Sort by
Refine Your Search
-
Category
-
Country
-
Program
-
Field
-
will use reactive magnetron sputtering to develop Yb³⁺-doped narrow-bandgap sulfide luminescent coatings that turn glass into solar power. Job description In this postdoc research project you will
-
dynamics simulations to understand the growth mechanisms of thin films deposited by magnetron sputtering, with or without ion beam assistance (IBAS), particularly for metallic materials (Ag) and oxides (ZnO
-
. Responsibilities Fabrication (45%): ? Photolithography (contact/flood exposure and maskless/direct-write) ? Thin-film deposition (e-beam evaporation, sputtering) ? Lift-off process development and optimization
-
GPa vs. 25–30 GPa) (Oses et al., Nat. Rev. Mater., 2020) while reducing the chromium content to 7–13 %wt. However, these results were obtained using sputtering, a costly method generally limited to thin
-
of quantum systems. The postdoctoral position falls within Phase 2 of the program, which focuses on defining the R&D roadmap and conducting targeted research activities. Where to apply Website https
-
science or chemistry (e.g., sputtering and etching mechanisms, plasma-surface interactions, roughness evolution). Experience designing, building or operating IBF systems, Einzel lenses, high-voltage
-
master’s (or equivalency) + 2 years of directly related work experience. Preferences Hands-on experience with other process tool sets such as sputter and evaporative deposition, DRIE and RIE etch, spin
-
section/materials prep laboratory, microwave reactor, plasma sputter and vacuum carbon coaters, vacuum spin coater, a benchtop NMR, and an electron microprobe (EPMA) as part of the Concord Materials and
-
more traditional fusion structural materials (RAF steels, tungsten) being used once the high-throughput methodology has been set-up. The combinatorial coatings will be fabricated in the pre-vac sputter
-
, structure, optical properties, and electrochemical and photoelectrochemical activity. Unique research facilities enable the deposition of thin material layers via magnetron sputtering and their thermal