Physical approaches to DNA sequencing and detection
arXiv:0708.2724 · doi:10.1103/RevModPhys.80.141
Abstract
With the continued improvement of sequencing technologies, the prospect of genome-based medicine is now at the forefront of scientific research. To realize this potential, however, we need a revolutionary sequencing method for the cost-effective and rapid interrogation of individual genomes. This capability is likely to be provided by a physical approach to probing DNA at the single nucleotide level. This is in sharp contrast to current techniques and instruments which probe, through chemical elongation, electrophoresis, and optical detection, length differences and terminating bases of strands of DNA. In this Colloquium we review several physical approaches to DNA detection that have the potential to deliver fast and low-cost sequencing. Center-fold to these approaches is the concept of nanochannels or nanopores which allow for the spatial confinement of DNA molecules. In addition to their possible impact in medicine and biology, the methods offer ideal test beds to study open scientific issues and challenges in the relatively unexplored area at the interface between solids, liquids, and biomolecules at the nanometer length scale. We emphasize the physics behind these methods and ideas, critically describe their advantages and drawbacks, and discuss future research opportunities in this field.
26 pages, 22 figures
References in corpus (17)
- Fast DNA translocation through a solid-state nanopore
- Polymer Translocation througha Pore in a Membrane
- Driven Polymer Translocation Through a Narrow Pore
- Fast DNA Sequencing via Transverse Electronic Transport
- Electronic signature of DNA nucleotides via transverse transport
- Unzipping Kinetics of Double-Stranded DNA in a Nanopore
- Anomalous Dynamics of Translocation
- Polymer Translocation Through a Long Nanopore
- Influence of the environment and probes on rapid DNA sequencing via transverse electronic transport
- Polymer translocation through a nanopore: a two-dimensional Monte Carlo simulation
- Effective charge and free energy of DNA inside an ion channel
- Self-energy limited ion transport in sub-nanometer channels
- Conductance of ion channels and nanopores with charged walls: a toy model
- Transport in one dimensional Coulomb gases: From ion channels to nanopores
- Comment on "Characterization of the tunneling conductance across DNA bases"
- Ion exchange phase transitions in "doped" water--filled channels
- Transverse tunneling current through guanine traps in DNA
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- Colloquium: Ionic phenomena in nanoscale pores through 2D materials
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- Breakdown of the Kratky-Porod Wormlike Chain Model for Semiflexible Polymers in Two Dimensions
- Fractional Brownian motion approach to polymer translocation: the governing equation of motion
- Nucleobase-functionalized graphene nanoribbons for accurate high-speed DNA sequencing
- Recent progress in atomistic simulation of electrical current DNA sequencing
- Through the Eye of the Needle: Recent Advances in Understanding Biopolymer Translocation
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- Dehydration and ionic conductance quantization in nanopores
- Landauer's formula with finite-time relaxation: Kramers' crossover in electronic transport
- A MoS2-based capacitive displacement sensor for DNA sequencing
- Master Equations for Electron Transport: The Limits of the Markovian Limit
- Maxwell-Hall access resistance in graphene nanopores
- First-principles study of high conductance DNA sequencing with carbon nanotube electrodes
- Stochastic sensing of polynucleotides using patterned nanopores
- Driven translocation of a polymer: fluctuations at work
- How to Define Variation of Physical Properties Normal to an Undulating One-Dimensional Object
- Correlation Dynamics and Enhanced Signals for Serial DNA Sequencing
- First-principles vs. semi-empirical modeling of global and local electronic transport properties of graphene nanopore-based sensors for DNA sequencing
- Pore-polymer interaction reveals non-universality in forced polymer translocation
- Relaxation-limited electronic currents in extended reservoir simulations
- Sequencing of semiflexible polymers of varying bending rigidity using patterned pores
- Correlation-induced DNA adsorption on like-charged membranes
- Detection of basepair mismatches in DNA using graphene based nanopore device
- Translocation of links through a pore: effects of link complexity and size
- Golden aspect ratio for ion transport simulation in nanopores
- Distinct mechanisms of DNA sensing based on N-doped carbon nanotubes with enhanced conductance and chemical selectivity
- Stochastic lattice models for the dynamics of linear polymers
- Translocation of a polymer chain driven by a dichotomous noise
- Electric-field-driven polymer entry into asymmetric nanoscale channels
- Aviram-Ratner rectifying mechanism for DNA base pair sequencing through graphene nanogaps
- Single-Base DNA Discrimination via Transverse Ionic Transport
- Analytic expressions for the steady-state current with finite extended reservoirs
- Nitrogen doping of carbon nanoelectrodes for enhanced control of DNA translocation dynamics
- Embedding a carbon nanotube across the diameter of a solid state nanopore
- Finite representations of continuum environments
- Graphene nanopore devices for DNA sequencing: A tight-binding model study
- Ion and water transport in charge-modified graphene nanopores
- Free Energy Barrier for Electric Field Driven Polymer Entry into Nanoscale Channels
- Active translocation of a semiflexible polymer assisted by an ATP-based molecular motor
- Michaelis-Menten dynamics of a polymer chain out of a dichotomous ATP-based motor
- Quantized biopolymer translocation through nanopores: departure from simple scaling
- Modeling the mechano-chemistry of the ϕ29 DNA translocation motor
- Diffusion Limitations and Translocation Barriers in Atomically Thin Biomimetic Pores
- Opposite translocation of long and short oligomers through a nanopore
- Force spectroscopy analysis in polymer translocation
- Numerical simulation of conformational variability in biopolymer translocation through wide nanopores
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- Reluctance of a neutral nanoparticle to enter a charged pore
- Generalized Voigt broadening due to thermal fluctuations of electromechanical nanosensors and molecular electronic junctions
- Electron Transfer Methods in Open Systems
- Optical transparency and electrical conductivity of single-wall carbon nanotubes and of intermediate filaments of porcine Müller cells
- Improving sequencing by tunneling with multiplexing and cross-correlations
- Optimal in situ electromechanical sensing of molecular species
- On the confinement of semiflexible chains under torsion
- Real-Time Detection of Deoxyribonucleic Acid Bases via their Negative Differential Conductance Signature
- Nanoscale capacitance: a classical charge-dipole approximation
- Dual current anomalies and quantum transport within extended reservoir simulations
- Electrokinetic Lattice Boltzmann solver coupled to Molecular Dynamics: application to polymer translocation
- Knotting of linear DNA in nano-slits and nano-channels: a numerical study