Abstract:
Disclosed is a method of manufacturing a pattern electrode which excels in electroconductivity, transparency and etching property and a pattern electrode, the method comprising a step of applying a metal particle containing solution onto a substrate to form a conductive layer, a step of pattern printing a metal particle removing solution on a portion of the conductive layer, which is to be removed, and a step of washing the resulting printed material, whereby the portion of the conductive layer on which the metal particle removing solution has been printed is removed to form a non-conductive portion.
Abstract:
A semiconductor package is disclosed that includes a semiconductor device; a circuit board; and a connection mechanism including a first conductive terminal provided on the semiconductor device, and a second conductive terminal provided on the circuit board side, the connection mechanism electrically connecting the semiconductor device and the circuit board via the first conductive terminal and the second conductive terminal. At least one of the first conductive terminal and the second conductive terminal of the connection mechanism includes one or more carbon nanotubes each having one end thereof fixed to the surface of the at least one of the first conductive terminal and the second conductive terminal, and extending in a direction away from the surface. The first conductive terminal and the second conductive terminal engage each other through the carbon nanotubes.
Abstract:
Disclosed herein is a method of manufacturing a heat radiation substrate, including injection-molding mixed powder of carbon nanotubes and metal in a die to fabricate a metal core having through holes; molding the entire metal core including the through holes with an insulating resin to fabricate a metal core substrate; processing the insulating resin provided in the through holes to form connection holes; and forming a circuit pattern on the metal core substrate in which the connection holes are formed.
Abstract:
An electrodynamic array of conductive nanomaterial electrodes and a method of making such an electrodynamic array. In one embodiment, a liquid solution containing nanomaterials is deposited as an array of conductive electrodes on a substrate, including rigid or flexible substrates such as fabrics, and opaque or transparent substrates. The nanomaterial electrodes may also be grown in situ. The nanomaterials may include carbon nanomaterials, other organic or inorganic nanomaterials or mixtures.
Abstract:
Reliable and durable conductive films formed of conductive nanostructures are described. The conductive films show substantially constant sheet resistance following prolonged and intense light exposure.
Abstract:
A technique for anchoring carbon nanotube columns to a substrate can include use of a filler material placed onto the surface of the substrate into area between the columns and surrounding a base portion of each of the columns.
Abstract:
In at least one embodiment, an interposer for a board interconnect system is provided. The interposer comprises a frame and at least one interconnect. The frame receives a substrate. The substrate includes a top side, a bottom side, and a conductive interface. The conductive interface extends through the top side and the bottom side for delivering an electrical signal from an electrical device positioned on the top side therethrough. The at least one interconnect includes a plurality of carbon nanotubes (CNTs) positioned within the frame for contacting the conductive interface of the substrate to deliver the electrical signal to a conductive arrangement of a circuit board.
Abstract:
Conductive silver ink is reinforced using carbon nanotubes. Carbon nanomaterials are stabilized and uniformly dispersed in a solvent and mechanically mixed with conductive silver ink. The reinforcement material bridges the gap between separated silver flakes in the conductive silver ink. The carbon nanotubes reinforced conductive silver ink exhibits superior performance over unreinforced silver ink in its mechanical, electrical and thermal properties without significantly greater weight.
Abstract:
System, devices and methods are presented that provide an imaging array fabrication process method, comprising fabricating an array of semiconductor imaging elements, interconnecting the elements with stretchable interconnections, and transfer printing the array with a pre-strained elastomeric stamp to a secondary non-planar surface.