Metallic Chains / Chains of Metals (Handbook of Metal Physics)

18.4 Structure and General Properties of the Nonmetals
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Zachary Zajicek Graduate Student. Matthew Fay Undergraduate Student. Edward Whittaker Undergraduate Student. Paul Goddard Visiting Lecturer. Probing magnetic order and disorder in the one-dimensional molecular spin chains CuF2 pyz and [Ln hfac Magnetic order and enhanced exchange in the quasi-one-dimensional molecule-based antiferromagnet Cu NO3 Local magnetism, magnetic order and spin freezing in the 'nonmetallic metal' FeCrAs.

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Angewandte Chemie International ed. Author Correction: How to probe the spin contribution to momentum relaxation in topological insulators. It is reasonable to suggest that compounds like FeN 4 may exist in other metal-nitrogen systems and can be metastable down to ambient pressures. Such stabilizaiton can be potentially achieved through low-temperature decompression or through doping.

The high synthetic pressure for FeN 4 makes it hardly useful for any practical application as a HEDM at present, although its estimated volumetric energy density is 13— However, the information about nitrogen bonding in this compound is important for further theoretical and experimental studies in the field. The cell was loaded with N 2 as a pressure transmitting medium using the gas-loading system installed at the Bayerisches Geoinstitut. Ruby sphere was placed along with the iron pieces for pressure determination. We should note here that generally, pressure in the sample chamber increases after laser heating.

The sample chamber was loaded with nitrogen, which served as a pressure-transmitting medium. In the Experiment 3, the sample was first heated at In the experiment 2, we have used 57 Fe as a starting material. The samples were studied by means of single-crystal X-ray diffraction on the synchrotron beamlines P At selected pressure points, we collected the data with a narrow 0. In the experiment 1 we determined pressure using the fluorescence line R1 of ruby.

How to solve All Metal Puzzles

Whereas the starting material, a polycrystalline iron foil, gives characteristic Debye-Scherer rings in the diffraction pattern, after the laser-heating in solidified nitrogen, we clearly observed well defined, sharp diffraction spots from multiple grains of new high-pressure phases. Using the Ewald Pro reciprocal space viewing tool for the CrysAlis Pro program 65 , we were able to identify the diffraction spots belonging to certain domains, find their orientation matrices and refine the unit cell parameters.

The structures of the new phases were solved against single-crystal diffraction data. The general procedure of the analysis of a multigrain diffraction dataset is described in ref. We provide several raw diffraction images with grain indexing examples in the Supplementary Figs.

Further discussion regarding indexing solutions is given in the Peer Review file. Diffraction data analysis peak search, unit cell finding, data integration, frame scaling etc. The crystal structures were solved using the computer program SHELXT that employs a dual-space algorithm for the solution of a phase problem General output of the structure solution program was a position of heavy iron atom, while nitrogen atoms were located based on the analysis of residual electron density maps.

The full diffraction data are made available online see Data availability section. Their complexity for processing is obvious due to the reduced data to parameter ratio, which is characteristic for all single-crystal diffraction data sets obtained in a DAC, and due to the presence of diffraction from numerous domains.

If improvements in data processing become available, one can use the present data for reevaluation. The ab-initio calculations were performed using the supercell technique and all electron projector-augmented-wave PAW method 69 as implemented in the VASP code 70 , 71 , Gaussian smearing method was chosen with a smearing width of 0.

We found that FeN is magnetic and used ferromagnetic configuration in our simulations. FeN 2 , and FeN 4 were found to be non-magnetic. With these optimized parameters, we reproduced the results of static calculations obtained by VASP. The data that support the findings of this study are available from the corresponding author upon reasonable request. Eremets, M. Single-bonded cubic form of nitrogen.

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Expanding frontiers in materials chemistry and physics with multiple anions

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Preparation and properties of eoet based organic complexes. Chemistry Letters , 40 1 , J Phys Chem C— Dimitrios V. Ma, Y.

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Recent progress in the area of bulk metallic glasses. Thermodynamic assessment of the Sn-Ti system. Magnetization processes in nanostructured metals and small-angle neutron scattering. Structural influence on atomic hopping and electronic states of Pd-based bulk metallic glasses. Bulk metallic glass formation in Zr-Cu-Fe-Al alloys. Etter, J. Kuebler, T.

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Johnson, Werner Wagner and P. Time-temperature-transformation diagram and microstructures of bulk glass forming Pd40Cu30Ni10P Model for decomposition and nanocrystallization of deeply undercooled Zr Microstructural development during final-stage sintering of nanostructured zirconia based ceramics. Comparison of the decomposition and crystallization behavior of Zr and Pd based bulk amorphous alloys. Concentration and temperature dependence of decomposition in supercooled liquid alloys. Journal of Applied Crystallography , vol.

Grain-size dependence of intergranular magnetic correlations in nanostructured metals. Nanocrystalline materials: Dominance of interfaces and mesoscopic correlations. Wagner, J. Kohlbrecher, U. Stuhr, H. Low-temperature isothermal sintering and microstructural characterization of nanocrystalline zirconia ceramics using small-angle neutron scattering. Nanostructured Materials , vol. Magnetic correlations in nanostructured metals and an extended random-anisotropy model. Positron annihilation study of nanocrystalline iron. Danny P. B, Condensed Matter , vol. Random and exchange anisotropy in consolidated nanostructured Fe and Ni: Role of grain size and trace oxides on the magnetic properties.

Random field interactions in nanostructured ferromagnets studied by small-angle neutron scattering and magnetization measurements. Small-angle neutron scattering experiments on nanostructured matter using contrast variation. Wagner, H. Natter, J. Prewo, R. Eckerlebe, R. May, G. Meier and R. Nanostructructured Materials , vol. Influence of grain size and oxidation on the magnetic properties of nanostructured Fe and Ni. Meier, Bernard Doudin and Jean P. Nanoscale characterization of magnetic properties in nanostructured Fe, Ni and Co by small-angle neutron scattering.

Magnetic Properties of Nanostructured Ferromagnetic Metals. Wagner, Helena van Swygenhoven, J. Meier, B. Doudin and J.

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Nanostructured intermetallics: Structure and mechanical properties. Mechanical properties of porous nanophase materials measured by instrumental indentation.