Quantum Computers

The Battle for Post-Quantum Security Will be Won by Agility

By Thomas Poeppelmann and Martin Schlaeffer
Due to their special features, quantum computers have the disruptive potential to replace existing conventional computers in many applications. They could, for example, calculate simulations of complex molecules for the chemical and pharmaceutical industry, perform complicated optimizations for the automotive and aviation industry, or create new findings from the analysis of complex financial data. At the same time, quantum computers also raise a lot of security concerns, and while today they don’t have real world applications, their capabilities are expected to grow significantly over the next 10 years. According to Michele Mosca, there is only a 14% chance that RSA2048 will be broken by 2026, but that grows to 50% by 2031. The security community has taken notice and is already preparing for quantum attacks.

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U.S. Taxpayers Supply $2.7M to Dartmouth Engineering in the Name of Qubit Database Development

Funded by a new $2.7 million grant from the US Department of Energy (DOE), Dartmouth Engineering Professor Geoffroy Hautier will lead a three-year, multi-institutional effort to identify qbits, a basic unit of quantum information, in order to transform and advance quantum computing. The team aims to build a database of viable qbits, which can store information in their spin, by analyzing defects in solids.

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U.S. Taxpayers Supply $2.7M to Dartmouth Engineering in the Name of Qubit Database Development

Funded by a new $2.7 million grant from the US Department of Energy (DOE), Dartmouth Engineering Professor Geoffroy Hautier will lead a three-year, multi-institutional effort to identify qbits, a basic unit of quantum information, in order to transform and advance quantum computing. The team aims to build a database of viable qbits, which can store information in their spin, by analyzing defects in solids.

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Uranium Ditelluride as a Topological Superconductor

Scientists on the hunt for an unconventional kind of superconductor have produced the most compelling evidence to date that they’ve found one. In a pair of papers, researchers at the University of Maryland’s (UMD) Quantum Materials Center (QMC) and colleagues have shown that uranium ditelluride displays many of the hallmarks of a topological superconductor–a material that may unlock new ways to build quantum computers and other futuristic devices.

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Uranium Ditelluride as a Topological Superconductor

Scientists on the hunt for an unconventional kind of superconductor have produced the most compelling evidence to date that they’ve found one. In a pair of papers, researchers at the University of Maryland’s (UMD) Quantum Materials Center (QMC) and colleagues have shown that uranium ditelluride displays many of the hallmarks of a topological superconductor–a material that may unlock new ways to build quantum computers and other futuristic devices.

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