Thomas H LaBean

DNA aerogels and DNA-wrapped CNT aerogels for neuromorphic applications

MATERIALS TODAY BIO, 16.

Modeling and characterization of stochastic resistive switching in single Ag2S nanowires

SCIENTIFIC REPORTS, 12(1).

Resistive switching of two-dimensional Ag2S nanowire networks for neuromorphic applications

JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B, 40(4).

Mechanical and Electrical Properties of DNA Hydrogel-Based Composites Containing Self-Assembled Three-Dimensional Nanocircuits

APPLIED SCIENCES-BASEL, 11(5).

Multivalent Aptamer-Functionalized Single-Strand RNA Origami as Effective, Target-Specific Anticoagulants with Corresponding Reversal Agents

Krissanaprasit, A., Key, C. M., Froehlich, K., Pontula, S., Mihalko, E., Dupont, D. M., … LaBean, T. H. (2021, April 21). ADVANCED HEALTHCARE MATERIALS.

Self-Assembling Nucleic Acid Nanostructures Functionalized with Aptamers

[Review of ]. CHEMICAL REVIEWS, 121(22), 13797–13868.

Genetically Encoded, Functional Single-Strand RNA Origami: Anticoagulant

ADVANCED MATERIALS, 31(21).

2Precise Coating of a Wide Range of DNA Templates by a Protein Polymer with a DNA Binding Domain

ACS NANO, 11(1), 144–152.

Engineered Diblock Polypeptides Improve DNA and Gold Solubility during Molecular Assembly

ACS NANO, 11(1), 831–842.

Search for effective chemical quenching to arrest molecular assembly and directly monitor DNA nanostructure formation

NANOSCALE, 9(4), 1637–1644.

pH-Driven Actuation of DNA Origami via Parallel I-Motif Sequences in Solution and on Surfaces

BIOCONJUGATE CHEMISTRY, 28(7), 1821–1825.

Activatable tiles for compact robust programmable molecular assembly and other applications

Natural Computing, 15(4), 611–634.

Competitive annealing of multiple DNA origami: formation of chimeric origami

NEW JOURNAL OF PHYSICS, 18.

Design of Potent and Controllable Anticoagulants Using DNA Aptamers and Nanostructures

MOLECULES, 21(2).

An easy-to-prepare mini-scaffold for DNA origami

NANOSCALE, 7(40), 16621–16624.

Comparative Incorporation of PNA into DNA Nanostructures

MOLECULES, 20(9), 17645–17658.

Coverage percentage and raman measurement of cross-tile and scaffold cross-tile based DNA nanostructures

COLLOIDS AND SURFACES B-BIOINTERFACES, 135, 677–681.

Directed Enzymatic Activation of 1-D DNA Tiles

ACS NANO, 9(2), 1072–1079.

Electronically addressable nanomechanical switching of i-motif DNA origami assembled on basal plane HOPG

Chemical Communications, 51(74), 14111–14114.

Building DNA DNA Nanostructures for Molecular Computation, Templated Assembly, and Biological Applications

[Review of ]. ACCOUNTS OF CHEMICAL RESEARCH, 47(6), 1778–1788.

Programmable DNA tile self-assembly using a hierarchical sub-tile strategy

NANOTECHNOLOGY, 25(7).

Structural and thermodynamic analysis of modified nucleosides in self-assembled DNA cross-tiles

JOURNAL OF BIOMOLECULAR STRUCTURE & DYNAMICS, 32(2), 319–329.

Surface-Enhanced Raman Scattering Plasmonic Enhancement Using DNA Origami-Based Complex Metallic Nanostructures

NANO LETTERS, 14(4), 2099–2104.

Toward Larger DNA Origami

NANO LETTERS, 14(10), 5740–5747.

An autonomously self-assembling dendritic DNA nanostructure for target DNA detection

BIOTECHNOLOGY JOURNAL, 8(2), 221–227.

One-Pot Assembly of a Hetero-dimeric DNA Origami from Chip-Derived Staples and Double-Stranded Scaffold

ACS NANO, 7(2), 903–910.

Overview of DNA origami for molecular self-assembly

[Review of ]. WILEY INTERDISCIPLINARY REVIEWS-NANOMEDICINE AND NANOBIOTECHNOLOGY, 5(2), 150–162.

Sensitization of Transforming Growth Factor-beta Signaling by Multiple Peptides Patterned on DNA Nanostructures

BIOMACROMOLECULES, 14(12), 4157–4160.

DNA nanotube formation based on normal mode analysis

Nanotechnology, 23(10), 105704.

Fabrication of zigzag and folded DNA nanostructures by an angle control scheme

Soft Matter, 8(1), 44–47.

Increased anticoagulant activity of thrombin-binding DNA aptamers by nanoscale organization on DNA nanostructures

Nanomedicine: Nanotechnology, Biology and Medicine, 8(5), 673–681.

