Lifeboat Foundation

Malicious actors could exploit the laws of quantum mechanics to destroy quantum information on a global scale, say physicists.

State media has reported that Russia will attempt to disconnect from the global internet this spring. That’s going to be tricky.

Salim Ismail and Francisco Palao

Nothing lasts forever and the startup era is no exception. Exponential Organizations (ExOs) are a new breed of organizations disrupting entire industries by scaling as fast as exponential technologies do. In addition, the ExO model is the framework that finally allows both entrepreneurs and corporations to speak the same language and disrupt industries together.

In the late 90s, the emergence of the Internet brought new opportunities to most existing industries and created vast new markets. As a result, a new type of business peaked in that decade: the technology startup.

Continue reading “Forget startups, ExOs (Exponential Organizations) are the new way to innovate” »

How is the technological landscape changing in 2019, and what innovations will we see in the future? originally appeared on Quora: the place to gain and share knowledge, empowering people to learn from others and better understand the world.

Answer by Gary Shapiro, President and CEO at Consumer Technology Association, on Quora:

The two biggest stories coming out of http://www.ces.tech/” target=”_blank” rel=” nofollow noopener noreferrer” data-ga-track=” ExternalLink: http://www.ces.tech/”>CES 2019 are advancements in fifth generation cellular connectivity (5G) and artificial intelligence (AI). Both of these innovations will open the door to a world of convenience, precision and high-speed broadband.

Continue reading “Two Pieces Of Technology That Will Change The World Over The Next Decade” »

Vibration-based energy harvesting has long promised to provide perpetual power for small electronic components such as tiny sensors used in monitoring systems. If this potential can be realized, external energy sources such as batteries would no longer be needed to power these components.

Scientists at the Tokyo Institute of Technology and the University of Tokyo in Japan believe they have taken a step toward achieving self-powered components by developing a new type of micro-electromechanical system (MEMS) energy harvester. Their approach enables far more flexible designs than are currently possible— something, they say, that is crucial if such systems are to be used for the Internet of Things (IoT) and wireless sensor networks.

Scientists in Japan have developed a MEMS energy harvester charged by an off-chip electret.

Continue reading “A MEMS Device Harvests Vibrations to Power the IoT” »

The quantum internet will require fast-moving data and the Australian National University believes it has found a way to measure information stored in light particles which will pave the way for a safe “data superhighway”.

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The crime scene was straight out of an Alfred Hitchcock movie. One hundred and fifty dead birds lay sprawled on the ground, fallen out of trees in a park in The Hague, The Netherlands.

The second such occurrence last autumn made Dutch citizens look up and wonder. With robust starlings turned upside-down at their feet, the usual suspects of disease, pollution, and foul play were dismissed.

Continue reading “The Threat 5G Poses to Human Health” »

An artist’s rendering of Blue Origin’s New Glenn rocket during its ascent into orbit. Image Credit: Blue Origin.

CAPE CANAVERAL, Fla. — Blue Origin’s New Glenn rocket has been selected by Canadian-based Telesat to send a fleet of satellites into orbit. The payload for these flights could help improve web services around the globe.

The satellites, designed to provide internet services across the globe, will be sent to low-Earth orbit by Texas-based Blue Origin’s New Glenn over the course of multiple launches.

Continue reading “Blue Origin inks deal to launch internet satellite constellation” »

Spectrally pure lasers lie at the heart of precision high-end scientific and commercial applications, thanks to their ability to produce near-perfect single-color light. A laser’s capacity to do so is measured in terms of its linewidth, or coherence, which is the ability to emit a constant frequency over a certain period of time before that frequency changes.

In practice, researchers go to great lengths to build highly coherent, near-single-frequency lasers for high-end systems such as atomic clocks. Today, however, because these lasers are large and occupy racks full of equipment, they are relegated to applications based on bench tops in the laboratory.

There is a push to move the performance of high-end lasers onto photonic micro-chips, dramatically reducing cost and size while making the technology available to a wide range of applications including spectroscopy, navigation, quantum computation and optical communications. Achieving such performance at the chip scale would also go a long way to address the challenge posed by the internet’s exploding data-capacity requirements and the resulting increase in worldwide energy consumption of data centers and their fiber-optic interconnects.