There is a critically important dialogue going on across the extended global automotive industry about the future evolution of transportation and mobility. This debate is driven by the convergence of a series of industry-changing forces and mega-trends (see figure 1). Innovative technologies are changing how companies develop and build vehicles. Electric and fuel-cell powertrains tend to offer greater propulsion for lower energy investment at lower emission levels.1 New, lightweight materials enable automakers to reduce vehicle weight without sacrificing passenger safety.2 Further breakthroughs are advancing the introduction of autonomous vehicles; increasingly, daily news reports suggest that driverless cars will soon become a commercial reality.3 We have already seen rapid advances in the "connected car"--innovations that integrate communications technologies and the Internet of Things to provide valuable services to drivers.4

Critics have aimed barbs at technology for solving short-term, high-payout problems. To be fair, the critiques aren't always distorted. While it's true urban dwellers can hail a ride and order take out more easily, we're still far from ending global hunger, realizing gender equality, or creating affordable, clean energy. Changes are underway, though, as these weighty concerns are finding much-needed aid from a set of smart, passionate technology leaders. Fortunately, efforts are underway to arm global leaders with smart technology.

Murderers in early 19th-Century London sometimes tried to kill themselves before they were hanged. Failing that, they asked friends to give their legs a good, hard pull as they dangled from the gallows to ensure their death. Their freshly hanged bodies, they knew, would be handed to scientists for anatomical studies. They didn't want to survive the hanging and regain consciousness while being dissected. If George Foster, executed in 1803, had woken up on the lab table, it would have been in particularly undignified circumstances.

When I was visiting Berlin recently, I listened to my friend Trent say AI Dao (Artificially intelligent decentralized autonomous organizations) no less than 50 times. For those who are unaware of what AI Dao remotely means, essentially it is an organization (or company) powered by Blockchain technology where there is no one party with controlling interest for decision making (think board of directors, c-level, etc.). Then AI is implemented to optimize processes and make decisions as a human would in a traditional model. There are many arguments as to why decentralized models are superior in many business cases, but that is another discussion in itself. To many people, AI Dao sounds like something you would see in a movie such as iRobot (based on Isaac Asimov's, "Three Laws of Robotics"), but they are actually quite real and are poised to play a large role in the not-so-distant future.

When might that come in handy, besides to generally explore the relative unknown? The oil and gas industries wouldn't mind knowing more about what lurks below and the military has already sought ways to position sensors on the bottom of the ocean. Stilwell says technology such as what he and his team are developing could also make underwater searches, like the unsuccessful nearly three-year effort to find missing Malaysian Airline flight MH370, more affordable and faster.

Deep learning, coupled with Big Data is changing the Tech Industry.

Research Scientist – Bayesian Machine Learning Location: Cambridge - United Kingdom The Schlumberger Gould Research Centre offers a stimulating research environment with real-world problems that push the limits of scientific knowledge. We are committed to be at the leading edge of science and to incorporate new emerging technologies in Schlumberger's activities. To achieve that we recruit the most talented scientists from a variety of scientific and engineering backgrounds, and give them opportunities to advance their fields of expertise as well as to develop solutions of significant industrial impact. The Schlumberger Gould Research Centre strongly encourages the self-development of its scientists, offers high-end experimental facilities and scientific resources, and maintains strong collaborations with academic and industrial research groups worldwide. Schlumberger is currently developing new drilling systems with a high degree of autonomy and intelligence which will change the way the industry drills wells.

Construction seems like an industry that, were I still living in Silicon Valley, I would be tempted to call "ripe for disruption." Researchers at the MIT Media Lab agree, pointing out in a paper just published in Science Robotics that construction "relies on traditional fabrication technologies that are dangerous, slow, and energy-intensive." Hey, sounds like a job for some robots, right? The Media Lab's paper introduces the Digital Construction Platform (DCP), which is "an automated construction system capable of customized on-site fabrication of architectural-scale structures." In other words, it's a robot arm that uses additive construction techniques to build large structures safely, quickly, and even (in some cases) renewably.

This question originally appeared on Quora. This means if you were to remove everything you can see and interact with in the visible universe (people, food, home appliances, planets, stars, galaxies, nebulae, etc.), there would still be 95% of the universe remaining! The result is that there is more dark matter and dark energy in the room you are currently in than normal matter. It is percolating through your body as you read this answer! The general rule is that dark matter holds galaxies together and dark energy drives the expansion of the universe. It is the ultimate tug of war. At the beginning of the universe, dark matter was much more powerful than dark energy, which is what allowed early galaxies to form. But dark energy has now taken over and is causing distant galaxies to recede from us at a rate faster than the speed of light. As you may know, no object with mass can exceed the speed of light, however there is no limit on the speed at which the spacetime medium (which ...

The average single-family home takes roughly seven months to complete, but MIT researchers have developed a cutting-edge system that does the job in less than a day. The team has designed an autonomous robot capable of 3D printing the basic structure of an entire building. Equipped with a precision-motion robotic arm and powered by solar panels, the machine sprays an insulation foam mold on the ground and then fills it with concrete – it completed the walls of a 50-foot-diameter, 12-foot-high dome in 14 hours. MIT has designed an autonomous robot capable of 3D printing the basic structure of an entire building. MIT's system is a massive robotic arm attached to a track vehicle.