Submit an Abstract
Deadline June 13, 2019, 11:59 pm (ET)
Symposium MQ02—Materials for Quantum Computing Applications
The operation of quantum computing hardware requires an extremely low-noise, low-dissipative environment to maintain quantum coherence of the qubits as the signals for the computation are at the single-photon energy level. For example, ion-trap qubits require ultra-high vacuum to maintain the coherence of motional states that couple the ion qubits in the trap. Most solid-state qubits such as superconducting qubits, quantum-dots and spins must be made of low-loss high quality (Q) factor materials with low defects. Many of these qubits must be operated at very low-temperatures to suppress thermal noise effects. The materials for quantum computing applications need to function as intended at such extreme environments as well as to be low-noise, low-dissipative for high quantum coherence.
The technologies to build various quantum computing hardware platforms have advanced significantly over the past two decades. The importance of quantum-computing qualified materials has never been higher as quantum processors are scaling up and becoming more integrated. To move forward to the next generation quantum computing processors, ongoing research in the area of materials for quantum computing devices must continue.
This symposium will bring together experts on various quantum computing hardware materials across industry, academia and national laboratories. The symposium is to promote exchanging information among researchers, catalyze discovery, development of new materials, and improve existing material qualities for quantum computing applications. We hope this workshop will provide information to material scientists who want to learn more about quantum computing hardware and challenges as well as inform quantum information scientists about new material opportunities.
Invited talks will review the history, cutting-edge status of quantum material research, including the requirements, goals and roadmaps of the material development for each quantum hardware platform.