Quantum information processing Though still in its infancy, quantum information science is nonetheless a rapidly advancing field of endeavor. Our areas of interest include fundamental questions in nonlocality, entanglement and quantum coherence. Present studies are directed towards solid-state superconducting nanoelectronics as a potential candidate for scalable quantum computing, and the application of quantum information processing to adaptive quantum networks. Superconducting nanoelectronics Nanoscale electronics is a rich and interdisciplinary field of investigation. Josephson junctions are a promising candidate for scalable quantum computation –  these systems are uniquely positioned at the borders of quantum and classical regimes, have well-characterized classical dynamics, and have been systematically investigated for evidence of macroscopic quantum coherence, entanglement and superposition. Future high-performance computing approaches hold the potential to incorporate Josephson junction-based flux qubit core processors into superconducting digital electronics such as rapid single flux quantum (RSFQ) logic and hybrid-technology multithreaded (HTMT)-derived architectures. Adaptive quantum networks Quantum learning architectures have been suggested to offer new domains for quantum algorithm design. Machine learning-inspired architectures are self-organizing, robust, and ideal for such tasks as pattern recognition and associative processing. In International Journal of Theoretical Physics Vol. 43, No. 10 we introduce a novel model of superposed adaptive quantum networks, with considerations for high-dimensional dissipative quantum systems in quantum computation and molecular biology.   Accelerated training convergence in superposed quantum networks NATO Advanced Research Workshop, Villa Cagnola, Italy C. Altman, E. Knorring, R. Zapatrin Superpositional Quantum Network Topologies International Journal of Theoretical Physics C. Altman, J. Pykacz, R. Zapatrin Quantum State Engineering with the rfSQUID NATO Advanced Research Workshop on Quantum Chaos C. Altman   Kavli Institute of Nanoscience, TU Delft     NSEC Nanoscale Science and Engineering Center     ARDA Roadmap on Quantum Information Science and Technology   DARPA Quantum Information Science and Technology Project   UNESCO Physics for Tomorrow   UCSD Quantum Learning Seminar     NATO Advanced Research Workshop on Quantum Chaos     NSF Workshop on Coding Theory and Quantum Computing   MIT Lincoln Laboratory   Tinkham Superconductivity Group   Rochester Group in Superconducting Digital Electronics   Orlando Superconducting Circuits Group   Institute for Quantum Information at Caltech   Mabuchi Quantum Optics and Biophysics Group   Superconducting Technology Assessment Acrobat PDF   Superconducting Quantum Computing-Status and Prospects Acrobat PDF Quantum Nanocircuits: Chips of the Future? P. Hadley and J. E. Mooij