kinetics, Density, High Frequency
- by Ramon Rubio
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- Engineering, Water, Chemical Physics, Physical sciences
- by Yan Yao
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- Engineering, Solar Cell, Morphology, Organic Electronics
- by Il Jeon
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- Mathematical Sciences, Physical sciences, Surface treatment, Phase Separation
- by Enrique Garcia-Berro
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- Thermodynamics, Organic Chemistry, Astrophysical Plasma, Phase Separation
- by Joao Crespo
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- Chemistry, Water quality, Arsenic, Multidisciplinary
- by Ioannis Pashalidis
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- Analytical Chemistry, Inorganic Chemistry, Aqueous Solutions, Liquid scintillation
- by Ralf Prien
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- Earth Sciences, Tectonics, Autonomous Underwater Vehicle, Physical sciences
- by Fred van de Velde
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- Microstructure, Light Scattering, Rheology, Confocal Microscopy
- by E. Tur
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- Chemical Engineering, Biomedical Engineering, Polymers, Magnetic Resonance Spectroscopy
- by John Hagopian
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- Game Theory, Quantum Cryptography, Quantum Communications, Long-baseline optical interferometry
- by A. Rosengren
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- Localization, Transition, Phase Diagrams, Bose Hubbard Model
- by Hideto Tsuji
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- Engineering, Kinetics, Small Angle X Ray Scattering, Morphology
- by Der-lii Tzou
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- Engineering, Polymer, CHEMICAL SCIENCES, Spectrum
- by Ivanka Popovic
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- Engineering, Environmental Engineering, Materials Engineering, Chemical Engineering
- by Paul McMillan
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- Physical Chemistry, Nuclear Magnetic Resonance, Glass, Frequency
- by Jan Munck
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- Engineering, Water, Scanning Electron Microscopy, Transmission Electron Microscopy
- by Raquel Osorio and +1
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- Engineering, Water, Filtration, Confocal Microscopy
- by Prof Shang
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- Engineering, Interaction, Polymer Blends, CHEMICAL SCIENCES
- by Mark Fenelon
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- Dairy, Clinical Sciences, Phase Separation, Food Sciences

CeO2 nanoparticles were prepared by thermal decomposition of cerous nitrate and then used as supports for CuO/CeO2 catalysts prepared via the impregnation method. The samples were characterized by HRTEM, XRD, H2-TPR, and XPS. The catalytic properties of the prepared catalysts for low-temperature CO oxidation were studied by using a microreactor–GC system. The results showed that the thermal decomposition temperature affected

- by Shihua Wu
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- Chemical Engineering, CO oxidation, Crystallite Size, Particle Size
- by Michela Lanchi
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- Engineering, Hydrogen Energy, CHEMICAL SCIENCES, Phase Separation

Whereas the retention rules of achiral compounds are well defined in high-performance liquid chromatography, on the basis of the nature of the stationary phase, some difficulties appear in super/subcritical fluid chromatography on packed columns. This is mainly due to the supposed effect of volatility on retention behaviours in supercritical fluid chromatography (SFC) and to the nature of carbon dioxide, which

- by Éric Lesellier
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- Engineering, Chemistry, Technology, Carbon Dioxide
- by Syed Arshad Hussain
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- Quantum Physics, Surface, Phase Separation, Stearic Acid
- by Paul Baker
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- Geochemistry, Applied Geochemistry, Complex System, Hydrothermal Alteration
- by Andrea Malagoli
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- Mechanical Engineering, Chemical Engineering, Kinetics, Critical phenomena
- by Spiros Gardelis and +2
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- Engineering, Technology, Electron Microscopy, Sample Preparation
- by N. Loshkareva and +1
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- Mechanical Engineering, Condensed Matter Physics, Magnetic field, Electronic Structure
- by Giovanni Polacco and +1
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- Materials Engineering, Chemical Engineering, Block Copolymer, High Temperature

Aqueous solution properties of polyethylene oxide–block-polypropylene oxide–block-polyethylene oxide TBP [(PEO)103(PPO)39(PEO)103] were studied in the presence of sodium salts with different anions (NaI, NaBr, NaCl, NaF, Na2SO4, Na3PO4) to investigate unimer-to-micelle transition [critical micelle concentration (CMC), critical micellization temperature (CMT)], micelle size and the phase separation (cloud point). This TBP, due to its very hydrophilic (80% PEO) nature does not form micelles at ambient temperatures. Micellization can be induced much below its CMT in water on addition of sodium salts having different anions. Analytical methods viz. fluorescence, FTIR and dynamic light scattering (DLS) were used to monitor the salt-induced micellization. The hydration of respective anion and resultant contribution to its salting-out effect was found to be the governing factor in promoting micellization. The presence of salt decreases the CMC, CMT and phase separation temperature. The salts affect the aggregation process in agreement with an order mentioned in Hofmeister series.

- by Bhavesh Bharatiya
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- Block Copolymer, Surfactants, Dynamic Light Scattering, Polypropylene
- by Robert Carlyon
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- Psychophysics, Multidisciplinary, Speech Processing, Humans
- by Maud Giot and +1
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- Mechanical Engineering, Condensed Matter Physics, Powder Diffraction, Ac Susceptibility
- by Vivek Gaware
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- Organic Chemistry, Tissue Engineering, Biomimetics, Morphology
- by ipek sahin
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- Chemical Engineering, FTIR spectroscopy, Biological Sciences, Melatonin
- by Shin-Tson Wu
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- Light Scattering, Liquid Crystals, Image Quality, Optical physics