“…The most obvious solution was to exploit the physical, optical, and color changes following radiation treatment. , The most widespread solution was based on composite films whose matrix is an easy-to-cast polymer that interacts with different host molecules without affecting their colorimetric, physical, or optical characteristics. , At present, functional polymers are widely investigated in various fields. − Several polymers have been reported as matrices of thin-film dosimeters, such as PVA, nylon-6, polystyrene, polymethyl methacrylate, and polyvinyl chloride. Their possible doping using different dyes preceding their irradiation was studied, and their dosimetric efficiency was evaluated. − In line with this, the investigation of PVA-doped films has shown great interest in several studies and research. , PVA has shown more opportunities due to its low cost, availability, nontoxicity, water solubility, and ability to incorporate a wide range of transition metal salts and dyes. − Currently, nanofibrous materials via different electrospinning technologies are widely reported and proven effective in various biomedical applications including tissue engineering, wound dressing, drug delivery, regenerative medicine, disease modeling, and detection/biodetection. − These sustainable electrospun composites were effective due to their ease of operation, nanoscale diameter, wide specific surface, high porosity, cost-effectiveness, and the considerable adaptability for engineering eco-friendly bioactive nanomaterials. , Electrospun nanomaterials synthesized by mixing high molecular weight polymers and different sensitive dye molecules could be an effective way to prepare various nanomaterials as dosimeters of different γ-ray exposure levels.…”