My research focuses on the experimental control of ultracold atoms and molecules for quantum technologies. During my PhD, I engineered radio-frequency dressed magnetic potentials to trap ultracold Rb atoms in novel geometries, such as ring-shaped traps, developing strong expertise in coherent manipulation and precision control of quantum gases. As a Research Associate in The Centre for Cold Matter at Imperial College London, I demonstrated state-dependent collisions between ultracold Rb atoms and laser-cooled CaF molecules, providing key benchmark collision rates toward sympathetic cooling of molecules. Building on this work, I was entrusted with designing, constructing, and commissioning a completely new third-generation molecular experiment from scratch, aimed at achieving Bose–Einstein condensation of CaF molecules. I led the development of the full cryogenic buffer gas source, vacuum and cryogenic systems, high-stability laser architecture, cryogenically shielded science chamber, optical dipole trap, and integrated control electronics; the platform is now fully operational and has successfully achieved trapping of CaF molecules in an optical dipole trap. I have recently joined the Quantum Engineering and Technology Lab, part of the Integrated Quantum Network Hub of the UK at the University of Bristol as a Senior Research Associate. I am currently developing cold-atom quantum memory systems compatible with telecom-wavelength photons for long-distance quantum networks, bridging fundamental many-body physics with scalable quantum communication technologies