Fiber-based electronics are expected to play a vital role in next-generation wearable electronics. Woven into textiles, they can provide higher durability, comfort, and integrated multi-functionality. A research team has developed a stretchable multi-functional fiber that can harvest energy and detect strain, which can be applied to future wearable electronics.

Researchers have developed novel graphene fibres as a new electrical stimulation device that could replace the use of pharmaceuticals to treat a range of medical conditions.

Researchers have reported significant advances in stretchable electronics, moving the field closer to commercialization.

Imagine a world where smartphones, laptops, wearables, and other electronics are powered without batteries. Researchers from MIT and elsewhere have taken a step in that direction, with the first fully flexible device that can convert energy from Wi-Fi signals into electricity that could power electronics.

Printed, Flexible and Organic Electronics is a market worth $31.6 Billion in 2018, according to IDTechEx Research. The majority of that is for OLED displays, with glass-based versions now entering their golden age and foldable OLEDs and printed OLEDs now entering a phase of commercial growth. Then there is the near $2 Billion market for conductive ink used in many diverse applications and the $3.6 Billion market for sensors, mainly comprising of biosensors so far.

In Mold (or Mould) Electronics promises to enable high-volume production of structural electronics where the electronic circuitry and functionality are part of the 3D-shaped structure itself. This will save weight and space and will enable new elegant designs.

Ynvisible Interactive Inc announces that it has begun work on commercial contracts that expect to reach market in 2019. The first two contracts are with leading companies in the field of smart labels and related verification and tracking services.

This article from IDTechEx examines whether flexible glass is the ultimate solution for flexible barriers and encapsulation.

Chemists have found a cheaper way to light up smartphone and TV screens, which could save manufacturers and consumers money without affecting visual quality. Copper is the answer, according to their study.

Scientists have developed microscopic, hydrogel-based muscles that can manipulate and mechanically stimulate biological tissue. These soft, biocompatible robots could be used for targeted therapy and to help diagnose and prevent disease.

Collaboration between material scientists, biologists and chemists could advance the development of self-assembling nanomaterials, called nanoarchitectonics, argues a review.

In biointegrated electronics, the facile control of mechanical properties such as softness and stretchability in electronic devices is necessary to minimize the perturbation of motions inherent in biological systems.

PragmatIC announces the first products in their ConnectIC family designed for use in closed HF RFID systems. The ground breaking ConnectIC family will be pivotal in the acceleration of the smart packaging market.

We have been following the graphene industry as analysts for the past seven years. The results of our ongoing research can be seen in our report on Graphene, 2D Materials and Carbon Nanotubes: Markets, Technologies and Opportunities 2018-2028. In this time, we have seen the industry grow in maturity.

A screen printed poster that uses smart ink and a tiny internet connected computer to reflect the day's changing weather. As the weather forecast changes, so will the ink on the paper. The icons take 5-15 minutes to fully activate and will update throughout the day as needed.