Synthesis of the Nanoscintilators and Characterization of the NanoparticlesInvolved in X-Ray Activated Therapy for Cancer Research
Session Number
MEDH 46
Advisor(s)
Chin-Tu Chen
Hannah Zhang, University of Chicago Department of Radiology
Discipline
Medical and Health Sciences
Start Date
17-4-2024 10:25 AM
End Date
17-4-2024 10:40 AM
Abstract
In cancer treatment, nano-scintillators have emerged as crucial for advancing X-ray-activated therapy. These innovative materials possess a unique ability to convert X-ray radiation into visible light, enhancing the effectiveness of treatment and reducing damage to healthy tissues. This paper provides an in-depth exploration of the synthesis and characterization of nano-scintillators designed explicitly for this purpose. It delves into various fabrication techniques to create nanoparticles with precise control over their size, shape, and composition, optimizing their light-emitting capacity and ensuring compatibility with the human body. The characterization process involves a multidisciplinary approach, utilizing spectroscopic, structural, and imaging analyses to gain a comprehensive understanding of the properties and performance of the nanoparticles when exposed to X-ray radiation. A thorough grasp of these nanoparticles' physical and chemical characteristics is crucial for their successful integration into cancer therapy protocols. As a result, this study makes a significant contribution to the development of next-generation nanomaterials, ultimately improving targeted and efficient cancer treatment strategies and opening up new avenues for research in the field of oncology.
Synthesis of the Nanoscintilators and Characterization of the NanoparticlesInvolved in X-Ray Activated Therapy for Cancer Research
In cancer treatment, nano-scintillators have emerged as crucial for advancing X-ray-activated therapy. These innovative materials possess a unique ability to convert X-ray radiation into visible light, enhancing the effectiveness of treatment and reducing damage to healthy tissues. This paper provides an in-depth exploration of the synthesis and characterization of nano-scintillators designed explicitly for this purpose. It delves into various fabrication techniques to create nanoparticles with precise control over their size, shape, and composition, optimizing their light-emitting capacity and ensuring compatibility with the human body. The characterization process involves a multidisciplinary approach, utilizing spectroscopic, structural, and imaging analyses to gain a comprehensive understanding of the properties and performance of the nanoparticles when exposed to X-ray radiation. A thorough grasp of these nanoparticles' physical and chemical characteristics is crucial for their successful integration into cancer therapy protocols. As a result, this study makes a significant contribution to the development of next-generation nanomaterials, ultimately improving targeted and efficient cancer treatment strategies and opening up new avenues for research in the field of oncology.