SFX by Ex Libris Inc.

Title:	ELECTRONIC STRUCTURES OF FeS AND FeS 2 : X-RAY ABSORPTION SPECTROSCOPY AND BAND STRUCTURE CALCULATIONS
Source:	Journal of Physics and Chemistry of Solids [0022-3697] WOMES, M yr:1997

Basic

Full text

Full text available via Elsevier SD Backfile Complete

Year:

Volume:

Issue:

Start Page:

Full text available via EZB-NALI5-00465 Elsevier Archive NL

Year:

Volume:

Issue:

Start Page:

Document delivery

Request document via Library/Bibliothek

Users interested in this article also expressed an interest in the following:
description	1.	Cai, J. "Semiconductor-metal transition of pyrite FeS2 under high pressure by full-potential linearized-augmented plane wave calculations." Journal of physics. Condensed matter 18.40 (2006): 9151-9160.
description	2.	Abbad, A. "Study of electronic and magnetic properties of binary zinc sulfide and ternary manganese- and iron-substituted alloys." Materials science in semiconductor processing 16.3 (2013): 576-581.
description	3.	Germash, L. "Electronic structure, optical and X-ray emission spectra in FeS2." Physica Status Solidi - B - Basic Solid State Physics 246.2 (2009): 411-416.
description	4.	Fujimori, A. "Resonant photoemission study of pyrite-type NiS2, CoS2 and FeS2." Physical review. B, Condensed matter 54.23 (1996): 16329-16332.
description	5.	Kesharwani, K. "A theoretical study of band-gap and electrical resistivity of FeS2 (pyrite) at high pressure." High pressure research 28.1 (2008): 69-73.
description	6.	Cai, J. "Electronic structure of bulk and (001) surface layers of pyrite FeS2." Computational materials science 30.3-4 (2004): 358-363.
description	7.	Murphy, R. "Surface reactivity of pyrite and related sulfides." Surface Science Reports 64.1 (2009): 1-45.
description	8.	Wei, M. "The investigation of the maximum doping concentration of iron in zinc sulfide nanowires, and its optical and ferromagnetic properties." Superlattices and microstructures 54 (2013): 181-187.
description	9.	Yang, C. "ZnS-Au planet-like structure: a facile fabrication and improved optical performance induced by surface plasmon resonance." Applied physics. A, Materials science & processing 111.2 (2013): 633-637.
description	10.	Kramushchenko, D D. "EPR diagnostics of laser materials based on ZnSe crystals doped with transition elements." Physics of the solid state 55.2 (2013): 269-277.
description	11.	Kleppe, A. "High-pressure Raman spectroscopic studies of FeS2 pyrite." Mineralogical Magazine 68.3 (2004): 433-441.
description	12.	Refson, K. "Zinc surface complexes on birnessite: A density functional theory study." Geochimica et cosmochimica acta 73.5 (2009): 1273-1284.
description	13.	Wu, Y. "Surfactant-Assisted Hydrothermal Synthesis of Single phase Pyrite FeS2 Nanocrystals." Chemistry of materials 21.13 (2009): 2568-2570.
description	14.	Edelbro, R. "Full potential calculations on the electron bandstructures of Sphalerite, Pyrite and Chalcopyrite." Applied Surface Science 206.1-4 (2003): 300-313.
description	15.	Sithole, HM. "Atomistic simulation of the structure and elastic properties of pyrite (FeS 2) as a function of pressure." Physics and chemistry of minerals 30.10 (2003): 615-619.
description	16.	von Oertzen, G. U. "Ab initio and XPS studies of pyrite (100) surface states." Radiation physics and chemistry 75.11 (2006): 1855-1860.
description	17.	PASSARETTI, J. "PREPARATION AND PROPERTIES OF POORLY CRYSTALLIZED COS2 AND RUS2." Inorganic chemistry 20.8 (1981): 2631-2634.
description	18.	Bocquet, AE. "Electronic structure of 3d transition metal pyrites MS(2) (M=Fe, Co or Ni) by analysis of the M 2p core-level photoemission spectra." Journal of physics. Condensed matter 8.14 (1996): 2389-2400.
description	19.	Oertzen, Gunhild U. U. "Electronic and optical properties of Fe, Zn and Pb sulfides." Physics and chemistry of minerals 32.4 (2005): 255-268.
description	20.	Stender, C. "Chemical nanofabrication: a general route to surface-patterned and free-standing transition metal chalcogenide nanostructures." Journal of materials chemistry 17.19 (2007): 1866-1869.