| Abstract Scope |
Laser-aided manufacturing offers a transformative approach to material processing, precision structuring, and scalable production in advanced energy systems and electronics. By leveraging tailored laser parameters (wavelength, pulse duration, repetition rate) and process monitoring, I explore laser‐material interactions across domains including lithium-ion and solid-state battery electrodes, bipolar plates for fuel-cells, semiconductor packaging, and nuclear-power plant decommissioning. For battery manufacture, laser micro-structuring enhances electrode wettability and rate-capability; precision laser welding and drilling improve interconnect reliability in semiconductor and fuel-cell stacks. In nuclear decommissioning, laser scabbling of concrete enables selective material removal with minimal secondary waste. My work integrates experimental trials, computational modelling of heat- and mass-transport, and scalable up-grading strategies, thus bridging laboratory research and industrial implementation. The resulting portfolio of published studies demonstrates how laser‐based processing delivers competitive advantages for next-generation manufacturing platforms. |