In-Situ Combination of TOF-SIMS and EDS Analysis During FIB Sectioning

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In-Situ Combination of TOF-SIMS and EDS Analysis During FIB Sectioning V. Ray 1, E. Principe 2, T. Piper 2 vray@umd.edu 1. AIM Lab University of Maryland Nanocenter, College Park, MD 2. Tescan USA, Warrendale PA 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD

Outline Tescan GAIA @ AIM Lab, UMD Nanocenter FIB-STEM holder for liftout grids FIB-ORTHO, FIB, and SEM positions EDS mapping on thinned sample TOF-SIMS mapping prior to final thinning 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 2

From Mount Olympus in Greece Gaia was the primal Greek Mother Goddess; creator and giver of birth to the Earth and all the Universe; the heavenly gods, the Titans, and the Giants were born to her. The gods reigning over their classical pantheon were born from her union with Uranus, while the seagods were born from her union with Pontus. Wikipedia, 02/15/2016 Kings of Gods 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 3

by the way of Brno, Czech Republic 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 4

to UMD Nanocenter AIM Lab 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 5

AIM LAB INSTRUMENTATION At Suite 1237, Jeong H. Kim Building High Resolution Analytical TEM Ultra High Resolution Analytical SEM Ultra High Resolution TEM/STEM Gallium FIB/SEM (GAIA) Model: JEOL 2100 LaB 6 TEM Electron Gun: LaB6 Accelerating Voltage: 100 to 200 kv Resolution: 0.23 nm (P-P)/0.14 nm (L) EDS (Oxford) Electron Diffraction: SAD, NBD, CBED Cameras: CCD and TV Cameras In-situ Experiments Model: Hitachi SU-70 UHR FEG-SEM Electron Gun: Schottky Field Emission Accelerating Voltage: 0.5 to 30 kv Resolution: 1.0 nm (15 kv), 1.6 nm (1 kv) Detectors: SEM and BSE; EDS (Bruker) Model: JEOL 2100 FEG-TEM Electron Gun: Schottky Field Emission Accelerating Voltage: 100 to 200 kv Resolution: 0.194 nm (P-P)/0.14 nm (L) Electron Diffraction: SAD, NBD, CBED Cameras: two CCDs EDS (Oxford) EELS and Energy Filter TEM (EFTEM, Gatan) In-situ Experiments Electron Gun: Schottky Field Emission Accelerating Voltage: 0.2 ~ 30 kv Resolution: 1.0 nm (15 kv), 1.8 nm (1 kv) Ion Gun: Ga Liquid Metal Ion Source Accelerating Voltage: 0.5 ~ 30 kv Resolution: < 2.5 nm (30 kv) STEM, EDS, EBSD, TOF-SIMS, OP-200, 5-GIS, Peltier Stage, Low-Vac Xenon FIB/SEM (XEIA) Office Image Scanner Vacuum Evaporator Plasma Cleaner Optical Microscope Ion Mill Carbon Evaporator Electron Gun: Schottky Field Emission Accelerating Voltage: 0.2 ~ 30 kv Resolution: 1.0 nm (15 kv), 1.6 nm (1 kv) Ion Gun: Xe Plasma Ion Source Accelerating Voltage: 3 ~ 30 kv Resolution: 25 nm (30 kv) EDS, CL, 5-GIS, Peltier stage, Low-Vac Fume Hood Laminar Flow Hood 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 8

GAIA-3 FIB/SEM SFE, LMIS, Se -, R-BSe -, IB-Se -, IB-BSe - SI +, STEM, 2xEDS, EBSD, TOF-SIMS, 5-GIS, OP-200, STEM EDS F on Li EDS O on Li 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 7

FIB-STEM Holder STEM-EDS in SEM (SOFC) STEM Position Rapid grid change for: STEM DF/BF, HR Se - STEM-EDS with EDS-1 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 8

FIB-STEM Holder Additional Positions FIB-ORTHO: Cutout, TOF-SIMS FIB: Thinning, EDS-2 SEM: Lamella Attachment FIB FIB FIB FIB SEM FIB SEM SEM SEM 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 9

FIB-STEM Holder STEM imaging on round and lift-out grids In addition to STEM imaging, the FIB-STEM holder could be positioned for:» SEM attaching lamella to grid» FIB thinning lamella, EDS with enhanced count» FIB-ORTHO TOF-SIMS, lamella cut-out Change between any positions in under ~40 Sec 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 10

EDS on Porous Ceramic Lamella Improved spatial resolution on thinned area, prior to final thinning to TEM transparency FIB SEM FIB Orientation EDS: Main Element EDS: Inclusion 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 11

FIB / TOF-SIMS on Thick Lamella TOF SEM EDS: Sr Differences in Sr distribution visible in FIB/SIMS No differences in Sr distribution detected by EDS 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 12

Summary Developed and demonstrated full-cycle TEM sample preparation process using Tescan FIB-STEM holder Utilized increased X-Ray counts in FIB position for highresolution EDS mapping on thinned lamella Utilized higher efficiency of secondary ion collection in FIB-ORTHO position for detecting variation in Strontium distribution near ceramic boundary by in-situ TOF-SIMS 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 13

Acknowledgements Support of University of Maryland NanoCenter and its AIM Lab Image of STEM-EDS of Solid Electrolyte Fuel Cell provided by Joshua Taillon Instrumentation slide provided by Director of AIM Lab, Dr. Wen-An Chiou Challenging sample for FIB/SIMS & EDS provided by Wachsman s ceramic anode development team: Prof. Eric D. Wachsman Dr. Mohammed Hussain Abdul Jabbar Ke-Ji Pan 2/19/2016 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD 14

vray@umd.edu 9 th Annual FIB-SEM Workshop, John Hopkins APL, Laurel MD