Compression Batching for Quantum Cloud

๐Ÿ”” Quantum Wish Bell https://www.quantumwishbell.com/researchThis work introduces compression batching for quantum cloud systems: a method to encode many independent classical payloads (e.g., user requests or jobs) into a constant-width quantum circuit. By mapping each payload deterministically to a phase rotation, multiple payloads can share a single qubit via additive rotations. The result is one rz(ฮธ) per qubit, with optional entangling gates to preserve coherence across the system. On IBM Quantum hardware, this approach enables dozens of independent jobs to execute simultaneously within a compact multi-qubit circuit. For example, 50 independent tasks can be compressed into a single 5-qubit job (5 qubits ร— 10 payloads per qubit), reducing cost per task from approximately $1.50 (one job each) to ~$0.03 (shared job). An audit trail is maintained so each payload can be traced back to its contribution within the compressed execution. This method offers: Significant cost and runtime reduction for quantum cloud execution A strategy for scalability and sustainability of quantum workloads An open framework for auditability and reproducibility in multi-payload quantum circuits We release this technique openly for the community to test, extend, and critique, with the goal of supporting broader adoption of efficient quantum execution models. Keywords: quantum computing, circuit compression, batching, IBM Quantum, cloud execution, quantum workloads, resource optimisation

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-08-28
DOI
https://doi.org/10.5281/zenodo.16973162
Primary Topic
Geochemistry and Geologic Mapping
Type
article
Field-Weighted Citation Impact
0.00
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article

Compression Batching for Quantum Cloud

Zenodo (CERN European Organization for Nuclear Research)
Geochemistry and Geologic Mapping
article

Compression Batching for Quantum Cloud

article en

Abstract

๐Ÿ”” Quantum Wish Bell https://www.quantumwishbell.com/researchThis work introduces compression batching for quantum cloud systems: a method to encode many independent classical payloads (e.g., user requests or jobs) into a constant-width quantum circuit. By mapping each payload deterministically to a phase rotation, multiple payloads can share a single qubit via additive rotations. The result is one rz(ฮธ) per qubit, with optional entangling gates to preserve coherence across the system. On IBM Quantum hardware, this approach enables dozens of independent jobs to execute simultaneously within a compact multi-qubit circuit. For example, 50 independent tasks can be compressed into a single 5-qubit job (5 qubits ร— 10 payloads per qubit), reducing cost per task from approximately $1.50 (one job each) to ~$0.03 (shared job). An audit trail is maintained so each payload can be traced back to its contribution within the compressed execution. This method offers: Significant cost and runtime reduction for quantum cloud execution A strategy for scalability and sustainability of quantum workloads An open framework for auditability and reproducibility in multi-payload quantum circuits We release this technique openly for the community to test, extend, and critique, with the goal of supporting broader adoption of efficient quantum execution models. Keywords: quantum computing, circuit compression, batching, IBM Quantum, cloud execution, quantum workloads, resource optimisation

Zenodo (CERN European Organization for Nuclear Research)
Industry, innovation and infrastructure
Openalex Percentile: Top 63%
Geochemistry and Geologic Mapping
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