Researchers of QDNL’s community member QuTech have engineered a record number of six, silicon-based, spin qubits in a fully interoperable array. These advances will contribute to a scalable quantum computer based on silicon.
UC Berkeley physicist Norman Yao first described five years ago how to make a time crystal — a new form of matter whose patterns repeat in time instead of space. Unlike crystals of emerald or ruby, however, those time crystals existed for only a fraction of a second.
Interesting science through the use of quantum simulations. However, the ‘so what?’ is not apparent. So now what? Read it from the source at the
Intel and QuTech Demonstrate Advances in Solving Quantum Interconnect Bottlenecks A cryogenic controller chip opens the door to solving the ‘wiring bottleneck’ and subsequently to
Dutch researchers establish the first entanglement-based quantum network A team of researchers from QuTech in the Netherlands reports realization of the first multi-node quantum network,
Retraction Nature article Quantized Majorana conductance The authors of the 2018 article Quantized Majorana conductance have retracted this article. The authors were alerted to problems by two
New EU Quantum Flagship consortium launches a project on silicon spin qubits as a platform for large-scale quantum computing The QLSI project brings together 19
Cooling quantum computers Read More… + To keep systems in a quantum state, designers have to minimize the risk of anything disrupting the fragile position.
Reading out qubits like toppling dominoes: a new scalable approach towards the quantum computer Creating a powerful, large-scale quantum computer depends on a clever
NWA funding for taking quantum technology to the public + The Quantum Inspire consortium has received a 4.5 million euro grant from the Dutch Research
