Abstract:
A stacked structure includes a first die coupled to a first substrate and having a first conductive structure formed through the first die. A second die is mounted over the first die. The second die is coupled to the first substrate by the first conductive structure. At least one first support structure formed from a second substrate is provided over the first substrate, adjacent to at least one of the first die and the second die. A top surface of the first support structure is substantially coplanar with a top surface of at least one of the first and second dies adjacent to the first support structure. The stacked structure further includes a heat spreader mounted over the second die.
Abstract:
An in-line roller skate having an improved sole plate structure includes a boot with an outer sole provided with a plurality of downwardly extending projections. Each projection is provided with a vertically oriented, elongated slot for receiving a bushing of an elastic plastic material for absorbing shock, and at least two pairs of mounting plates for clamping rollers between each pair pivotally-mounted to the corresponding projections. Each pair of mounting pairs secures two rollers at either end thereof. The mounting plates are arranged to be pairs of two and each pair of mounting plates is independently mounted to the projections of the boot. The in-line roller skate has good floor or ground adaptability and shock-absorbing effects.
Abstract:
A stacked structure includes a first die coupled to a first substrate and having a first conductive structure formed through the first die. A second die is mounted over the first die. The second die is coupled to the first substrate by the first conductive structure. At least one first support structure formed from a second substrate is provided over the first substrate, adjacent to at least one of the first die and the second die. A top surface of the first support structure is substantially coplanar with a top surface of at least one of the first and second dies adjacent to the first support structure. The stacked structure further includes a heat spreader mounted over the second die.
Abstract:
SiP design systems and methods. The system comprises a system partitioning module, a subsystem integration module, a physical design module, and an analysis module. The system partitioning module partitions a target system into subsystem partitions according to partition criteria. The subsystem integration module generates an architecture design and/or a cost estimation for the target system according to the subsystem partitions, at least one SiP platform, and IC geometry data. The physical design module generates a SiP physical design with physical routing for the target system according to the architecture design, the subsystem partitions, the SiP platform, and the IC geometry data. The analysis module performs a performance check within the subsystem partitions based on the SiP physical design and/or simulations of the target system.
Abstract:
An interposer for converting pitches includes an interconnect structure over the semiconductor substrate, an active circuit formed on the semiconductor substrate, wherein the active circuit is electrically connected to the interconnect structure, a first plurality of pads with a first pitch over the interconnect structure, a second plurality of pads underlying the semiconductor substrate, and a plurality of through-substrate vias in the semiconductor substrate, wherein the first and the second plurality of pads are interconnected through the plurality of through-substrate vias.
Abstract:
A multi-I/O-port-41-channel connector includes first and second connectors, in which associated connecting pins and plugholes as well as a fastening device is available to thereby prevent any possible faulty connection and provide a convenient operation for enhanced fastening or detaching of the connectors.
Abstract:
SiP design systems and methods. The system comprises a system partitioning module, a subsystem integration module, a physical design module, and an analysis module. The system partitioning module partitions a target system into subsystem partitions according to partition criteria. The subsystem integration module generates an architecture design and/or a cost estimation for the target system according to the subsystem partitions, at least one SiP platform, and IC geometry data. The physical design module generates a SiP physical design with physical routing for the target system according to the architecture design, the subsystem partitions, the SiP platform, and the IC geometry data. The analysis module performs a performance check within the subsystem partitions based on the SiP physical design and/or simulations of the target system.