TY - JOUR
T1 - Exploration of fs-laser ablation parameter space for 2D/3D imaging of soft and hard materials by tri-beam microscopy
AU - Gholinia, A.
AU - Donoghue, J.
AU - Garner, A.
AU - Curd, M.
AU - Lawson, M.J.
AU - Winiarski, B.
AU - Geurts, R.
AU - Withers, P.J.
AU - Burnett, T.L.
PY - 2024/3/1
Y1 - 2024/3/1
N2 - Tri-beam microscopes comprising a fs-laser beam, a Xe+ plasma focused ion beam (PFIB) and an electron beam all in one chamber open up exciting opportunities for site-specific correlative microscopy. They offer the possibility of rapid ablation and material removal by fs-laser, subsequent polishing by Xe-PFIB milling and electron imaging of the same area. While tri-beam systems are capable of probing large (mm) volumes providing high resolution microscopical characterisation of 2D and 3D images across exceptionally wide range of materials and biomaterials applications, presenting high quality/low damage surfaces to the electron beam can present a significant challenge, especially given the large parameter space for optimisation. Here the optimal conditions and artefacts associated with large scale volume milling, mini test piece manufacture, serial sectioning and surface polishing are investigated, both in terms of surface roughness and surface quality for metallic, ceramic, mixed complex phase, carbonaceous, and biological materials. This provides a good starting place for those wishing to examine large areas or volumes by tri-beam microscopy across a range of materials.
AB - Tri-beam microscopes comprising a fs-laser beam, a Xe+ plasma focused ion beam (PFIB) and an electron beam all in one chamber open up exciting opportunities for site-specific correlative microscopy. They offer the possibility of rapid ablation and material removal by fs-laser, subsequent polishing by Xe-PFIB milling and electron imaging of the same area. While tri-beam systems are capable of probing large (mm) volumes providing high resolution microscopical characterisation of 2D and 3D images across exceptionally wide range of materials and biomaterials applications, presenting high quality/low damage surfaces to the electron beam can present a significant challenge, especially given the large parameter space for optimisation. Here the optimal conditions and artefacts associated with large scale volume milling, mini test piece manufacture, serial sectioning and surface polishing are investigated, both in terms of surface roughness and surface quality for metallic, ceramic, mixed complex phase, carbonaceous, and biological materials. This provides a good starting place for those wishing to examine large areas or volumes by tri-beam microscopy across a range of materials.
KW - 3D EBSD
KW - Femtosecond laser
KW - Large volume serial sectioning technique
KW - Serial block-face scanning electron microscopy (SBEM)
KW - Tri-beam
KW - Xe plasma FIB
UR - http://www.scopus.com/inward/record.url?scp=85180375381&partnerID=8YFLogxK
UR - https://www.mendeley.com/catalogue/9c245346-e06d-3075-9ed3-b97158039a36/
U2 - 10.1016/j.ultramic.2023.113903
DO - 10.1016/j.ultramic.2023.113903
M3 - Article
SN - 0304-3991
VL - 257
JO - Ultramicroscopy
JF - Ultramicroscopy
M1 - 113903
ER -