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Ye Tao

Researcher at Harbin Institute of Technology

Publications -  82
Citations -  1602

Ye Tao is an academic researcher from Harbin Institute of Technology. The author has contributed to research in topics: Electric field & Dielectrophoresis. The author has an hindex of 22, co-authored 69 publications receiving 1141 citations. Previous affiliations of Ye Tao include Harvard University.

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Induced-charge electroosmotic trapping of particles

TL;DR: It is revealed that fixed-potential ICEO exceeding RC charging frequency can adjust the particle trapping position flexibly by generating controllable symmetry breaking in a vortex flow pattern.
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A Simplified Microfluidic Device for Particle Separation with Two Consecutive Steps: Induced Charge Electro-osmotic Prefocusing and Dielectrophoretic Separation.

TL;DR: A hybrid method for microparticle separation based on a delicate combination of ICEO focusing and dielectrophoretic deflection is proposed and designed and fabricated a microfluidic chip and separated a mixture consisting of yeast cells and silica particles with an efficiency exceeding 96%.
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High-Throughput Separation, Trapping, and Manipulation of Single Cells and Particles by Combined Dielectrophoresis at a Bipolar Electrode Array

TL;DR: The integration of parallel sorting and single trapping stages within a microfluidic chip enables the prospect of high-throughput cell separation, single trapping, and large-scale cell locomotion and rotation in a noninvasive and disposable format, showing great potential in single-cell analysis, targeted drug delivery, and surgery.
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Rapid, targeted and culture-free viral infectivity assay in drop-based microfluidics

TL;DR: A rapid, targeted and culture-free infectivity assay using high-throughput drop-based microfluidics that promises to be a superior method for drug screening and isolation of resistant viral strains and can be adapted to measuring the infectivity of other pathogens, such as bacteria and fungi.
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AC Electrothermal Circulatory Pumping Chip for Cell Culture.

TL;DR: A novel AC electrothermal (ACET) fluidic circulatory pumping chip to overcome the challenge of fluid-to-tissue ratio for "human-on-a-chip" cell culture systems and has great potential for cell culture and tissue engineering applications.