Deakin contributes to China's wind energy sector
Deakin has signed an agreement with the Dongfang Turbine Company, one of China's largest state-owned enterprises.
Electrolyte scientists dare to dream
The world's leading electrolyte scientists have converged in Geelong for ISPE-14.
Process takes textile recycling to new level
A new process to separate blends of cotton-polyester material provides a major breakthrough for recycling textile and other waste.
Gold Medal for Nisa Salim
Nisa Salim receives Gold Medal from Australian Institute of Nuclear Science and Engineering.
In search of a greener world
Professor Qipeng Guo helping us all tread more gently on the planet.
Professor Qipeng Guo
+61 3 522 72802
Polymer blends, composites and nanocomposites
Inorganic-organic hybrid composites
Inorganic-organic hybrid composites with ordered and disordered nanostructures were synthesized via sol-gel reaction utilizing an amphiphilic polyethylene-block-poly(ethylene oxide) diblock copolymer as the directing agent.
Dispersion and assembly of carbon nanotubes in epoxy resinsIt remains a major challenge to disperse carbon nanotubes (CNTs) in a polymer matrix to obtain polymer/CNT composites with maximum material performance. We study dispersion and assembly of CNTs in epoxy resins. In particular, we have achieved an extremely superior dispersion of multiwalled carbon nanotubes (MWCNTs) in epoxy matrix, and the resultant CNT/epoxy composites exhibit significantly improved mechanical properties.
Blending different polymers is an extremely attractive and cost-effective way of obtaining new materials from existing commercial polymers. Our previous work involved many aspects of polymer blends, from fundamentals such as specific interactions, miscibility, phase behavior and structure to material properties and performance.
Our research is focused on the time-dependent morphological and rheological changes that accompany the preparation of polymer blends. In particular, we have examined the morphological and rheological evolution associated with the in situ polymerization of phenoxy/SAN blends. The rheological property changes are closely related to morphology development and mechanisms of phase separation induced during in situ polymerization. The results provide a clear picture of how the blends develop, as well as a direct correlation between the changes in rheological behaviour and morphology. This research plays an important role in developing multicomponent designer plastics as commercially attractive materials.
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