Top News from Leading Digital Manufacturing Solution Providers
December 12, 2012
Ultra-thin Cooling Jets for Next-gen Electronics
Just when you think technology has hit a wall in its ability to scale downward in size, another breakthrough surfaces, and our cell phones and tablets shrink yet again. But this time, it's not because of Moore's Law. Instead, this innovation comes in the form of ultra-thin cooling jets, recently unveiled by GE Global Research.
According to GE researchers, the technology, called Dual Piezoelectric Cooling Jets (DCJ), can dissipate heat at ten times the rate of natural air circulation, and take up significantly less space than traditional cooling fans.
According to Peter de Bock, lead electronics engineer at GE Global Research, DCJ is now the optimal cooling solution for ultra-thin consumer electronics. “It's very low power, very simple, and a unique solution for very thin laptops, ultrabooks and the next generation of more powerful tablets.”
But how does it work?
The DCJs feature two ceramic plates that, when supplied with electricity, expand and contract, creating high-velocity airflow. Nearby heated components can then rapidly dissipate heat, just as they would with traditional fans.
This technology is significant, however, because the ceramic plates measure just one millimeter tall, while the entire cooling assembly is a mere 4 millimeters tall – 50 percent smaller than current cooling units.
On top of that, the DCJ uses 50 percent less power than fans, is nearly silent and uses no rotating parts that require maintenance and are prone to breakage.
“[The] DCJ technology not only frees up precious space for system designers, but it consumes significantly less power, allowing as much as 30 minutes of extra battery life,” says Chris Giovanniello, vice president of microelectronics and thermal business development at GE Licensing.
Not only could this technology mean slimmer personal electronics, it also may enable longer battery life and quieter machines, which, thanks to their simplicity, will cost less.
Currently, GE produces the prototypes at a rate of 20 per month. But the technology has now been licensed to Japan's Fujikura LTD for manufacturing, with the high-volume production slated for 2013. It could be inside our cell phones and tablets as early as 2014.
Already a number of universities have worked to make relevant courses available to cultivate a bigger, more capable workforce, but these classes can err on the side of abstraction, which has led DeVry University to join up with Intel and offer their own digital manufacturing course of study that’s dedicated to practical skills for the workforce. Read more...
Less than a decade after the U.S. Defense Advanced Research Project Agency (DARPA) gave the greenlight on autonomous vehicle research, Carnegie Mellon University (CMU) has driven self-driving cars closer to reality, demonstrating that it’s not a question of if driverless cars will grace our highways and backroads, but when. Read more...
At this year’s Supercomputing conference, Ohio made its mark with a $6.4 million public-private initiative designed to bring high performance computing (HPC) to manufacturers of all sizes—particularly to those small-to-medium-sized companies for which the technologies are cost-prohibitive. Read more...
Dec 05, 2013 |
Back in July, Curiosity, NASA’s Mars rover, began a 5.3 mile journey to Mount Sharp, a 3.4 mile-high mountain in the Gale Crater. However, in late October, the rover completed a two-day drive all on its own thanks to Carnegie Mellon University’s Robotics Institute and their autonomous navigation software. Read more...
Dec 04, 2013 |
On September 2, 2013, the EU project titled “LIAA” was set in motion. With the project, scientists will help to develop robotic systems and applications that will be used for assembly in manufacturing, and in doing so help humans and robots to better work together. Read more...
Nov 26, 2013 |
Siemens Industry Software India (SISW) has signed an agreement with the Government of Gujarat’s Ministry of Industries and Mines to launch five Centers of Excellence (COEs) in the state. These centers will specifically be aimed at skill development in higher education. Read more...
07/30/2013 | IBM | This white paper examines various means of adapting technical computing tools to accelerate product and services innovation across a range of commercial industries such as manufacturing, financial services, energy, healthcare, entertainment and retail. No longer is technically advanced computing limited to the confines of big government labs and academic centers. Today it is available to a wide range of organizations seeking a competitive edge.
06/25/2013 | Intel | The UberCloud HPC Experiment has achieved the volunteer participation of 500 organizations and individuals from 48 countries with the aim of exploring the end-to-end process employed by digital manufacturing engineers to access and use remote computing resources in HPC centers and in the cloud. This Compendium of 25 case studies is an invaluable resource for engineers, managers and executives who believe in the strategic importance of applying advanced technologies to help drive their organization’s productivity to perceptible new levels.