Publication | Closed Access
The Ultrafast Laser Pump-Probe Technique for Thermal Characterization of Materials With Micro/Nanostructures
90
Citations
176
References
2017
Year
EngineeringLaser MaterialThermal ConductivityEnergy Harvesting MaterialsNanometrologyThermodynamicsThermal ConductionUltrafast LasersMaterials SciencePhysicsNanotechnologyThermal TransportLaser Processing TechnologyLaser-assisted DepositionAdvanced Laser ProcessingNanomaterialsMaterials CharacterizationApplied PhysicsThermal CharacterizationUltrafast OpticsThin FilmsThermal EngineeringThermophysical PropertyThermal PropertyThermal Properties
Advances in nano-electronics, nano-optics, energy harvesting materials, and nanoparticle-based photothermal therapies are motivating studies of the thermal properties of micro/nanostructures. Thus, the demands for highly sensitive and accurate thermal measurement techniques are encouraged for both fundamental studies and industrial applications. The time-domain thermoreflectance (TDTR) method, based on an ultrafast pump-probe technique, enables high-fidelity thermal measurements at the micro/nanoscale and the observation of dynamic processes with sub-picosecond time resolution. TDTR is an optical technique, capable of measuring the thermal properties of micro/nanostructures, including thermal conductivity and interfacial thermal conductance of bulk substrates, thin films, and nanoparticles, among others. Here we review some recent developments in the state-of-the-art ultrafast pump-probe method applied to study the thermal and magnetic properties of materials at the micro- and nanometer scales. We also discuss in detail improvements to this technique by presenting several example extensions to its capabilities.
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