Magnetism in Nanosciences

Related lectures (30)

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Explores the Schrödinger Equation, quantum numbers, atomic orbitals, and molecular orbital theory in quantum mechanics.

Explores the electronic structure of atoms, covering energy levels, electron configurations, and atomic properties.

Analyzes magnetization curves in iron, nickel, and cobalt to explain magnetic anisotropy.

Covers the representation of orbitals in the hydrogen-like atom and the filling sequence of orbitals in real atoms.

Explores the Pauli exclusion principle, electron states in atoms, and the periodic table.

Explores the measurement of magnetic moments in silver atoms and delves into quantum mechanics concepts like spin quantization and superposition.

Explores the transition from atomic to molecular orbitals, covering quantum systems, approximations, valence electrons, and covalent bonds.

Explores covalent bonding stability and orbital properties in molecules like H₂ and He.

Explains electron energy levels, quantum numbers, and electron distribution in orbitals.

Explores the Beer-Lambert law, absorptance, and electronic excited states in photochemistry.