en
Scientific article
Open access
English

Estimation of load curves for large-scale district heating networks

Publication date2020
Abstract

Decarbonisation and a transition towards sustainable energy systems in cities are key elements of the United Nations sustainability goal. Large-scale district heating networks sourced by excess heat or renewable energy allow to effectively transform building-related energy systems. This study proposes two different approaches for modelling load curves in large-scale district heating networks: 1) physics-based static energy balance model 2) data-driven regression model trained and adjusted on measured load curves. The load curves generated by application of these two approaches are compared with the actual load of an urban district heating network in Geneva, Switzerland. Both models allow to recreate the actual load curve of the district heating network, however with lower accuracy for higher time resolution in the case of the physics-based model. The physics-based static model can be used to simulate the demand and generate load curves of sufficient quality at monthly and daily resolution. For an hourly load curve, it is recommended to use the data-driven regression model if consumption data of the network is available.

Keywords
  • Heating Load Curve
  • District Heating Network
  • Load Curve Estimation
  • Building energy demand
Citation (ISO format)
STREICHER, Kai Nino, SCHNEIDER, Stefan, PATEL, Martin. Estimation of load curves for large-scale district heating networks. In: IOP Conference Series: Earth and Environmental Science, 2020, vol. 588, n° 052032. doi: 10.1088/1755-1315/588/5/052032
Main files (1)
Article (Published version)
Identifiers
ISSN of the journal1755-1307
363views
168downloads

Technical informations

Creation12/17/2020 4:48:00 PM
First validation12/17/2020 4:48:00 PM
Update time03/15/2023 11:46:05 PM
Status update03/15/2023 11:46:05 PM
Last indexation05/06/2024 6:11:35 AM
All rights reserved by Archive ouverte UNIGE and the University of GenevaunigeBlack