Imagine a giant sponge used to clean water that eventually gets full of dirt and can't hold any more. Instead of shipping that heavy sponge to a massive furnace to be burned clean, this project creates a portable electric cleaning machine. It's like having a dishwasher for industrial filters that comes right to your door and uses solar power to refresh the material.
Current GAC regeneration relies on fossil fuel-based thermal processes that are energy-intensive, emit high GHGs, and require expensive transport of heavy materials.
A portable, modular electrochemical regeneration plant integrated with organic photovoltaics and digital controls.
If you are a municipal utility dealing with high costs and emissions from transporting spent carbon to thermal plants — this project developed a portable modular ER plant that regenerates GAC on-site. This removes the need for transport and landfilling while reducing energy demand.
If you are a textile manufacturer dealing with contaminated wastewater filters — this project developed an electrochemical regeneration system that cleans GAC in-situ. This allows you to maintain water quality without the GHG emissions associated with fossil fuel-based thermal processes.
If you are an agri-business dealing with exhausted activated carbons that usually go to waste — this project developed second-life applications for EAC in agriculture. This turns a waste stream into a value-added product for soil improvement.
Based on available project data, the system reduces costs by eliminating the need for transport to thermal plants and lowering energy demand through electrochemical regeneration and organic photovoltaics.
The project is developing a first-of-a-kind portable and modular plant that will be validated through demonstration campaigns at major plants in Spain and Cyprus.
Based on available project data, the project focuses on new electrode formulations, regeneration protocols, and business models to ensure market uptake and replication.
The system integrates renewable electricity via organic photovoltaics and uses selective electrodialysis for electrolyte management.
The project period runs from 2026-06-01 to 2030-05-31, with demonstrations and replication activities planned across Spain, Cyprus, Portugal, and Germany.
The consortium is highly commercially oriented, featuring 16 partners with a 50% industry ratio (8 industrial partners, including 6 SMEs). This balance suggests a strong focus on market viability, with a lean research core (1 university and 3 research entities) supporting the technical development led by SME coordinator ENVIROHEMP SL.
Contact ENVIROHEMP SL in Spain for partnership opportunities regarding electrochemical GAC regeneration.
Contact us to identify potential pilot sites or licensing opportunities for this portable ER technology.
