✦ LIBER ✦

Relaxation effects on auger energies

✍ Scribed by D.A. Shirley

Book ID: 103009593
Publisher: Elsevier Science
Year: 1972
Tongue: English
Weight: 374 KB
Volume: 17
Category: Article
ISSN: 0009-2614
DOI: 10.1016/0009-2614(72)87084-2

No coin nor oath required. For personal study only.

📜 SIMILAR VOLUMES

A quantitative comparison of the classic

A quantitative comparison of the classical rate-equation model with the carrier heating model on dynamics of the quantum-well laser: the role of carrier energy relaxation, electron-hole interaction, and Auger effect

✍ Jian Wang; Schweizer, H.C. 📂 Article 📅 1997 🏛 IEEE 🌐 English ⚖ 327 KB

Determination of effective atomic charge

Determination of effective atomic charge, extra-atomic relaxation and madelung energy in chemical compounds on the basis of X-ray photoelectron and auger transition energies : V.I. Nefedov, V.G. Yarzhemsky, A.V. Chuvaev and E.M. Trishkina, J. Electron Spectrosc. Relat. Phenom., 46 (1988) 381

📂 Article 📅 1989 🏛 Elsevier Science 🌐 English ⚖ 32 KB

Extra-atomic relaxation energies and the

Extra-atomic relaxation energies and the Auger parameter

✍ T.D. Thomas 📂 Article 📅 1980 🏛 Elsevier Science 🌐 English ⚖ 662 KB

Relaxation energies of oxygen auger tran

Relaxation energies of oxygen auger transitions in some oxides

✍ P. Humbert; J.P. Deville 📂 Article 📅 1985 🏛 Elsevier Science 🌐 English ⚖ 806 KB

Auger parameters and relaxation energies

Auger parameters and relaxation energies of phosphorus in solid compounds

✍ R. Franke; Th. Chassé; P. Streubel; A. Meisel 📂 Article 📅 1991 🏛 Elsevier Science 🌐 English ⚖ 474 KB

Extra-atomic relaxation energies and aug

Extra-atomic relaxation energies and auger parameters of titanium compounds

✍ Woodbridge, C. M.; Gu, X. J.; Langell, M. A. 📂 Article 📅 1999 🏛 John Wiley and Sons 🌐 English ⚖ 121 KB 👁 1 views

A series of titanium compounds have been studied by x-ray photoelectron spectroscopy within the Auger parameter formalism. Two different titanium Auger parameters are reported, both calculated from binding energies resulting from photoemission from Ti 2p 3=2 core-level states. Of the two values, one