Abstract
Maintaining image fidelity during transmission is challenging for live optical quantum image transmission. This paper introduces a novel "Quantum-Inspired Adaptive Loss Detection and Real-time Image Restoration" approach. The method incorporates adaptive loss detection and real-time restoration techniques, drawing inspiration from quantum principles to model the optical quantum environment. The core innovation is a near-to-far continuous approach adapted to the quantum environment's dynamics, enhancing image clarity and quality. A Network-in-Network architecture with MLPConv layers is proposed for the system model to estimate the transmission map for image de-hazing using the Reinforcement Learning system (ID-RL). A depth-aware dehazing reinforcement learning framework tackles image regions separately. Experiments demonstrate superior over prior SSIM and PSNR arts, even with minimal training data. Efficiency for real-time usage is shown, with potential for autonomous surveillance applications in smart cities. This quantum-inspired adaptive technique is a promising advancement for live optical quantum image transmission fidelity.
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T.P.P and V.L.N conducted the primary research, data collection, and experimentation. R. R and K. S provided critical guidance, oversight, and expertise throughout the research process. J.M played a pivotal role in data analysis and algorithm development. Y.V. M contributed to the theoretical framework and the interpretation of results. All authors collectively participated in manuscript preparation, editing, and finalizing the research paper for submission.
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Priyanka, T.P., Reji, R., Narla, V.L. et al. Quantum-inspired adaptive loss detection and real-time image restoration for live optical quantum image transmission. Opt Quant Electron 56, 411 (2024). https://doi.org/10.1007/s11082-023-05859-6
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DOI: https://doi.org/10.1007/s11082-023-05859-6