Semiconductors are the building blocks of modern electronics, powering everything from smartphones to satellites. This in-depth guide provides a comprehensive understanding of semiconductors' engineering principles and applications, delving into their fundamental concepts, materials, devices, manufacturing processes, and their impact on today's technology landscape.
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Semiconductors
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Neural Network Architectures at the Edge: Modelling for Energy Efficiency and Machine Learning Performance
A short guide to understanding the edge neural network design.
Wearable electronic textiles are a demanding environment for reliable interconnects – the ability to function with movement and survive multiple cleanings and reuse. Good adhesion is particularly challenging in these wearable and conformable electronics applications. While solders provide the most conductive electrical connection, they are rigid and require not only the addition of an underfill adhesive but usually a post bond encapsulation. This Anisotropic Conductive Epoxy, provides reliable interconnections between electronic components and circuitry on textiles with excellent structural bonding, without encapsulation, even under repeated stretching and washings. This technology has been shown as a scalable assembly process for e-Textile manufacturing in an SMT line.
Wafer thinning is a part of the semiconductor manufacturing process. It is essentially grinding off the backside of the wafers to control their thickness and is useful for the production of ultra-thin wafers. These flattened wafers are used to effect stacked and high-density packaging in compact or microelectronic devices. This article discusses the meaning of wafer thinning, along with its various techniques and significance.
Will copper nanoparticle inks finally come of age to disrupt the dominance of silver in the conductive paste business?
Cost of production has been a major barrier despite the fact that Cu raw material prices are far lower than Ag. This is because this large raw material cost difference does not often get translated into equally large nanoparticle dispersion or ink costs. Can this be overcome?