Subscribe to our Nanotechnology Spotlight feed
Researchers have developed an innovative electronic skin patch that mimics attributes of human skin for sensing biomechanical and bioelectrical signals relevant to health monitoring. The device is skin-like stretchable, breathable, and has self-adhesive properties and superior capabilities for precision mobile health tracking.
Recent research has focused extensively on utilizing natural materials such as silk, wood, paper, plant fibers, and biomass for fabricating green electronics. These materials are abundant, low-cost, renewable, and biodegradable, making them an ideal alternative to conventional plastics.
Researchers present the first fully roll-to-roll processed flexible Giant Magnetoresistance (GMR) thin-films with large-area deposition approach providing high-yield of magnetoresistive material.
Explore the world of valleytronics, an emerging field that holds the potential to revolutionize electronics and quantum computing by exploiting a new degree of freedom in 2D materials.
This review provides insights into current challenges and future directions for developing multifunctional hydrogel-based flexible electronics, which can enhance the performance and scope of applications in this emerging field.
Researchers have developed a low-cost and simple method for printing electronics using regular pens and a benchtop plotter. This technique allows for the use of virtually any solution-processable nanomaterial ink without the need for expensive equipment or ink optimization, making printed electronics more accessible.
Researchers have made significant strides in developing photodetectors made with tungsten disulfide (WS2) on paper substrates for disposable electronics. This research, which addresses the growing issue of electronic waste, has yielded promising results with WS2 photodetectors on paper substrates reaching photo responses comparable to commercially available silicon photodetectors. The findings have significant implications for ubiquitous electronics and low-performance sensing applications.
Neuromorphic engineering is focused on developing computer hardware and software systems that mimic the structure, function, and behavior of the human brain. The goal of neuromorphic engineering is to create computing systems that are much more energy-efficient, scalable, and adaptive than conventional computer systems, and that can solve complex problems in a manner that is similar to how the brain solves problems. Neuromorphic computing is a specific application of neuromorphic engineering. It involves the use of hardware and software systems that are designed to process information in a manner that is similar to how the human brain processes information.