Cross-Architecture Quantum Teleportation via Hyperelliptic Curve Topology: Experimental Demonstration on Commercial QPUs

We report the first successful quantum tele-portation protocol between heterogeneousquantum processing units (QPUs) usingalgebraic-geometric structure as the entan-glement modulation framework. A 5-qubitquantum state was teleported from RigettiComputing’s Ankaa-3 superconducting QPUto IQM Quantum Computers’ Emerald su-perconducting QPU, achieving 80% bit-levelfidelity using only classical communicationchannels. The protocol employs eigen-phases extracted from the period matrix ofgenus-2 hyperelliptic curves to encode quan-tum correlation structure in a hardware-agnostic manner. Our implementation uti-lizes a novel database-coordinated classi-cal channel for Bell measurement trans-mission, demonstrating that standard dis-tributed systems infrastructure can supportquantum networking protocols. The observed∗Independent researcher. Correspondence:github.com/shemshallahfidelity without quantum error correction,combined with the protocol’s architecture-independence, provides strong evidence thattopological encoding offers robustness ad-vantages for distributed quantum comput-ing. We present comprehensive experimen-tal data, theoretical analysis, and a scal-able framework for heterogeneous quantumnetwork construction. Our results establishproof-of-concept for topology-mediated quan-tum communication and suggest pathwaystoward practical quantum internet implemen-tation本研究首次报道了以代数几何结构作为纠缠调制框架的异构量子处理器（quantum processing units, QPUs）间量子隐形传态协议的成功实现。我们将一个5量子比特量子态从里盖蒂计算（Rigetti Computing）公司的Ankaa-3超导量子处理器传输至IQM量子计算公司的Emerald超导量子处理器，仅通过经典通信信道便实现了80%的比特级保真度。 该协议提取自亏格2超椭圆曲线周期矩阵的本征相位，以硬件无关的方式编码量子关联结构。本实验搭建了一套用于贝尔测量传输的新型数据库协调经典信道，证明标准分布式系统基础设施可支撑量子网络协议的运行。 未借助量子纠错条件下所观测到的保真度，结合该协议的架构无关性，为拓扑编码具备分布式量子计算鲁棒性优势提供了有力佐证。我们公开了全面的实验数据、理论分析以及可用于异构量子网络构建的可扩展框架。本研究成果为拓扑介导的量子通信提供了概念验证，并为实用化量子互联网的落地指明了可行路径。 * 独立研究者。联系方式：github.com/shemshallahfidelity