Evaluation of future scenarios for gas distribution networks under hypothesis of decreasing heat demand in urban zones

The consumption of buildings for the production of heat is expected to decrease in Switzerland in the coming years, in particular following policies encouraging the refurbishment of buildings. This will notably have an impact on the natural gas network, in parallel with the penetration of electric-d...

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Veröffentlicht in:Energy (Oxford) 2021-09, Vol.231, p.120909, Article 120909
Hauptverfasser: Fesefeldt, M., Capezzali, M., Bozorg, M., de Lapparent, M.
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creator Fesefeldt, M.
Capezzali, M.
Bozorg, M.
de Lapparent, M.
description The consumption of buildings for the production of heat is expected to decrease in Switzerland in the coming years, in particular following policies encouraging the refurbishment of buildings. This will notably have an impact on the natural gas network, in parallel with the penetration of electric-driven heat pumps. Through a detailed optimization scheme, the evolution of the natural gas (NG) distribution network is studied over a future period of forty years, i.e. up to 2050, on the territory of a large Swiss canton. By way of installing large shares of co-generation units, it is shown that the NG network does not lose its meshed structure, while continuing to play a central role in the production of heat and the generation of part of the additional electricity demand associated with the concomitant penetration of heat pumps. As a novel result, the developed optimization framework allows a detailed, geographically precise view of both the evolution of the NG network, as well as of the optimal location of selected technologies. The adoption of energy networks convergence in urban zones therefore can lead to relevant synergies, avoiding over-investments, increasing system resilience and fostering the use of efficient technologies. •Natural gas distribution grids can play a crucial role despite decrease of heat demand.•Substitution of boilers with CHP units facilitates massive penetration of heat pumps.•Increasing share of renewable methane will lead to substantial GHG emissions reduction.•Spatially resolved optimization of a regional grid is numerically tractable.
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source ScienceDirect Journals (5 years ago - present)
subjects Buildings
Cogeneration
Electric power demand
Evolution
Heat
Heat demand for buildings
Heat exchangers
Heat pumps
Natural gas
Natural gas network
Networks convergence
Networks optimization
Operation research
Optimization
Penetration
Urban and territorial energy planning
title Evaluation of future scenarios for gas distribution networks under hypothesis of decreasing heat demand in urban zones
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