Articles tagged with Nanoporous Materials
The University of Minnesota has been awarded two grants from the US Department of Energy to fund research on capturing greenhouse gases and improving solar energy conversion. The grants will support the development of new materials and software tools for these applications.
Researchers at the University of Cambridge have developed a new method to create nanoporous materials, which can be used for water purification and chemical sensors. The collective osmotic shock (COS) process enables the creation of porous structures with realistic industrial cross-over potential.
A team of experts from five universities and two government research institutes aims to create new materials for high-performance applications. They plan to build 3D networks of carbon nanotubes and graphene sheets to produce strong electrical and thermal conductivity.
Researchers create rapid, low-cost imprinting process for nanodevices, enabling production of devices with high sensitivity and precision. The new approach overcomes complexity and expense challenges in processing nanoporous materials.
Researchers at NC State University have discovered a new material that can create interfaces between human tissues and medical devices, resolving issues with protein buildup and inflammation. This breakthrough could lead to advancements in kidney dialysis membranes and other implantable devices.
Researchers discovered a reversible 'breathing' action in nanoporous materials, with a 230% increase in volume, similar to the lungs' function. The materials can be expanded by immersing them in solvents, and then reversed by heating, exhibiting remarkable selectivity in gas absorption.
The PNNL team has developed a synthetic material that can absorb 99.9% of mercury from waste water, surpassing expectations and meeting regulatory limits. The technology, known as SAMMS, is tailored for specific tasks and can be adapted to target other toxins.
Researchers at NIST have developed a neutron scattering technique to survey minuscule holes in film samples, revealing the size and volume fraction of pores. This 'Swiss cheese' approach aims to create better insulating materials without compromising barrier properties.