Abstract:
An exemplary implementation of the present disclosure includes a programmable interposer having top and bottom interface electrodes and conductive particles interspersed within the programmable interposer. The conductive particles are capable of forming an aligned configuration between the top and bottom interface electrodes in response to application of an energy field to the programmable interposer so as to electrically connect the top and bottom interface electrodes. The conductive particles can have a conductive outer surface. Also, the conductive particles can be spherical. The conductive particles can be within a bulk material in an interface layer in the programmable interposer, and the bulk material can be cured to secure programmed paths between the top and bottom interface electrodes.
Abstract:
An upper board having an opening and forming a circuit on a surface layer, a connection sheet between boards having an opening and forming conductive holes filled with conductive paste in through-holes, and a lower board forming a circuit on a surface layer are stacked up, heated and pressed. In particular, the connection sheet between boards is made of a material different from the upper board and the lower board. A multi-layer circuit board having a cavity structure, and a full-layer IVH structure with high interlayer connection reliability can be manufactured.
Abstract:
A substrate is provided for a probe card assembly. The substrate includes an interconnection layer including a first surface having a first electrode set and a second surface having a second electrode set electrically connected to the first electrode set. The substrate further includes a base layer including a first surface having a third electrode set electrically connected to the second electrode set and a second surface having a plurality of contact terminals electrically connected to the third electrode set. And the substrate further includes a resin layer including a plurality of sublayers made of different materials. The resin layer is attached to the first surface of the base layer and the second surface of the interconnection layer.
Abstract:
In a method for manufacturing a multilayer ceramic electronic device, a multilayer ceramic element assembly is prepared that includes laminated unsintered ceramic base material layers, a first conductor pattern, a seat portion disposed in a surface of the multilayer ceramic element assembly and arranged to mount a surface mount electronic device thereon, a second conductor pattern connected to the surface mount electronic device, and a resin introduction portion located outside a vertically projected region of the surface mount electronic device and arranged to introduce a resin to the seat portion. The multilayer ceramic element assembly is fired and the surface mount electronic device is mounted on the seat portion of the fired multilayer ceramic element assembly with the second conductor pattern therebetween. The resin is filled from the resin introduction portion into the seat portion and between the seat portion and the surface mount electronic device, and the resin is cured.
Abstract:
An electrical interposer for connecting two electronic devices includes a plurality of first cores with undulating structure extending in a first direction and a plurality of second cores with undulating structure extending in a second direction angular with the first direction. Each first core has first peaks and first valleys alternately arranged in the first direction and each first peak is electrically connected with a corresponding neighboring first valley but insulated from others. Each second core has second peaks and second valleys alternately arranged in the second direction and each second peak is electrically connected with a corresponding neighboring second valley but insulated from others. The first cores and the second cores interlace with each other to reach a woven structure with the first peaks and the second peaks jointly constituting an upper interface, and the first valleys and the second valleys jointly constituting a lower interface.
Abstract:
The invention includes one or more LED elements, a silicon substrate on which the LED elements are mounted via micro bumps and internally formed wiring is connected to the micro bumps, a heat insulation organic substrate which is stuck to the opposite side of the LED elements-mounting side of the silicon substrate and has through-holes in which the wiring goes through, a chip-mounting substrate which is stuck to the opposite side of the silicon substrate side of the heat insulation organic substrate and internally formed wiring is connected to wiring in the through-holes of the heat insulation organic substrate, and an LED control circuit chip which is connected to the wiring of the chip-mounting substrate via micro bumps, and mounted via the micro bumps on the opposite side of the heat insulation organic substrate side of the chip-mounting substrate.
Abstract:
An interposer substrate includes an array of interconnects in the interposer substrate, the array of connectors arranged in accordance with an array of interconnects for a processor on a circuit substrate, at least one conductive trace in the interposer substrate in connection with at least one connector in the array of interconnects, the conductive trace arranged parallel to the interposer substrate such that no electrical connection exists between the connector in the interposer substrate and a corresponding one of the interconnects for the processor on the circuit substrate, and at least one peripheral circuit residing on the interposer substrate in electrical connection with the conductive trace.
Abstract:
Provided is a substrate wherein wiring layers laminated onto the top and bottom surfaces of a core layer are connected to each other by a simple means. Also provided is a method for manufacturing said substrate. In the provided substrate (10A), a connection substrate (13) is placed in a removed region (12) which goes all the way through a part of a thick core layer (11). Said connection substrate (13) electrically connects a first wiring layer (16A) laminated onto the top surface of the core layer (11) to a second wiring layer (16B) laminated onto the bottom surface of the core layer (11). This eliminates the requirement of providing a through-hole through the core layer (11) for each connection, resulting in a small form-factor substrate (10A) with a high wiring density.
Abstract:
A pair of discretionary points on a principal surface of a block are coupled to each other with a metal wire having a length larger than a distance between the pair of discretionary points, liquid resin is applied to the principal surface so as to cover the metal wire and then cured, so that a resin-cured material is formed, and the upper-surface portion of the resin-cured material is removed together with an intermediate portion of the metal wire, and then the block is removed from the resin-cured material.
Abstract:
The present disclosure relates to microelectronic substrates, such as interposers, motherboards, test platforms, and the like, that are fabricated to have overlapping connection zones, such that different microelectronic devices, such as microprocessors, chipsets, graphics processing devices, wireless devices, memory devices, application specific integrated circuits, and the like, may be alternately attached to the microelectronic substrates to form functional microelectronic packages.