Porous materials make it possible to have nanotechnology under control

May 18, 2018, University of Córdoba
Porous materials make it possible to have nanotechnology under control
The porous material studied in this paper. Credit: University of Cordoba

A University of Cordoba research team has stabilized metallic nanostructures by encapsulating them in porous monocrystalline materials.

Like Robocop, (MOFs) are half metal, half organic structure. MOFs were developed by scientists for a myriad of applications including sorbents, batteries and electronic devices. MOFs are a new organic and inorganic hybrid material made up of metallic nodes and organic links characterized by their porosity, that is to say, by the intermolecular spaces that it is comprised of. MOFs are made up of metallic nodes and organic links characterized by their porosity, the intermolecular spaces of which it is composed.

Professor Rafael Luque of the University of Cordoba Organic Chemistry Department studied their properties and applicability in collaboration with a Southern China Technology University research group. The results are published in Dalton Transactions. The research has proven that in addition to MOF utility in catalysis processes, these are built as stabilizers of . The study paves the way for working with these nanoentities, thanks to the control over their stability.

The range of possibilities detailed in Luque's work depend on the encapsulated metal/metallic structure, which could be used for CO2 absorption or steam absorption when working with fuel cells and other kinds of batteries.

The methodology designed by Rafael Luque and his team is considered innovative because it enables control over material design to degrees that were unthinkable before. Previously, porous materials that can accommodate nanoparticles have been studied, but never before has anyone exerted thorough control over all their parameters.

Diversifying the use of these metal-organic materials as much as possible to take advantage of the stability and pliability that they give to nanostructures will be the main focus for this research group henceforth. This line of research will be described in developing studies that are currently being performed by University of Cordoba research group FQM-383.

Explore further: Scientists develop a new material for manipulating molecules

More information: Liyu Chen et al, Encapsulation of metal nanostructures into metal–organic frameworks, Dalton Transactions (2018). DOI: 10.1039/c8dt00092a

Related Stories

Recommended for you

Atomic-scale ping-pong

June 20, 2018

New experiments by researchers at the National Graphene Institute at the University of Manchester have shed more light on the gas flow through tiny, angstrom-sized channels with atomically flat walls.

Chameleon-inspired nanolaser changes colors

June 20, 2018

As a chameleon shifts its color from turquoise to pink to orange to green, nature's design principles are at play. Complex nano-mechanics are quietly and effortlessly working to camouflage the lizard's skin to match its environment.

Method could help boost large scale production of graphene

June 19, 2018

The measure by which any conductor is judged is how easily, and speedily, electrons can move through it. On this point, graphene is one of the most promising materials for a breathtaking array of applications. However, its ...

0 comments

Please sign in to add a comment. Registration is free, and takes less than a minute. Read more

Click here to reset your password.
Sign in to get notified via email when new comments are made.