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Approximately 7% of the world's gold can be found inside discarded electronic devices, in form of PCB Gold Fingers. While a tonne of Gold Ore produces just 5 grams of pure gold on average, a tonne of electronic scrap can house 300 grams of gold inside it. Here we gloss over the significance of gold fingers in the present day electronics industry and all kinds of gold fingers specifications you need to know.
The PCB manufacture process is a complex procedure that requires copious crucial steps, beginning from the design stage to packaging and delivery. Computer-guided tools and automated machines are employed in the PCB fabrication process to ensure accuracy and efficiency, with many quality checks to guarantee high-performing standard PCBs. This article journeys through the requisite steps in the PCB manufacturing process, detailing the procedures involved in each.
A unique new approach of printing functional materials with unparallel precision and repeatability. Technology called Ultra-Precise Deposition (UPD) is a nanodispensing method capable to print high density and high viscous materials with the resolution down to 1 µm in feature size and with high ratio of width to height after single pass. For this method material extrusion is controlled by a pressure, which means it is not supported with high electric field. Thanks to this there are no limitation if the substrate is conductive or dielectric.
Circuit card assemblies (CCA) give birth to a complete printed circuit board (PCB) after assembling every component. A printed circuit board has no electrical components and needs to go through a manufacturing process called circuit card assemblies which are the complete board assembly. This article covers all the essential information you need to know about circuit card assembly, including its types and steps, as well as the fundamental electronic components required for the circuit card assembly.
Experimenting in the world of Flexible Hybrid Electronics (FHE) comes with a variety of hurdles. Printing technologies are vastly different in terms of materials compatibility and have pros and cons that make them suitable for particular applications. Choosing materials that match the printing technology you intend to use is the most important decision you’re going to make. But what if one could print, digitally, using any paste and ink on any substrate? Read more
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.