TORII Labs conducts foundational and applied research across distributed quantum computing, quantum network communications, and dual-use national security applications.
A distributed implementation of the Variational Quantum Eigensolver algorithm partitioned across geographically separated quantum processing units. Targeting molecular simulation at scales beyond single-node coherence limits.
Engineering a metropolitan-scale QKD network leveraging entangled photon pairs for information-theoretically secure key exchange. Prototype deployment targeting fiber and free-space hybrid links.
A structured migration framework for transitioning legacy defense and government cryptographic infrastructure to NIST-standardized post-quantum algorithms (CRYSTALS-Kyber, CRYSTALS-Dilithium, SPHINCS+).
Investigating the implementation of topological surface codes across distributed quantum nodes connected via classical and quantum channels, with focus on fault-tolerant logical qubit construction.
Benchmarking study comparing quantum annealing and gate-based approaches against classical solvers for large-scale combinatorial logistics optimization. Results demonstrate quantum advantage at N > 500 variable instances.
Development of quantum-secured communication protocols for tactical military networks. Full technical details are restricted. Partnership inquiries may be directed through cleared channels.
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