BALIHT project focused on lignin-based electrolytes, flexible carbon electrodes, and thin membranes for flow batteries suited to warm environments and heavy cycling.
ALIENOREU SPRL
Belgian SME specialising in lignin-based redox flow batteries and CO2-to-methanol catalysis for clean energy decarbonisation.
Their core work
ALIENOREU is a Belgian technology SME working at the intersection of advanced materials chemistry and clean energy systems. In practice, this means developing novel electrochemical materials — from bio-sourced lignin-based electrolytes for redox flow batteries to heterogeneous catalyst systems for converting CO2 into renewable methanol. Their work is firmly applied research: they join international consortia to contribute specialist materials and chemistry know-how, not to run large programs. Both their projects target hard decarbonization problems — intermittent renewable storage and closing the carbon loop — which positions them as a niche but technically focused player in Europe's energy transition toolkit.
What they specialise in
LAURELIN project targets selective CO2-to-methanol conversion via innovative heterogeneous catalyst systems, directly addressing the renewable fuels and decarbonization agenda.
BALIHT specifically used lignin — an industrial biomass byproduct — as the electrolyte base, indicating expertise in valorising bio-sourced feedstocks for energy applications.
LAURELIN (2021–2025) represents their most recent and better-funded engagement, suggesting a deliberate move toward power-to-X and synthetic fuel chemistry.
How they've shifted over time
Their first H2020 project (BALIHT, 2019) was squarely in electrochemical energy storage — specifically organic, bio-based redox flow batteries using lignin electrolytes, designed for warm climates and renewable grid buffering. By 2021, with LAURELIN, their focus pivoted from storing electrons to converting carbon: CO2 hydrogenation to renewable methanol using advanced catalyst design. Both threads share a common underlying theme — advanced functional materials for clean energy — but the shift from storage chemistry to carbon utilisation reflects broader market momentum toward power-to-X and synthetic fuels in the early 2020s.
ALIENOREU appears to be tracking the clean energy transition from storage toward carbon utilisation and synthetic fuels, making them a candidate partner for future power-to-X, green methanol, or e-fuels consortia under Horizon Europe.
How they like to work
ALIENOREU has operated exclusively as a consortium participant across both projects — they have never led or coordinated a funded H2020 project. This suggests they bring specialist technical contributions to larger programs rather than driving project strategy or consortium assembly. With 21 distinct partners across 7 countries from just 2 projects, they work in reasonably sized international consortia rather than small bilateral arrangements, indicating comfort with multi-partner European research structures.
ALIENOREU has built a network of 21 unique consortium partners across 7 countries through just two projects — an unusually broad spread for a company of this size, reflecting the multinational character of the RIA consortia they joined. Their geographic footprint is European but the specific country distribution is not detailed in available data.
What sets them apart
ALIENOREU is a rare Belgian SME that has contributed to both the energy storage and carbon utilisation sides of decarbonisation chemistry within the same H2020 programme cycle — most specialists stay in one lane. Their use of lignin as a bio-based electrolyte feedstock in BALIHT reflects an unusual crossover between biomass valorisation and electrochemistry that few companies pursue. For consortium builders, they offer niche materials and catalysis expertise without the overhead of a large research institution, and their SME status makes them eligible for SME-specific funding allocations.
Highlights from their portfolio
- LAURELINTheir largest funded project (EUR 264,500), targeting selective CO2-to-methanol conversion — one of the most commercially relevant power-to-X pathways — and still active through 2025.
- BALIHTAn unusual combination of lignin (industrial biomass waste) and redox flow battery technology, addressing energy storage in warm climates — a gap rarely targeted by European battery research.