Publications
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"Water Mediates Recognition of DNA Sequence via Ionic Current Blockade in a Biological Nanopore." ACS Nano 10:4644-4651 (2016).
supporting_mspa.pdf (3.61 MB)
"
DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"
De Novo Reconstruction of DNA Origami Structures through Atomistic Molecular Dynamics Simulation." Nucleic Acids Research 44:3013-3019 (2016).
"DNA sequence-dependent ionic currents in ultra-small solid-state nanopores." Nanoscale 18:9600-9613 (2016).
supp_triplet.pdf (98.62 KB)
"