Hybrid Superconductor-Semiconductor Materials, Architectures, and Circuits

Classical computing and information systems have defined the modern world. Driven by the search for faster, more robust, energy-efficient computing, quantum computing has emerged as a feasible complementary system. But for quantum computing to become widespread, it is necessary to develop tight integration with classical computing and information systems, develop new architectures, and make further technical advances in both classical and quantum computing. However, the materials and architectures that will enable all of these advances and integration are largely unknown. The Hybrid Superconductor-Semiconductor Devices GRC aims to bridge the classical (semiconductor) and quantum (superconductor) computing communities, addressing these challenges by advancing novel superconductor-semiconductor devices.

Broad scientific content focused on hybrid superconductor-semiconductor technologies, which highlight their role in the evolution of electronics and photonics, is welcome. This includes topics such as superconductor-semiconductor materials and synthesis, state-of-the-art computing architecture, superconductor qubit devices, semiconductor qubit devices, quantum circuits, topological superconductivity, and more.