Research

The transition toward a sustainable and circular bio-based economy requires not only technological breakthroughs but also a skilled workforce and societal engagement. BIOSPARK (Skills Promotion and Awareness for Regenerative Knowledge) addresses this challenge by co-developing and deploying innovative, demand-driven curricula across Europe, with a strong emphasis on Widening countries. 18 partners will expand the Bio-based Educational Centres (BBECs) model from six macro-regional hubs to a network covering all EU-27. Through a multi-actor, interdisciplinary approach, BIOSPARK will design 11 curricula actions targeting students (academic and vocational), professionals, and policymakers. These will integrate technical, environmental, digital, business, and social skills, supported by methodologies such as summer schools, internships, online training, supervised projects, and micro-credentials. Piloting with over 380 end-users will ensure relevance and adaptability, while EU-wide actions—including hackathons, awareness workshops, industry visits, and teacher training—will foster mutual learning and raise awareness. BIOSPARK will strengthen connections between academia, industry, and society, contributing to the competitiveness of the European circular bioeconomy. Outcomes include validated curricula, EU-wide capacity building, stronger engagement of Widening countries, and an afterlife plan ensuring long-term sustainability of the BBECs network. By bridging skills gaps, promoting inclusivity, and aligning with EU Green Deal objectives, BIOSPARK will empower Europe’s workforce and communities to drive systemic change toward a regenerative bioeconomy.

AutoForst aims to address the challenges in the forest wood supply chain through advanced automation of the individual process steps in the wood value chain. Although progress has been made recently, particularly in the development of assistance systems, the level of automation in forestry remains relatively low. AutoForst aims to fully automate workflows to reduce the need for on-site personnel, especially in hazardous situations, and improve safety. The integration of automated technologies such as cranes, trucks, and drones will increase efficiency, with human intervention only required for tasks that machines cannot perform independently. In addition, automation enables comprehensive traceability along the entire roundwood value chain. By using sustainable drive systems, AutoForst ensures environmental sustainability and takes advantage of the local environment, such as the potential for energy recovery and the generation of green energy from renewable sources such as hydropower. AutoForst's methodology focuses on overcoming the key scientific challenges associated with implementing automation in the roundwood value chain. This interdisciplinary approach encompasses advances in image recognition algorithms, AI-based analytics, automotive and sensor technologies, navigation strategies, control algorithms for various systems such as drones, cranes, and trucks, remote monitoring, fleet management, digitization, and sustainability efforts, all aimed at shaping the forestry industry of the future. Beyond the scientific and technological challenges, forestry environments present particular difficulties, such as changing climate and weather conditions, remote or hard-to-reach areas, and external factors such as wind. These factors increase the complexity of applying the approaches researched and developed by AutoForst, making it a unique and exceptional project that combines interdisciplinarity in a truly unique way. AutoForst will integrate the results of scientific research in collaboration with key players from leading Austrian companies into functional prototypes that reflect the interdisciplinary approach. These prototypes will be validated in real-world forestry environments to demonstrate the feasibility of the technology and serve as a basis for future developments. In addition, they will serve as a platform for the certification of fully automated systems.

This research project deals with the dynamics of tree anchors used to secure skylines and guy lines of cable-based yarding systems. The holding capacity of these anchors is crucial for work safety and efficiency, yet it is difficult to estimate due to its high variability. Current monitoring approaches rely on measuring tree movement. A particular focus is placed on multiple-anchor configurations, where two or more trees are combined. In such cases, assessing holding capacity becomes even more complex, and scientific knowledge is lacking regarding the distribution of dynamic forces—especially when using haul-back or diversion pulleys. Using high-resolution measurement systems, the project will record force distribution and tree responses under realistic working conditions. The study will examine both direct cable configurations and setups involving diversion pulleys. The results will provide key parameters for future monitoring systems, create a basis for calculation tools, and support the development of training materials.