Integrating dynamic DNA nanotechnology with protein-controlled actuation will expand our ability to process molecular information. We have developed a strategy to actuate strand displacement reactions using DNA-binding proteins by engineering synthetic DNA translators that convert specific protein-binding events into trigger inputs through a programmed conformational change. We have constructed synthetic DNA networks responsive to two different DNA-binding proteins, TATA-binding protein and Myc-Max, and demonstrated multi-input activation of strand displacement reactions. We achieved protein-controlled regulation of a synthetic RNA and of an enzyme through artificial DNA-based communication, showing the potential of our molecular system in ...
A central goal of biomolecular engineering is the construction of tools to manipulate nanoscale proc...
Organisms have different circuitries that allow converting signal molecule levels to changes in gene...
Nature uses dynamic molecular platforms for the recruitment of weakly associating proteins into high...
Integrating dynamic DNA nanotechnology with protein-controlled actuation will expand our ability to ...
Integrating dynamic DNA nanotechnology with protein‐controlled actuation will expand our ability to ...
We report here the rational design and optimization of an antibody-responsive, DNA-based device that...
Dynamic DNA nanotechnology, a subfield of DNA nanotechnology, is concerned with the study and applic...
DNA has emerged as a highly versatile construction material for nanometer-sized structures and sophi...
Inspired by the remarkable ability of natural protein switches to sense and respond to a wide range ...
Developing the next generation of medical, agricultural and sustainability biotechnology is limited ...
Deoxyribonucleic acid or DNA is an essential component in cells and organisms for genetic informatio...
We report here the rational design and optimization of an antibody responsive, DNA-based device tha...
Chen, WilfredNature has evolved biological systems to exist as highly intricate and dynamic networks...
A central goal of biomolecular engineering is the construction of tools to manipulate nanoscale proc...
Organisms have different circuitries that allow converting signal molecule levels to changes in gene...
Nature uses dynamic molecular platforms for the recruitment of weakly associating proteins into high...
Integrating dynamic DNA nanotechnology with protein-controlled actuation will expand our ability to ...
Integrating dynamic DNA nanotechnology with protein‐controlled actuation will expand our ability to ...
We report here the rational design and optimization of an antibody-responsive, DNA-based device that...
Dynamic DNA nanotechnology, a subfield of DNA nanotechnology, is concerned with the study and applic...
DNA has emerged as a highly versatile construction material for nanometer-sized structures and sophi...
Inspired by the remarkable ability of natural protein switches to sense and respond to a wide range ...
Developing the next generation of medical, agricultural and sustainability biotechnology is limited ...
Deoxyribonucleic acid or DNA is an essential component in cells and organisms for genetic informatio...
We report here the rational design and optimization of an antibody responsive, DNA-based device tha...
Chen, WilfredNature has evolved biological systems to exist as highly intricate and dynamic networks...
A central goal of biomolecular engineering is the construction of tools to manipulate nanoscale proc...
Organisms have different circuitries that allow converting signal molecule levels to changes in gene...
Nature uses dynamic molecular platforms for the recruitment of weakly associating proteins into high...