Wearable circuits are expected to drive IoT medical applications
Researchers at the University of Wisconsin-Madison (UW-Madison) claim to create the fastest and extensible wearable integrated circuit (IC), a development that is expected to drive the Internet of Things (IoT) and More connected high-speed wireless world progress. Engineers have created a platform for manufacturers looking to expand the capabilities and applications of wearable electronics, especially those that are leveraging next-generation wireless broadband technologies (ie 5G). This extensible circuit has a unique structure, primarily due to the twisted pair of telephone lines. Basically, it contains two ultra-slim interleaved power transmission lines in a repeating S-curve mode. This layered winding shape—composed of two layers of segmented metal blocks, like 3D puzzles—allows the transmission line to stretch without compromising performance. It also helps protect these lines from outside interference while limiting the electromagnetic waves flowing through them, virtually eliminating current losses. Currently, these scalable integrated circuits can operate at up to 40 GHz frequency modulation (RF). In addition, these new extensible circuits are only 25 microns (or 0.025 mm) thick compared to other extendable transmission lines that may reach 640 microns (or 0.64 mm) in width. This is extremely small and even small enough to achieve high efficiency in a variety of applications such as skin electronics. This new circuit uses a 3D puzzle-like interlocking manufacturing method that can be used for wearable electronics attached to the skin like a tattoo sticker. Because this circuit increases the speed of wireless, these systems allow healthcare professionals to remotely monitor patients without having to use any wires or cables. Electronic Engineering Album This new circuit uses a 3D puzzle-like interlocking manufacturing method that can be used for wearable electronics attached to the skin like a tattoo sticker. Because this circuit increases the speed of wireless, these systems allow healthcare professionals to remotely monitor patients without having to use any wires or cables. Source:Yei Hwan Jung and Juhwan Lee/UW-Madison The research team led by Zhenqiang (Jack) Ma, a professor at the Department of Electronics and Computer Engineering at UW-Madison, published this powerful and efficient IC research detail in the journal Advanced Functional Materials. Over the past decade, Ma's research team has been working on the development of so-called active transistor components. This latest development combines the expertise of researchers in the field of high frequency and soft electronics. The study was supported by the Air Force Office of Scientific Research. “We have found a new way to integrate high-frequency active transistors into efficient circuits that can be transmitted wirelessly,†Ma said. “This is a platform that opens the door to many new features.†In mobile communications, the wide microwave radio frequency of 5G networks will be able to accommodate more and more mobile phone users, while significantly increasing data rates and coverage. In the intensive care unit, the epidermal electronic system (electronics attached to the skin like a tattoo sticker) allows medical personnel to remotely monitor the patient wirelessly, improving patient comfort by reducing the entanglement of cables and wires. China Extract Powder For Use As Dietary Supplement Extract Powder, Extract Powder Manufacturer Shaanxi Kang New Pharmaceutical co., Ltd. , https://www.anabolicsteriod.com