Magnetic properties and crystal

Ito, Y, Fujita, W., Okazaki, T. etal. (2007) Magnetic properties and crystal structure of solvent-free Sc C 2 metallofullerene microcrystals. Chemphyschem, 8, 1019-1024. 

Elmali, A. and Elerman, Y. (2004) Magnetic properties and crystal stmcture of a Cu Gd heterodinuclear Schiff base complex. Zeitschrift fur Naturforschung, Teil B Chemical Sciences, 59, 535-540. 

Kakizaki, K., and Hiratuka, N., Magnetic properties and crystal structures of acicular barium ferrite particles, J. Magn. Soc. Jpn., 22(suppl. SI), 129, 1998. Lemke, J.U., Ultra high density recording with new heads and tapes, IEEE Trans. Magn., 15, 1561, 1979. 

Harrison RJ, Putnis A (1999a) The magnetic properties and crystal chemistry of oxide spinel solid solutions. Surveys Geophys 19 461-520... 

In the following sections, our first-principles bottom-up methodology will be described from a physical perspective (a full description on mathematical terms can be found in Ref. [7]). Then, the use of this methodology will be illustrated on the a-2-hydro nitronyl nitroxide [8] (hereafter called a-HNN), the simplest member of the nitronyl nitroxide family (R = H in Figure 1). The macroscopic magnetic properties and crystal structure of this compound are well known (its crystal structure is stored in the Cambridge Crystallographic Database [9] with refcode name TOLKEK). 

O Connor, C. J., Klein, C. L., Majeste, R. J., and Trefonas, L. M., Magnetic properties and crystal structure of (2,3-pyrazinedicarboxylato)copper(II)hydrochloride a pyra-zine-bridged ferromagnetic linear chain, Inorg. Chem., 21, 64-67 (1982). 

The magnetic properties and crystal structures of various derivatives of 2-aryl NN have been studied. In particular, a series of studies on pyridyl and iV-alkylpyridinium NNs by Awaga et al. ydroxyphenyl NNs by Veciana et al. are very... 

Hosokoshi, Y, Tamura, M., Kinoshita, M., Sawa, H., Kato, R., Eujiwara, Y., and Ueda, Y., Magnetic properties and crystal structure of the p-fluorophenyl nitronyl nitroxide radical crystal ferromagnetic intermolecular interaction leading to a three-dimensional network of the ground triplet dimer molecules, J. Mater. Chem., 4, 1219, 1994. 

Hosokoshi Y, Tamma M, Nozawa K, Suzuki S, Kinoshita M, Sawa H, Kato R (1995) Magnetic properties and crystal structures of 2-hydro and 2-halo nitronyl nitroxide radical crystals. Synth Met 71 1795-1796... 

Dud] presented magnetic properties and crystallization temperatures of magnetic glasses of Fego xTij B2o (x = 6, 10, and 20 at.%). 

Alonso, J. A., Martinez-Lopez, M. J., Casais, M. T., Martinez, J. L., Demaseau, G., Largeteau, A., Garcia-Munoz, J. L., Munoz, A., Femandez-Diaz, M. T., High-pressure preparation, crystal structure, magnetic properties, and phase transitions in GdNi03 and DyNiOs perovskites, Chem. Mater. 11, 2463-2469 (1999). 

The magnetic properties of crystals composed of aromatic polynuclear molecules may give information on the relative orientations of the benzene rings to each other. Thus, Clews and Lonsdale (1937) concluded from the magnetic anisotropy of crystals of o-diphenylbenzene that the planes of the o-phenyl groups are inclined at 50° to the plane of the main ring. 

A number of the properties of /r-oxo dimers of Fe porphyrins, formed by hydrolysis of the hydroxo complex (equation 17) or by reaction of molecular oxygen with Fe porphyrins (see below), have been investigated, including H and C NMR, IR and Raman, and Mossbauer spectra, magnetic susceptibilities, and crystal and molecular structmes. 

Luneau, D. and Rey, P. (1995) New manganese(II) complexes of nitronyl nitroxide radicals. Synthesis, structure and magnetic properties. Molecular Crystals and Liquid Crystals Science and Technology Section A, 273, 81-87. 

Size-dependent structure and properties of Earth materials impact the geological processes they participate in. This topic has not been fully explored to date. Chapters in this volume contain descriptions of the inorganic and biological processes by which nanoparticles form, information about the distribution of nanoparticles in the atmosphere, aqueous environments, and soils, discussion of the impact of size on nanoparticle structure, thermodynamics, and reaction kinetics, consideration of the nature of the smallest nanoparticles and molecular clusters, pathways for crystal growth and colloid formation, analysis of the size-dependence of phase stability and magnetic properties, and descriptions of methods for the study of nanoparticles. These questions are explored through both theoretical and experimental approaches. 

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