Electricity plays a central role in decarbonising energy supply and its importance will only increase over time through sector coupling (the electrification of demand sectors). Emission reductions are mainly realised through the phase-out of fossil fuels and the build-up of renewables.
Progress on electricity has been too slow
While emission reductions in the power sector are on track with the EU’s own set trajectory, important underlying drivers are not. Renewable energy growth has seen mixed progress with solar largely on track while wind energy needs to at least double. Fossil fuel phase-out needs to be sped up substantially as it was hampered in recent years by limited reductions in coal and other fossil power since 2019. There are insufficient data to track progress on electricity market development, grid investments, grid digitalisation, and clean flexibility options, both on the supply and demand sides. The EU has taken a proactive role in designing new market rules but has only recently stepped up efforts on integrated grid planning and the inclusion of clean flexibility options.
Objectives describe what needs to be achieved in each building block to reach climate neutrality.
Emissions in the power sector are on track with the EU’s own set trajectory but require more effort to also stay on track moving forward. Electricity demand is set to increase due to electrification in other sectors. A sustained decrease in emission intensity requires a stronger uptake of renewables.
This indicator shows the past development of GHG emissions from electricity generation in comparison to the EU trajectory of reaching a reduction in emissions of 78% in 2030 compared to 2005 levels.
Data show an annual decrease of 60.5 MtCO2e between 2016 and 2021. This is faster than the benchmark trajectory, where the required annual decrease between 2021 and 2030 needs to be 50.3 MtCO2e.
The indicator includes all GHG emissions from central energy generation which is primarily the generation of electricity from power stations, combined heat and power stations as well as a small share of central heat generation.
Fossil fuel phase out in the power sector is too slow in comparison to the EU’s own trajectory. A historic shift from coal to gas needs to be followed by a shift from gas to renewables, and even has been reversed due to the gas crisis. Especially gas phase out needs to be accelerated.
This indicator shows past development in the share of fossil fuels in electricity generation in comparison to the EU target of reaching a share of 18% in 2030.
Data show an annual decrease of 1.3 %-points between 2016 and 2021. To meet the benchmark, the required annual decrease between 2021 and 2030 needs to be 2.5 %-points, which is 1.9 times faster than the current rate of progress.
The indicator shows the share of fossil-fuel power generation in total electricity generation.
Enablers are the supporting conditions and underlying changes needed to meet the objectives in a given building block. They are the opposite of barriers or inhibitors.
This indicator shows past development in the generation share of variable renewable energy sources (wind and solar) in comparison to the EU trajectory of reaching a 48% share in electricity consumption in 2030.
The data show an annual increase of 1.5 %-points between 2016 and 2021. To meet the target, the required annual change between 2021 and 2030 needs to be 3.2 %-points, which is 2 times faster than the current rate of progress.
The indicator compares the electricity generation from variable renewable energies such as wind and solar with total electricity generation.
The indicator measures in how far TSOs in countries are setting aside interconnector capacity for cross zonal trading. It is a proxy for measuring the transmission grid interconnection between countries and thus reflects the progress towards and integrated European Grid. The EU set target for a minimum of 70% of electricity interconnector capacity for cross-zonal trading.
There is not enough data to track this indicator, but a qualitative comparison suggests that change is far too slow.
The indicator is defined by the EU as the electricity interconnector capacity for cross-zonal trading that Transmission System Operators (TSOs) have to provide.
This indicator shows past development in investments in electricity grid infrastructure (transmission and distribution). While data for the historical trend as well as for a future benchmark are available, differences in how these are defined in terms of scope of the definition do not allow for a comparison of the trend with the benchmark.
Data show an annual increase of 5% between 2017 and 2022. This development was heading in the right direction but was too slow as the EU suggests a 15% increase in investments compared to its own baseline.
The indicator describes investments in electricity networks as defined by the IEA.
This indicator shows past development in the share of smart meters in electric meters. Smart meters allow prosumers and consumers to account for electricity generated locally and fed into the grid. While there is no official benchmark data, a share close to 100% would enable the digitalisation of the grid and thus the energy transition.
Data show an annual increase of 24% between 2014 and 2020, which was far too slow because a continuation of the trend would mean that the EU would reach a 100% diffusion only close to 2030.
The indicator describes the share of electricity metering points that were equipped with a smart meter.
This indicator shows past development of the clean supply-side flexibility options in comparison to the EU trajectory of reaching 287 GW in 2030.
There were not sufficient data available for storage capacities. The data for dispatchable renewable sources showed an annual increase of 0.3 GW between 2016 and 2021, which is on track when compared to the indicative benchmark of reaching 173 GW in 2030 requiring no further increase.
The indicator includes total capacity per year of battery storage and dispatchable renewables, which can be scheduled and controlled to follow the electricity load curve.
This indicator shows past development in flexible power demand in the EU. Flexible power demand, such as large industrial consumers, electric vehicles, or appliances can play an important role in a future power system that cannot rely on fossil-based flexibility options.
Data is insufficient as there is only one data point available, and hence no trend can be derived.
The indicator measures the yearly available flexible power demand.