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Course

MSE-486: Organic electronic materials

Lectures in this course (56)

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.

Organic Electronics: Fundamentals and Applications

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

Solitons in Organic Electronics

Explores solitons in organic electronics, covering their formation, properties, and behavior in poly(acetylene), including the impact of chemical doping.

Excitons and Polaron Formation

Explores exciton and polaron formation in polymers, along with the effects of chemical doping and structural dynamics.

Intermolecular Delocalization

Explores intermolecular delocalization in organic materials and its impact on charge carriers in solid-state systems.

Fermi Distribution and DOS

Explores Fermi distribution, DOS, Fermi level in materials, charge injection mechanisms.

Charge Transport Regimes: Transport Regimes

Explores different transport regimes in organic semiconductors and the one-electron Hamiltonian for charge transport.

Band Transport in Crystalline Solids

Explores band transport in crystalline solids and introduces the second quantization formalism for quantum mechanics.

Polaronic Transport and Disorder

Explores polaronic and disorder-controlled transport mechanisms in materials, including charge transfer and hopping reactions.

Disorder-Controlled Charge Transport

Explores criteria for transport in materials, charge transfer, random walk, disorder models, temperature effects, and high charge densities.

Organic Electronics: Synthesis of Conjugated Molecules

Covers the synthesis of conjugated molecules for organic electronics and the tuning of band gaps through various reactions.

Organic Thin Film Growth

Explores organic thin film growth methods, nucleation, grain growth, crystal alignment, and solvent vapor annealing.

Quantum Mechanics: Wavefunctions and Operators

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

Patterning Techniques: Lithography and Printing

Explores patterning techniques for organic electronic devices, including lithography and printing methods.

Organic Electronic Materials: Field-Effect Transistors

Explores organic electronic materials, focusing on organic field-effect transistors (OFETs) and their operation, characterization, and real-world applications.

Solar Energy Conversion

Explores the potential of solar energy, methods of conversion, organic solar cells, and device structures.

Organic Light Emitting Diodes: Fundamentals and Applications

Explores the fundamentals and applications of Organic Light Emitting Diodes (OLEDs), covering device structures, energy diagrams, efficiency improvements, and OLED displays in commercial products.

Quantum Mechanics: Schrödinger Equation

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

Conjugated Multiple Bonds

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

Organic Electronics: Electron Delocalization

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