Intel Shows New IoT Platform
Intel showed off a new platform which it claims makes it easier for companies to create Internet-connected smart products using its chips, security and software.
Intel’s platform is like Lego and based on the chipmaker’s components and software for companies to create smart, connected devices. The only difference is that you can’t enact your own Doctor Who scene from it.
Doug Davis, head of Intel’s Internet of Things business, said at a launch event in San Francisco it will make it a doddle to connect to data centres in order analyse data collected from devices’ sensors.
Intel’s chips should compute capability in end-point devices that scale from its highest performance Xeon processor to the Quark family of products.
Intel’s Internet of Things Group had $530 million in revenue in the September quarter. That accounted for just 4 percent of Intel’s total revenue in the quarter, but it grew 14 percent over the previous year, which was faster than the company’s PC business.
Dell, SAP, Tata Consultancy, Accenture and other companies are working with the new reference model, Davis said.
Can Plastic Replace Silicon?
Can plastic materials morph into computers? A research breakthrough recently published brings such a possibility closer to reality.
Researchers are looking at the possibility of making low-power, flexible and inexpensive computers out of plastic materials. Plastic is not normally a good conductive material. However, researchers said this week that they have solved a problem related to reading data.
The research, which involved converting electricity from magnetic film to optics so data could be read through plastic material, was conducted by researchers at the University of Iowa and New York University. A paper on the research was published in this week’s Nature Communications journal.
More research is needed before plastic computers become practical, acknowledged Michael Flatte, professor of physics and astronomy at the University of Iowa. Problems related to writing and processing data need to be solved before plastic computers can be commercially viable.
Plastic computers, however, could conceivably be used in smartphones, sensors, wearable products, small electronics or solar cells, Flatte said.
The computers would have basic processing, data gathering and transmission capabilities but won’t replace silicon used in the fastest computers today. However, the plastic material could be cheaper to produce as it wouldn’t require silicon fab plants, and possibly could supplement faster silicon components in mobile devices or sensors.
“The initial types of inexpensive computers envisioned are things like RFID, but with much more computing power and information storage, or distributed sensors,” Flatte said. One such implementation might be a large agricultural field with independent temperature sensors made from these devices, distributed at hundreds of places around the field, he said.
The research breakthrough this week is an important step in giving plastic computers the sensor-like ability to store data, locally process the information and report data back to a central computer.
Mobile phones, which demand more computing power than sensors, will require more advances because communication requires microwave emissions usually produced by higher-speed transistors than have been made with plastic.
It’s difficult for plastic to compete in the electronics area because silicon is such an effective technology, Flatte acknowledged. But there are applications where the flexibility of plastic could be advantageous, he said, raising the possibility of plastic computers being information processors in refrigerators or other common home electronics.
“This won’t be faster or smaller, but it will be cheaper and lower power, we hope,” Flatte said.