PANIPLAST (2015-2016) was explicitly focused on industrial development of their own PANIPLAST process for poly(aniline) conductive polymers, which they coordinated.
STILZ CHIMIE
French specialty chemistry SME with a proprietary polyaniline conductive polymer process for industrial manufacturing applications.
Their core work
Stilz Chimie is a French specialty chemistry SME based in Naintré that develops and industrializes conductive polymer processes, specifically polyaniline (PANI)-based materials under their proprietary PANIPLAST brand. Their core competence is translating laboratory polymer chemistry into scalable industrial manufacturing processes — the kind of applied chemistry work that sits between research discovery and commercial production. Beyond their own process, they contribute specialty chemistry expertise to broader projects, as evidenced by their third-party role in a large urban waste valorisation initiative. With a VAT registration and direct project coordination role, they operate as a genuine commercial entity rather than a research spinout.
What they specialise in
The SME Instrument Phase 1 award for PANIPLAST indicates a formal feasibility and commercialisation pathway for their polymer manufacturing process.
Participation as third party in URBANREC (2016-2019), a large Innovation Action focused on recovering value from urban bulky waste streams.
How they've shifted over time
With only two projects spanning 2015–2019 and no keyword metadata available, a detailed evolution is difficult to establish with confidence. What can be said is that their H2020 activity began with a self-directed technology commercialisation effort (PANIPLAST, SME-1 scheme) and extended into a supporting role within a larger multi-partner circular economy project. This suggests a trajectory from internal product development toward broader application-area collaborations, possibly seeking markets for conductive polymer materials in recycling or waste processing contexts. Any claim beyond this would be speculative given the thin data.
They appear to be moving from pure polymer process development toward finding application niches — particularly in waste valorisation and material recovery — where conductive polymers could add value.
How they like to work
Stilz Chimie has operated both as a project leader (coordinating PANIPLAST independently under the SME Instrument) and as a specialist third party embedded in a much larger consortium (URBANREC had a broad multi-country partnership). This dual pattern is typical of a niche SME that champions its own technology while selectively contributing to others' projects. The third-party role in URBANREC, which carries no direct EC funding, suggests they joined to access a network or test an application context rather than for grant income.
Their 25 unique consortium partners across 7 countries come almost entirely from the large URBANREC Innovation Action, rather than their own-led project. This means their network breadth is real but was built as a peripheral participant, not as a hub organiser.
What sets them apart
Stilz Chimie is one of the very few French SMEs with a named, proprietary industrial process for polyaniline-based conductive polymers — a materials category with applications ranging from anti-static coatings and corrosion protection to flexible electronics and sensor films. Their SME Instrument award signals that the European Commission assessed their PANIPLAST process as commercially viable, which is a meaningful external validation. For a consortium needing conductive polymer expertise without engaging a large chemicals group, this company offers focused, application-ready knowledge at SME scale.
Highlights from their portfolio
- PANIPLASTTheir own coordinated project and named commercial process — the clearest window into what they actually make and sell, funded via the competitive SME Instrument Phase 1.
- URBANRECA large multi-partner Innovation Action on urban waste valorisation, showing their conductive polymer expertise has relevance in circular economy and material recovery contexts.