Engineers at the Georgia Institute of Technology have designed the first robot capable of not only playing music, but creating music—and its name is Shimon.
The musical robot was trained on a vast data set of everything from progressive rock to jazz to rap. Shimon takes this knowledge of past music and uses algorithms to come up with unique robot music of his own.
From the people who brought you the iPhone: a whole new theatrical experience.
It’s no big secret that the movie theater industry is facing an existential crisis, with serious challenges coming from streaming platforms developed by technology giants like Apple, Netflix, and Amazon, and now a pandemic that’s forced cinemas to shutter around the globe. Weighing the future of movie theaters has become a favorite guessing game for media analysts. Last Friday, the New York Times asked: “Movie Theaters Are on the Brink. Can Wine and Cheese Save Them?”
Maybe not. But there’s reason to believe that the very tech companies threatening the industry could breathe new life into movie theaters.
Last week, rumors circulated that Amazon is interested in acquiring AMC, the largest theater chain in the United States. The news caused a sharp spike in AMC’s stock price. The company has had a rough year: The chain lost money in 2019, despite multiple billion-dollar tentpole releases such as Avengers: Endgame, The Lion King, and Frozen 2. And that was before the coronavirus pandemic shut down theaters worldwide. Now, some analysts have speculated that the company might file for bankruptcy. While the theater chain denied the speculation, it raised $500 million in additional debt to weather the current crisis.
Continue reading… “The future of movie theaters might look a lot like an apple store”
Covid-19 is proving to be the impetus the legal industry needed to embrace remote technologies, Merchant & Gould attorneys write. They look at how law firms are adjusting to new technologies now and how courts may adopt new technologies going forward.
In law firms, one might guess the graduation year of attorneys based only on the technologies employed in their practices.
Lawyers graduating in the last decade may have never even seen a dictaphone in person or have experienced paper cuts from thumbing through thousands of paper documents to prepare them for production in litigation. Only recently did a small number of litigators begin using tablets instead of paper documents in depositions. Nearly all litigators firmly believed it was not possible to effectively conduct a deposition or hearing remotely.
But the Covid-19 pandemic forced change in an age-old profession, nearly overnight. As courthouses around the country continue trials and hearings, and even close completely, courts and attorneys alike have been forced to adopt new technologies at every stage of proceedings.
Continue reading… “INSIGHT: How Covid-19 Changed the Future of Litigation”
Strategies and things that will change the way we think and work
Television shows of the 1960’s like The Jetsons predicted that the 21st century would be filled with flying cars, and airborne robots would be a part of our everyday lives. October 21st, 2015 marked the point in time in which Marty McFly (Michael J. Fox) traveled to in Back to the Future Part II, the 1989 sequel to the time-travelling classic. The future he found was one which had captured the imagination of millions — instead today, we live in a world dominated by live streaming, smartphones and social networks, not flying cars or hover boards (maybe, because is this really a hover board?).
Within the span of 10 short years, or perhaps even less, service apps like Uber, Lyft, DoorDash, AirBnB and others have spawned millions of users, and can be found on almost everyone’s smart phone. Personal assistants like Siri and Alexa have entered many of our lives. It would be terribly naive for anyone to say that the world hasn’t changed in the last 10 years. This technology growth and change is likely to continue for the next decade and beyond.
It’s the roaring 20’s baby! At the start of the millennium, Information Technology was deeply concerned about Y2K … “Oh no, the zeroes and the clocks!” When the clocks struck 12 in 2000, the iPhone, Twitter, Facebook, 4k, 5G, and all the other fun things we know today didn’t exist. So what’s in store as a new decade begins?
Are you more interested in what skills you need to learn to keep pace with the technology trends of 2020?
Continue reading… “Top 10 technology trends for 2020”
Efficient quantum computing is expected to enable advancements that are impossible with classical computers. Scientists from Japan and Sydney have collaborated and proposed a novel two-dimensional design that can be constructed using existing integrated circuit technology. This design solves typical problems facing the current three-dimensional packaging for scaled-up quantum computers, bringing the future one step closer.
