We report a mechanism of massive augmentations in energy harvesting capabilities of nanofluidic devices, through the combined deployment of viscoelastic fluids and oscillatory driving pressure forces. Our analyses demonstrate that when the forcing frequency of a pressure-driven flow matches with the inverse of the relaxation time scale of a typical viscoelastic fluid, the energy conversion efficiency may get giantly amplified because of a complex interplay between the fluid rheology and ionic transport within the electrical double layer, which may open up the realm of highly efficient operating regimes of electro-hydrodynamicenergy conversion in nanofluidic devices of practical relevance
Motivated by new developments in electromagnetic nano/microfluidic energy systems, in this chapter a...
52 pages, 4 figuresOur Society is in high need of alternatives to fossil fuels. Nanoporous systems f...
The electrokinetic transport of fluids, also called the electroosmotic flow (EOF), in micro/nanoscal...
We present an in-depth analysis and analytical solution for AC hydrodynamic flow (driven by a timede...
This thesis presents an effort to understand electrokinetic energy conversion systems which are base...
In this paper we present an in-depth analysis and analytical solution for time periodic hydrodynamic...
This letter presents a conceptual mechanical-to-electric energy harvesting mechanism, in which an el...
We bring out a nontrivial coupling of the intrinsic wettability, surface charge, and electrokinetic ...
We discover a nonlinear coupling between the hydrophobicity of a charged substrate and electrokineti...
We discover a nonlinear coupling between the hydrophobicity of a charged substrate and electrokineti...
The field of nanofluidics has shown considerable progress over the past decade thanks to key instrum...
We describe and demonstrate an alternative energy-harvesting technology based on a microfluidic real...
In this paper, the electrokinetic energy conversion (EKEC) efficiency, streaming potential of viscoe...
The nanoscale represents a fundamentally new regime for lab-on-a-chip type fluidic systems, because ...
We explore mechanisms for flow generation in water-filled nanochannels, employing the coupling betwe...
Motivated by new developments in electromagnetic nano/microfluidic energy systems, in this chapter a...
52 pages, 4 figuresOur Society is in high need of alternatives to fossil fuels. Nanoporous systems f...
The electrokinetic transport of fluids, also called the electroosmotic flow (EOF), in micro/nanoscal...
We present an in-depth analysis and analytical solution for AC hydrodynamic flow (driven by a timede...
This thesis presents an effort to understand electrokinetic energy conversion systems which are base...
In this paper we present an in-depth analysis and analytical solution for time periodic hydrodynamic...
This letter presents a conceptual mechanical-to-electric energy harvesting mechanism, in which an el...
We bring out a nontrivial coupling of the intrinsic wettability, surface charge, and electrokinetic ...
We discover a nonlinear coupling between the hydrophobicity of a charged substrate and electrokineti...
We discover a nonlinear coupling between the hydrophobicity of a charged substrate and electrokineti...
The field of nanofluidics has shown considerable progress over the past decade thanks to key instrum...
We describe and demonstrate an alternative energy-harvesting technology based on a microfluidic real...
In this paper, the electrokinetic energy conversion (EKEC) efficiency, streaming potential of viscoe...
The nanoscale represents a fundamentally new regime for lab-on-a-chip type fluidic systems, because ...
We explore mechanisms for flow generation in water-filled nanochannels, employing the coupling betwe...
Motivated by new developments in electromagnetic nano/microfluidic energy systems, in this chapter a...
52 pages, 4 figuresOur Society is in high need of alternatives to fossil fuels. Nanoporous systems f...
The electrokinetic transport of fluids, also called the electroosmotic flow (EOF), in micro/nanoscal...