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The end of an era: Britain's transition from coal-fired power to renewable energy

Image: Vitaliistock/Shutterstock.com

From coal fired power to renewable energy: Introduction

Britain now generates no electricity from coal-fired power stations. Ratcliffe-on-Soar, the last of the coal fired power stations closed on 30 September 2024. Its closure marked the end of an industry that had supplied electricity for more than 140 years.

How did Britain get from coal’s dominance to that final shutdown? This article follows the power stations behind the change: the decline of the coal fleet, the growth of onshore and offshore wind, and the continuing role of gas in the electricity system.

This article looks into the history, the present state of energy in the UK, and the trends that have emerged from analysing the power stations that powered the nation.

A history of British coal

Coal has played an essential role in Britain's history, with roots stretching back to the Roman era. However, its central role in electricity generation began in 1882 with the opening of the world's first coal-fired power station, the Holborn Viaduct, in London. Coal quickly became the backbone of the UK’s energy supply, powering homes, industries, and transport throughout the 20th century. By the 1980s, coal generated around 80% of the UK’s electricity.

The rise of coal as a primary energy source was driven by its abundance and affordability. Britain’s coalfields in regions like Wales, Yorkshire, and the Midlands allowed the country to build a robust energy infrastructure. Coal-powered electricity transformed British cities, enabling rapid industrialisation and urbanisation. The industry thrived, with power stations like Ferrybridge, Cottam, and Ratcliffe-on-Soar becoming household names synonymous with energy production.