Quantum computing is increasingly becoming the focus of scientists in fields such as physics and chemistry, and industrialists in the pharmaceutical, airplane, and automobile industries. Globally, research labs at companies like Google and IBM are spending extensive resources on improving quantum computers, and with good reason. Quantum computers use the fundamentals of quantum mechanics to process significantly greater amounts of information much faster than classical computers. It is expected that when error-corrected and fault-tolerant quantum computation is achieved, scientific and technological advancement will occur at an unprecedented scale.
But building quantum computers for large-scale computation is proving to be a challenge in terms of their architecture. The basic units of a quantum computer are the “quantum bits” or “qubits.” These are typically atoms, ions, photons, subatomic particles such as electrons, or even larger elements that simultaneously exist in multiple states, making it possible to obtain several potential outcomes rapidly for large volumes of data. The theoretical requirement for quantum computers is that these are arranged in two-dimensional (2-D) arrays, where each qubit is both coupled with its nearest neighbor and connected to the necessary external control lines and devices. When the number of qubits in an array is increased, it becomes difficult to reach qubits in the interior of the array from the edge. The need to solve this problem has so far resulted in complex three-dimensional (3-D) wiring systems across multiple planes in which many wires intersect, making their construction a significant engineering challenge.
Researchers unveil electronics that mimic the human brain in efficient learning
A graphic depiction of protein nanowires (green) harvested from microbe Geobacter (orange) facilitate the electronic memristor device (silver) to function with biological voltages, emulating the neuronal components (blue junctions) in a brain. Credit: UMass Amherst/Yao lab
Only 10 years ago, scientists working on what they hoped would open a new frontier of neuromorphic computing could only dream of a device using miniature tools called memristors that would function/operate like real brain synapses.
But now a team at the University of Massachusetts Amherst has discovered, while on their way to better understanding protein nanowires, how to use these biological, electricity conducting filaments to make a neuromorphic memristor, or “memory transistor,” device. It runs extremely efficiently on very low power, as brains do, to carry signals between neurons. Details are in Nature Communications.
Continue reading… “Researchers unveil electronics that mimic the human brain in efficient learning”
Most quantum computers being developed around the world will only work at fractions of a degree above absolute zero. That requires multi-million-dollar refrigeration and as soon as you plug them into conventional electronic circuits they’ll instantly overheat.
But now researchers led by Professor Andrew Dzurak at UNSW Sydney have addressed this problem.
“Our new results open a path from experimental devices to affordable quantum computers for real world business and government applications,” says Professor Dzurak.
The researchers’ proof-of-concept quantum processor unit cell, on a silicon chip, works at 1.5 Kelvin—15 times warmer than the main competing chip-based technology being developed by Google, IBM, and others, which uses superconducting qubits.
Continue reading… “Hot qubits break one of the biggest constraints to practical quantum computers”
Fraunhofer textile sensor
Flexible mechanical sensors that can be bonded or sewn into woven or knitted fabrics have been developed by German research lab Fraunhofer ISC.
Deformation, force and pressure can be measured, and strains up to 100% (doubling length) can be endured.
It is an elastomer film with flexible electrodes on both sides. Electrode patterning can be used to create an array of sensors. Silicone rubber is the preferred elastomer, with chemical cross-linking allowing hardness to be tuned.
“The textile-integrated sensors are washable, show a high wearing comfort and are reasonable in price,” said the lab. “They are applicable in medical devices, for preventing bed sores or for localising the pressure distribution in shoes, for example. They can also support personal training by measuring the posture via the clothes, or as an input device for game and fitness device controlling.”
Continue reading… “Smart Socks with textile pressure sensors, that can be washed”
Researchers have found a simple way to make graphene disperse in water, paving the way for graphene-based inks or paints
Graphene may be versatile, but there’s one thing it’s not all that good at – dispersing in water. Now, researchers at Umeå University have found a relatively simple way to do it. Graphene oxide is a different form of the material that can make for stable water dispersion, which can then be used as a kind of graphene paint.
