U.S. Defense Advanced Research Projects Agency Aims at 500x Optimization Improvement With Quantum-Inspired Processing Power

Department of Defense (DOD) must solve many complex optimization problems to enable mission capabilities – from determining the most efficient way to distribute supplies to minimizing warfighters’ exposure to hostile forces. Solving these intricate scenarios is difficult, largely owing to the limitations of existing computing resources. Today, many optimization problems are solved on conventional computers running both heuristic and approximate algorithms, extracting the best solutions allowed by the limited time and energy that is available. Many believe quantum computing could be the answer. While there are potential advantages to quantum information processing, there is not enough supporting evidence to show that a quantum solution would be suitable for the size, weight, and power limits of many DOD mission-relevant applications.

Goldman Sachs, QC Ware and IonQ Demonstrate Quantum Algorithms Proof-of-Concept That Will Revolutionize Financial Services, Other Industries

Goldman Sachs, QC Ware and IonQ Demonstrate Quantum Algorithms Proof-of-Concept That Will Revolutionize Financial Services, Other Industries Goldman Sachs, QC Ware and IonQ, Inc. (“IonQ”) today announced a significant step forward in the real-world application of quantum computing for the financial services industry. Specifically, a new research paper shows how IonQ’s quantum computers are now powerful enough […]

Decentralizing Europe’s Energy Infrastructure Gets a Quantum Computing Boost

E.ON allies with IBM Quantum to Advance Energy Transition Goals IBM and E.ON aim to drive the transformation of the energy industry with Quantum Computing. E.ON is now the first utilities company in Europe to work with IBM Quantum to implement quantum solutions for their critical workflow. The goal is to explore the potential of […]

Getting the Output Right: Team Takes to Task Achieving Full Advantage of Quantum Computing

Quantum computers are advancing at a rapid pace and are already starting to push the limits of the world’s largest supercomputers. Yet, these devices are extremely sensitive to external influences and thus prone to errors which can change the result of the computation. This is particularly challenging for quantum computations that are beyond the reach of our trusted classical computers, where we can no longer independently verify the results through simulation. “In order to take full advantage of future quantum computers for critical calculations we need a way to ensure the output is correct, even if we cannot perform the calculation in question by other means,” says Chiara Greganti from the University of Vienna.