This book aims to present the age-related alterations in redox signaling networks and their diagnostic biomarkers in aging cells using multidisciplinary approach. Establishing sensitive and specific biomarkers of dynamic redox homeostasis is crucially important in the development of effective antiaging and senolytic interventions. Recent years have seen tremendous advances in the understanding of redox signaling events which highlight the process of aging and age-related pathologies. A major challenge in biological aging research is developing reliable biomarkers to determine the consequences of disrupted redox signaling networks long before the clinical diagnosis of age-related diseases is made. Therefore, we have chosen to concentrate on aging-induced aberrant redox signaling networks, their biomarkers, and pathological consequences in this book.

Although oxidation is a natural metabolic process, the imbalance in the level of oxidants and antioxidants causes oxidative stress and eventually leads to inflammatory conditions, diabetes, neurodegenerative diseases, and cancer. Novel redox-sensitive biomarkers for the evaluation of aging-induced proteinopathies such as amyloid ß and tau proteins in Alzheimer's disease, -synuclein in Parkinson's disease, and islet amyloid polypeptides in type 2 diabetes mellitus recently drew the attention of researchers.

Inside this textbook, readers will find comprehensive perspectives on the association between redox homeostasis and the aging process both at the molecular and clinical levels. Due to the inherent relationship between impaired metabolic activities and oxidative stress, the temporal interaction between intermediary metabolism and disturbed redox status can lead to greater susceptibility to aging-induced diseases and disorders, such as cardiovascular diseases, hypertension, and diabetes. This knowledge could be a key to continued research toward improving medication regimens such as in cancer and cardiovascular therapies, and procedural outcomes for patients.

This book brings together current research evidence and knowledge on redox signaling and biomarkers in aging in chapters written by leading global experts in this rapidly evolving field. We hope that this textbook is of interest to a wide group of researchers, advanced students, scientifically curious non-specialist readers and clinicians alike.

Attracts the attention of a wide group of readership incl. gerontologists, geriatricians, and medical specialists Brings current research evidence and knowledge on redox signaling and biomarkers in aging Contains contributions by great names in the field

Autorentext
About the editorDr. Ufuk Çakatay is a tenured professor of medical biochemistry and a senior scientist at Cerrahpäa Faculty of Medicine, Istanbul University-Cerrahpasa, in Istanbul, Turkey. His research interests include the optimization of various bioanalytical methods to measure the levels of redox status biomarkers in aging tissues as well as anti-aging interventions, establishment experimental animal models for aging studies and redoxtasis in age-related disorders.

He has a long-standing interest in oxidative protein damage and proteostasis biomarkers. In addition, Professor Çakatay has a deep interest in mentoring medical students and fostering their research career. Professor Çakatay has authored more than 100 publications in several leading journals, which include research papers, book chapters, editorials and invited reviews on free radical biology, aging, diabetes, and biological activity of alpha-lipoic acid. He has served as a guest editor, referee or member of the editorial board for more than 50 journals. He has received various prestigious awards such as the top reviewer award from Elsevier Science Publishing and previously served as a committee member in Istanbul University's Committee on Animal Research and Ethics.       

Inhalt
Redox dynamic homeostasis and aging .- Intrinsic and extrinsic factors associated with redox homeostasis and biological aging.- Chapter 3: **** Disturbed redox homeostasis in the aging brain .- Impaired redox homeostasis in cardiovascular aging.- Redox homeostasis status influences skeletal muscle aging. <p