Professor Ezat (Tahmineh) Keshavarzi

Professor Ezat (Tahmineh) Keshavarzi

keshavrz@iut.ac.ir
Office
Room No. 514, Department of Chemistry, Isfahan University of Technology, Isfahan, 84156-83111, IRAN
Phone
+98 313 3913281
Fax
+98 313 3912350
Positions
Professor of Physical Chemistry, Statistical Thermodynamics
Research Interests
Statistical Thermodynamics of In-homogenous fluids
Classical Density Functional Theory
Electric Double Layer Super Capacitors
Phase Transition
Pressure tensor
Interfacial Properties
Adsorption of Confined Fluid in Nanopores
Nano-thermodynamics
Thermodynamics of small systems
Molecular Building bulks
Nanoclusters
Nanofluids
Thermal conductivity
Viscosity
and Rheological Properties of Nano-Fluid
Statitistical thermodynamics of bulk fluids
Direct Correlation Function
Small K Structure of Factor
Equation of state
Intermolecular Forces
type: Journal
Title Date
Surface Charge Regulation on the Concave Wall of a Spherical Silica Pore, Impact of the EDL Overlap, Potential Drop in the Stern Region, and Deviation from the Electroneutrality Principle
Modeling the Electric Double Layer at the Liposome Vesicle via Classical Density Functional Theory: Solution of Poisson's Equations for Curved Membranes
The impurity effect on the capacitance of ionic liquid-based supercapacitors: A classical density functional theory study of ionic liquids inside the spherical cavity of the porous electrode
Effect of solvent on electric double layer capacitance and over screening inside spherical cavity by density functional theory
Exploring the electrosorption and surface charge amplification at the ionic liquid/cavity interface: Influence of imidazolium alkyl chain length and the size of the spherical cavities of the porous electrode
Influence of cation shape asymmetry on the interfacial features and capacitance curve of ionic liquids inside the spherical cavity of the porous electrode as an ionic liquid-based supercapacitor
The Effect of Stern Layer Thickness on the Diffuse Capacitance for Size Asymmetric Electrolyte inside the Charged Spherical Cavities by Density Functional Theory
Effects of a tiny particle trapped in a spherical cavity on fluid structure, contact density, and capillary condensation (a DFT approach)
Ionic Competition over Adsorption into Charged Spherical Cavities Affecting the Shape of Electric Double Layer Capacitance Curve and Zeta Potential: A Density Functional Theory Study
A new regularity used to predict the camel?bell shape transition in the capacitance curve of electric double layer capacitors