Study of the anisotropic segregation behavior of Sn on the surfaces of zirconium alloys by XPS

Sn-doped thioantimonate superionic conductors with high air stability and enhanced Li-ion conduction for all-solid-state lithium batteries

“…2b and S2 (ESI †). 30,37 When x varies from 0 to 0.6, the XPS signals of Li 6+x Sb 1−x Sn x S 5 I exhibit a gradually increased intensity for the Sn-S bond centered at 486.5 and 495.0 eV, 38,39 and a stepwise downshi for Sb-S bond, which can be ascribed to the substitution of Sn for Sb. The detailed structural information of LSSSIx (0.0 # x # 0.6) was further studied using XRD Rietveld renement.…”

Trap Depth Engineering from Persistent Luminescence Phosphors Mg2-xZnxSnO4 for Dynamic Optical Information Encryption Application

“…And, the stronger signal indicates partial Zn substitution of the [Mg­(Sn)­O] 6 octahedron. In Figure d, the 3d peaks with binding energies of 485.9 eV (3d 5/2 ) and 494.4 eV (3d 3/2 ) correspond to Sn …”

Electronic structure and binding energy relaxation of ScZr atomic alloying

“…It is difficult to distinguish component contribution of binding energy (BE). The possibility to experimentally distinguish coordination and compounds with different chemical reactivity would be relevant also for the architectural design and engineering of core-shell nanoparticles, where only one type of skin solid metal is present, but the electronic structure and catalytic properties are substantially modified because of the interaction of the shell atoms with the core atoms [23][24][25][26][27][28][29][30]. Therefore, a method of purifying the surface and interface information about atomic bond and electronic is highly desired.…”