PA Cazade

The Faculty of Science and Engineering at Maynooth University is offering a PhD scholarship in the Department of Chemistry for a project titled "Multi-Scale Computational Framework for Charge Transport and Thermoelectric Properties in Self-Assembled Monolayer Molecular Junctions." This research opportunity is ideal for students interested in computational chemistry, biochemistry, and materials science, focusing on the development and application of advanced computational models to investigate charge transport and thermoelectric phenomena in molecular junctions. The project aims to bridge the gap between quantum chemistry and materials science by employing multi-scale modeling techniques to understand the electronic structure and energy conversion processes in self-assembled monolayer systems. The successful candidate will work under the supervision of Professor PA Cazade, engaging in cutting-edge research that combines simulation, chemical physics, and nanotechnology. The research will contribute to the advancement of organic electronics and the design of novel materials for energy applications. Applicants should have a strong academic background in chemistry, biochemistry, materials science, or a closely related discipline. Experience with computational methods, quantum chemistry, and molecular modeling is highly desirable. Programming skills and familiarity with simulation software will be advantageous. The scholarship provides funding for tuition and research expenses, supporting the student throughout their PhD studies. The position is open to students intending to commence their PhD studies in September 2026. The application deadline is 1 May 2026. Interested candidates should prepare a CV, academic transcripts, and a cover letter outlining their suitability for the project. Applications should be submitted via the provided FindAPhD link. For further information, applicants may contact the Department of Chemistry at Maynooth University. This opportunity offers a stimulating research environment, access to state-of-the-art facilities, and the chance to contribute to innovative developments in computational chemistry and materials science. The scholarship is designed to attract talented and motivated students who are eager to pursue advanced research in molecular junctions and thermoelectric properties.