Auxetic materials exhibit many superior properties but drawback in low stiffness owe to the substantial porosity.
These coordination supramolecules-containing novel materials exhibit many switchabilities and other desired properties.
The ceramic materials exhibit many intriguing properties relating to higher melting temperature and good thermomechanical properties.
High surface area, nano-phase materials exhibit many interesting properties quite different from their bulk counterparts, and are the focus of much technical investigation and engineering development based on these properties.
In spite of their low thermal stability, the organoclay materials exhibit many advantages compared to inorganic materials, mainly regarding their organophilicity, which results in easy adherence and ability to exterminate a number of bacterial species [ 32– 32].
Nanobiomaterials are materials with nanometer features that can mimic the dimensions of natural tissues or organs when compared to micron-sized materials, nanobiomaterials exhibit many superior properties including biocompatibility, mechanical, electrical, biodegradability, and optical.
Moreover, MOFs can be miniaturized to nanometer scale to form nano-MOF (NMOF) materials, which exhibit many advantages over conventional bulk MOFs in terms of the facile tailorability of compositions, sizes and morphologies, the high dispersity in a wide variety of medium, and the intrinsic biocompatibility.
However, it proved unsuitable for many applications, because devices made of the material exhibited high leakage currents at only moderately elevated temperatures.
Moreover, the material exhibited excellent electrochemical stability.
Because of the possibilities of achieving high porosities and pore aspect ratios at low costs, anodic aluminum oxide (AAO) exhibits many advantages compared with other membrane materials.
