Global water stress and challenges for producing sufficient supplies of fit-for-purpose water
are amplifying. Atomically engineered interfaces are emerging as a powerful tool in the …

The structure, chemistry, and charge of interfaces between materials and aqueous fluids
play a central role in determining properties and performance of numerous water systems …

Robust and efficient approaches for the synthesis of materials with structure, porosity, and
composition controlled at the nanoscale are highly important for a wide range of …

Sequential infiltration synthesis (SIS) is an emerging materials growth method by which
inorganic metal oxides are nucleated and grown within the free volume of polymers in …

Direct lasing of polymeric membranes to form laser induced graphene (LIG) offers a scalable
and potentially cheaper alternative for the fabrication of electrically conductive membranes …

Sequential infiltration synthesis (SIS), also known as vapor phase infiltration (VPI), is a
quickly expanding technique that allows growth of inorganic materials within polymers from …

Hybrid materials are a merger of inorganic and organic materials and, as such, have the
potential to outperform the characteristics and functionalities of conventional, that is …

Continuing extreme downscaling of semiconductor devices, essential for high performance
and energy efficiency of future microelectronics, hinges on extreme ultraviolet lithography …

The energetically favorable formation of atomically precise clusters, known as magic size
clusters, in the solution phase enables a precision nanoscale synthesis with exquisite …

Atomic layer deposition (ALD) is a method to grow thin metal oxide layers on a variety of
materials for applications spanning from electronics to catalysis. Extending ALD to …