研究目的
To characterise the deposited energy density during laser-matter interaction in liquids and solids under extreme conditions of microplasma generation.
研究成果
The developed approach provides a comprehensive understanding of laser-matter interaction by measuring energy delivery into the medium, restoring laser pulse propagation, and retrieving the deposited energy density. It is crucial for precision control of laser micromachining, bioprocessing, and biotreatment.
研究不足
The approach does not account for two-photon absorption, aberrations, and light scattering on laser-induced plasma in the determination of the deposited energy density. Additionally, the calibration of photoacoustic images requires shadowgraphy, which may introduce complexities.