Effect of DNA Damage on the Development of Diabetes Mellitus due toIonizing Radiation Exposure

Exposure to ionizing radiation destroys several biological processes by disturbing the membranes of cells and causing damage to DNA, proteins, and mitochondria. Increasing the use of ionizing radiation-based treatment and diagnosis techniques has been associated with the increased chronic diseases among healthcare occupational and patients. However, numerous factors such as duration of exposure, radiation dose, dose rate, the organs of the body exposed, and the person's age impact the ionizing radiation-induced chronic effect. Exposure to ionizing radiation has various harmful effects on healthy tissues; long-term exposure to radiation increases the risk of carcinogenesis and autoimmune diseases such as diabetes. A recent study has also highlighted its potential role in the development of diabetes. This review examines the linkage between radiation-induced DNA damage and diabetes and Explores how radiation can contribute to the emergence and worsening of this chronic metabolic disorder. This review study aims to offer an exhaustive summary of how radiation-induced DNA damage promotes diabetes hazards, highlighting areas for future studies. Also, taking oral antioxidants to protect from radiation-induced DNA damage and mitigate oxidative damage and inflammatory markers after radiation exposure may reduce the incidence of diabetes. Radiation can cause damage to DNA through ionization, which creates free radicals that attack the DNA structure, leading to mutations or breaks in the DNA strands. If this damage occurs in cells involved in glucose regulation or insulin production, it may contribute to the development of diabetes.

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Publication Details

Journal
Academic Science Journal
Published
2025-04-29
DOI
https://doi.org/10.24237/asj.03.02.830b
Primary Topic
Cancer Research and Treatment
Type
article
Field-Weighted Citation Impact
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article

Effect of DNA Damage on the Development of Diabetes Mellitus due toIonizing Radiation Exposure

Lina S. Al-Jameel, Haider Fadhil Alrubaye, Safaa Ehssan Atta, Lujain Ali Ghannawi et al.
Academic Science Journal
Cancer Research and Treatment
article

Effect of DNA Damage on the Development of Diabetes Mellitus due toIonizing Radiation Exposure

Lina S. Al-Jameel, Haider Fadhil Alrubaye, Safaa Ehssan Atta, Lujain Ali Ghannawi, Amir Mohammed
article en

Abstract

Exposure to ionizing radiation destroys several biological processes by disturbing the membranes of cells and causing damage to DNA, proteins, and mitochondria. Increasing the use of ionizing radiation-based treatment and diagnosis techniques has been associated with the increased chronic diseases among healthcare occupational and patients. However, numerous factors such as duration of exposure, radiation dose, dose rate, the organs of the body exposed, and the person's age impact the ionizing radiation-induced chronic effect. Exposure to ionizing radiation has various harmful effects on healthy tissues; long-term exposure to radiation increases the risk of carcinogenesis and autoimmune diseases such as diabetes. A recent study has also highlighted its potential role in the development of diabetes. This review examines the linkage between radiation-induced DNA damage and diabetes and Explores how radiation can contribute to the emergence and worsening of this chronic metabolic disorder. This review study aims to offer an exhaustive summary of how radiation-induced DNA damage promotes diabetes hazards, highlighting areas for future studies. Also, taking oral antioxidants to protect from radiation-induced DNA damage and mitigate oxidative damage and inflammatory markers after radiation exposure may reduce the incidence of diabetes. Radiation can cause damage to DNA through ionization, which creates free radicals that attack the DNA structure, leading to mutations or breaks in the DNA strands. If this damage occurs in cells involved in glucose regulation or insulin production, it may contribute to the development of diabetes.

Academic Science JournalVol. 3(2)
Mustansiriyah University (IQ)
Openalex Percentile: Top 83%
Cancer Research and Treatment
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