Core contributor to BIOFOREVER, AgriMax, and SYLFEED — all focused on converting forestry and agricultural feedstocks through hydrolysis, pre-treatment, and enzymatic processes.
BIOPROCESS PILOT FACILITY BV
Independent pilot-scale bioprocessing facility in Delft specializing in fermentation, biorefinery scale-up, and biomass-to-product demonstration for EU consortia.
Their core work
BPF is a dedicated pilot-scale bioprocessing facility in Delft, Netherlands, that helps research consortia scale up bio-based processes from lab to demonstration level. They provide fermentation, extraction, filtration, and enzymatic treatment infrastructure for projects converting biomass and waste streams into valuable products — from bio-polymers and single-cell proteins to pheromones and mycelium-based textiles. Their value lies in bridging the gap between laboratory research and industrial production, offering the physical plant and process expertise that most partners in a consortium lack.
What they specialise in
Fermentation appears across BioCatPolymers, PHERA, MY-FI, and SYLFEED, spanning bio-monomers, pheromone production, fungal fermentation, and single-cell protein.
AgriMax, BIOFOREVER, and BioCatPolymers all target conversion of agricultural residues, food processing waste, and forestry by-products into higher-value products.
BIONANOPOLYS focuses on bio-based polymer nanocomposites for packaging, textiles, and automotive; MY-FI targets mycelium-based biobased textiles.
PHERA (their largest-funded project at EUR 1.2M) produces insect sex pheromones via fermentation for integrated pest management in row crops.
How they've shifted over time
In the early period (2016–2018), BPF focused on classic biorefinery operations: wood and lignocellulose pre-treatment, multi-feedstock processing, and agricultural waste valorization through extraction and filtration. From 2020 onward, the focus shifted toward higher-value fermentation products — insect pheromones for pest control, fungal mycelium for textiles, and bio-monomers for polymers. This evolution shows a move from bulk biomass processing toward precision fermentation for specialty bio-based products.
BPF is pivoting from general biomass processing toward fermentation-based production of high-value specialty chemicals and materials, making them an increasingly relevant partner for circular bioeconomy projects needing scale-up capacity.
How they like to work
BPF operates exclusively as a participant — they have never coordinated an H2020 project, which is consistent with their role as an infrastructure and process partner rather than a research leader. With 119 unique partners across 24 countries, they integrate into large, diverse consortia (typical for BBI Innovation Actions). This makes them easy to work with: they bring equipment and process know-how without competing for scientific leadership.
BPF has built an extensive network of 119 unique partners across 24 countries, reflecting their participation in large BBI-funded demonstration projects. Their reach spans most of the EU, with strong connections in bioeconomy-focused countries across Western and Northern Europe.
What sets them apart
BPF fills a critical gap in the bio-based innovation chain: they are a dedicated, independent pilot facility, not a university lab or a corporate R&D center. This means consortia can access industrial-scale fermentation, extraction, and downstream processing equipment without the IP complications of partnering with a competitor. Based in Delft — a major Dutch biotech hub — they combine proximity to TU Delft expertise with hands-on scale-up capability.
Highlights from their portfolio
- PHERALargest single EC contribution (EUR 1.2M), targeting the unusual application of fermenting insect sex pheromones for crop pest management — showing BPF's versatility beyond traditional biorefinery.
- SYLFEEDDemonstrates BPF's full biorefinery chain capability: wood-to-feed conversion via lignocellulose pre-treatment, hydrolysis, and single-cell protein production at demonstration scale.
- MY-FIRepresents BPF's move into circular economy materials — producing mycelium-based textile fibers through fungal fermentation, a fast-growing application area.