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The application of atomic force microscopy to go beyond topographic imaging and accurately measure nanomechanical properties of materials often depends on being
This project aims to enable use of metal additive manufacturing (AM) in fatigue and fracture critical applications via two main thrusts: Develop appropriate
The development of new materials for diverse applications relating to the development of new energy sources, more efficient homes, autos, and aircraft, and the
Electron, ion and photon-based microanalysis methods, instrumentation and protocols are developed to advance measurement science towards the elemental and
In this project we measure the fundamental electrical properties of materials from bulk to nanoscale from 1 MHz to 0.3 THz. Understanding the interaction of
Advanced experimental and theoretical methods are developed to increase the accuracy and precision of X-ray line energies and information derived from X-ray
Advanced microscopy and spectroscopy techniques are used in this project to study the chemical and physical properties of particles contained in complex
ZnO nanowires (NWs) are grown on bulk copper by chemical vapor deposition. Photoluminescence (PL) microscopy revealed band gap emission at 380 nm and a more
This project develops STEM-in-SEM methods or low-energy transmission electron diffraction, imaging, and spectroscopy in the scanning electron microscope, to
Provide reference materials and data, analysis and structure modeling protocols for the determination and prediction of atomic arrangements to enable innovation
As part of NIST's response to the Materials Genome Initiative (MGI), this project provides resources to address some of the challenges to the wider use of
Our objective is to support the efforts of the US automotive industry and its suppliers to incorporate advanced lightweight materials for improving fuel economy
We use autonomous experimentation (the merger of automated synthesis, characterization, AI-driven decision-making) to elucidate the role of composition
We are developing novel machine learning algorithms and incorporating them into closed-loop autonomous systems to accelerate knowledge capture in the lab and in
Our goal is to enable the development and manufacturing of biomaterials for oral health moving forward in 21st century by providing critical measurement methods
Our goal is to provide industry with test structures and models of next-generation photovoltaics, with an initial focus on cadmium telluride (CdTe) and CuInxGa1
WARNING RELATED TO TESTING SUPER-HIGH ENERGY SPECIMENS The steel currently used by NIST for the production of super-high energy reference Charpy specimens tends
Our goal is to develop combinatorial library approaches for measuring and optimizing the effect of substrate chemical functionalization on the structure and
As part of NIST's response to the Materials Genome Initiative (MGI), this project addresses the need for automation for the assembly and distribution of
As part of NIST's response to the Materials Genome Initiative (MGI), this project seeks to unite contact-resonance atomic force microscopy and molecular
Researchers in the Nanomechanical Properties Group, Materials Measurement Science Division, MML have applied high spatial resolution, confocal Raman and