摘要:
A conductive mesh for a touch panel consists of a plurality of carbon nanotube composite wires. The carbon nanotube composite wire comprises a carbon nanotube wire and a metal layer. The carbon nanotube wire comprises a plurality of carbon nanotubes spirally arranged along an axial direction of the carbon nanotube wire. A touch panel using the conductive mesh is also provided.
摘要:
In a nano filter structure for breathing and a manufacturing method of the nano filter structure, a semiconductor process technology is used for manufacturing a nano filter structure comprising a top gate, a bottom gate, a plurality of sidewall gates and a plurality of supports. The sidewall gates include a plurality of filterable gratings, and the filterable gratings are controlled precisely to a nanoscale by a semiconductor process technology. Therefore, the nano filterable gratings can be manufactured easily and quickly, and the multilayer design of the filterable gratings enhances the aperture ratio of a filter material, such that users can inhale or exhale easily through the filter material.
摘要:
Various embodiments of the present invention include three-dimensional, at least partially nanoscale, electronic circuits and devices in which signals can be routed in three independent directions, and in which electronic components can be fabricated at junctions interconnected by internal signal lines. The three-dimensional, at least partially nanoscale, electronic circuits and devices include layers, the nanowire or microscale-or-submicroscale/nanowire junctions of each of which may be economically and efficiently fabricated as one type of electronic component. Various embodiments of the present invention include nanoscale memories, nanoscale programmable arrays, nanoscale multiplexers and demultiplexers, and an almost limitless number of specialized nanoscale circuits and nanoscale electronic components.
摘要:
Methods for obtaining codes to be implemented in coding nanoscale wires are described. The methods show how to code a reduced number of nanoscale wires through the use of rotation group codes. The methods further show how to generate different code permutations through random misalignment and how to promote uniform code probability selection.
摘要:
This invention relates to rigid porous carbon structures and to methods of making same. The rigid porous structures have a high surface area which are substantially free of micropores. Methods for improving the rigidity of the carbon structures include causing the nanofibers to form bonds or become glued with other nanofibers at the fiber intersections. The bonding can be induced by chemical modification of the surface of the nanofibers to promote bonding, by adding "gluing" agents and/or by pyrolyzing the nanofibers to cause fusion or bonding at the interconnect points.
摘要:
A conductive mesh for a touch panel consists of a plurality of carbon nanotube composite wires. The carbon nanotube composite wire comprises a carbon nanotube wire and a metal layer. The carbon nanotube wire comprises a plurality of carbon nanotubes spirally arranged along an axial direction of the carbon nanotube wire. A touch panel using the conductive mesh is also provided.
摘要:
A graphene nanomesh includes a graphene sheet having a plurality of pores formed therethrough. Each pore has a first diameter defined by an inner edge of the graphene sheet. A plurality of passivation elements are bonded to the inner edge of each pore. The plurality of passivation elements defines a second diameter that is less than the first diameter to decrease an overall diameter of at least one pore among the plurality of pores.
摘要:
Nanowire articles and methods of making the same are disclosed. A conductive article includes a plurality of inter-contacting nanowire segments that define a plurality of conductive pathways along the article. The nanowire segments may be semiconducting nanowires, metallic nanowires, nanotubes, single walled carbon nanotubes, multi-walled carbon nanotubes, or nanowires entangled with nanotubes. The various segments may have different lengths and may include segments having a length shorter than the length of the article. A strapping material may be positioned to contact a portion of the plurality of nanowire segments. The strapping material may be patterned to create the shape of a frame with an opening that exposes an area of the nanowire fabric. Such a strapping layer may also be used for making electrical contact to the nanowire fabric especially for electrical stitching to lower the overall resistance of the fabric.
摘要:
The difficulty of miniaturization of large-scale integrated circuits in electric devices based on the conventional techniques involving three-dimensional device structures or the introduction of novel materials is solved. Wires 2 and 3 are disposed to intersect one another in midair in a matrix. The ends of the wires 2 and 3 in midair are designed to be in direct contact with the insides of a package which contains a semiconductor device so that electrical connection and/or physical support can be acquired. Cross point 1 where wires 2 and 3 are in contact with each other is a region which has current switching function similar to the function of a channel of a common MOSFET. Cross point 1 is a region where base wire 2 functioning as a substrate and gate electrode wire 3 functioning as a control electrode (gate electrode) intersect in contact with one another, or a region where base wire 2 and a lead wire 4 overlap. The diameter and length of the wires as well as the distance therebetween can be designed as desired based on desired device specifications. The semiconductor device is insulated by gas (which is sealed with resin e.g. as the case may be) or vacuum except for an isolation region formed in base wire 2.
摘要:
This invention relates to rigid porous carbon structures and to methods of making same. The rigid porous structures have a high surface area which are substantially free of micropores. Methods for improving the rigidity of the carbon structures include causing the nanofibers to form bonds or become glued with other nanofibers at the fiber intersections. The bonding can be induced by chemical modification of the surface of the nanofibers to promote bonding, by adding “gluing” agents and/or by pyrolyzing the nanofibers to cause fusion or bonding at the interconnect points.