Nanophotonic Engineering: Energy Devices

Related lectures (32)

Page 3 of 4

Explores snowmelt phases, energy balance, water dynamics, and transport complexities in snow.

Explores wavefunction engineering, coherence control, speckle phenomena, microscopy, dynamics, and plasma resonances.

Explores crystal structure, real and reciprocal lattice, and Miller indices in the context of wave-particle duality and Schrodinger equation.

Explores the particle and wave views of energy transport and their mathematical expressions.

Covers exercises on surface radiative properties, including spectral absorptivity, reflectivity, emissivity, and temperature changes.

Explores transient heat diffusion in an infinite solid with periodic heating and convective cooling.

Introduces the basics of homogeneous catalysis, focusing on reaction mechanisms and catalyst design.

Covers the Boltzmann equation's scattering term and carrier scattering, including phonons, electrons, photons, and molecules.

Explores advanced electron microscopy techniques for 2D materials, covering high-resolution imaging, reducing damage, diffraction, and ptychography.

Explores metal nanoshells with tunable optical responses for biomedical and energy applications.