Energy and industry transition to carbon-neutrality in Nordic conditions via local renewable sources, electrification, sector coupling, and power-to-X

Climate change presents challenges for energy-industry systems, especially for regions with limited solar resources. This study investigates energy transition pathways to achieve a low-cost energy-industry system in Nordic conditions, focusing on Finland, which lacks abundant hydropower. It analyses the transition to carbon neutrality in power, heat, transport, and industry sectors, highlighting dispatchable biomass power, which can increase system flexibility, but raises concerns about carbon sinks. The results show that energy-industry systems in the Nordics can transform into a responsive system, matching the availability of wind and solar resources with support from flexibility options, sector coupling, 18 GW el of electrolysers and over 96 TWh of bioenergy use. Point-source capture of industrial and bio-CO 2 supply 14.3 MtCO 2 for e-fuels and e-chemicals. For Finland, the transition entails investments of 460 b€ until 2050, with 100 GW of renewable energy capacities, 19 GW of power-to-X capacities, and electrification of heat supply for industry, leading to an energy-industry system with lower annualised costs than today. A cost-optimal energy transition in Finland can be achieved through a mix of wind power, solar photovoltaics, bioenergy, and hydropower, with self-sufficient energy supply scenarios offering advantages in energy security and local investments despite being slightly more expensive. • The transition of an energy-industry system in Nordic conditions is investigated. • Power, heat, transport, and industry sectors of Finland are analysed. • Effects of CO 2 point-source capture on energy-industry system are explored. • A near 100% renewables-based system is found with low energy storage utilisation. • Self-sufficiency is found to be only 2% more costly compared to relying on imports.

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Publication Details

Journal
Energy
Published
2025-02-06
DOI
https://doi.org/10.1016/j.energy.2025.134888
Citations
24
Primary Topic
Integrated Energy Systems Optimization
Type
article
Field-Weighted Citation Impact
17.53
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article

Energy and industry transition to carbon-neutrality in Nordic conditions via local renewable sources, electrification, sector coupling, and power-to-X

Rasul Satymov, Tansu Galimova, Christian Breyer, Dmitrii Bogdanov
24 citations
Energy
Integrated Energy Systems Optimization
17.53
article

Energy and industry transition to carbon-neutrality in Nordic conditions via local renewable sources, electrification, sector coupling, and power-to-X

Rasul Satymov, Tansu Galimova, Christian Breyer, Dmitrii Bogdanov
article en
24 citations

Abstract

Climate change presents challenges for energy-industry systems, especially for regions with limited solar resources. This study investigates energy transition pathways to achieve a low-cost energy-industry system in Nordic conditions, focusing on Finland, which lacks abundant hydropower. It analyses the transition to carbon neutrality in power, heat, transport, and industry sectors, highlighting dispatchable biomass power, which can increase system flexibility, but raises concerns about carbon sinks. The results show that energy-industry systems in the Nordics can transform into a responsive system, matching the availability of wind and solar resources with support from flexibility options, sector coupling, 18 GW el of electrolysers and over 96 TWh of bioenergy use. Point-source capture of industrial and bio-CO 2 supply 14.3 MtCO 2 for e-fuels and e-chemicals. For Finland, the transition entails investments of 460 b€ until 2050, with 100 GW of renewable energy capacities, 19 GW of power-to-X capacities, and electrification of heat supply for industry, leading to an energy-industry system with lower annualised costs than today. A cost-optimal energy transition in Finland can be achieved through a mix of wind power, solar photovoltaics, bioenergy, and hydropower, with self-sufficient energy supply scenarios offering advantages in energy security and local investments despite being slightly more expensive. • The transition of an energy-industry system in Nordic conditions is investigated. • Power, heat, transport, and industry sectors of Finland are analysed. • Effects of CO 2 point-source capture on energy-industry system are explored. • A near 100% renewables-based system is found with low energy storage utilisation. • Self-sufficiency is found to be only 2% more costly compared to relying on imports.

EnergyVol. 319
Lappeenranta-Lahti University of Technology (FI)
Affordable and clean energy
Openalex Percentile: Top 1%
Integrated Energy Systems Optimization
17.53
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