Biopatinas on Urban Buildings as Biofilters, CO₂ Sinks and Cooling Systems (BioCT)

Project Duration: 01.11.2025 to 30.04.2027

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In recent years, growing social awareness on the adverse effects of climate change and high pollution levels, has raised the need to adopt sustainable practices and promote greener, healthier environments, particularly in the inner cities. 

In this project, we propose to utilize (rather than remove) the biopatinas naturally occurring on urban architectural surfaces, as a low-maintenance method of urban greening. 

Research Areas

Life Sciences, Health, and Quality of Life
Sustainability and Environment

Department

Applied Life Sciences

The main hypothesis is that biopatinas can absorb atmospheric pollutants and act as valuable carbon sinks, can be natural biofilters and bioremediation systems, trapping particulate matter and dust, but could also have cooling effects on the buildings microclimate.

Therefore, the main objective of this project is to investigate these aspects of biopatinas in urban areas, to fully explore their potential to contribute to a better environment. To achieve this, a highly interdisciplinary endeavour is required, hence our project brings together geomicrobiology, material ecology, environmental physics and art-based methods. Through a quantitative scientific methodology (gas and dust exchange measurements, molecular biology, physico-chemical techniques), data from biopatinas of representative surfaces in Vienna will be obtained and be at the base to upscale local measurements to a larger scale, developing predictive modelling. The scientific approach will be supported by the use of participatory art-based practices to achieve greater public awareness and acceptance of biopatina on monuments and in architecture in the city.

More about environmental systems research of the Vienna Science and Technology Fund (WWTF).

 

Research Goals

  • Study of urban biopatinas for the targeted improvement of the urban environment
  • Scaling of local measurement data and development of precise prediction models
  • Promoting public acceptance of biopatinas in architecture and historic preservation
 
 

Methodology

  • Integration of geomicrobiology, material ecology, environmental physics, and art-based approaches
  • Investigation of representative surfaces in Vienna using gas and dust exchange measurements
  • Application of molecular biological and physicochemical analytical methods
  • Use of participatory, art-based practices to communicate the content
 

Funding Partners


UN Sustainable Development Goals


Project Lead

Project Team