Magnetic Resonance Coupling

Pseudobrookite ceramic pigments: Crystal structural, optical and technological properties

Condensed Matter Physics / Inorganic Chemistry / Optical Spectroscopy / Crystal structure / Iron / Energy absorption / Spectrum / Lattice Parameter / Low Temperature / Magnetic Resonance Coupling / Physical Properties / Crystal field / Energy absorption / Spectrum / Lattice Parameter / Low Temperature / Magnetic Resonance Coupling / Physical Properties / Crystal field

Magnetic and Magnetotransport Properties of Nanostructured Magnetic Materials

Engineering / Materials Engineering / Mechanical Engineering / Condensed Matter Physics / Applied Physics / Magnetic field / Molecular beam epitaxy / Nanocrystalline Material / Transport Properties / Mathematical Sciences / Thin Film / Mechanical Alloying / Physical sciences / Magnetic Domains / Spin Glass / Curie temperature / Single Crystal / Magnetism and Magnetic Materials / Magnetic Anisotropy / Low Temperature / Hall effect / Magnetic Resonance Coupling / Electrical And Electronic Engineering / High energy / Magnetic field / Molecular beam epitaxy / Nanocrystalline Material / Transport Properties / Mathematical Sciences / Thin Film / Mechanical Alloying / Physical sciences / Magnetic Domains / Spin Glass / Curie temperature / Single Crystal / Magnetism and Magnetic Materials / Magnetic Anisotropy / Low Temperature / Hall effect / Magnetic Resonance Coupling / Electrical And Electronic Engineering / High energy

Magnetic and Magnetotransport Properties of Nanostructured Magnetic Materials

Engineering / Materials Engineering / Mechanical Engineering / Condensed Matter Physics / Applied Physics / Magnetic field / Molecular beam epitaxy / Nanocrystalline Material / Transport Properties / Mathematical Sciences / Thin Film / Mechanical Alloying / Physical sciences / Magnetic Domains / Spin Glass / Curie temperature / Single Crystal / Magnetism and Magnetic Materials / Magnetic Anisotropy / Low Temperature / Hall effect / Magnetic Resonance Coupling / Electrical And Electronic Engineering / High energy / Magnetic field / Molecular beam epitaxy / Nanocrystalline Material / Transport Properties / Mathematical Sciences / Thin Film / Mechanical Alloying / Physical sciences / Magnetic Domains / Spin Glass / Curie temperature / Single Crystal / Magnetism and Magnetic Materials / Magnetic Anisotropy / Low Temperature / Hall effect / Magnetic Resonance Coupling / Electrical And Electronic Engineering / High energy

Magnetic and Magnetotransport Properties of Nanostructured Magnetic Materials

Engineering / Materials Engineering / Mechanical Engineering / Condensed Matter Physics / Applied Physics / Magnetic field / Molecular beam epitaxy / Nanocrystalline Material / Transport Properties / Mathematical Sciences / Thin Film / Mechanical Alloying / Physical sciences / Magnetic Domains / Spin Glass / Curie temperature / Single Crystal / Magnetism and Magnetic Materials / Magnetic Anisotropy / Low Temperature / Hall effect / Magnetic Resonance Coupling / Electrical And Electronic Engineering / High energy / Magnetic field / Molecular beam epitaxy / Nanocrystalline Material / Transport Properties / Mathematical Sciences / Thin Film / Mechanical Alloying / Physical sciences / Magnetic Domains / Spin Glass / Curie temperature / Single Crystal / Magnetism and Magnetic Materials / Magnetic Anisotropy / Low Temperature / Hall effect / Magnetic Resonance Coupling / Electrical And Electronic Engineering / High energy

Magnetic and Magnetotransport Properties of Nanostructured Magnetic Materials

Engineering / Materials Engineering / Mechanical Engineering / Condensed Matter Physics / Applied Physics / Magnetic field / Molecular beam epitaxy / Nanocrystalline Material / Transport Properties / Mathematical Sciences / Thin Film / Mechanical Alloying / Physical sciences / Magnetic Domains / Spin Glass / Curie temperature / Single Crystal / Magnetism and Magnetic Materials / Magnetic Anisotropy / Low Temperature / Hall effect / Magnetic Resonance Coupling / Electrical And Electronic Engineering / High energy / Magnetic field / Molecular beam epitaxy / Nanocrystalline Material / Transport Properties / Mathematical Sciences / Thin Film / Mechanical Alloying / Physical sciences / Magnetic Domains / Spin Glass / Curie temperature / Single Crystal / Magnetism and Magnetic Materials / Magnetic Anisotropy / Low Temperature / Hall effect / Magnetic Resonance Coupling / Electrical And Electronic Engineering / High energy

Pseudobrookite ceramic pigments: Crystal structural, optical and technological properties

Condensed Matter Physics / Inorganic Chemistry / Optical Spectroscopy / Crystal structure / Iron / Energy absorption / Spectrum / Lattice Parameter / Low Temperature / Magnetic Resonance Coupling / Physical Properties / Crystal field / Energy absorption / Spectrum / Lattice Parameter / Low Temperature / Magnetic Resonance Coupling / Physical Properties / Crystal field

Magnetic QCA systems

Microelectronics / Low Power / High Speed / Room Temperature / Magnetic Resonance Coupling / Electrical And Electronic Engineering

Control of crystalline phases in magnetic Fe nanoparticles inserted inside a matrix of porous carbon

Mechanical Engineering / Condensed Matter Physics / Activated Carbon / Exchange Bias / Shell Structure / Magnetism and Magnetic Materials / Amorphous carbon / Particle Size Distribution / Magnetic Resonance Coupling / Magnetism and Magnetic Materials / Amorphous carbon / Particle Size Distribution / Magnetic Resonance Coupling

Semicircular microstrip low pass filter

Filter Design / Magnetic Resonance Coupling

Pseudobrookite ceramic pigments: Crystal structural, optical and technological properties

Condensed Matter Physics / Inorganic Chemistry / Optical Spectroscopy / Crystal structure / Iron / Energy absorption / Spectrum / Lattice Parameter / Low Temperature / Magnetic Resonance Coupling / Physical Properties / Crystal field / Energy absorption / Spectrum / Lattice Parameter / Low Temperature / Magnetic Resonance Coupling / Physical Properties / Crystal field

Pseudobrookite ceramic pigments: Crystal structural, optical and technological properties

Condensed Matter Physics / Inorganic Chemistry / Optical Spectroscopy / Crystal structure / Iron / Energy absorption / Spectrum / Lattice Parameter / Low Temperature / Magnetic Resonance Coupling / Physical Properties / Crystal field / Energy absorption / Spectrum / Lattice Parameter / Low Temperature / Magnetic Resonance Coupling / Physical Properties / Crystal field

Control of crystalline phases in magnetic Fe nanoparticles inserted inside a matrix of porous carbon

Mechanical Engineering / Condensed Matter Physics / Activated Carbon / Exchange Bias / Shell Structure / Magnetism and Magnetic Materials / Amorphous carbon / Particle Size Distribution / Magnetic Resonance Coupling / Magnetism and Magnetic Materials / Amorphous carbon / Particle Size Distribution / Magnetic Resonance Coupling

Control of crystalline phases in magnetic Fe nanoparticles inserted inside a matrix of porous carbon

Mechanical Engineering / Condensed Matter Physics / Activated Carbon / Exchange Bias / Shell Structure / Magnetism and Magnetic Materials / Amorphous carbon / Particle Size Distribution / Magnetic Resonance Coupling / Magnetism and Magnetic Materials / Amorphous carbon / Particle Size Distribution / Magnetic Resonance Coupling

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