During London Tech Week, UK Prime Minister Theresa May announced a £153m investment in Quantum computing, on top of a pledge of £1bn from the private sector. This eager investment will see the UK move closer to closing the quantum gap separating them from the U.S and China.
IBM has partnered with the University of the Witwatersrand in Johannesburg, making it the first African University in IBM’s Q Network. It is intended that quantum research in Africa will be geared towards cosmology and molecular biology, privileging developments in quantum computing that address specifically African needs.
A Research team at the University of Colorado has used light-activated quantum dots to create nanobio-hybrid organisms, or “living factories” that eat CO2 and convert it into useful, eco-friendly chemicals. The next step would be optimizing the conversion process, with the goal of offering a commercially viable alternative to petrochemical production.
Schroedinger’s cat, the brutal quantum metaphor for superposition and unpredictability, has been turned on its head. Scientists at Yale University have made a leap towards useful quantum computing with their discovery of an ‘early warning system’ for quantum jumps, allowing us to not only predict, but reverse quantum jumps without ever having to directly observe the cat.
Researchers at Peking University have made quantum telecommunication and encryption much more practical and commercially viable. The team were the first in the world to utilize already-existing commercial fibre networks to distribute quantum cryptography keys across a 50km distance.
While the scientific community is still grappling with understanding quantum technology, some experiments are giving more and more scope for potential applications. A collaboration between Griffith University and Nanyang Technological University have created a quantum device that can help model complex weather and traffic systems better than classical computers.
The U.S Department of Defence’s ‘Next Generation Technologies Fund’, in coordination with the Army Research Office has launched an international collaboration comprising three Australian universities and 7 leading U.S. research institutions. They aim to get a step closer to successful quantum computing by developing theoretical methods to analyse the noise around quantum bits with the goal of “canceling” it.
In lieu of viable qubit computing, quantum theory has offered other practical applications as it retrospectively rewrites our conventions of measurement. The “Kilogram” used to refer to a prototype 1KG block of metal in France, but as of Monday, a Kilogram will be measured through its relationship to Planck’s Constant, which allows a Kilogram to retain the same mass regardless of where in the universe it is measured.
There’s a new competitor in the private sector vying for quantum supremacy. Honeywell international inc. brings its expertise in aerospace engineering and control-system hardware specifically to make the quantum race even more competitive as it boasts record-breaking fidelity in trapped-ion technology.
Researchers at MIT’s Research Laboratory of Electronics have developed a way to generate high-quality photons without having to trade indistinguishability for efficiency. Their ability to generate them at room temperature is an important achievement for the democratisation of quantum computing, offering direct applications for consumer quantum computing.
Australian Scientists at UNSW have become the first team in the world to successfully measure the accuracy of silicon two-qubit operations. This major step in the fidelity and viability of quantum computing will have enormous ramifications for international security, particularly in the field of encryption.
“Breaking Records in Quantum ping-pong” University of Chicago creates a remote entanglement system using superconducting qubits that accurately exchanged quantum information along a meter long track.
Scientists at the Moscow Institute of Physics use a Quantum computer to undo the aging of a single, simulated elementary particle by one millionth of a second. Replicating it in nature is another question…
Microsoft reveals it will make their quantum computing development tools open source. Everyone from academic institutions to industry developers can freely make use of Q#, a programming language for writing Quantum code and a quantum simulator.
IBM announces public beta of the next generation of their quantum computing cloud service. This allows greater versatility for the quantum developer community who can now work on the cloud with Qiskit, an open-source framework for programming quantum.
‘Quantum computing a step closer to reality’ – Asia Times
A Joint Research Team from Hong Kong University of Science and Technology and South China Normal University have discovered a novel method that increases the efficiency of producing photonic quantum memories by 70%.