Forests are like giant carbon sponges — they soak up CO2 as trees grow, but logging and operations release some of it back. CARE4C figured out exactly how much carbon goes in and out across different forest types, from Mediterranean to sub-boreal zones across 7 countries. They built models to help forest managers pick the best strategies for keeping more carbon locked in trees while still running profitable operations. Think of it as a carbon accounting system for forests, so managers know which decisions help and which ones hurt.
Forestry companies face growing pressure to prove their operations are carbon-neutral or carbon-positive, but most lack reliable data on how much carbon their forests actually absorb versus how much their harvesting operations release. Without accurate carbon balance data tailored to their specific forest types and climate conditions, companies cannot make informed management decisions or credibly participate in carbon markets.
The project produced a tree survival model (tested for South African conditions), fuel micro-flow metering capability for forest machines, and carbon balance models covering multiple forest types from Mediterranean to sub-boreal zones. In total, 21 deliverables were completed across the 5-year project.
If you are a forestry company trying to balance timber production with carbon commitments — this project developed carbon balance models across multiple climatic zones and forest types that show which management approaches maximize carbon storage. With 19 partners across 7 countries testing different conditions, the results cover everything from Mediterranean to sub-boreal forests.
If you are a carbon offset company that needs accurate forest carbon data to validate credits — this project built tree survival models and carbon sequestration measurements from cell level up to landscape level. The research covers both pure and mixed stands, giving you science-backed data to price and verify forestry-based carbon credits more accurately.
If you are a forest machinery manufacturer looking to reduce the carbon footprint of your equipment — this project developed fuel micro-flow metering tests for forest machines. This lets you measure and optimize fuel consumption during operations, helping your customers prove that their harvesting processes are carbon-efficient.
The project was funded with EUR 967,500 under the MSCA-RISE scheme, which focuses on knowledge exchange rather than commercial product development. Licensing terms would need to be negotiated directly with the coordinator (Technische Universität München). Academic-origin tools typically offer favorable terms for industry partners.
The project deliberately tested across a broad range of climatic zones from Mediterranean to sub-boreal areas in 7 countries. This multi-level approach was designed specifically to overcome the limitation of locally-focused studies, making the results more transferable to different growing conditions and landscapes.
IP is held by the consortium led by Technische Universität München in Germany. As an MSCA-RISE project, the emphasis was on staff exchange and knowledge transfer. Specific licensing arrangements for the tree survival model and fuel metering methods would need to be discussed with the coordinator.
The project provides science-backed methods to measure carbon sink from forest growth and carbon source from forest operations. This data can support companies in meeting EU carbon accounting requirements and demonstrating climate-responsible forestry practices across different forest management approaches.
The project completed a fuel micro-flow metering test in forest machines, demonstrating the measurement capability. Based on available project data, this appears to be at a tested prototype stage rather than a commercial product. Further engineering would likely be needed for full integration into production equipment.
The project produced 21 deliverables in total, including a tree survival model for South Africa and fuel micro-flow metering tests for forest machines. The broader output includes carbon balance models for multiple forest types and management approaches across different climatic zones.
The CARE4C consortium brings together 19 partners from 7 countries spanning three continents (Europe, Africa, Asia), with 8 universities, 4 industry partners (all SMEs), 1 research organization, and 6 other entities. The 21% industry ratio is modest but typical for an MSCA-RISE project focused on knowledge exchange. The geographic spread from Germany to South Africa and Vietnam means the research covers genuinely diverse forest conditions. For a business looking to adopt these tools, the academic-heavy consortium means you would likely be working with university tech transfer offices rather than commercial vendors, but the presence of 4 SME partners suggests some industry validation of the results.
Contact Technische Universität München (Germany) through their technology transfer office for licensing and collaboration inquiries.
SciTransfer can connect you directly with the CARE4C research team and help evaluate how their carbon forestry tools fit your specific business needs.
