A Postdoctoral Research Associate in the Battcock Centre for Experimental Astrophysics, working across precision opto-mechanical engineering, cryogenics, thermal-mechanical modelling, and the development of ultra-stable instrumentation for astronomy. Current work focuses on the mechanical design, structural analysis, and system integration of key subsystems for the HARPS3 spectrograph at the Isaac Newton Telescope, including vacuum, cryogenic, and optical assemblies. Additional responsibilities include the mechanical development of the delay-line system for the Magdalena Ridge Observatory Interferometer and the design and optimisation of large-format precision gratings, with emphasis on advanced manufacturing, metrology, and high-stability mechanical support structures.
The role spans vibration and frequency optimisation, finite-element modelling, 3D-printed metal component development, and hands-on assembly, testing, and commissioning of complex instrument hardware. It also extends to coordinating logistics for heavy scientific equipment, managing container and vacuum-vessel moves, and ensuring full compliance with export-control regulations for international shipments.
Before joining Cambridge, experience was built across industry and academic environments, working in mechanical design, product development, and precision manufacturing. This included responsibilities in prototyping, CAD/CAE analysis, tolerance engineering, machining processes, and thermal-mechanical system design. A strong foundation in practical engineering supports the ability to translate scientific requirements into manufacturable, high-precision hardware. During doctoral research in Mechanical Engineering, work centred on precision systems, structural behaviour, and experimental validation, further strengthening expertise in advanced mechanical design.
Across both industry and academia, he has developed a strong reputation for practical problem-solving, system-level engineering insight, and effective coordination across diverse technical teams. His work contributes directly to next-generation astronomical instrumentation and advances in precision manufacturing and thermal-mechanical system design, supporting large-scale international science programmes and demanding high-stability engineering environments.
