Moore’s Law (which states that the maximum number of transistors on a given chip area doubles every one and a half years) has been a driving force in the hardware industry, and that doesn’t look like it’s going to change. Some of the industry’s biggest names are dumping money, time and effort with the goal of extending this, with the goal of pumping out some über hardware.

There are concerns already ahead, with companies like IBM, AMD and Intel all looking to move ahead to 32nm, problems with controlling light at ultra low nanometer resolutions are looming ahead. But, thanks to research from the University of California Berkeley that wall could crumble, and usher in a new generation of ultra-tiny transistors, and even a brand new type of drive that could end up replacing Blu-ray.

UC Berkeley’s Xiang Zhang and David Bogy, both professors of mechanical engineering took a new approach that uses a metal arm similar to that of a record turntable or a hard drive, and utilizes a tiny lens that quite literally flies over the chip wafer. This would allow designs that are being made at 80nm wide to become much smaller. And even still, with the wafer being spun at 12 meters per second, production would be fast. "Utilizing this plasmonic nanolithography, we will be able to make current microprocessors more than 10 times smaller, but far more powerful.  This technology could also lead to ultra-high density disks that can hold 10 to 100 times more data than disks today," said Professor Zhang.

What’s more, the new tech has the potential of being cheaper than what we’ve got now. 45nm technologies are expensive thanks to complex lens and mirror setups required to concentrate the light that’s required to read data. This new method, called photolithography, would only have one costly component, which would be a plasmonic lens. The rest of the components would be run of the mill, and drop costs dramatically.

It’s expected that you’ll be seeing this breakthrough in your very own drives relatively soon. Professor Zhang states, "I expect in three to five years we could see industrial implementation of this technology.  This could be used in microelectronics manufacturing or for optical data storage and provide resolution that is 10 to 20 times higher than current Blu-ray technology."

Image Credit: Liang Pan and Cheng Sun, UC Berkeley