Graphene is essentially a two-dimensional sheet of carbon atoms, arranged in a hexagonal pattern. This deceptively simple material has a range of useful properties – it’s incredibly lightweight, thin and flexible, but still strong. It’s also an excellent conductor of electricity and heat, so it’s turning up in everything from electronics to water filters to clothing.
Ideally, one useful way to get graphene into the right configurations could involve dispersing it in water. This solution could then be painted or sprayed onto a surface to make, for example, supercapacitor electrodes or conductive coatings.
The problem is that graphene and similar forms of carbon, like graphite and carbon nanotubes, are hydrophobic, meaning they repel water. They can be made to disperse using harsh organic solvents or mechanical treatments, but the former is toxic and the latter can introduce defects.
Continue reading… “Simple new method makes graphene “paint” possible”
Sitting in a petri dish in the laboratories of Tufts University and the University of Vermont are a new kind of life form — half living cells and half machine. Xenobots are a scientific and technological breakthrough — a living organism that is fully programmable, capable of changing form and function essentially on command. The new type of bot was first introduced earlier this year, and thanks to a report from the New York Times, we now have a look behind the process of creating the novel creatures that have the potential to bridge the divide between the mechanical and biological.
Xenobots are not like any creature you’ve seen before. In fact, you can’t really see them at all. These so-called living machines look like little more than a speck to the naked eye, measuring up at about one millimeter wide. The idea for the new organisms was first dreamed up on a supercomputer at the University of Vermont. Researchers ran hundreds of simulations using what they called an “evolutionary algorithm” that would simulate different types of cells. It finally landed on the design for what would become the Xenobot. To bring that design to life, scientists scraped thousands of living skin cells from frog embryos — specifically the African clawed frog Xenopus laevis, hence the name Xenobot. After separating the cells and allowing them to incubate, the researchers used a tiny forceps and electrode to cut and assemble the cells under a microscope until they were assembled in a way that matched the supercomputer’s blueprint.
Continue reading… “Scientists have created a new type of robot that is literally alive”
The Jaunt Journey Is a Combination Helicopter and Airplane Jaunt Air Mobility
Jaunt Air Mobility says the Journey will have 175-mph cruise speed and be 65 percent quieter than a traditional helicopter, all with a silky-smooth ride.
With Uber Elevate’s announcement that it plans to start its first urban air mobility network in 2023, the electric vertical takeoff and landing (eVTOL) race is on. Uber’s partnership with Joby is big news, as is Joby’s electric four-person aircraft, but Jaunt Air Mobility could be an equally important partner.
Jaunt has introduced the Journey, a radically different type of “compound aircraft” that combines what it sees as the best features of helicopters and fixed-wing airplanes. Technically, it’s called a gyrocopter, an aircraft type that has been around since the mid-‘30s.
The primary mirror of NASA’s James Webb Space Telescope is planned to be deployed only once more on Earth, before being packaged for delivery to South America.
In a recent test, NASA’s James Webb Space Telescope fully deployed its primary mirror into the same configuration it will have when in space.
As Webb progresses towards liftoff in 2021, technicians and engineers have been diligently checking off a long list of final tests the observatory will undergo before being packaged for delivery to French Guiana for launch. Performed in early March, this procedure involved commanding the spacecraft’s internal systems to fully extend and latch Webb’s iconic 21 feet 4-inch (6.5 meter) primary mirror, appearing just like it would after it has been launched to orbit. The observatory is currently in a cleanroom at Northrop Grumman Space Systems in Redondo Beach, California.
The difficulty and complexity of performing tests for Webb has increased significantly, now that the observatory has been fully assembled. Special gravity offsetting equipment was attached to Webb’s mirror to simulate the zero-gravity environment its mechanisms will have to operate in. Tests like these help safeguard mission success by physically demonstrating that the spacecraft is able to move and unfold as intended. The Webb team will deploy the observatory’s primary mirror only once more on the ground, just before preparing it for delivery to the launch site.
Continue reading… “NASA’s James Webb Space Telescope full mirror deployment a success”
By delving into the futuring techniques of Futurist Thomas Frey, you’ll embark on an enlightening journey.
Learn More about this exciting program.