Lifeboat Foundation

Turning on Quantum properties onto a cup of coffee. First step; should be interesting in what researchers discover especially around teleporting. Imaging you’re Dominos pizza with a teleport hub and customer orders a pizza. No longer need a self driving car, or drone; with this technology Dominos can teleport your hot fresh pizza to your house immediately after it is out of the oven.

Small objects like electrons and atoms behave according to quantum mechanics, with quantum effects like superposition, entanglement and teleportation. One of the most intriguing questions in modern science is if large objects – like a coffee cup — could also show this behavior. Scientists at the TU Delft have taken the next step towards observing quantum effects at everyday temperatures in large objects. They created a highly reflective membrane, visible to the naked eye, that can vibrate with hardly any energy loss at room temperature. The membrane is a promising candidate to research quantum mechanics in large objects.

The team has reported their results in Physical Review Letters.

Continue reading “Scientists take next step towards observing quantum physics in real life” »

“Buying into a smart home ecosystem is sort of like selecting a holy grail in the Temple of the Sun. Choose poorly, and everything crumbles.”

Read more

https://youtube.com/watch?v=Al5RhaJgxxU

Pretty cool!

As Brain-Computer Interface is rapidly developed worldwide, mind-controlled drones turn into sports and weapons of today.

Continue reading “Brave New World: Mind-Controlled Drones Revolutionizing Sports And Warfare” »

Australia is stepping it up in QC; okay US, Canada, UK, China?…

Sydney opened two quantum computing laboratories this week, but those working in them say their research is competitive collaboration.

Over the past few days, Wired has published some articles that give us the closest look yet at the ambitious, enigmatic augmented reality company called Magic Leap. They’ve left us with both a lot of fascinating possibilities and a lot of questions, because most of Magic Leap’s technological explanations are couched in the language of either science fiction or, well, magic. As poetic as “[talking] to the GPU of the brain” and “dreaming with your eyes open” sounds, this is probably the clearest and most interesting description of Magic Leap’s work in the piece:

Many think author, inventor and data scientist Ray Kurzweil is a prophet for our digital age. A few say he’s completely nuts. Kurzweil, who heads a team of more than 40 as a director of engineering at Google, believes advances in technology and medicine are pushing us toward what he calls the Singularity, a period of profound cultural and evolutionary change in which computers will outthink the brain and allow people—you, me, the guy with the man-bun ahead of you at Starbucks—to live forever. He dates this development at 2045.

Raymond Kurzweil was born February 12, 1948, and he still carries the plain, nasal inflection of his native Queens, New York. His Jewish parents escaped Hitler’s Austria, but Kurzweil grew up attending a Unitarian church. He worshipped knowledge above all, and computers in particular. His grandmother was one of the first women in Europe to earn a Ph.D. in chemistry. His uncle, who worked at Bell Labs, taught Ray computer science in the 1950s, and by the age of 15, Kurzweil was designing programs to help do homework. Two years later, he wrote code to analyze and create music in the style of various famous composers. The program won him the prestigious Westinghouse Science Talent Search, a prize that got the 17-year-old an invitation to the White House. That year, on the game show I’ve Got a Secret, Kurzweil pressed some buttons on a data processor the size of a small car. It coughed out original sheet music that could have been written by Brahms.

After earning degrees in computer science and creative writing at MIT, he began to sell his inventions, including the first optical character recognition system that could read text in any normal font. Kurzweil knew a “reading machine” could help the blind, but to make it work, he first had to invent a text-to-speech synthesizer, as well as a flatbed scanner; both are still in wide use. In the 1980s Kurzweil created the first electronic music keyboard to replicate the sound of a grand piano and many other instruments. If you’ve ever been to a rock concert, you’ve likely seen the name Kurzweil on the back of a synthesizer.

Again; many problems with AI & IoT all ties back to the infrastructure of things. Focus on fast tracking QC and an interim solution (pre-QC) such as a mix of Nvidia’s GPU, blockchain for financial transactions, etc. to improve the infrastructure and Net then investors will begin to pay more attention to AI, etc.

After more than 60 years since its conceptual inception — and after too many hype-generating moments — AI is yet again making its presence felt in mainstream media.

Following a recent WEF report, many perceive AI as a threat to our jobs, while others even go so far to assert that it poses a real threat to humanity itself.

Continue reading “What Does it Mean to ‘Move to the Cloud’? This eBook Breaks Down the Myths” »

We’re not there yet. First step will be BMIs which last week’s announcement of the 1st successful human BMI enabling a paralyzed man to use his hands again. Once we perfect BMI plus bio computing as well as other nano technologies we can then say we’re in the age of real HCI and Singularity.

Very nice; Silicon based Quantum Laser has been achieved. Imagine what this does for ISPs and other communications. smile

A team of researchers from across the country, led by Alexander Spott, University of California, Santa Barbara, USA, have built the first quantum cascade laser on silicon. The advance may have applications that span from chemical bond spectroscopy and gas sensing, to astronomy and free-space communications.

Integrating lasers directly on silicon chips is challenging, but it is much more efficient and compact than coupling external laser light to the chips. The indirect bandgap of silicon makes it difficult to build a laser out of silicon, but diode lasers can be built with III-V materials such as InP or GaAs. By directly bonding an III-V layer on top of the silicon wafer and then using the III-V layers to generate gain for the laser, this same group has integrated a multiple quantum well laser on silicon that operates at 2 µm. Limitations in diode lasers prevent going to longer wavelengths where there are many more applications, so the group turned their attention to using quantum cascade lasers instead.

Continue reading “Team builds first quantum cascade laser on silicon” »