UK Coal fired power stations 1920 onwards interactive

Accrington — closed 1958 Acton Lane A — closed 1950? Acton Lane B — closed 1983 Agecroft A — closed 1992 Agecroft B — closed 1992 Agecroft C — closed 1992 Back o' th' Bank — closed 1979 Bankside A — closed 1959 Barking A — closed 1976 Barking B — closed 1976 Barking C — closed 1981 Barking Urban District Council — closed 1927 Barnes — closed 1959 Barrow-in-Furness — closed 1960 Barton — closed 1974 Bath — closure date unknown Battersea A — closed 1975 Battersea B — closed 1983 Birchills (Walsall) — closed 1967 Blackburn — closed c. (circa)1925 Blackburn Meadows — closed 1980 Blackwall Point — closed 1981 Blyth A — closed 1999 Bold — closed 1990 Bow — closed 1968 Bradford — closed 1976 Brighton A — closed 1975 Brimsdown — closed 1974 Bristol — closed 1959 Brunswick Wharf — closed 1984 Burnley — closed 1958 Burton upon Trent — closed 1976 Bury — closed 1970 Canterbury — closed 1960 Carlisle — closed 1927 Carlisle — closed 1980 Commercial Road Stage 3 — closure date unknown Consett Central — closed 1980 Coventry (Longford) — closed 1976 Templetown — closed 1961 Cottam — closed 2019 Croydon A — closed 1973 Croydon B — closed 1984 Darlington A (Haughton Road) — closure date unknown Darlington B — closed 1976 Deptford East — closed 1957 Deptford West — closed 1983 Derby — closed 1969 Didcot A — closed 2013 Doncaster A — closed 1958 Doncaster B — closed 1983 Drakelow A — closed 1984 Drakelow B — closed 1993 Drakelow C — closed 2003 Drax — closed coal ceased 2021 Dunston A — closed 1932 Dunston B — closed 1981 Eggborough — closed 2018 Elland — closed 1991 Ferrybridge A — closed 1976 Ferrybridge B — closed 1992 Ferrybridge C — closed 2016 Fiddlers Ferry — closed 2020 Fleetwood — closed ?/ 1981 Folkestone — closed 1960 Forth Banks Stage 1 — closure date unknown Foss Island — closed 1976 Fulham — closed 1978 Goldington — closed 1983 Gravesend — closed 1969 Great Yarmouth A — closed 1961 Great Yarmouth B — closed 1994 High Marnham — closed 2003 Hounslow — closed 1964 Huddersfield — closed 1981 Huncoat — closed 1984 Ince A — closure date unknown Ironbridge A — closed 1981 Ironbridge B — closed 2015 Keadby Coal — closed 1984 Kearsley — closed 1980 Kidderminster — closure date unknown Kingsnorth — closed 2012 Kingston — closed 1980 Kirkstall — closed 1976 Lancaster — closed 1976 Leeds (Whitehall Road) — closed about 1965 Leicester — closed 1976 Lincoln — closed 1977 Lister Drive — closed 1960s 1980 Little Barford A — closed 1981 Littlebrook A — closed 1973 Littlebrook B — closed 1975 Littlebrook C — closed 1981 Lombard Road — closed 1972 Lots Road — closed 2002 Luton — closed 1969 Lydney — closed 1967 Lymington — closed 1959 Manors — closed 1936 Market Drayton — closed 1954 Meaford A — closed 1974 Meaford B — closed 1991 Mexborough — closed 1981 Neasden — closed 1968 Nechells power stations A & B — closed A: 1969 B: 1982 Neepsend — closed 1976 Philadelphia — closure date unknown Portishead A — closed 1976 Portishead B — closed 1982 Portsmouth — closed 1977 Preston (Crown Street) — closed >1924 Radcliffe — closed 1959 Ramsgate — closed 1958 Ratcliffe-on-Soar — closed 2024 Rawtenstall — closed 1958 Reading — closure date unknown Redditch — closure date unknown Rhodes Bank — closed 1920 Ribble B — closed 1976 Richborough — closed 1996 Rochdale — closed 1958 Roosecote A — closed 1986 Ross-on-Wye — closure date unknown Rotherham — closed 1978 Rugeley A — closed 1995 Rugeley B — closed 2016 Rye House A — closed 1982 Salisbury — closed 1970 Scarborough — closed 1958 Sculcoates — closed 1976 Shoreham A — closed 1976 Shoreham B — closure date unknown Shrewsbury — closed 1956 South Shields — closed 1958 Spondon — closed 1982 Stafford — closed 1958 Staythorpe A — closed 1983 Staythorpe B — closed 1994 Thanet — closed 1964 The Close — closed 1948 Thornhill — closed 1982 Thorpe Marsh — closed 1994 Tilbury B — closed 2013 Tunbridge Wells — closed 1968 Uxbridge — closed 1963 Wakefield B — closed 1991 Wallasey — closure date unknown Wandsworth — closed 1965 Warrington — closed 1979 Watford — closed 1990 West Burton A — closed 2023 West Ham — closed 1983 West Thurrock — closed 1993 Westwood — closure date unknown Whinfield Stage 1 — closure date unknown Whinfield Stage 2 — closed 1932 Whitebirk Power Station — closed 1976 Wickwar — closure date unknown Wilford — closed 1981 Willington A — closure date unknown Willington B — closure date unknown Wimbledon — closed 1968 Woking — closed 1960 Wolverhampton — closed 1976 Woolwich — closed 1978 Carrington Coal — closed 1991 Carville A — closed 1932 Carville B — closure date unknown Castle Donington — closed 1995 