SCOTTISH engineers yesterday unveiled a revolution in the way we could use electronics in the future.

Radical new forms of bendable electronics could transform video screens, health monitoring devices, implantable devices and synthetic skin for prosthetics, according to Glasgow University which revealed the development.

The new form of electronics manufacturing puts incredibly thin silicon nanowires into flexible surfaces which can be bent, flexed and twisted.

The development was announced in the journal Microsystems and Nanoengineering, by Glasgow University. The paper is the latest development from the university’s Bendable Electronics and Sensing Technologies (BEST) research group, led by Professor Ravinder Dahiya.

The paper describes how they have for the first time been able to affordably “print” high-mobility semiconductor nanowires onto flexible surfaces to develop high-performance ultra-thin electronic layers. The BEST team has already developed innovative technologies including solar-powered, flexible “electronic skin” for use in prosthetics and stretchable health sensors which can monitor the pH levels of users’ sweat.

The university stated: “In their paper, the research team outline how they manufactured semiconductor nanowires from both silicon and zinc oxide and printed them on flexible substrates to develop electronic devices and circuits.

“In the process, they discovered that they could produce uniform silicon nanowires which aligned in the same direction.

“Since electronic devices run faster when electrons can run in straight lines as opposed to having to negotiate twists and turns, the silicon nanowires were best suited to use in their flexible surfaces.”

The university described how the BEST team engaged in a series of experiments to print the wires into flexible surfaces with a printing device they developed and built in their lab. After a series of experiments, they were able to find the optimal combination of pressure and velocity to effectively print the nanowires time after time.

Professor Dahiya said: “This paper marks a really important milestone on the road to a new generation of flexible and printed electronics. In order for future electronic devices to integrate flexibility into their design, industry needs to have access to energy-efficient, high-performance electronics which can be produced affordably and over large surface areas. With this development, we’ve gone a long way to hitting all of those marks. We’ve created a contact-printing system which allows us to reliably create flexible electronics with a high degree of reproducibility, which is a really exciting step towards creating all kinds of bendable, flexable, twistable new devices.

“We’ve just secured further funding which we’ll use to scale up the process further, making it more readily applicable to industrial purposes, and we’re looking forward to building on what we’ve managed to achieve already.”