Methods to improve high-resolution airborne thermal infrared (TIR) imagery in support of urban waste heat mapping, monitoring and metrics

This proposal builds on 5 years of research in the award winning HEAT (Heat Energy Assessment Technologies) project. Every year, billions of GJ of wasted heat leave millions of buildings in thousands of cities world-wide. In an effort to support urban energy efficiency, this research proposes four novel image post-processing techniques to improve/verify the geometry, radiometry and the processing of large volumes of high-resolution airborne thermal infrared (TIR) imagery. Results are expected to enable faster and more accurate urban waste heat mapping and refined waste heat metrics.

Methods to improve high-resolution airborne thermal infrared (TIR) imagery in support ofurban waste heat mapping, monitoring and metrics

This proposal builds on 4 years of research in the award winning HEAT (Heat Energy Assessment Technologies) project. Every year, billions of GJ of wasted heat leave millions of buildings in thousands of cities world-wide. In an effort to support urban energy efficiency, this research proposes four novel image post-processing techniques to improve/ verify the geometry, radiometry and the processing of large volumes of high-resolution airborne thermal infrared (TIR) imagery. Results are expected to enable more accurate urban waste heat mapping and refined waste heat metrics.

Enabling Geospatial Interoperability to Support UrbanEnergy Efficiency: The HEAT Case Study

Reducing GHG emissions and low-carbon living are two prioritized goals of The City of Calgary, Alberta. HEAT (Heat Energy Assessment Technologies), an award winning GeoWeb platform offers interactive geospatial feedback to tackle these issues by visualizing the amount and location of waste heat escaping from homes and communities, as easily as clicking on a house in Google Maps. To ensure wide-spread utility of HEAT metrics, further testing and refinement are required.