Exploring the frontiers of quantum computation with practical applications, foundational research, and cutting-edge development.
Developing algorithmic frameworks for optimization problems with significant speed advantages over classical approaches.
Research into quantum-resistant encryption techniques to secure data against future quantum computing threats.
Practical implementations in drug discovery, logistics, and machine learning optimization using quantum principles.
Our latest work demonstrates a 40% improvement in quantum computing performance for integer factorization when compared to traditional Shor's algorithm implementations. The research introduces hybrid quantum-classical algorithms for improved error correction and state management in noisy intermediate-scale devices.
Successful testing of multi-qubit coherence in superconducting circuits with over 98% fidelity in 500 microsecond operations.
Novel circuit compilation techniques reduce gate count by 40% while maintaining accuracy in quantum annealing simulations.
View ResultsImplementing new error mitigation protocols that extend coherence time by 33% across quantum dot implementations.
Explore FindingsAccess our latest research paper with detailed methodology, results from 128 qubit experiments, and open-source code repositories for implementation.
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