Hannah Talbot

This paper demonstrates the isothermal assembly of DNA nanostructures and 3D crystals in hydrated ionic liquids, enhancing biostability and enabling cell internalization without thermal annealing.

This study demonstrates the isothermal assembly of paranemic crossover DNA motifs in different counter ions at room and physiological temperatures and examines how design differences affect assembly of 4-stranded and 2-stranded molecules.

This study synthesizes and characterizes PNA/DNA hybrid three-way junctions and mesojunctions, showing improved thermal stability and nuclease resistance compared to DNA-only versions.

This study shows that metal ions and temperature affect DNA nanostructure self-assembly, with divalent ions enabling assembly at lower temperatures and no adverse effects on cell viability.

This study characterizes switchback DNA, a left-handed DNA structure, showing its unique stability, nuclease resistance, and potential biological role in tandem repeats.

This study investigates DNA nanostructure assembly in various cations, showing successful assembly in Ca2+, Ba2+, Na+, K+, and Li+ with improved nuclease resistance in monovalent ions.