These multilayered films allow the combination of several different materials at the nanoscale in a single unit, giving rise to novel and multifunctional architectures capable of performing numerous tasks required for systemic drug delivery.
The synthetic protocol can be instructive for the creation of other high-efficiency nanocatalysts with complex multifunctional architectures.
For example, this pH induced controllable assembly of SWCNTs can offer a potential method to desired novel pH-sensitive multifunctional architectures and/or biosensing devices.
Owing to the excellent self-assembly properties and chemical flexibility, amyloid peptide were employed to build multifunctional architectures.
Overall, this research provides an efficient platform for precisely modulating the structure of MOF-based carbons to develop multifunctional hollow architectures for satisfying enormous demands in upcoming energy devices.
Their multifunctional architecture can provide high selectivity as well as enrichment factors.
Significant efforts are being devoted to the development of multifunctional thin-film heterostructures and nanostructured material architectures for components with novel applications of superconductivity, multiferroicity, solar photocatalysis and energy conversion.
These multifunctional, hybrid architectures possess better attributes for drug delivery such as high loading capacity, improved stability, ease of anchoring ligands, surface manipulation, tuneable drug release, loading multiple therapeutics, and excellent in vivo performance.
Recent findings point to the possibility that P/rds acts as a multifunctional scaffolding protein for OS architecture and that partial‐loss‐of‐function mutations contribute to the hallmark phenotypic heterogeneity associated with inherited defects in RDS.
Architecture, for example.
