Novel IPv6 Extension Header design enables quantum teleportation, quantum routing, and superpositions of quantum processes in the Quantum Internet while maintaining backward compatibility with classical infrastructure.

#QuantumNetworking #QuantumRouting #Research

Establishes closed-form spectral characterization of qLDPC Tanner graphs enabling multi-layer AOL routing with 50-300× wall-clock speedup for neutral atom quantum error correction implementations.

#QuantumErrorCorrection #QuantumRouting #Research

Proposes routing protocol reducing decision complexity to O(1) using local measurement and classical feedforward, enabling scalable multi-party entanglement generation on trapped-ion platforms with 80× safety margin below qubit coherence time.

#QuantumNetworks #QuantumRouting #Research

dSABRE reduces inter-core EPR consumption by 41-44% versus TELESABRE through capacity-aware teleportation scoring, proactive congestion relief, and BFS-layer lookahead. Validated across 25-360 qubit benchmark circuits.

#QuantumRouting #DistributedQC #QuantumCompilation

QAP-Router achieves 15.7-30.4% reduction in CNOT gate overhead for quantum circuit routing by framing the NP-hard qubit routing problem as a dynamic QAP solved with RL, matching or exceeding state-of-the-art compilers across 1,831 real-world circuits.

#QuantumCompilation #QuantumRouting #Research

Establishes O(dC log NL) block routing depth for surface code patches on Ramanujan hypergraphs, improving from O(dC √NL) on grids and enabling scalable fault-tolerant quantum computation on neutral-atom and trapped-ion architectures.

#QuantumRouting #FaultTolerance #Research

Proves permutation routing on Ramanujan hypergraphs achieves Θ(logN) depth vs. Θ(√N) for grids. Provides constructive algorithms and demonstrates 7× speedup for neutral atom architectures at N∼10,000.

#NeutralAtomQubits #QuantumRouting #Research