We report the formation of a tunable single DNA molecule trap near a solid-state nanopore in an electrolyte solution under conditions where an electric force and a pressure induced viscous flow force on the molecule are nearly balanced. Trapped molecules can enter the pore multiple times before escaping the trap by passing through the pore or by diffusing away. Statistical analysis of many individually trapped molecules yields a detailed picture of the fluctuation phenomena involved, which are successfully modeled by a one-dimensional first passage approach.Physic
86 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 2009.This work focuses on studying ...
This thesis describes experimental work on a novel type of devices capable of detecting single-(bio)...
Many important processes in biology involve the translocation of a biopolymer through a nanometer-sc...
We report the formation of a tunable single DNA molecule trap near a solid-state nanopore in an elec...
We demonstrate that voltage biased solid-state nanopores can transiently localize DNA in an electrol...
AbstractWe demonstrate that voltage-biased solid-state nanopores can transiently localize DNA in an ...
Charged single molecules of DNA can be detected and characterized with a voltage-biased solid-state ...
AbstractWe investigate the voltage-driven translocation dynamics of individual DNA molecules through...
Solid-state nanopores have emerged as possible candidates for next-generation DNA sequencing devices...
Solid-state nanopore electrical signatures can be convoluted and are thus challenging to interpret. ...
A mong the variety of roles for nanopores in biology, an important one is enabling polymer transport...
AbstractSolid-state nanopores have received increasing interest over recent years because of their p...
Many important processes in biology involve the translocation of a biopolymer through a nanometer-sc...
Many important processes in biology involve the translocation of a biopolymer through a nanometer-sc...
86 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 2009.This work focuses on studying ...
86 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 2009.This work focuses on studying ...
This thesis describes experimental work on a novel type of devices capable of detecting single-(bio)...
Many important processes in biology involve the translocation of a biopolymer through a nanometer-sc...
We report the formation of a tunable single DNA molecule trap near a solid-state nanopore in an elec...
We demonstrate that voltage biased solid-state nanopores can transiently localize DNA in an electrol...
AbstractWe demonstrate that voltage-biased solid-state nanopores can transiently localize DNA in an ...
Charged single molecules of DNA can be detected and characterized with a voltage-biased solid-state ...
AbstractWe investigate the voltage-driven translocation dynamics of individual DNA molecules through...
Solid-state nanopores have emerged as possible candidates for next-generation DNA sequencing devices...
Solid-state nanopore electrical signatures can be convoluted and are thus challenging to interpret. ...
A mong the variety of roles for nanopores in biology, an important one is enabling polymer transport...
AbstractSolid-state nanopores have received increasing interest over recent years because of their p...
Many important processes in biology involve the translocation of a biopolymer through a nanometer-sc...
Many important processes in biology involve the translocation of a biopolymer through a nanometer-sc...
86 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 2009.This work focuses on studying ...
86 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 2009.This work focuses on studying ...
This thesis describes experimental work on a novel type of devices capable of detecting single-(bio)...
Many important processes in biology involve the translocation of a biopolymer through a nanometer-sc...