Additively manufactured electronics, also known as printed electronics, are becoming
increasingly important for the anticipated Internet of Things (IoT). This requires …

The growing demand for flexible and wearable hybrid electronics has triggered the need for
advanced manufacturing techniques with versatile printing capabilities. Complex ink …

Printed electronics are gaining significant interest due to their design flexibility, low
fabrication cost, and rapid design-to-manufacturing turnaround. Conventional substrates for …

Additive manufacturing of functional devices on various rigid and flexible substrates is rising
rapidly due to their design flexibility, rapid manufacturing, and lower cost. Current printing …

Additive nanomanufacturing, where nanoparticles (NPs) are generated via laser material
ablation and sintered via laser, permits the fabrication of novel electronic devices with …

The demand for flexible printed electronics is growing fast, especially with the move toward
the Internet of Things. These printed electrons are usually designed for short-term use, after …

The reliability of additively manufactured flexible electronics or so-called printed electronics
is defined as mean time to failure under service conditions, which often involve mechanical …

The sintering behavior of nanoparticles (NPs), which determines the quality of additively
nanomanufactured products, differs from conventional understanding established for …

We describe a novel method of using atmospheric pressure glow discharge plasma for
sintering printed conducting lines of silver. The solvent-free metal lines were prepared by …

There is always great interest in finding new advanced manufacturing techniques to pave
the way for realization of future flexible and wearable electronics. Direct printing of functional …