SYMBIOREM's potential impact is significant, promising a paradigm shift in pollution control and environmental restoration, benefiting ecosystems worldwide for future generations.It is dedicated to advancing bioremediation methods for various polluted environments, from research to field implementation. It offers sustainable, cost-effective pollution control through science-backed, bio-based solutions, aiming to mitigate biodiversity loss and ecosystem damage. By discovering new microbial strains and efficient remediation technologies, it minimizes waste and restores ecosystems with local species. Embracing circular economy principles, it aims to recover 20 products from residues and improve pollution threat assessments, engaging citizens in research and awareness efforts. Through robust assessments and dissemination, it overcomes resistance to technical solutions, fostering resource conservation and pollution mitigation. Ultimately, it seeks to revolutionize pollution control, contributing significantly to environmental science and ensuring a healthier planet for present and future generations. Its holistic approach not only addresses pollution challenges but also promotes sustainable practices and community involvement, emphasizing the importance of collaborative efforts in achieving environmental restoration and long-term ecological balance preservation.
Research advanced bio-based materials for remediation and microbial strategies for phosphorus recovery (TRL 3–5). Work on deployable hydrogels and nanogels, supported by a comprehensive review of biodegradable natural hydrogels, linked polymer chemistry and network architecture to enhanced soil remediation through improved water retention, pollutant sorption, and sustained nutrient delivery. Experimental optimisation of operational parameters strengthened microbial performance under varying redox and substrate conditions, improving biostimulation and bioaugmentation efficiency (TRL 4–5). Studies on anaerobic microbial consortia elucidated electron-transfer mechanisms and syntrophic pathways driving phosphorus transformation and recovery (TRL 3–4). A marine sediment “phosphorus mining’’ investigation assessed carbon and nitrogen dosing to mobilise and recycle phosphorus while limiting co-mobilisation of other elements. Advances in water-dispersible chitosan nanogels yielded stable, efficient carriers for contaminant binding and controlled release, enhancing dispersion and compatibility for in situ remediation (TRL 3–4).