摘要:
An optical material system for nanopatterning is provided that includes one or more material systems having spectrally selective reversible and irreversible transitions by saturating one of the spectrally selective reversible transitions with an optical node retaining a single molecule in a configuration and exposing the single molecule to its spectrally irreversible transitions to form a pattern.
摘要:
An optical material system for nanopatterning is provided that includes one or more material systems having spectrally selective reversible and irreversible transitions by saturating one of the spectrally selective reversible transitions with an optical node retaining a single molecule in a configuration and exposing the single molecule to its spectrally irreversible transitions to form a pattern.
摘要:
A device for separating liquids such as oil and water includes a hydrophobic and oleophilic mesh that allows oil to pass through while preventing water from passing through. The mesh can be fabricated simply from inexpensive materials by coating a mesh with a hydrophobic polymer.
摘要:
Continuous, conducting metal patterns can be formed from metal nanoparticle containing films by exposure to radiation (FIG. 1). The metal patterns can be one, two, or three dimensional and have high resolution resulting in feature sizes in the order of micron down to nanometers Compositions containing the nanoparticles coated with a ligand and further including a dye, a metal salt, and either a matrix or an optional sacrificial donor are also disclosed.
摘要:
Nanoparticles with a patterned ligand coat can bind ions selectively. The ligand patterning can arise via self-assembly when two chemically dissimilar (e.g., in size and/or hydrophilicity) ligands are used together. One of the ligands can include one or more moieties capable of interacting with an ion, such as ether oxygens, hydroxyl groups, amine nitrogens, or other groups having a lone pair of electrons. Ion binding can be both selective and reversible.
摘要:
The present invention is directed to methods and materials for producing complements and reproductions of a master, including such preparation in a high throughput setting, using, inter-alia, liquid supramolecular nanostamping (LiSuNS).
摘要:
The present invention provides a method to eliminate undesired parallel conductive paths of nanogap devices for aqueous sensing. The method involves the electrical insulation of an electrode pair, except for the nanogap region wherein electrical response is measured. The magnitude of undesired ionic current in a measurement is reduced by two orders of magnitude. The process to accomplish the present invention is self-aligned and avoids fabrication complexity. The invention has a great potential in nanogap device applications.
摘要:
A method for the realisation of DNA microarrays with linear high density probes, comprising a phase of replication of template DNA strands of a template microarray and a subsequent phase of stamping of the molecules obtained by replication on a substrate via the SuNS technique; the template strands (21, 38, 44) of said template microarray are either composed of or derived from a rolling circle (21; 38; 43).
摘要:
Disclosed are optical devices including one or more carbon nanotubes that can function as plasmon waveguides. The presently disclosed devices advantageously utilize the existence of surface plasmons on carbon nanotubes through the generation and transport of surface plasmon polaritons across the nanotubes. Also disclosed are methods for tuning the devices through particular formation parameters for the nanotubes and/or selection of particular substrate materials. Systems of the present invention can provide optical data concerning a sample, for instance via construction of an NSOM image, as well as topological date concerning a sample via construction of an AFM image. In one embodiment, the disclosed systems can provide simultaneous acquisition of optical images and topological images.
摘要:
A method of stamping of molecular patterns and/or devices based on the reversible self-assembly of molecules, particularly organic molecules is disclosed. This method is suitable for the stamping of almost any nanofabricated device and can be used to transferring a large amount of pattern information from one substrate to another at the same time.