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    CUFIX: Improved Lennard-Jones parameters for CHARMM and AMBER force fields
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    Self-assembled DNA channels that insert into lipid bilayer membrane
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    MD simulations link DNA flexibility to base modifications
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    Plasmonic Nanopores for Trapping, Controlling Displacement, and Sequencing of DNA
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    DNA origami: Deformable material with programmable electrical properties
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    DNA self-assembles into long end-to-end aggregates
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    MD provides structural model and mechanical properties of a complete microtubule
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    Highly permeable artificial water channels that self-assemble into two-dimensional arrays
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    A coarse-grained model captures the atomic structure of single-stranded DNA
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    Molecular gymnastics of DNA strands on charged graphene

Nanopore Sequencing

Nanopores have emerged as versatile tools for sensing, manipulating, and characterizing single biomolecules. Biology, agriculture, and medicine all benefit tremendously from quick and affordable DNA and protein sequencing, a process made possible by nanopore technology. In a typical nanopore measurement, an external electric field is used to drive a charged biomolecule from one side of a thin membrane to the other through a nanopore. Modulations in the ionic current, produced by the passage of biomolecules, report on the size, shape, and charge of the biomolecules.