Applied Electromagnetic Engineering for Advanced Materials from Macro-to Nanoscale under Static-to Shock Loading

<ul><li>Preface, Committees</li><li>Chapter 1: Electromagnetic Engineering</li><li>Technical Problems for Core Loss Reduction of High-Speed Motor</li><li>Building Factor Evaluation of the Stator Core Made of Ultrathin Electrical Steel Sheet for the High-Speed Motor</li><li>Fabrication and Characterization of Permanent Magnetic SmCo₅Thin Films by SQUID Magnetometer</li><li>Dynamics of a Water Droplet Subjected to Forced Vibration by Surface Acoustic Wave Device</li><li>Effects of Dielectric Spacer on Absorbance Characteristics of a Dual-Band Nanoaperture Based Perfect Absorber</li><li>Piezoelectricity in the {A_xA`<sub>(1-x)</sub>}BO<sub>3</sub> and A{B<sub>x</sub>B`_(1-x)}O₃Ceramic Alloys</li><li>Changes in the Resistance Force of a Magneto-Rheological Shock Absorber Induced by a Magnetic Field</li><li>Chapter 2: Superconductivity, Applications in Energy and Transportation</li><li>Geometric Study of Space Motor and Power Assist Leg Motor</li><li>HTSC Bulk Magnetizing Control System for Cryogenic Alternators</li><li>HTSC Synchronous Condenser for Wind Power Plant</li><li>Structure and Properties of Magnesium Diboride and the Effect of Additions</li><li>Electromagnetic Compatibility Issues in Electric Vehicle Applications</li><li>Study on Structure for Increase of a Transmit Torque on Magnetic Harmonic Gear with Stackable Structure</li><li>Magnetic Hysteresis Loss Calculations of HTS Coil under Rotating Magnetic Fields</li><li>Chapter 3: Nanostructure Materials: Synthesis and Processing</li><li>Synthesis and Characterization of Modified Diatomite-Leaf-Like CuO Nanosheet Composites</li><li>Size Controllable Synthesis and Characterization of CuO Nanostructure</li><li>Experimental Investigation of Morphological and Electrical Characteristics of PS/MWCNT Nanocomposite Films</li><li>A Study on the Solvent Vapor Induced Film Formation of PS/AgNPs Composites</li><li>Synthesis Features of Iron Oxide Nanopowders with High Magnetic and Sorption Properties</li><li>Investigation of Lithium Sorption Efficiency Using SWCNT Functionalized Electrospun Fiber Mats from the Hypersaline Geothermal Brine</li><li>Chapter 4: Multifunctional and Biomaterials</li><li>Self-Cleaning Ability Quantization of Textiles with Degussa P-25</li><li>SnO₂/Graphene Nanocomposites with Enhanced Gas Sensing Performance</li><li>The Shape and Size Effect of the Diatom Frustule Addition on the Compression Behavior of an Epoxy</li><li>Micromechanical Modeling of Precipitation Hardened NiTiHf</li><li>Investigation of Magnetic Properties of PS LATEX/MNPs Composite Films</li><li>Development of Non-Cadmium I-III-VI Quantum Dots and their Surface Modification for Biomedical Applications</li><li>Chapter 5: Particular Advanced Materials</li><li>Filtered Optical Feedback in Quantum Dot Light Emitting Diode</li><li>Features of Consolidation of Nanoceramics for Aerospace Industry</li><li>A Case Study on Metal-Ceramic Interfaces: Wetting of Alumina by Molten Aluminum</li><li>Microstructural Magnetic Characterization of Annealed Non-Oriented Electrical Steel</li><li>Desalination of Brackish Water/Seawater via Selective Separation</li><li>Efficient and Accurate Electromagnetic Analysis of Three-Dimensional Nano-Optical Structures</li><li>Fabrication of Polymer Nanofiber-Conducting Polymer Fabric and Noncontact Motion Sensing Platform</li><li>Utilization of Near IR Absorbing Gold Nanocolloids by Green Synthesis</li><li>Frequency Response Comparison of Photo-Detectors for Visible Light Communication Systems</li><li>Influence of H-Content on Thermo-Mechanical Properties of NiAl Alloys</li><li>Chapter 6: Materials Characterization</li><li>Ka Band RF Front-End Design</li><li>Effect of Heating Time on the Structural Properties of Cadmium Telluride Nanoparticles Prepared by Aqueous Solution Method with Organic Stabilizing Agent</li><li>Spontaneous Adhesion of DOPA and Tryptophan Functionalized PEG to Polystyrene Nanobeads: An EPR Study</li><li>Chapter 7: Advanced Manufacturing under Shock Loading</li><li>Introductory Remarks on the Shockwaves Cluster</li><li>Advanced Manufacturing under Shock</li></ul>