The studied variables were drop volume, aqueous sample volume, agitation speed, ionic strength and extraction time.
The effective diffusivity was dependent on moisture content, drop volume shrinkage, and temperature.
Adjustable parameters in the mechanistic breakage functions were estimated from measured drop volume distributions by constrained nonlinear least-squares optimization.
Ionic strength, extraction time, stirring speed, pH, ionic liquid type, drop volume and sample volume were the variables studied.
The studied variables were drop volume, sample volume, agitation speed, ionic strength, extraction time and ethanol quantity.
Six adjustable parameters were estimated by nonlinear optimization from measured drop volume distributions at a specified operating condition.
The mechanical response of particle-laden fluid interfaces is determined by measuring the internal pressures of particle-coated drops as a function of the drop volume.
The model can predict the variations of shape and contact angle of drops as a function of drop volume.
Empirical equations for dependence of breakage and coalescence constants on drop volume, holdup and system properties were derived.
These values were compared with measurements carried out in a conventional tensiometer, using the drop volume method.
The experimental parametric inputs to the model were the drop volume, four interfacial energies, and the reaction rate constant.
