ssDNA Capture Dynamics by Graphene Nanopores: The Role of Electrophoresis and Electro-osmotic Flow

ssDNA Capture Dynamics by Graphene Nanopores: The Role of Electrophoresis and Electro-osmotic Flow

Efficient capture of single-stranded DNA (ssDNA) is crucial for high-throughput sequencing, which influences the speed and accuracy of genetic analysis. Electrophoresis (EP) and electro-osmotic flow (EOF) have a significant impact on the translocation behavior of ssDNA through the nanopore. Experime...

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Bibliographic Details
Main Author: Yuanshuo Zhang (16529409) (author)
Other Authors: Mingming Ding (1674565) (author), Minglun Li (28228) (author), Tongfei Shi (1674556) (author)
Published: 2024
Subjects:
Biophysics
Molecular Biology
Biotechnology
Ecology
Space Science
Biological Sciences not elsewhere classified
Chemical Sciences not elsewhere classified
Physical Sciences not elsewhere classified
repulsive electrostatic environment
offering potential avenues
negative charges create
electrophoretic forces (<
atom molecular dynamics
reduced capture times
osmotic force (<
graphene layer numbers
nanopore surface charge
ssdna capture dynamics
efficient ssdna capture
osmotic flow
graphene nanopores
ssdna translocation
ssdna locating
translocation behavior
throughput sequencing
significant impact
significant advancements
research highlights
precise control
pore entrance
increased number
improved rates
genomic sequencing
genetic analysis
findings indicate
f </
energy barrier
dynamically tracking
dynamic properties
also increasing
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