Hardware-aware QAOA methodology for cybersecurity applications. Combines hardware noise modeling, error-mitigated expectation estimation, and application-specific problem formulation for 100+ qubit NISQ processors.
Scanned 9/11/2026
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---
name: hardware-aware-qaoa-cybersecurity
description: "Hardware-aware QAOA methodology for cybersecurity applications. Combines hardware noise modeling, error-mitigated expectation estimation, and application-specific problem formulation for 100+ qubit NISQ processors."
metadata:
arxiv_id: "2606.09469"
published: "2026-06-08"
---
# Hardware-Aware QAOA for Cybersecurity
## Core Concepts
QAOA on real NISQ hardware requires accounting for device-specific noise, connectivity, and calibration drift. This paper demonstrates hardware-aware QAOA on 100+ qubit IBM processors for honeypot traffic partitioning.
## Methodology
### Hardware-Aware Problem Formulation
1. Map cybersecurity problem to QUBO: Formulate honeypot traffic partitioning as QUBO
2. Hardware topology awareness: Account for qubit connectivity constraints
3. Noise-aware circuit design: Incorporate device-specific error rates into compilation
### Error-Mitigated Expectation Estimation
1. Readout error mitigation: Apply measurement error mitigation using calibration data
2. Zero-noise extrapolation: Scale circuit noise and extrapolate to zero-noise limit
3. Sampling optimization: Use efficient sampling strategies to reduce shot count
## Activation Keywords
- hardware-aware qaoa
- honeypot traffic partitioning
- cybersecurity quantum optimization
- QAOA on real hardware
- noise-aware quantum algorithm
- NISQ QAOA deployment
## Pitfalls
- Hardware calibration drift degrades QAOA performance between calibrations
- SWAP gates for non-connected qubits increase circuit depth exponentially
- Shot count scales as O(1/epsilon^2) for epsilon precision
- 100+ qubit problems require careful qubit selection based on connectivity graph
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