
A global research team, headed by Monash University, is pioneering a breakthrough recyclable material that it claims could revolutionise the construction industry, assist disaster-affected areas, and even be used in space exploration.
The material in question, dubbed archimats, is an emerging area of ‘architectured’ materials that have an organised intertwined or interlocked inner architecture.

As a result, archimats have an extra degree of freedom expanding the design space that conventional composite materials, such as concrete, cannot possess, the experts said.
Archimats can be engineered to have superior strength, enhanced ductility, a high tolerance to damage, good thermal insulation and sound absorption. They can also better absorb energy, as well as provide improved compliance and flexibility, the researchers claimed.
One way to achieve this superior property profile, especially of metallic materials, is through severe plastic deformation (SPD) – a special metalworking technique that results in an ultrafine grain size or nanocrystalline structure. The structural patterns caused by SPD processing can improve the mechanical characteristics and physical properties of materials.
As a result, archimats can potentially be used:
According to lead researcher and Honorary Professorial Fellow of Monash University’s Department of Materials Science and Engineering, Professor Yuri Estrin, another benefit of archimats is the ease of assembly and disassembly it provides a structure, as well as the nearly full recyclability of the elements involved.

“Archimats therefore offer smarter, safer and more sustainable materials for use in manufacturing and industrial design, with the building industry being arguably the greatest potential beneficiary of this design concept,” Professor Estrin said.
“Archimats are also suitable for micro manufacturing. They can be produced using desktop or benchtop manufacturing processes, without the need for heavy equipment and large amounts of material.
“This opens up new possibilities for industry to explore the use of archimats for application in smart manufacturing, in particular the development of gear for microelectromechanical systems, micro devices and miniaturised drones, as well as superior structural materials for the automotive and aerospace industries.”
Professor Estrin has been invited to contribute a review of his research, titled Design of Architectured Materials Based on Mechanically-Driven Structural and Compositional Patterning to the prestigious Hall of Fame edition of the journal Advanced Engineering Materials.
A monograph he co-edited, entitled
, defines this emerging research area and is available for experts and the general public alike to peruse.