1 |
Analysis of microorganisms with nonlinear electrokinetic microsystems Hakim KS, Lapizco-Encinas BH Electrophoresis, 42(5), 588, 2021 |
2 |
A survey of electrokinetically-driven microfluidics for cancer cells manipulation Romero-Soto FO, Polanco-Oliva MI, Gallo-Villanueva RC, Martinez-Chapa SO, Perez-Gonzalez VH Electrophoresis, 42(5), 605, 2021 |
3 |
Dielectrophoretic ultra-high-frequency characterization and in silico sorting on uptake of rare earth elements by Cupriavidus necator Giduthuri AT, Adekanmbi EO, Srivastava SK, Moberly JG Electrophoresis, 42(5), 656, 2021 |
4 |
Toward low-voltage dielectrophoresis-based microfluidic systems: A review Ramirez-Murillo CJ, de los Santos-Ramirez JM, Perez-Gonzalez VH Electrophoresis, 42(5), 565, 2021 |
5 |
Theory of shock electrodialysis I: Water dissociation and electrosmotic vortices Tian HH, Alkhadra MA, Bazant MZ Journal of Colloid and Interface Science, 589, 605, 2021 |
6 |
Theory of shock electrodialysis II: Mechanisms of selective ion removal Tian HH, Alkhadra MA, Bazant MZ Journal of Colloid and Interface Science, 589, 616, 2021 |
7 |
The zero-shear-rate limiting rheological behaviors of ideally conductive particles suspended in concentrated dispersions under an electric field Mirfendereski S, Park JS Journal of Rheology, 65(1), 13, 2021 |
8 |
Preparation of multi-purpose TiO2 pigmentwith improved properties for coating applications George J, Gopalakrishnan CC, Manikuttan PK, Mukesh K, Sreenish S Powder Technology, 377, 269, 2021 |
9 |
Electrorotation of leaky-dielectric and conducting microspheres in asymmetric electrolytes and angular velocity reversal Miloh T, Nagler J Electrophoresis, 41(15), 1296, 2020 |
10 |
Electroosmotic Coupling in Porous Media, a New Model Based on a Fractal Upscaling Procedure Thanh LD, Jougnot D, Do PV, Mendieta A, Ca NX, Hoa VX, Tan PM, Hien NT Transport in Porous Media, 134(1), 249, 2020 |