Connecting the Nanodots: Programmable Nanofabrication of Fused Metal Shapes on DNA Templates

Nano Letters, 11(8), 3489–3492.

Design and Construction of Double-Decker Tile as a Route to Three-Dimensional Periodic Assembly of DNA

Journal of the American Chemical Society, 133(11), 3843–3845.

Design and synthesis of DNA four-helix bundles

Nanotechnology, 22(23), 235601.

Intrinsic DNA curvature of double-crossover tiles

Nanotechnology, 22(24), 245706.

Organization of Inorganic Nanomaterials via Programmable DNA Self-Assembly and Peptide Molecular Recognition

ACS Nano, 5(3), 2200–2205.

Self-assembling DNA templates for programmed artificial biomineralization

Soft Matter, 7(7), 3240.

In situ Synthesis of DNA Microarray on Functionalized Cyclic Olefin Copolymer Substrate

ACS Applied Materials & Interfaces, 2(2), 491–497.

Weave Tile Architecture Construction Strategy for DNA Nanotechnology

Journal of the American Chemical Society, 132(41), 14481–14486.

Another dimension for DNA art

Nature, 459(7245), 331–332.

Nanofabrication by DNA self-assembly

Materials Today, 12(5), 24–32.

A DNA Nanotransport Device Powered by Polymerase ϕ29

Nano Letters, 8(11), 3870–3878.

Activatable Tiles: Compact, Robust Programmable Assembly and Other Applications

In DNA Computing (pp. 15–25).

Plasmon coupling in binary metal core–satellite assemblies

Applied Physics B, 93(1), 69–78.

Reconfigurable Core−Satellite Nanoassemblies as Molecularly-Driven Plasmonic Switches

Nano Letters, 8(7), 1803–1808.

Single-electron transistors made by chemical patterning of silicon dioxide substrates and selective deposition of gold nanoparticles

Applied Physics Letters, 93(12), 123101.

Stepwise Self-Assembly of DNA Tile Lattices Using dsDNA Bridges

Journal of the American Chemical Society, 130(1), 40–41.

Autonomous Programmable Biomolecular Devices Using Self-assembled DNA Nanostructures

In Logic, Language, Information and Computation (pp. 297–306).

Constructing novel materials with DNA

Nano Today, 2(2), 26–35.

Engineering novel synthetic biological systems

IET Synthetic Biology, 1(1), 48–52.

DNA bulks up

Nature Materials, 5(10), 767–768.

Design and Simulation of Self-repairing DNA Lattices

In DNA Computing (pp. 195–214).

Finite-Size, Fully Addressable DNA Tile Lattices Formed by Hierarchical Assembly Procedures

Angewandte Chemie International Edition, 45(5), 735–739.

Finite-Size, Fully Addressable DNA Tile Lattices Formed by Hierarchical Assembly Procedures

Angewandte Chemie International Edition, 45(40), 6607–6607.

Optimized fabrication and electrical analysis of silver nanowires templated on DNA molecules

Applied Physics Letters, 89(3), 033901.

Single-chain antibodies against DNA aptamers for use as adapter molecules on DNA tile arrays in nanoscale materials organization

Organic & Biomolecular Chemistry, 4(18), 3420.

DNA-programmed assembly of nanostructures

Organic & Biomolecular Chemistry, 3(22), 4023.

Design, Simulation, and Experimental Demonstration of Self-assembled DNA Nanostructures and Motors

In Lecture Notes in Computer Science (pp. 173–187).

Programmable DNA Self-Assemblies for Nanoscale Organization of Ligands and Proteins

Nano Letters, 5(4), 729–733.

Three-Helix Bundle DNA Tiles Self-Assemble into 2D Lattice or 1D Templates for Silver Nanowires

Nano Letters, 5(4), 693–696.

Bionanotechnology: Lessons from Nature. By David S  Goodsell. Hoboken (New Jersey): Wiley‐Liss. $79.95. xii + 337 p; ill.; index. ISBN: 0–471–41719–X. 2004.

The Quarterly Review of Biology, 79(4), 415–415.

DNA nanotubes self-assembled from triple-crossover tiles as templates for conductive nanowires

Proceedings of the National Academy of Sciences, 101(3), 717–722.

DNA-Templated Self-Assembly of Protein and Nanoparticle Linear Arrays

Journal of the American Chemical Society, 126(2), 418–419.

Electronic nanostructures templated on self-assembled DNA scaffolds

Nanotechnology, 15(10), S525–S527.

Surface-Initiated Polymerization on Nanopatterns Fabricated by Electron-Beam Lithography

Advanced Materials, 16(23-24), 2141–2145.

DNA-based Cryptography

In Aspects of Molecular Computing (pp. 167–188).