http://nathan.instras.com/documentDB/paper-69.pdf

Porous silicon: a quantum sponge structure for silicon based optoelectronics

Publisher Summary The physical properties given in this compilation are listed in the accompanying tabulation according to the table given in this chapter in which they can be found. Values for two quantities that have frequently been used in alloying theory studies, viz., the metallic radius and electronegativity, are not included here. Other properties, such as magnetic susceptibility, electrical resistivity, and thermal conductivity, which are generally of interest to those studying solids, are not included in this compilation primarily because such properties do not appear to be important in alloying theory. The derived properties and some interrelationships of the physical properties are examined and discussed in this chapter. Those subjects which also appear in tabulated form are listed in the accompanying tabulation. The initial goal in our alloy-theory program was a set of Gruneisen constants and a set of size factors. To calculate these quantities, almost all of the physical properties given herein are needed in the computations. Some of the other derived quantities are not only intermediate steps in the computations of the Gruneisen constant and size factor, but also serve as checks on the consistency of initial data (i.e., the measured physical properties of the elements). Some of the “constants” of the elements—that is, the Griineisen constant, entropy of fusion, etc., which have been derived for a few elements and then generally assumed to apply to all elements—are examined to see if this generalization is valid.

Physical Properties and Interrelationships of Metallic and Semimetallic Elements

A review of the beneficiation of rare earth element bearing minerals

This review article summarized the recent understanding of resistance switching (RS) behavior in several binary oxide thin film systems. Among the various RS materials and mechanisms, TiO2 and NiO thin films in unipolar thermo-chemical switching mode are primarily dealt with. To facilitate the discussions, the RS was divided into three parts; electroforming, set and reset steps. After short discussions on the electrochemistry of 'electrolytic' oxide materials, the general and peculiar aspects of these RS systems and mechanism are elaborated. Although the RS behaviors and characteristics of these materials are primarily dependent on the repeated formation and rupture of the conducting filaments (CFs) at the nanoscale at a localized position, this mechanism appears to offer a basis for the understanding of other RS mechanisms which were originally considered to be irrelevant to the localized events. The electroforming and set switching phenomena were understood as the process of CF formation and rejuvenation, respectively, which are mainly driven by the thermally assisted electromigration and percolation (or even local phase transition) of defects, while the reset process was understood as the process of CF rupture where the thermal energy plays a more crucial role. This review also contains several remarks on the outlook of these resistance change devices as a semiconductor memory.

https://iopscience.iop.org/article/10.1088/0957-4484/22/25/254002/pdf

Nanofilamentary resistive switching in binary oxide system; a review on the present status and outlook

Quantitative X-ray diffraction analysis and its application to various coals

J. Cowley: Imaging J. Cowley: Imaging theory J. Cowley: Elastic scattering of electrons by crystals J. Cowley: Elastic scattering theory J. Spence: Inelastic electron scattering J. Spence: Inelastic electron scattering II J. Spence: Techniques closely related to high resolution electron microscopy P. Self and M. A. O'Keefe: Calculation of diffraction patterns and images for fast electrons P. Buseck and D. Veblen: Mineralogy Leroy Eyring: Contributions of high resolution electron microscopy studies to solid state chemistry Smith and Parry: Materials science: metals, ceramics, and semiconductors Ondrej L. Krivanek: Practical high resolution electron microscopy K. Yagi: Surfaces A. Howie: Highly disordered materials.

High-Resolution Transmission Electron Microscopy: and Associated Techniques

Progress in the science and technology of the rare earths

Advances in High Temperature Chemistry

chemistry of extended defects in non-metallic solids

Origin of the actinide concept (G.T. Seaborg). Relativistic effects and electronic structure of lanthanide and actinide molecules (K. Balasubramanian). Similarities and differences in trivalent lanthanide- and actinide-ion solution absorption spectra and luminescence studies (J.V Beitz). Separation chemistry for lanthanides and trivalent actinides (K.L. Nash). Comparative thermochemical and oxidation-reduction properties of lanthanides and actinides (L.R. Morss). Comparison of 4f and 5f element hydride properties (J.W. Ward, J.M. Haschke). Lanthanide and actinide halides (H.A. Eick). Comparisons of the binary oxides (R.G. Haire, L. Eyring). f-element speciation in strongly acidic media: lanthanide and mid-actinide metals, oxides, fluorides and oxide fluorides in superacids (S.A. Kinkead, K.D. Abney, T.A. O'Donnell). Lanthanides and actinides hydration and hydrolysis (E.N. Rizkalla, G.R. Choppin). Solution chemistry of actinides and lanthanides (G.R. Choppin, E.N. Rizkalla). The biochemistry of the f-elements (J.R. Duffield, D.M. Taylor, D.R. Williams).

LeRoy Eyring

Papers

High-Resolution Transmission Electron Microscopy: and Associated Techniques

Progress in the science and technology of the rare earths

Advances in High Temperature Chemistry

chemistry of extended defects in non-metallic solids

Lanthanides/actinides : chemistry