Industries ranging from radioisotope manufacturing to semiconductor fabrication to biodiesel production generate hazardous, recalcitrant, and complex wastes. Electrocatalysis, which can be energy-efficient and of low carbon intensity, offers an opportunity to transform such wastes into valuable, industrially-relevant chemicals. Such chemicals could then, in principle, be sold for profit. Although many electrochemical waste-upgrading reactions have been developed, industrial adoption of electrocatalytic waste valorization processes remains limited.
Existing electrocatalytic waste valorization processes rely heavily on studies of pure, single-reactant feeds that arrive in academic laboratories as homogenous chemicals in amber glass. Yet industrial wastes are neither purified nor single-component: they are complex, multi-reactant, and shipped to unsuspecting graduate students in reused vegetable oil jugs.
Therefore, to develop economically-viable electrochemical waste upgrading processes, we must understand the effects of feed complexity on electrocatalytic reactions across the scales of reaction engineering.
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