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Review
. 2024 Jul 5;30(38):e202400633.
doi: 10.1002/chem.202400633. Epub 2024 Jun 18.

Radiation-Induced Molecular Processes in DNA: A Perspective on Gas-Phase Interaction Studies

Affiliations
Review

Radiation-Induced Molecular Processes in DNA: A Perspective on Gas-Phase Interaction Studies

Thomas Schlathölter et al. Chemistry. .

Abstract

Studying the direct effects of DNA irradiation is essential for understanding the impact of radiation on biological systems. Gas-phase interactions are especially well suited to uncover the molecular mechanisms underlying these direct effects. Only relatively recently, isolated DNA oligonucleotides were irradiated by ionizing particles such as VUV or X-ray photons or ion beams, and ionic products were analyzed by mass spectrometry. This article provides a comprehensive review of primarily experimental investigations in this field over the past decade, emphasizing the description of processes such as ionization, fragmentation, charge and hydrogen transfer triggered by photoabsorption or ion collision, and the recent progress made thanks to specific atomic photoabsorption. Then, we outline ongoing experimental developments notably involving ion-mobility spectrometry, crossed beams or time-resolved measurements. The discussion extends to potential research directions for the future.

Keywords: DNA structures; Oligonucleotides; X-ray absorption spectroscopy; gas-phase reactions; mass spectrometry; photoelectron spectroscopy; time resolved spectroscopy.

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