Project 23:
Innovations in flexible perovskite detectors for X-ray detection may involve modifying the hole transport layer materials. This modification aims to enhance the efficiency and sensitivity of the detectors. By tailoring the properties of the hole transport layer, such as conductivity and stability, researchers seek to optimize charge carrier mobility and reduce recombination losses. These advancements hold promise for developing lightweight and bendable X-ray detectors with improved performance and versatility in medical imaging and other applications. Additionally, these advanced detectors hold potential for space applications, where their flexibility and lightweight design could enable compact and durable X-ray imaging systems for space exploration missions, planetary research, and satellite-based observations.
Students will be instructed in the preparation of chemical solutions, techniques of spin-coating and heat treatments for creating of transparent electrode materials. Students will be instructed in the process of measuring of film properties using a variety of spectroscopic, electronic and microscopy techniques. The student will be working for approximately six hours per week, with the possibility of additional necessary hours to meet critical deadlines. Research will predominately occur on Monday and Friday afternoons during each semester.
Over 1-2 semesters, an undergraduate working on this project can expect to gain hands-on experience in perovskite materials and device fabrication, develop skills in experimental techniques and data analysis, and enhance their critical thinking and problem-solving abilities. They will also improve their communication skills through report writing and presentations including at the UGRADS and AzSec conferences. Students will also benefit from opportunities for collaboration with peers and faculty members. These experiences will not only contribute to their academic growth but also prepare them for future careers in scientific research or further studies in related fields.