摘要:
In accordance with the invention, the structure (10A, 10B) of a patterned nanoscale or near nanoscale device (“nanostructure”) is repaired and/or enhanced by liquifying the patterned device in the presence of appropriate guiding conditions for a period of time and then permitting the device to solidify. Advantageous guiding conditions include adjacent spaced apart or contacting surfaces (12, 13A, 13B) to control surface structure and preserve verticality and unconstrained boundaries to permit smoothing of edge roughness. In an advantageous embodiment, a flat planar surface (12) is disposed overlying a patterned nanostructure surface (13A, 13B) and the surface (13A, 13B) is liquified by a high intensity light source to repair or enhance the nanoscale features.
摘要:
In accordance with the invention, the structure (1OA, 10B) of a patterned nanoscale or near nanoscale device (“nanostructure”) is repaired and/or enhanced by liquifying the patterned device in the presence of appropriate guiding conditions for a period of time and then permitting the device to solidify. Advantageous guiding conditions include adjacent spaced apart or contacting surfaces (12, 13A, 13B) to control surface structure and preserve verticality and unconstrained boundaries to permit smoothing of edge roughness. In an advantageous embodiment, a flat planar surface (12) is disposed overlying a patterned nanostructure surface (13A, 13B) and the surface (13A, 13B) is liquified by a high intensity light source to repair or enhance the nanoscale features.
摘要:
In accordance with the invention, the structure of a patterned nanoscale or near nanoscale device (“nanostructure”) is repaired and/or enhanced by liquifying the patterned device in the presence of appropriate guiding conditions for a period of time and then permitting the device to solidify. Advantageous guiding conditions include adjacent spaced apart or contacting surfaces to control surface structure and preserve vertically. Unconstrained boundaries to permit smoothing of edge roughness. In an advantageous embodiment, a flat planar surface is disposed overlying a patterned nanostructure surface and the surface is liquified by a high intensity light source to repair or enhance the nanoscale features.
摘要:
A memristor having an active region includes a first electrode. The first electrode comprises a nanostructure formed of at least one metallic single walled nanotube. The memristor also includes a second electrode formed of at least one metallic single walled nanotube. The second electrode is positioned in a crossed relationship with respect to the first electrode. The memristor further includes a switching material positioned between the first electrode and the second electrode, in which the active region is configured to form in the switching material at a cross point of the first electrode and the second electrode.
摘要:
A system for performing Raman spectroscopy comprises a waveguide layer configured with at least one array of features, the at least one array of features being configured to provide guided-mode resonance for at least one wavelength of electromagnetic radiation; and at least one fluid channel disposed in the waveguide layer. An analyte sensor comprises an electromagnetic radiation source configured to emit a range of wavelengths of electromagnetic radiation, the system for performing Raman spectroscopy, and at least one photodetector configured to detect Raman scattered light.
摘要:
A structure for surface enhanced Raman spectroscopy is disclosed herein. A substrate has a stack configured vertically thereon. The stack encompasses at least two metal layers and at least one dielectric layer therebetween. Each layer of the stack has a controlled thickness, and each of the at least two metal layers is configured to exhibit a predetermined characteristic of plasmonic resonance.
摘要:
A nanoscale three-terminal switching device has a bottom electrode, a top electrode, and a side electrode, each of which may be a nanowire. The top electrode extends at an angle with respect to the bottom electrode and has an end section going over and overlapping the bottom electrode. An active region is disposed between the top electrode and bottom electrode and contains a switching material. The side electrode is disposed opposite from the top electrode and in electrical contact with the active region. A self-aligned fabrication process may be used to automatically align the formation of the top and side electrodes with respect to the bottom electrode.
摘要:
An analyzer is disclosed herein. The analyzer encompasses a substrate having a surface with a plurality of distinct V-grooves formed therein. An input flow channel is configured to intersect and fluidly communicate with each of the plurality of distinct V-grooves at respective input points, and an output flow channel is configured to intersect and fluidly communicate with each of the plurality of distinct V-grooves at respective output points.
摘要:
A memristor includes a first electrode having a first surface, at least one electrically conductive nanostructure provided on the first surface, in which the at least one electrically conductive nanostructure is relatively smaller than a width of the first electrode, a switching material positioned upon said first surface, in which the switching material covers the at least one electrically conductive nanostructure, and a second electrode positioned upon the switching material substantially in line with the at least one electrically conductive nanostructure, in which an active region in the switching material is formed substantially between the at least one electrically conductive nanostructure and the first electrode.
摘要:
An optical device for surface enhanced Raman spectroscopy includes a substrate, and at least one antenna established thereon. The at least one antenna including at least two segments, where each segment is formed of a metal having a predetermined volume and a predetermined contact angle with respect to the substrate. A gap is located between the two segments. The gap has a controllable size such that the at least one antenna resonates at a predetermined frequency that corresponds with the gap.