Research into renewable chemicals, fuels and materials sourced from the oceans at Memorial University and elsewhere is employing green chemical technologies for the transformation of algae and food industry waste streams into useful products. A very small proportion of biomass utilization research is currently focused on these feedstocks and efforts focused in this area could reduce land space competition between food and chemical/fuel production.
The 4th International Summit on Non-Renewable and Renewable Energy (ISNRE2026) will be held on August 24–25, 2026 in Venice, Italy. This global event brings together leading researchers, industry experts, policymakers, and innovators to discuss advancements in renewable technologies, energy transition strategies, smart grids, storage solutions, and sustainability pathways. ISNRE2026 offers plenary talks, keynote sessions, technical presentations, and exceptional networking opportunities for professionals across the energy sector.
The Applied Materials Chemistry Group (AMCG), the Industrial Physical Chemistry Group (IPCG), the Sustainable Chemicals and Materials Manufacturing Hub (SCHEMA), and the Innovation Centre for Applied Sustainable Technologies (iCAST) are delighted to announce our third annual seminar on sustainable chemical feedstocks. The event is a collaboration between industry and academia and will focus on three main topics: Small Molecule Feedstocks, Circular Plastics, and Sustainable Chemicals from Underutilised Biomass.
Approach to address the pressing need for efficient and transparent evaluation techniques to assess extraction processes’ sustainability. In response to society's growing demand for natural products and the consequent surge in biomass exploration, a critical imperative arises to ensure that these processes are genuinely environmentally friendly. Extracting natural compounds has traditionally been regarded as a benign activity rooted in ancient practices. However, contemporary extraction methods can also significantly harm the environment if not carefully managed.
Supercapacitors, celebrated for their high power density and rapid charge-discharge capabilities, represent a promising solution to meet the increasing demand for sustainable energy storage systems. This research adopts a sustainable approach to develop green supercapacitors by leveraging biomass-derived materials for both electrodes and electrolytes, thereby aligning with global efforts toward green energy technologies and the circular economy.
