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Division of Forest and Forest Resources

SenseWood

The visitor centre at Borgund Stave Church in Lærdal municipality in Norway. Photo: Lone Ross Photo: Lone Ross
Active Last updated: 25.03.2026
End: dec 2029
Start: jan 2026

SenseWood aims to make wood a reliable, climate-smart building material by expanding digitalisation beyond construction into the operation and maintenance phases of buildings.

Hyperspektralt kamera
Hyperspectral cameras capture a wide spectrum of wavelengths, including areas beyond what humans can perceive. In SenseWood, they are used to record chemical information in material surfaces. Photo: Ingunn Burud

 

Vertikal Nydalen Mars 2026.jpg
Outdoor timber façades are continuously exposed to sun, precipitation, temperature fluctuations and wind. Over time, this can lead to material degradation, surface changes and an increased need for maintenance. Here from a recently constructed building in Nydalen, Oslo. Photo: Lone Ross

 

Status Active
Start - end date 01.01.2026 - 31.12.2029
Project manager Michael Altgen
Division Division of Forest and Forest Resources
Department Wood Technology
Partners NIBIO and Norwegian University of Life Sciences (NMBU)
Funding source Forskningsrådet

Buildings account for more than a third of global carbon emissions, so shifting to renewable materials is essential for a sustainable future. Wood is a promising option because it stores carbon and can make buildings long‑term carbon sinks. This has renewed interest in timber construction, even for multi‑storey buildings. Yet wood is vulnerable to weathering, fungal attack, and loss of fire protection. Facades are especially at risk, and in tall buildings, inspection and maintenance are costly, difficult, and sometimes unsafe. If degradation goes unnoticed, service life shortens, stored carbon is released, and fire risks increase.

The project Digitalisation of wooden building skins for a predictable performance (SenseWood) addresses these challenges by combining remote sensing and digital technologies. Using hyperspectral cameras that can be mounted on drones, we will scan wooden facades to detect early signs of damage, moisture, fungal growth, or loss of fire‑retardant chemicals. This microscale data will feed into climate models that simulate wood performance across entire facades with unprecedented accuracy. This combination will allow us to:

  • Automatically identify risk areas in existing facades for targeted maintenance.
  • Classify materials before dismantling to optimise reuse and recycling.
  • Simulate performance during design, guiding architects toward safer, more sustainable choices.

As a result, SenseWood aims to make wood a reliable, climate-smart building material by expanding digitalisation beyond construction into the operation and maintenance phases of buildings.

SenseWoods prosjektgruppe.
From left to right: Lone Ross (NIBIO), Michael Altgen (NIBIO), Ingunn Burud (NMBU), Andreas Svarstad Flø (NMBU), Kristian Hovde Liland (NMBU), Thomas Kringlebotn Thiis (NMBU) and Arnkell Jonas Petersen (NMBU). Photo: Kathrine Torday Gulden

 

Work packages in SenseWood

WP1: Wood performance monitoring using hyperspectral imaging (NIBIO, Michael Altgen)

WP2: Microclimate modelling and performance simulation (NMBU, Thomas K. Thiis)

WP3: Façade inspection on multi-storey buildings (NMBU, Ingunn Burud)

WP 4: Project management, communication, and dissemination (NIBIO, Michael Altgen)