Our multidisciplinary research teams are at the forefront of discovery for products and processes that are efficient, environmentally-friendly, sustainable and designed for a cleaner future. Researchers are developing economically viable, solvent-free, sustainable processes for bio-based and compostable polymers, with applications in consumer goods, packaging and various engineering applications. Multidisciplinary research on identification of microplastics in the Great Lakes and tracing their origins is an emerging research area. Students who are interested in conducting research in these areas can add the Collaborative Masters in Applied Sustainability specialization to their master’s degree.

Find out more about graduate studies in clean energy!

Green Chemistry and Engineering Products and Processes

Bio-based cellulose nanocrystals coating surface of micro-particle, providing a green alternative to traditional surfactants

Bio-based cellulose nanocrystals coating surface of micro-particle, providing a green alternative to traditional surfactants.

Water droplets on “smart” carbon dioxide switchable linen
Water droplets on “smart” carbon dioxide switchable linen

Water droplets on “smart” carbon dioxide switchable linen. The polymer-coated linen is easily switched between being hydrophobic (left) and hydrophilic (right) by exposure to carbonated water.

Research Faculty


Michael F. Cunningham
Green Chemistry and Engineering Products and Processes
Bio-based Polymer

Professor

michael.cunningham@queensu.ca
Dupuis Hall 315
613-533-2782

Environmental Remediation

Multidisciplinary research involves the development of methods to evaluate the toxicity, solubility, and mobility of contaminants in soils, mine tailings, and leachates, as well as the estimation of environmental and human health risks associated with exposure to existing contaminants in water and soil. Researchers are also investigating novel materials, emerging contaminants, and mixtures of contaminants as well as the biodegradation of naphtha in oil sand tailing ponds.

Research Faculty

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Louise Meunier
Environmental Remediation
Graphene Integrated Functional Technologies (GIFT)

Associate Professor

louise.meunier@queensu.ca
Dupuis Hall 211
613-533-6000 ext. 78048

Sustainable Fuels and Chemicals

sustainable fuels

Researchers are developing technologies for the conversion of carbon dioxide, water, and organic waste into valuable chemicals and fuels such as hydrogen, ethylene, ethanol, and propanol. New materials and new component fabrication strategies that reduce the cost and improve the efficiency of producing fuels and chemicals for large-scale and long-term storage of renewable energy are being developed by the Sustainable Fuels and Chemicals Group. Stored hydrogen and hydrocarbon fuels can be used in zero carbon emission vehicles or to provide backup power for the electrical grid. Our researchers are developing novel electrocatalysts and electrochemical devices that significantly improve the efficiency of CO2 converson and hydrogen production while reducing the use of costly precious metals. Novel electrode assembly fabrication methods are being developed that enable the use of low-cost anion and proton conducting polymers that provide better performance characteristics.

Research Faculty

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Cao Thang Dinh
Sustainable Fuels and Chemicals
Electrochemical Energy Storage Systems

Assistant Professor

caothang.dinh@queensu.ca
Dupuis Hall 305
613-533-6637

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Ehssan H. Koupaie
Sustainable Fuels and Chemicals
Environmental Remediation and Waste Conversion

Assistant Professor

ehssan.koupaie@queensu.ca
Dupuis Hall 303
613-533-6000 ext. 77931

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Brant A. Peppley

Sustainable Fuels and Chemicals

Professor

brant.peppley@queensu.ca
Dupuis Hall G09
613-533-3247

Electrochemical Energy Storage Systems

Energy storage systems are used in a multitude of applications ranging from consumer electronics to hybrid electric vehicles, with new applications constantly emerging. Researchers are focusing on various aspects of electrochemical energy storage devices including:

  • rechargeable batteries made from abundant and recyclable materials suitable for large-scale applications
  • miniaturized batteries for micro-electro-mechanical-systems (MEMS)
  • printing of flexible graphene supercapacitors
  • development of novel flexible graphene-based battery-supercapacitor hybrids and gel batteries.

This comprehensive research embraces the development of novel technologies and the underlying theoretical background, using sophisticated experimental methods and mathematical modelling.

Research Faculty

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Cao Thang Dinh
Sustainable Fuels and Chemicals
Electrochemical Energy Storage Systems

Assistant Professor

caothang.dinh@queensu.ca
Dupuis Hall 305
613-533-6637

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Dominik P.J. Barz
Electrochemical Energy Storage Systems

Associate Professor

dominik.barz@queensu.ca
Dupuis Hall 213
613-533-6000 ext. 79470