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This project focuses on understanding the potential for nanoscale engineered materials to advance state-of-the-art spectroscopic techniques and foster the
This project comprises of two complimentary components: 1.) the controlled synthesis of selectively engineered magnetic nanoparticles (MNPs) in support of the
Far-infrared (or terahertz/THz, ca. 25 to 300 micron wavelength) femtosecond pulsed laser and Fourier-transform infrared methods are employed to measure
Condensed matter dynamics can evolve on a subpicosecond timescale, too fast to follow using many characterization techniques. We use femtosecond optical pulses
Discovery of novel materials to facilitate hydrogen gas production has prompted new avenues of research towards developing hydrogen as an alternative to fossil
Precise measurements of thermal properties at the nanoscale are needed to engineer advanced and heterogeneously integrated devices, but measurements at this
Conventional techniques for analyzing chemical composition, such as infrared (IR) microscopy often miss critically important nanoscale details. To overcome this
This project aims to develop rigorous measurements and methodology needed for determining optical and electrical properties of advanced materials that might be
We develop novel inelastic scattering methodologies to probe, quantify, and control key magnetic phenomena in 2D materials for applications in beyond CMOS
We develop measurement capabilities and protocols to validate and advance the science of Raman spectroscopy and work to establish NIST as a unique resource to
Far-infrared (or THz, 25 to 300 micron wavelength) femtosecond laser methods are employed to generate high power (ca. 1 µJ) broadband pulses for far-field
The Thin Film Electronics Project develops rigorous measurements and methodology needed for continued U.S. leadership in manufacturing and innovation of
Ultrashort mid-infrared laser pulses are used to observe fast molecular and photochemical reaction processes occurring in the condensed phase. We have developed