Various devices, including circuits, catalytic amplifiers, autonomous molecular motors, and reconfigurable nanostructures, have recently been rationally designed to use toehold-mediated DNA strand-displacement reactions.
These 198Au-incorporated nanostructures have a great potential for in vivo molecular imaging compared to the disadvantages of radioactive nanomaterials made with chelating agents.
The growth mechanisms of the MgO nanostructures have been attributed to the very different molecular structures of the complexing agents which affected the crystal growth rate of MgO giving different crystallite sizes of the final products.
Certain nucleic acid functionalized nanostructures have emerged as effective new tools for molecular diagnostics and intracellular gene regulation.
Benefited from the recent development of metal-assisted coupling methods, several porous nanostructures have been successfully fabricated by self-assembling the molecular building blocks [21,22,69].
Multifunctional PLGA nanostructures have given an avenue to future nanomedicine to consider simultaneous drug delivery, molecular imaging, and real-time monitoring of therapeutic response.
So far, ZnO nanostructures have been synthesized by various physical and chemical methods, such as vapor liquid-solid, molecular beam epitaxy, and solution processes.
Due to the distinctive properties and potential applications of nanostructures, various kinds of InN nanostructures have been grown such as nanowires (NWs), nanotubes, and nanorods (NRs) by plasma-assisted molecular beam epitaxy (PAMBE) and metalorganic vapor phase epitaxy [11, 12].
As a matter of fact, in contrast to inorganic nanomaterials [1 6], organic nanostructures have peculiar electronic and optical properties and can render impressive varieties and flexibilities in molecular design and tunability of physicochemical properties [7 14].
These nanostructures have two components.
