Abstract:
A substrate (101) comprising a fluid reservoir (102) and a connected fluid channel (103), the fluid reservoir (102) positioned away from a component region (104) of the substrate (101), the fluid channel (103) configured to extend from the fluid reservoir (102) to guide an electrically conductive fluid from the fluid reservoir (102) at a reservoir end (105) of the fluid channel (103) through the fluid channel (103) to a component end (106) of the fluid channel (103), the component end (106) extending to the component region (104) of the substrate (101) to enable the formation of an electrical connection to a connector of an electronic component appropriately positioned in the component region (104), formation of the electrical connection allowing the electronic component to be interconnected to other electronic components using one or more of the fluid reservoir (102) and fluid channel (103).
Abstract:
In some embodiments, a system includes a first portion, a second portion, and a third portion of an electrical conductor. Each portion is electrically coupled to the other two portions. The first, second, and third portions are configured such that substantially no current induced in and/or supplied to the first portion is conducted to the third portion of the electrical conductor. The third portion of the electrical conductor is also thermally coupled to the first and second portions of the electrical conductor. The third portion of the electrical conductor is configured to transfer thermal energy from the first portion of the electrical conductor to an edge portion of the laminated composite assembly.
Abstract:
Provided is a method of manufacturing a nanowire, including: forming a plurality of grid patterns on a grid base layer; forming a sacrificial layer on the grid base layer on which the grid patterns are formed; producing a nanowire grid structure by forming a nanowire base layer on the sacrificial layer; forming a nanowire by wet etching the nanowire base layer; and separating the grid patterns from the nanowire by etching the sacrificial layer. Thus, the method can be provided with the following advantages; Because a wet etching time is adjusted, a width and a height of the nanowire to be produced can be adjusted; the nanowire can be produced at room temperature with a low cost; the nanowire can be produced in large quantities; and in spite of the mass production, the nanowire having high uniformity can be produced.
Abstract:
A microelectronic assembly (200) can include a microelectronic package (100, 101A) connected with a circuit panel (154). The package (100A) has a substrate (102), a microelectronic element (101) having a front face (105) facing away from the substrate, and conductive structure (112) extending above the front face connecting the microelectronic element and substrate. First terminals (104) exposed at a surface (110) of the substrate may be in first and second sets (114, 125) on respective sides of a theoretical axis (132), each set configured to carry address information usable to determine an addressable memory location of a memory storage array. Signal assignments of the first terminals in the first set can be a mirror image of the signal assignments of the first terminals in the second set.
Abstract:
Multichannel RF Feedthroughs. In some examples, a multichannel RF feedthrough includes an internal portion and an external portion. The internal portion includes a top surface on which first and second sets of traces are formed. Each set of traces is configured as an electrical communication channel to carry electrical data signals. The external portion includes a bottom surface on which the first set of traces is formed and a top surface on which the second set of traces is formed. A set of vias connects the first set of traces between the top surface of the internal portion and the bottom surface of the external portion.