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TOPICAL COLLECTIONS

Oxidative Stress–Immune Crosstalk in Liver Injury: Experimental Models and Methodologies
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Guest Editor

Rami Muath Mosaoa

Rami Muath Mosaoa

King Abdulaziz University, Biochemistry Department

<p>Dr. Rami Mosaoa is an assistant professor of biochemistry in the Department of Biochemistry, Faculty of Science, King Abdulaziz University, Saudi Arabia. His research focuses on oxidative stress, redox signaling, immunometabolism, and the molecular mechanisms underlying liver injury, cancer, and metabolic disorders. He has published on oxidative stress-mediated tissue injury, inflammation, and cellular signaling pathways, with particular emphasis on identifying therapeutic targets and translating mechanistic discoveries into potential clinical applications. His current research combines experimental models with computational biology, multi-omics analyses, and artificial intelligence to advance precision medicine and drug discovery. As a guest editor, he is committed to promoting rigorous, reproducible experimental methodologies and fostering interdisciplinary collaboration in redox biology, immunology, and hepatology.&nbsp;</p>

Collection Overview

Oxidative stress and immune responses are increasingly recognized as interconnected drivers of acute and chronic liver injury, influencing disease initiation, progression, tissue repair, and therapeutic outcomes across a broad spectrum of liver disorders. Despite significant advances in redox biology, immunology, and molecular technologies, experimental approaches for investigating oxidative stress– immune crosstalk remain diverse and often lack methodological standardization, limiting reproducibility and cross-study comparisons.

 

This Topical Collection aims to provide a comprehensive resource of high-quality visual protocols showcasing state-of-the-art experimental models and methodologies for studying oxidative stress– immune interactions in liver injury. Areas of interest include in vitro and in vivo liver injury models, reactive oxygen species detection, immune cell isolation and functional characterization, mitochondrial biology, immunometabolism, ferroptosis and other regulated cell death pathways, advanced imaging, organoid systems, and multi-omics technologies.

 

By bringing together reproducible protocols from leading investigators, this collection will promote methodological standardization, facilitate interdisciplinary collaboration, and accelerate mechanistic and translational research in hepatology, redox biology, and immunology. It will serve as a practical reference for researchers seeking reliable experimental techniques to advance our understanding of liver disease and support the development of innovative therapeutic strategies.