A Parametric Modelling Approach for Energy Retrofitting Heritage Buildings

The Case of Amsterdam City Centre

Journal Article (2024)
Author(s)

M. Dang (TU Delft - Environmental & Climate Design, TU Delft - Amsterdam Institute for Advanced Metropolitan Solutions)

Andy Van Den Dobbelsteen (TU Delft - Environmental & Climate Design, TU Delft - Amsterdam Institute for Advanced Metropolitan Solutions)

Paul Voskuilen (TU Delft - Amsterdam Institute for Advanced Metropolitan Solutions)

Research Group
Environmental & Climate Design
Copyright
© 2024 M.K. Dang, A.A.J.F. van den Dobbelsteen, P.C. Voskuilen
DOI related publication
https://doi.org/10.3390/en17050994
More Info
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Publication Year
2024
Language
English
Copyright
© 2024 M.K. Dang, A.A.J.F. van den Dobbelsteen, P.C. Voskuilen
Research Group
Environmental & Climate Design
Issue number
5
Volume number
17
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Abstract

The city of Amsterdam has ambitious goals to achieve a 95% reduction in carbon emissions by 2050 and to phase out natural gas by 2040. Disconnecting the building stock from natural gas requires well-ventilated and well-insulated buildings and a switch to renewable energy sources, making optimal use of heat pumps and sustainable heating solutions available locally. Most buildings in the historical city centre are protected and often insufficiently insulated, leading to increased energy use and a poor thermal environment. Standard retrofitting interventions may be restricted, requiring new approaches to balancing the need for energy efficiency and the preservation of heritage significance. With the case of the Amsterdam City Centre, the goal of this research is to present a parametric modelling approach for energy retrofitting heritage buildings and to identify minimum requirements for preparing the residential stock to lower temperature heat (LTH). Using parametric design and bottom-up energy modelling, the research estimates that a 69.1% of natural gas reduction could be achieved when upgrading the buildings to lower temperature (LT). Results of this paper also demonstrate how the applied approach can be used to guide decisions on the improvement in energy performance of the historic built environment.