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William M. Reiff

Researcher at Northeastern University

Publications -  8
Citations -  192

William M. Reiff is an academic researcher from Northeastern University. The author has contributed to research in topics: Antiferromagnetism & Magnetic susceptibility. The author has an hindex of 6, co-authored 8 publications receiving 185 citations. Previous affiliations of William M. Reiff include Florida State University.

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Synthesis, structural, and magnetic characterization of linear and bent geometry cobalt(II) and nickel(II) amido complexes: evidence of very large spin-orbit coupling effects in rigorously linear coordinated Co2+.

TL;DR: The studies suggest that in the linear cobalt species 1 there is a very strong enhanced spin orbital coupling which leads to magnetic moments that broach the free ion value of 6.63 μ(B) probably as a result of the relatively weak ligand field and its rigorously linear coordination.
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“Chemical Metamagnetism”: From Antiferromagnetic PrCo2P2 to Ferromagnetic Pr0.8Eu0.2Co2P2 via Chemical Compression

TL;DR: In this article, a strong chemical compression that "squeezes out" electrons from the localized Eu 4f levels into the delocalized Co 3d subband is described.
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High-frequency and -field EPR of a pseudo-octahedral complex of high-spin Fe(II): bis(2,2'-bi-2-thiazoline)bis(isothiocyanato)iron(II).

TL;DR: This study represents the first precise determination by HFEPR of spin Hamiltonian parameters in six-coordinate high-spin Fe(II) and indicates the applicability of HFE PR to the study of high- spin Fe( II) in coordination complexes and biological model compounds.
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Spin-Glass Behavior in LaFexCo2–xP2 Solid Solutions: Interplay Between Magnetic Properties and Crystal and Electronic Structures

TL;DR: Quantum-chemical calculations and crystal orbital Hamiltonian population analysis reveal that upon aliovalent (nonisoelectronic) substitution of Fe for Co the antibonding character of M-M interactions is reduced while the Fermi level is shifted below the DOS peak in the 3d metal subband and no magnetic ordering is observed.