Research Tracks

This track explores the design, analysis, and implementation of novel quantum algorithms. We welcome research on quantum advantage, error correction methodologies, and hybrid quantum-classical optimization techniques.

Focuses on the physical realization of quantum computers. Topics range from foundational qubit design (superconducting, trapped ion, topological) to scalable processor architectures and cryogenic control systems.

Addresses the profound impact of quantum computing on modern cryptography. We seek papers on post-quantum cryptographic primitives, quantum key distribution (QKD) protocols, and quantum-safe network architectures.

Dedicated to the software and systems engineering required to bridge quantum processors with classical HPC infrastructure. Includes compiler design, intermediate representations, and cloud APIs.

Explores the use of quantum states to achieve unprecedented precision in measurement. Applications include medical imaging, environmental monitoring, and fundamental physics tests.

Investigates the generation, manipulation, and detection of non-classical light. This track covers continuous-variable quantum computing, integrated quantum photonics, and single-photon sources.