DNA nanotechnology is a unique field, where physics, chemistry, biology, mathematics,
engineering, and materials science can elegantly converge. Since the original proposal of …

In DNA nanotechnology, DNA molecules are designed, engineered, and assembled into
arbitrary-shaped architectures with predesigned functions. Static DNA assemblies often …

The use of functional DNA nanostructures as carriers to ship proteins through solid-state
nanopores has recently seen substantial growth in single-protein-molecule detection …

Recent advances in structural DNA nanotechnology have been facilitated by design tools
that continue to push the limits of structural complexity while simplifying an often-tedious …

To date, studies on the thermodynamic and kinetic processes that underlie biological
function and nanomachine actuation in biological-and biology-inspired molecular constructs …

Mechanical characterization of dynamic DNA nanodevices is essential to facilitate their use
in applications like molecular diagnostics, force sensing, and nanorobotics that rely on …

Biomolecular nanotechnology has helped emulate basic robotic capabilities such as defined
motion, sensing, and actuation in synthetic nanoscale systems. DNA origami is an attractive …

The ability to self‐assemble DNA nanodevices with programmed structural dynamics that
can sense and respond to the local environment can enable transformative applications in …

Biomolecular systems are dependent on a complex interplay of forces. Modern force
spectroscopy techniques provide means of interrogating these forces, but they are not …

Biomolecular nanomechanical devices are of great interest as tools for the processing and
manipulation of molecules, thereby mimicking the function of nature's enzymes. DNA …