This research project aims to enhance the sensitivity of lateral flow assays (LFAs) by integrating plasmonic amplification through gold nanostars with electrokinetic analyte focusing mechanisms. The student will gain skills in nanomaterial synthesis, device design, and advanced characterization techniques, contributing to improved diagnostic technologies.
This PhD project investigates reproductive isolation and gene flow barriers between the coexisting species Antirrhinum majus and Antirrhinum molle. Using field studies, experimental crosses, and genomic analyses, it aims to quantify barriers to hybridization, characterize genomic divergence, and identify genetic factors influencing phenotypic differences, with comprehensive training in evolutionary genetics included.
This project investigates how to determine the origin of chemical compounds using isotopic variations detected through Nuclear Magnetic Resonance (NMR) spectroscopy. By combining NMR data with Bayesian methods and machine learning, the aim is to enhance source attribution accuracy for forensic and environmental applications. Candidates should be interested in statistical techniques and data analysis.
This research project in the [member information] lab explores quantum networks utilizing spin defects in silicon carbide. The aim is to design and fabricate nano-photonic SiC devices for efficient optical entanglement and spin-qubit control, contributing to scalable quantum networks. Candidates should have a Master's degree in physics or related fields.