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Municipality Energy Data

Energy in Sorø Kommune

Explore renewable energy data and climate plans for Sorø Kommune. See how your municipality is progressing towards a green energy future.

17.5%

Renewable Energy

Share of total energy consumption from renewable sources

142.1

Total Consumption (GWh)

Annual electricity consumption across all sectors

105.7

Renewable Capacity (MW)

Total installed solar and wind power capacity

18,352

Estimated Households

Approximate number of households based on private consumption

Data from EnergiNet - Denmark's official energy data provider

Climate Plan

Climate Action Plan

Sorø Kommune has set the ambitious goal of becoming CO2-neutral by 2050 while also reducing emissions by 70 percent as early as 2030 compared to 1990 levels. This climate action plan has been developed as part of the DK2020 partnership and represents one of the most comprehensive municipal climate efforts on Zealand. For an agricultural municipality in the middle of Zealand with 29,600 inhabitants, the climate challenge is both complex and pressing. In 2018, Sorø Kommune emitted a total of 319,094 tonnes of CO2, equivalent to 10.76 tonnes per inhabitant - significantly above the national average of 8.3 tonnes (p. 10). The emissions distribution reflects the municipality's character as an agricultural municipality: agriculture accounts for a full 42.9 percent of emissions, transport for 26.2 percent, and energy for 28.8 percent (p. 10). In addition, there are emissions from 17 kilometres of the E20 motorway running through the municipality, contributing significant through-going traffic. Sorø Kommune differs markedly from other Danish municipalities through its extensive lowland soils - a full 2,200 hectares of carbon-rich soils that alone account for 80,307 tonnes of CO2 emissions annually, equivalent to 25 percent of the municipality's total emissions (p. 44). These organic soils, primarily around Åmosen and along the river valleys, release stored carbon when cultivated and ploughed. At the same time, an aviation navigation system between Slaglille and Fjenneslev limits wind turbine placement opportunities, as 80 percent of the municipality lies within a 15-kilometre exclusion zone. The most significant climate measures are concentrated on retirement of lowland soils, which can reduce emissions by 80,307 tonnes of CO2 by 2050, afforestation to increase the forest area from 16.8 to 25 percent of the municipality's area, and rollout of district heating based on the new bioenergy plant that uses branch and park waste from the AffaldPlus municipalities (pp. 40-47). In the transport sector, the focus is on a comprehensive charging station strategy and conversion of the municipal vehicle fleet, while solar panel installations in Sorø/Mørup are to contribute to green electricity production by 2030. Despite these ambitious measures, the plan honestly acknowledges that there will still be a shortfall of 13,241 tonnes of CO2 reduction in 2030 and a full 56,128 tonnes in 2050 to reach the goal of climate neutrality (p. 12). This 'shortfall' reflects the fact that the municipality directly controls only about 5 percent of total emissions, while the rest depends on national frameworks, EU legislation, technological development, and private actors' investments. In particular, retirement of lowland soils requires new financing models and multifunctional land consolidation, as individual farmers need economic compensation. Citizen and business engagement builds on concrete partnerships with Sorø Erhverv Bæredygtighedspanel, climate education in all primary schools through the Den Grønne Rygrad programme, and the cross-municipal Åmosen project, which already demonstrates how lowland soils can be transformed into a nature park with both climate benefits and tourism potential. The plan acknowledges that the green transition only succeeds through the greater 'We' - a broad collaboration between municipality, citizens, agriculture, and business to create a climate-neutral future.

Source: Klimahandleplan for Sorø Kommune (2022)

319K

Current emissions

10.76 ton CO2e Per capita

70%

2030 reduction target

Sector Breakdown

Energy

28.8%

Transport

26.2%

Agriculture

42.9%

Waste & Wastewater

2.1%

Flagship Projects

Retirement of lowland soils in Åmosen

Cross-municipal project with support from EU Life funds for restoration of raised bog and establishment of nature park

Agriculture

Nordic Swan-labelled renovation of Holbergskolen

The first Nordic Swan-labelled renovated school in Denmark with focus on reuse and sustainable materials

Municipality as organisation

Climate Actions

Planned Climate Actions

Concrete measures from the municipal climate action plan, organized by sector.

Energy Supply

  • •

    Larger solar panel installations in Sorø/Mørup

  • •

    Further rollout of district heating

  • •

    Conversion of municipal energy systems

  • •

    Citizen campaigns for decommissioning oil and gas

Transport

  • •

    Charging station strategy and implementation

  • •

    Conversion of the municipal vehicle fleet

  • •

    Bus services on green fuels

  • •

    Attractive public transport

Agriculture

  • •

    Retirement of lowland soils

  • •

    Afforestation

  • •

    Dialogue on sustainable transition

Municipal Operations

  • •

    Climate focus in all political decisions

  • •

    Green procurement and tendering

  • •

    Energy optimisation in municipal buildings

Climate Adaptation

  • •

    Separation of sewer systems

  • •

    Cloudburst planning

  • •

    Climate-resilient species in plantings

Citizen Engagement

  • •

    Climate education in primary schools

  • •

    Vild med vilje concept

  • •

    Climate communication and partnerships

Local Characteristics

Key industry: Agriculture

Notable assets:

Bioenergy plant based on branch and park waste, Naturpark Åmosen as tourist attraction

Geography:

2,200 hectares of lowland soils, 17 km of E20 motorway through the municipality, Naturpark Åmosen, 16.8% forest area

Challenges:

Aviation navigation system limits wind turbine placement, Large emissions from through-going traffic on the motorway, High CO2 content in lowland soils

Partnerships & Alliances

  • •

    Sorø Erhverv Bæredygtighedspanel

  • •

    Sorø Forsyning

  • •

    AffaldPlus

  • •

    VKST/Gefion (agricultural advisory)

  • •

    Gate 21 (mobility projects)

  • •

    Grønt Forum

  • •

    DK2020 reference group

Citizen Involvement

  • •

    Climate education in primary schools integrated into the science strategy

  • •

    Children and young people as climate ambassadors

  • •

    Dialogue with citizens on energy optimisation and heating solutions

  • •

    Vild med vilje concept for biodiversity

  • •

    Partnerships with associations and housing cooperatives

Climate Risks & Adaptation

More intense rainfall events, Significantly increased heat and heatwaves, Watercourse flooding, Rising groundwater

Planned measures

  • •

    Separation of sewer systems

  • •

    Cloudburst planning

  • •

    Retirement of lowland soils for water storage

  • •

    Climate-resilient species in municipal plantings

2030 Gap Analysis

13,241 ton CO2e remaining gap to 2030 target

Depends on national and EU frameworks, technological development, and partnerships

Calculate Your Energy Community's Needs

25

Homes

=

0.09

GWh annually

Based on 3,500 kWh average consumption

Energy Type

Wind is consistent all year round and requires less land but the construction time is longer than solar.

Wind turbine

1 Wind Turbine

25= 0.09 GWh

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