ORC technology appears across I-ThERM, MEET, GeoHex, and Innova MicroSolar, covering industrial, geothermal, and solar applications.
ENOGIA
French SME developing Organic Rankine Cycle systems for waste heat recovery in industrial, geothermal, and solar thermal applications.
Their core work
ENOGIA is a Marseille-based SME specializing in waste heat recovery and conversion to electricity, primarily through Organic Rankine Cycle (ORC) technology. They develop compact power generation systems that capture industrial waste heat, geothermal energy, and solar thermal energy to produce electricity and heating. Their work spans the full chain from advanced heat exchangers and surface engineering to integrated micro-power systems for buildings and industrial sites.
What they specialise in
I-ThERM focused directly on industrial thermal energy recovery; Innova MicroSolar applied similar principles to solar micro-CHP systems.
MEET addressed Enhanced Geothermal Systems (EGS) exploration and exploitation; GeoHex developed advanced heat exchangers for geothermal applications.
GeoHex specifically targeted advanced materials for heat exchange with surface engineering and chemistry for boiling/condensation; I-ThERM explored flat heat pipes.
Innova MicroSolar developed an integrated micro solar heat and power system for residential buildings.
LONGRUN (as third party) explored efficient powertrains for heavy-duty trucks using hybrid and renewable fuels, suggesting ORC waste heat recovery applied to transport.
How they've shifted over time
ENOGIA's early H2020 work (2015–2017) concentrated on broad industrial waste heat recovery and residential solar thermal systems — converting heat from multiple sources into usable power using various thermodynamic cycles including supercritical CO2 and trilateral flush systems. From 2018 onward, their focus sharpened toward geothermal applications and advanced materials for heat exchangers, with increasing emphasis on ORC-specific engineering, surface chemistry, and scaling challenges. This trajectory shows a company moving from general-purpose heat recovery toward deeper specialization in geothermal ORC systems and the material science underpinning them.
ENOGIA is deepening its geothermal and materials expertise, positioning itself as a go-to ORC technology provider for next-generation geothermal and distributed energy systems.
How they like to work
ENOGIA consistently participates as a technology partner rather than leading consortia — all five projects were as participant or third party, with zero coordinator roles. They work within sizeable consortia (86 unique partners across 20 countries), indicating they are sought after as a specialized component provider rather than a project driver. This makes them a low-risk, high-value addition to energy consortia where compact ORC or heat recovery expertise is needed.
ENOGIA has built a broad European network of 86 unique consortium partners spanning 20 countries, reflecting strong demand for their niche thermal energy expertise across diverse project teams.
What sets them apart
ENOGIA occupies a distinctive niche as an SME that bridges thermodynamic system design with practical, deployable ORC hardware — a rare combination of R&D depth and product-oriented engineering. Unlike larger energy companies, they bring focused expertise on compact waste-heat-to-power conversion applicable across industrial, geothermal, solar, and even transport sectors. Their Marseille base and consistent participation in high-budget EU energy projects make them a proven, dependable specialist partner for consortia needing real ORC technology rather than just research contributions.
Highlights from their portfolio
- MEETLargest funding (EUR 868,875) and their entry into Enhanced Geothermal Systems, combining ORC expertise with EGS exploration across multiple demonstration sites.
- I-ThERMTheir foundational H2020 project exploring multiple waste-heat conversion pathways (flat heat pipes, supercritical CO2, trilateral flush) — establishing their technical breadth.
- GeoHexFocused on advanced materials and surface engineering for geothermal heat exchangers, signaling a move toward deeper materials science capability.