innovation
Research within the European H2020 ONEforest project developed xanthan gum and wood fiber bio-composites for biodegradable mulching films and soil amendments. These materials enhance water retention, reduce irrigation needs, and support plant growth, providing a sustainable alternative to conventional plastics for agriculture and reforestation.
Ozone is a promising postharvest technology for fruit preservation. Through its oxidative properties, it can delay ripening, maintain quality, and enhance antioxidant compounds. This research aims to clarify the mechanisms underlying ozone action and support the technology's implementation on an industrial scale.
Additive manufacturing is not only a technological challenge but also a decision-making one. The article explores how multi-criteria and multi-objective decision analysis tools help companies manage complexity, uncertainty, and trade-offs in selecting and using 3D printing technologies.
The Department in collaboration with the Free University of Bozen-Bolzano is developing quadruped robots and drones for automated alpine forest mapping using SLAM algorithms and AI. The Digiforest and FORMA projects integrate advanced sensors to monitor forest health and biodiversity, while new research applies robotics to the study of animal behavior.
Let’s trace the evolution of polymer-derived ceramics (PDCs), from Yajima’s breakthrough to advanced applications developed at DII. By controlling precursor chemistry, researchers obtain innovative materials such as transparent silicon oxycarbides, ultralight aerogels, and high-performance composites, opening new frontiers in materials design.
TinyML enables machine learning on resource-constrained devices typical of IoT. It offers benefits such as local processing, low latency, improved privacy, and reduced energy consumption, while posing challenges in model optimization, compression, and computational capacity.
This work introduces an innovative approach to olefin oxidative cleavage based on the in situ generation of nitrate radicals via TiO₂ photocatalysis. The method enables the production of carbonyl compounds under mild conditions while reducing hazardous oxidants. Electro-assisted systems further enhance efficiency and sustainability for scalable applications.
A physics-guided AI approach uses structured neural networks to model brake wear emissions, combining engineering knowledge and data to achieve more interpretable, efficient, and robust predictive models.
An interdisciplinary study between Trento and Sydney explores natural bioinks for bone regeneration. Using 3D bioprinting and materials such as silk fibroin, hydroxyapatite, and tropoelastin, bioactive, sustainable, and customizable scaffolds were developed.
The collaboration between the University of Trento’s Department of Industrial Engineering and INFN-TIFPA develops cutting-edge technologies ranging from radiation sensors and quantum devices to space mission systems. This multidisciplinary ecosystem transforms fundamental physics research into applications for medicine, industry, and space exploration.
The PRIN 2022 project examines how metrology can enhance the reliability of scientific evidence in criminal trials. By focusing on measurement uncertainty and developing operational guidelines, the research promotes a culture of methodical doubt to prevent cognitive bias and wrongful convictions, strengthening the dialogue between science and law and improving judicial decision-making.
The JETCELL project investigates Binder Jetting 3D printing to design innovative anodes for direct carbon fuel cells. By using biochar derived from olive pomace and red mud from aluminum production, the research aims to convert hazardous waste into valuable energy resources, boosting efficiency, sustainability, and circular economy strategies.
