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http://hdl.handle.net/2183/37293 Interactive energy mapping for effective plans and policies. A user-centered UBEM approach
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Rodríguez-Álvarez, J., & Alvaredo López, N. (2023). Interactive energy mapping for effective plans and policies. A user-centered UBEM approach. EESAP14 International Conference 2023, 4-5 October, Donostia – San Sebastián. Proceedings book, 41-51.
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Abstract
[Abstract] The European Commission published a Renovation Wave Strategy in October 2020 aimed at improving
the energy performance of the building stock and to contribute to achieving the ultimate goal of climate
neutrality. One of the key principles of this strategy is to make a better use of available funding, thus
targeting inefficient buildings and vulnerable areas. The building renovation programmes are channelled
through local authorities, which have to identify the eligible areas of the city where building renovation
can be incentivized to maximise the returns on the investment. However, cities do not currently have
objective instruments to support energy based decisions. Despite the growing interest in urban energy
performance in the last decade, few Urban Buildings Energy Models (UBEMs) are actually available to
evaluate the energy implications of plans and policies Most of the existing models have one or several
of the following limitations: (a) They require time-consuming geometric modelling (b) They rely on building-
scale thermodynamic models and hence their applicability is limited to a few blocks (c) They are
only based on statistical correlations and do not account for the specific characteristics of buildings and
urban fabric and (d) They are targeted to design and planning teams and need to be operated by expert
consultants. This paper will describe a novel UBEM approach to adapt and combine thermodynamic and
daylighting models with original morphological analytic algorithms to map the energy demand in districts
and cities, portraying estimates of current or alternative planning scenarios. The tool will support policymakers
to target the most effective energy policies based on the characteristics of the building stock and
urban form in each part of the city. The range of applications of this tool is not limited to local renovation
plans but they can also support decision making at multiple levels (from buildings to regions). This ongoing
research has developed an urban building energy model that takes account of urban morphology,
construction specifications and user behaviour thus enabling meaningful analysis of the likely impacts
of energy plans and policies at city and regional scale as well as the assessment of individual buildings.
It has defined a sound, flexible and scalable energy model structure that incorporates the key variables
that influence building energy use for heating, cooling and lighting, exploiting current datasets and facilitating
a gradual integration of innovative methods and updated data.). The next stages of the research
will focus on the model’s integration into an online digital platform, to display dynamic and interactive
urban energy maps. These maps will show estimates of the current demand of the building stock as well
as the potential savings from building renovation interventions. They are aimed at a general audience
as well as to inform local plans and policies.






