AI joins the fight against Leukemia.
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Nice write up about why businesses need to worry about QC sooner v. later. Glad to see more spreading the word.
It’s coming sooner than you think.
By Greg Satell
For all my Lab friends who utilize Spectrometers, drill bit fans as well as many of us QC fans. A new stronger syn. diamond being developed.
But you won’t find this diamond on any engagement rings — it will help cut through ultra-solid materials on mining sites.
Step aside, girls. Diamonds may now be a miner’s best friend, thanks to scientists from Australian National University (ANU).
Led by ANU professor Jodie Bradby, an international team is creating a hexagonal diamond, called Lonsdaleite, that’s predicted to be harder than a jeweler’s diamond. The researchers made nano-sized Lonsdaleite at 400 degrees Celsius (752 degrees Fahrenheit), effectively halving the temperature in which it can be formed in a lab. They’ve published their work in Scientific Reports.
More proof that Precision Medicine can predict and solve complex health issues.
Brain scans could help predict response to psychotherapy for anxiety and depression.
Nov. 10, 2016 – Brain imaging scans may one day provide useful information on the response to psychotherapy in patients with depression or anxiety, according to a review of current research in the November/December issue of the Harvard Review of Psychiatry, published by Wolters Kluwer.
A successful production trial by Australian battery technology innovator Nano-Nouvelle has proved its pioneering nanotechnology supports industrial-scale manufacture, with output rates 100 times faster.
The Sunshine Coast-based company is developing world-leading nanotechnology that can boost the energy storage capacity of lithium ion batteries by as much as 50 per cent. Lithium ion batteries are used in devices ranging from mobile phones and notebooks to and electric vehicles and home energy storage systems.
As well as proving its technology, Nano-Nouvelle has worked with companies worldwide to ensure its battery-boosting breakthrough is usable with today’s production lines.
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Improving Precision with Quantum — A new Precise Quantum Current Source developed to ensure calibrated currents meet the new redefined International System of Units.
A precision quantum current source has been designed to calibrate currents in terms of the soon-to-be-redefined International System of Units.
Metrologists are conservative by nature, knowing that the premature adoption of a new measurement standard could lead to confusion in both science and commerce. So it is a big deal that the International System of Units (SI) is poised to undergo its first major overhaul since its birth in 1960. Two years from now at the General Conference on Weights and Measures in Paris, officials will adopt a new SI in which every unit can be obtained from fixed values of several fundamental constants [1]. All eyes are on the kilogram, which will no longer be defined by the mass of a cylinder of platinum-iridium alloy that has been kept in a Parisian vault since it was fabricated in 1889. Somewhat overlooked, however, are advances in standards for electrical resistance and voltage, without which the new SI would not be possible.
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This is a BIG DEAL in QC, and Russian Scientists solved it.
Abstract: Scientists from the Institute of Physics and Technology of the Russian Academy of Sciences and MIPT have let two electrons loose in a system of quantum dots to create a quantum computer memory cell of a higher dimension than a qubit (a quantum bit). In their study published in Scientific Reports, the researchers demonstrate for the first time how quantum walks of several electrons can help to implement quantum computation.
“By studying the system with two electrons, we solved the problems faced in the general case of two identical interacting particles. This paves the way toward compact high-level quantum structures,” comments Leonid Fedichkin, Expert at the Russian Academy of Sciences, Vice-Director for Science at NIX (a Russian computer company), and Associate Professor at MIPT’s Department of Theoretical Physics.
In a matter of hours, a quantum computer would be able to hack through the most popular cryptosystem used even in your web browser. As far as more benevolent applications are concerned, a quantum computer would be capable of molecular modeling that takes into account all interactions between the particles involved. This in turn would enable the development of highly efficient solar cells and new drugs. To have practical applications, a quantum computer needs to incorporate hundreds or even thousands of qubits. And that is where it gets tricky.