Chemical physics of electroactive materials: concluding remarks
Mark W. Rutland
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90% confidenceInternational MES research in renewable-energy with focus on renewable-integration, biotechnology. It is an honour to be charged with providing the concluding remarks for a Faraday Discussion. As many have remarked b...
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Abstract
It is an honour to be charged with providing the concluding remarks for a Faraday Discussion. As many have remarked before, it is nonetheless a prodigious task, and what follows is necessarily a personal, and probably perverse, view of a watershed event in the Chemical Physics of Electroactive materials. The spirit of the conference was captured in a single sentence during the meeting itself.By Andriy Yaroschuk in commenting on the work of Kelsey Hatzell (DOI: 10.1039/c6fd00243a). “It is the nexus between rheology, electrochemistry, colloid science and energy storage”. The current scientific climate is increasingly dominated by a limited number of global challenges, and there is thus a tendency for research to resemble a football match played by 6 year olds, where everyone on the field chases the (funding) ball instead of playing to their “discipline”. It is thus reassuring to see how the application of rigorous chemical physics is leading to ingenious new solutions for both energy storage and harvesting, via , for example, nanoactuation, electrowetting, ionic materials and nanoplasmonics. In fact, the same language of chemical physics allows seamless transition between applications as diverse as mechano-electric energy generation, active moisture transport and plasmonic shutters – even the origins of life were addressed in the context of electro-autocatalysis!
Keywords
Identifiers
- Journal
- Faraday Discussions
- Year
- 2017