From Photons to Patients: AI-Driven Photonic Systems for Global Health

This paper presents a unifying scientific framework that bridges photonics, artificial intelligence (AI), and biomedical computation to redefine the concept of global healthcare. By translating photon-based information processing into actionable clinical intelligence, the study establishes the foundation of Photon–AI Global Health Systems — an integrative medical architecture where diagnostic, therapeutic, and predictive functions operate with light-speed precision and energy efficiency. Building upon previous advances in photon-assisted molecular docking, real-time AI–photon interaction mapping, and adaptive therapeutic optimization, this research extends the paradigm from microscopic molecular analysis to macroscopic clinical ecosystems. The proposed model envisions a distributed network of photonic medical processors capable of autonomous decision-making, self-learning diagnostics, and instant therapeutic recalibration across diverse healthcare environments. Crucially, this approach is designed for global equity: it can function in low-resource regions through miniaturized, solar-powered photonic units, enabling real-time diagnostics and treatment without dependence on large computational infrastructures. By merging quantum photonics, biocomputation, and AI ethics, the system represents a transformative leap toward sustainable, inclusive, and intelligent medicine — where light becomes both the medium and the message of healing. Keywords: photonics, artificial intelligence, global health, biocomputation, sustainable healthcare, quantum medicine, medical informatics, health equity, photon–AI systems.

Publication Details

Journal
AfricArXiv (OSF Preprints)
Published
2025-10-29
DOI
https://doi.org/10.60763/africarxiv/10250
Primary Topic
Neural Networks and Reservoir Computing
Type
article
Field-Weighted Citation Impact
0.00
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article

From Photons to Patients: AI-Driven Photonic Systems for Global Health

AfricArXiv (OSF Preprints)
Neural Networks and Reservoir Computing
article

From Photons to Patients: AI-Driven Photonic Systems for Global Health

article en

Abstract

This paper presents a unifying scientific framework that bridges photonics, artificial intelligence (AI), and biomedical computation to redefine the concept of global healthcare. By translating photon-based information processing into actionable clinical intelligence, the study establishes the foundation of Photon–AI Global Health Systems — an integrative medical architecture where diagnostic, therapeutic, and predictive functions operate with light-speed precision and energy efficiency. Building upon previous advances in photon-assisted molecular docking, real-time AI–photon interaction mapping, and adaptive therapeutic optimization, this research extends the paradigm from microscopic molecular analysis to macroscopic clinical ecosystems. The proposed model envisions a distributed network of photonic medical processors capable of autonomous decision-making, self-learning diagnostics, and instant therapeutic recalibration across diverse healthcare environments. Crucially, this approach is designed for global equity: it can function in low-resource regions through miniaturized, solar-powered photonic units, enabling real-time diagnostics and treatment without dependence on large computational infrastructures. By merging quantum photonics, biocomputation, and AI ethics, the system represents a transformative leap toward sustainable, inclusive, and intelligent medicine — where light becomes both the medium and the message of healing. Keywords: photonics, artificial intelligence, global health, biocomputation, sustainable healthcare, quantum medicine, medical informatics, health equity, photon–AI systems.

AfricArXiv (OSF Preprints)
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Openalex Percentile: Top 22%
Neural Networks and Reservoir Computing
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