POSIDON gathers 5 European procurers facing similar problems in the sites they manage, affected by analogous pollutants (2 front-runners-Trieste, IT and Bilbao, ES-and 3 observers - Spaque, BE; Vitoria Gasteiz, ES; Baja do Tejo, PT), leveraging public demand to identify fit-for-purpose and cost-effective innovative and sustainable solutions to soil contamination. The common challenge faced by the buyers’ group is identifying a new, life-cycle cost-effective technology for soil and groundwater remediation, capable of decontaminating heterogeneous anthropic soils in brownfields with a mixture of industrial waste (blast furnace slags, construction & demolition waste, filling soils polluted by petroleum hydrocarbons) and soils consisting of clays and sands of marine origin, highly polluted by petroleum hydrocarbons (TPHs and PAHs) and heavy metals (arsenic and lead). Studies on the state of the art, patent analysis, foresight scanning and early market engagement meetings, show that no available technology can meet all identified needs, thus appropriate remediation technologies cannot be acquired through traditional off-the-shelf procurement.With PCP, procurers aim to achieve ambitious improvements in terms of quality and effectiveness, efficiency and sustainability of new technology to bring to the market. R&D will be split into three phases: solution design, prototyping, original development and testing of 2 prototypes. Evaluations after each phase progressively identify solutions offering the best value for money. This phased approach allows successful contractors to improve their offers for the next phase based on feedback from procurers. POSIDON intends to create a critical mass through the consolidation of a pan-European network of procurers who, sharing their needs and efforts, can enable the development - through PCP - and subsequent deployment - through a PPI - of novel technologies aimed to cover bigger market challenges in areas of common European interest

EiCLaR, as a EU/China consortium, will develop scientific and technical innovations for in situ bioremediation technologies that will be directly developed into industrial processes for the rapid efficient cost-effective treatment of a range of environmental pollutants such as chlorinated solvents, heavy metals, pesticides, etc. These technologies (Electro-nanobioremediation, innovative Bioaugmentation, Bioelectrochemical remediation, Enhanced phytoremediation) will enable bioremediation approaches to expand their range of applications to industrial sites and waters that contain complex, high concentration pollutant mixtures. This project will move our proof-of-concept level advances to industrial commercial processes through laboratories studies to refine the processes and to explore the scientific base and scale-up techniques and field demonstrations. Our recent advances in nanobioremediation will be enhanced by studies of the critical microbial component and the use of electrochemical processes to increase the degradation rate and biocatalyst lifetime. The innovative bioaugmentation is based on a recently discovered bacteria capable of degrading some chlorinated solvents efficiently under aerobic conditions. The Bioelectrochemical system will speed up the anaerobic degradation of pollutants when aeration is not feasible. The enhanced phytoremediation will benefit from the synergistic effect of fungi and electrokinetic nutrient dispersion. These environmental sustainable and low impact depollution methods will provide service companies with the tools to manage contaminated soil and water and improve environmental quality at over a million sites throughout Europe and China. These companies will be able to grow by increased personnel and revenue while improving biodiversity and reducing environmental risks.