Lectures in course MSE-486: Organic electronic materials

Intramolecular Electron Delocalization

Explores intramolecular electron delocalization in organic electronics, covering history, challenges, charge transport, device preparation, and advanced topics.

Introduction to Organic Electronic Materials and Devices

Introduces organic electronic materials, covering their properties, challenges, and applications in sustainable engineering and device fabrication.

Organic Electronic Materials: Fundamentals and Applications

Explores the fundamentals and applications of organic electronic materials, covering topics from intramolecular electron delocalization to advanced bioelectronics and spintronics.

Molecular Structure: Intramolecular Electron Delocalization

Discusses molecular structure and intramolecular electron delocalization, focusing on quantum mechanics and the transition from atomic to molecular orbitals.

Quantum Mechanics: Dirac Notation

Introduces quantum mechanics basics, including wave-particle duality and Dirac notation.

Organic Electronics: Fundamentals and Applications

Explores the fundamentals and applications of organic electronics, covering intramolecular electron delocalization, charge formation, challenges, and sustainability.

Quantum Mechanics: Wavefunctions and Operators

Explains wave-particle duality, complex wavefunctions, Hermitian operators, and the quantization of particle energies in quantum mechanics.

Molecular Orbitals: Bonding and Hybridization

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

Molecular Orbitals: Properties of Conjugated Systems

Discusses molecular orbitals in π-conjugated systems, focusing on their properties and electronic interactions.

Quantum Mechanics: Schrödinger Equation

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

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Molecular Orbitals in Conjugated Systems

Explores molecular orbitals in conjugated systems, discussing bond lengths, energy barriers, Hückel theory, and aromaticity.

Crystal Structures of Organic Molecules: Insights and Implications

Covers the crystal structures of organic molecules and their implications for solubility and electronic properties.

Electron Delocalization in Organic Materials

Explores electron delocalization in organic materials, covering π-interactions, electron density distribution, and intermolecular forces.

Conjugated Multiple Bonds

Explores the properties of molecules with multiple bonds and the implications for their conductivity and stability.

Supramolecular Organisation: Solid State

Explores the supramolecular organization of π-conjugated molecules in the solid state, covering crystal structures and packing preferences.

Molecular Vibrations and Electronic Transitions: Insights

Provides insights into molecular vibrations and their impact on electronic transitions and spectroscopy.

Organic Electronics: Electron Delocalization

Explores electron delocalization in organic materials, covering pi-interactions, resonance structures, and packing patterns of conjugated systems.

Crystal Packing of Conjugated Molecules

Explores the shapes and crystal structures of conjugated molecules, discussing packing arrangements, polymorphism, and the impact of substituents on crystal packing.

Charge Carriers in Organic Electronics: Solitons and Polarons

Discusses charge carriers in organic materials, focusing on solitons, polarons, and their implications for charge transport and device performance.