Money will be used to ramp up the rollout of battery-free sensor tags and novel, AI-based sensing as a service business model.
Category: internet – Page 172
Arm thinks those kinds of applications may not be far away, though. In a paper published last week in Nature, researchers from the company detailed a 32-bit microprocessor built directly onto a plastic substrate that promises to be both flexible and dramatically cheaper than today’s chips.
“We envisage that PlasticARM will pioneer the development of low-cost, fully flexible smart integrated systems to enable an ‘internet of everything’ consisting of the integration of more than a trillion inanimate objects over the next decade into the digital world,” they wrote.
Flexible electronics aren’t exactly new, and sensors, batteries, LEDs, antennae, and many other simpler components have all been demonstrated before. But a practical microprocessor that can carry out meaningful computations has been elusive thanks to the large number of transistors required, say the researchers.
The Facebook CEO talks to Casey Newton about why he is putting his company’s resources toward the “metaverse,” a future that imagines an internet that combines physical, augmented, and virtual realities.
Experiment connects three devices with entangled photons, demonstrating a key technique that could enable a future quantum internet. Experiment demonstrates a key technique that could enable a future quantum internet.
A microchip in your lettuce? Why not, says Arm.
Chip designer Arm has unveiled the most complex flexible microchip yet. The PlasticARM is inefficient and slow compared to silicon-based chips, but could be printed onto fabric, paper, and plastic, allowing for what Arm calls the “internet of everything.”
Truly bendable devices pave the way for the Internet of Everything.
Researchers have shown that it is possible to use plastics to create a working Arm microprocessor, creating a new world for truly flexible electronics spanning multiple sectors.
Flexible computer processors have circuits printed onto plastic film.
PragmatIC
Could a flexible processor stuck on your produce track the freshness of your cantaloupe? That’s the idea behind the latest processor from UK computer chip designer Arm, which says such a device could be manufactured for pennies by printing circuits directly onto paper, cardboard or cloth. The technology could give trillions of everyday items such as clothes and food containers the ability to collect, process and transmit data across the internet – something that could be as convenient for retailers as it is concerning for privacy advocates.
A major internet outage has affected the websites of major retail, financial, logistics and travel websites, while 911 service in several Virginia cities appears to be affected by a cut fiber optic cable.
Down Detector, a service that detects whether websites are working properly or not, began reporting a series of at least 50 major website outages shortly before 12pm EST on Thursday.
The websites of UPS, Delta Air Lines, Costco, American Express and Home Depot were down, displaying domain name system (DNS) service errors.
The basic assumption, and it’s proven to be a good one, is that more people will want to send more stuff over the internet tomorrow, Tuesday, or in ten years. We may not know how many people or what stuff exactly, but growth has generally been a good guess.
To meet tomorrow’s demands, we have to start building a more capable internet today. And by we, I mean researchers in labs around the world. So it is that each year we’re duly notified of a new eye-watering, why-would-we-need-that speed record.
In August of last year, a University College London (UCL) team, set the top mark at 178 terabits per second. Now, a year later, researchers at Japan’s National Institute of Information and Communications Technology (NICT) say they’ve nearly doubled the record with speeds of 319 terabits per second.
Researchers in Tokyo, Japan, have achieved a data rate of 319 terabits per second (Tbit/s) over a distance of 3001 km (1865 mi).