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Municipality Energy Data

Energy in Lolland Kommune

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

89.1%

Renewable Energy

Share of total energy consumption from renewable sources

274.9

Total Consumption (GWh)

Annual electricity consumption across all sectors

940.4

Renewable Capacity (MW)

Total installed solar and wind power capacity

23,978

Estimated Households

Approximate number of households based on private consumption

Data from EnergiNet - Denmark's official energy data provider

Climate Plan

Climate Action Plan

Lolland Kommune has for decades been a Danish frontrunner in the green transition, and with the new climate and energy plan 2020-2050, the municipality sets even more ambitious targets. As one of the first DK2020 municipalities in Denmark, Lolland commits to reducing CO2 emissions by 70 percent from 1990 to 2030 and becoming fully climate-neutral by 2050. This is not merely a symbolic pledge -- it is a necessity for a municipality that is already feeling the consequences of climate change through rising water levels and more powerful storms. In 2017, Lolland Kommune emitted a total of 299,000 tonnes of CO2, distributed across three main sectors: agriculture (37%), energy (31%) and transport (28%) (p. 9). This distribution reflects the municipality's distinctive character as an agricultural municipality with 77 percent agricultural land and simultaneously as an energy producer that already today produces 2.5 times more green electricity than the municipality itself consumes. The flat, low-lying landscape with 68 kilometres of protective dikes makes Lolland one of Denmark's most vulnerable municipalities for flooding -- a challenge that will only grow with climate change. What makes Lolland's climate challenge unique compared to other Danish municipalities is the combination of agriculture's large CO2 emissions, the extreme vulnerability to sea level rise, and paradoxically the municipality's already strong position as a green energy producer. Since 1991, when the world's first offshore wind turbines were installed at Vindeby, Lolland has built an impressive portfolio of renewable energy. At the same time, projects such as the hydrogen village Vestenskov and Floating Power Plant technology have demonstrated the municipality's willingness to test new green solutions at full scale. The most decisive measures in the plan focus on three areas. First, the new gas pipeline to Lolland combined with the establishment of two biogas plants will make it possible for Nordic Sugar's factories to switch from coal and oil to climate-friendly biogas. Second, the approximately 4,000 remaining oil boilers in homes are to be replaced with heat pumps through targeted campaigns and advice. Third, Nakskov town is to be protected against future storm surges through the establishment of a storm surge gate at the harbour entrance -- an investment that is critically necessary to protect the town's assets. The plan's greatest challenge is also its most honest acknowledgement: even with all planned measures, there will still be CO2 emissions of 120,000 tonnes in 2050, of which 70 percent come from agriculture (p. 15). The municipality openly acknowledges that it has limited influence on the agricultural sector's development, which is primarily regulated through European and national measures. This gap between ambition and realistic action possibilities requires continued innovative solutions and not least changed national framework conditions. To engage citizens and local businesses, the municipality relies on concrete partnerships such as REn Energi Lolland (REEL) and the Greater BIO project, which brings together municipalities, universities and businesses around practical solutions. Citizens are involved through public meetings on climate adaptation, energy advice via a dedicated call centre, and stakeholder groups that bring together all those directly affected by flood risk. The municipality will also expand its role as Klimakommune Plus, which entails stricter requirements for its own procurement and investments -- a concrete way of leading by example.

Source: Klima- og energiplan 2020-2050 (2021)

299K

Current emissions

70%

2030 reduction target

Sector Breakdown

Energy

31%

Transport

28%

Agriculture

37%

Waste & Wastewater

2%

Flagship Projects

Greater BIO

Collaboration on establishing two biogas plants on Lolland and Falster

Energy

Hydrogen village Vestenskov

Testing of hydrogen and fuel cells at large scale 2012-2014

Energy

Floating Power Plant

First company in the world combining wave and wind energy

Energy

Climate Actions

Planned Climate Actions

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

Energy Supply

  • •

    Conversion of approx. 4,000 oil boilers to heat pumps

  • •

    Establishment of biogas plants

  • •

    Gas pipeline to Lolland with biogas for Nordic Sugar

Transport

  • •

    20% of cars and vans to be electric vehicles by 2030

  • •

    Electrification of the Lolland railway

  • •

    Electrification of ferries

Agriculture

  • •

    Introduction of nitrification inhibitors

  • •

    Establishment of wetlands on carbon-rich soils

  • •

    Better utilisation of manure for biogas

Industry

  • •

    Conversion of Nordic Sugar from coal and oil to biogas

Municipal Operations

  • •

    30% of fleet to be electric vehicles by 2026

  • •

    90% of machinery fleet electrified by 2022

  • •

    65% of procurement to be eco-labelled by 2025

Climate Adaptation

  • •

    Storm surge gate in Nakskov

  • •

    Separate sewerage

  • •

    Improvement of dikes along the coasts

Citizen Engagement

  • •

    Campaigns for replacing oil boilers

  • •

    Call centre for oil boiler replacement

  • •

    Public meetings and information sessions

Local Characteristics

Key industry: Agriculture and sugar factory

Notable assets:

Net exporter of green power by a factor of 2.5, World's first offshore wind turbines at Vindeby in 1991, Hydrogen village Vestenskov

Geography:

Flat, low-lying landscape, 77% agricultural land, 68 km of dikes

Challenges:

One of Denmark's most vulnerable municipalities for flooding, Fehmarn Belt link increases traffic

Partnerships & Alliances

  • •

    REn Energi Lolland (REEL)

  • •

    LOKE A/S

  • •

    Business Lolland-Falster

  • •

    Gate 21

  • •

    Greater BIO

  • •

    DG STore

  • •

    Movia

Citizen Involvement

  • •

    Public meetings on climate adaptation

  • •

    Campaigns for oil boiler replacement

  • •

    Call centre for energy advice

  • •

    Stakeholder groups for climate adaptation

Climate Risks & Adaptation

Storm surge from the sea, Cloudbursts and heavy rainfall, Groundwater rise, Coastal erosion

Planned measures

  • •

    Storm surge gate at Nakskov Harbour

  • •

    Separate sewerage

  • •

    Improvement of dikes

  • •

    Establishment of wetlands

2030 Gap Analysis

70% of remaining emissions in 2050 come from agriculture

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
Regulations

Local Energy Regulations

Verified rules and regulations from Lolland Kommune's climate action plan that affect energy community projects.

Solar Parks

Focus on renewable energy has led to Lolland being a net exporter of green power. Continued designation of areas for energy purposes with synergy effects (planting belts, biodiversity).

Page 9 (Vi er godt på vej) & Page 19 (Energi og bygninger)

lolland-Klima-og-energiplan-Lolland-Kommune-2020-2050.pdf

Onshore Wind

The development is moving towards fewer turbines with greater capacity. Installation of wind turbines towards 2050.

Page 18 (Delmålsætninger) & Page 19

lolland-Klima-og-energiplan-Lolland-Kommune-2020-2050.pdf

Offshore Wind

Historical reference to the world's first offshore wind turbines at Vindeby (1991).

Page 4 (Lolland i front)

lolland-Klima-og-energiplan-Lolland-Kommune-2020-2050.pdf

Repowering

When new wind turbines with greater capacity are set up, several smaller ones are taken down.

Page 19 (Energi og bygninger)

lolland-Klima-og-energiplan-Lolland-Kommune-2020-2050.pdf

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