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Experimental solid state physics --- Theoretical spectroscopy. Spectroscopic techniques --- fysicochemie --- Magnetic properties of solids --- Magnetic resonance --- Phase transformations (Statistical physics) --- 537 --- Phase changes (Statistical physics) --- Phase transitions (Statistical physics) --- Phase rule and equilibrium --- Statistical physics --- Resonance, Magnetic --- Atoms --- Magnetic fields --- Nuclear spin --- Electricity. Magnetism. Electromagnetism --- Magnetic resonance. --- Phase transformations (Statistical physics). --- 537 Electricity. Magnetism. Electromagnetism
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1. introduction 2. Introduction to physics of the solid state 3. Methods of measuring properties 4. Properties of individual nanoparticles 5. Carbon nanostructures 6. Bulk nanostructured materials 7. Nanostructured ferromagnetism 8. optical and vibrational spectroscopy 9. Quantum wells, wires and dots 10. Self-Assembly and catalysis 11. Organic compounds and polymers 12. Biological materials 13. Nanomachines and nanodevices
Experimental atomic and molecular physics --- atoomfysica --- Electronics --- elektronica --- Materials sciences --- elementaire deeltjes --- Molecular physics --- Nanotechnology. --- Nanotechnologie
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In The New Superconductors, Frank J. Owens and Charles P. Poole, Jr., offer a descriptive, non-mathematical presentation of the latest superconductors and their properties for the non-specialist. Highlights of this up-to-date text include chapters on superfluidity, the latest copper oxide types, fullerenes, and prospects for future research. The book also features many examples of commercial applications; an extensive glossary that defines superconductivity terms in clear language; and a supplementary list of readings for the interested lay reader.
Superconductivity --- Superconductors --- Supraconductivité --- Supraconducteurs --- EPUB-LIV-FT SPRINGER-B --- Superconductors. --- Superconductivity. --- Crystallography. --- Surfaces (Physics). --- Solid State Physics. --- Spectroscopy and Microscopy. --- Condensed Matter Physics. --- Crystallography and Scattering Methods. --- Characterization and Evaluation of Materials. --- Physics --- Surface chemistry --- Surfaces (Technology) --- Leptology --- Physical sciences --- Mineralogy --- Solid state physics. --- Spectroscopy. --- Microscopy. --- Condensed matter. --- Materials science. --- Material science --- Condensed materials --- Condensed media --- Condensed phase --- Materials, Condensed --- Media, Condensed --- Phase, Condensed --- Liquids --- Matter --- Solids --- Analysis, Microscopic --- Light microscopy --- Micrographic analysis --- Microscope and microscopy --- Microscopic analysis --- Optical microscopy --- Optics --- Analysis, Spectrum --- Spectra --- Spectrochemical analysis --- Spectrochemistry --- Spectrometry --- Spectroscopy --- Chemistry, Analytic --- Interferometry --- Radiation --- Wave-motion, Theory of --- Absorption spectra --- Light --- Spectroscope --- Qualitative --- Analytical chemistry --- Electric conductivity --- Critical currents --- Superfluidity --- Superconducting materials --- Superconductive devices --- Cryoelectronics --- Electronics --- Solid state electronics --- Materials
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In 1987 a major breakthrough occurred in materials science. A new family of materials was discovered that became superconducting above the temperature at which nitrogen gas liquifies, namely, 77 K or –196°C. Within months of the discovery, a wide variety of experimental techniques were brought to bear in order to measure the properties of these materials and to gain an understanding of why they superconduct at such high temperatures. Among the techniques used were electromagnetic absorption in both the normal and the superconducting states. The measurements enabled the determination of a wide variety of properties, and in some instances led to the observation of new effects not seen by other measu- ments, such as the existence of weak-link microwave absorption at low dc magnetic fields. The number of different properties and the degree of detail that can be obtained from magnetic field- and temperature-dependent studies of electromagnetic abso- tion are not widely appreciated. For example, these measurements can provide information on the band gap, critical fields, the H–T irreversibility line, the amount of trapped flux, and even information about the symmetry of the wave function of the Cooper pairs. It is possible to use low dc magnetic field-induced absorption of microwaves with derivative detection to verify the presence of superconductivity in a matter of minutes, and the measurements are often more straightforward than others. For example, they do not require the physical contact with the sample that is necessary when using four-probe resistivity to detect superconductivity.
Copper oxide superconductors. --- Electromagnetic waves. --- Surfaces (Physics). --- Optical materials. --- Characterization and Evaluation of Materials. --- Condensed Matter Physics. --- Optical and Electronic Materials. --- Optics --- Materials --- Physics --- Surface chemistry --- Surfaces (Technology) --- Materials science. --- Condensed matter. --- Electronic materials. --- Electronic materials --- Condensed materials --- Condensed media --- Condensed phase --- Materials, Condensed --- Media, Condensed --- Phase, Condensed --- Liquids --- Matter --- Solids --- Material science --- Physical sciences --- Electronics --- Materials.
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