Chadderton A (Slacks Valley) — closure date unknown Chadderton B — closed 1982 Chamber Hall Power Station — closed 1969 Cheltenham — closed 1932 Chesterfield — closed 1958 City Road — closed 1929 Clarence Dock — closure date unknown Cliff Quay — closed 1984 Colchester — closed 1960 Commercial Road Stage 1 — closure date unknown Commercial Road Stage 2 — closure date unknown Greenhill — closed 1960 Grimsby — closure date unknown Grove Road — closed 1969 Guildford — closed 1968 Hackney A — closure date unknown Hackney B — closed 1976 Halifax — closure date unknown Hammersmith — closed 1965 Hams Hall A — closed 1975 Hams Hall B — closed 1981 Hams Hall C — closed 1992 Hanley — closed 1964 Harrogate — closed 1960 Hartshead — closed 1979 Hereford — closed 1939 Nelson — closed 1960 Neptune Bank — closure date unknown North Tees C — closed 1983 Northampton — closed 1975 Norwich — closed 1975 Nottingham — closed 1981 Oswestry — closed 1936 Oxford — closed 1969^{} Padiham A (Stage 1) — closure date unknown Padiham A (Stage 2) — closure date unknown Padiham A (Stage 3) — closed 1969 Padiham B — closed 1993 Stella North — closed 1991 Stella South — closed 1991 Stepney — closed 1972 Stockport — closed 1976 Stoke-on-Trent — closure date unknown Stonebridge Park — closed 1967 Stourport A — closed 1978 St Helens — closure date unknown St. Pancras — closed 1968 Stuart Street — closed 1975 Sunderland — closed 1976 Sutton Coldfield — closed 1959 Taylors Lane — closed 1972 Lynemouth — closed coal ceased 2017 Aberdeen — closure date unknown Barony — closed 1989 Bonnybridge — closure date unknown Braehead — closed 1979 Clyde's Mill — closure date unknown Cockenzie — closed 2013 Dalmarnock — closure date unknown Dundee (Carolina Port) — closed 1984 Dunfermline (Townhill) — closure date unknown Falkirk — closure date unknown Galashiels — closure date unknown Kilmarnock — closure date unknown Kincardine — closed 1997 Longannet — closed 2016 Methil — closed 2000 Pinkston — closure date unknown Portobello — closed 1977 Yoker — closed 1976 Cardiff power stations — closed Commissioned 1894 operational until late 1960s Carmarthen Bay Power Station — closed (Decommissioned in 1984) Llanelly Power Station — closed operating until 1967 Marchwiel Power Station — closed operating until 1959 Newport power stations — closed operating 1895 to late 1970s Rogerstone power station — closed (Decommissioned in 1984) Llynfi Power Station — closed (Decommissioned in 1977) Tir John Power Station — closed Oil-fired from 1967 (Decommissioned in 1976) Upper Boat Power Station — closed (Decommissioned in 1972) Penarth power station — closed Operating 1948/9, closed by 1958/9^{【93†[4]】} Bridgend power station — closed Operating 1948/9, closed by 1958/9^{【93†[4]】} Pontypridd power station — closed Operating 1948/9, closed by 1958/9^{【93†[4]】} Aberthaw power stations — closed (Decommissioned in 2020) Uskmouth A Power Station — closed (Decommissioned in 1981) Uskmouth B Power Station — closed Initially burning coal with intermittent biomass firing up until 2017, planned conversion to burn biomass and waste abandoned.^{【69†[1]】} Decommissioned by 2024.^{【70†[2]】} Ballylumford A — closed 1974 Kilroot power station — closed 2023 Belfast East — closed 1959 Belfast West — closed 2002 East Bridge Street — closed 1959 Londonderry Corporation — closed 1959 Curran Point — closed 1959

Image description: Longannet Power Station with the Ochil Hills in the background. At the time of its operation, Longannet was one of the largest coal-fired power stations in Europe and the last large coal plant in Scotland before its closure. 1967 to 2013. Image credit: sandy harvey/shutterstock.com

A new dawn: rise of wind power

As coal power stations went offline, wind power emerged as a significant contributor to the UK’s energy grid. Data on onshore and offshore wind farms illustrates this trend. For instance, the Whitelee Wind Farm in Scotland, commissioned in 2009 and later expanded, became one of Europe's largest onshore wind farms, with a capacity of 539 MW. Similarly, the Clyde Wind Farm in South Lanarkshire, with a capacity of 522 MW, highlights Scotland’s strong emphasis on wind power as a critical energy source.

Offshore wind also gained momentum, with projects like the Beatrice Wind Farm in the Moray Firth, featuring 84 turbines and a capacity of 588 MW, coming online in 2018. These projects have capitalised on the UK’s geographic advantage, with strong winds and a long coastline providing ideal conditions for large-scale offshore wind farms.

The shift toward wind power aligns with global trends and is particularly evident in Scotland, home to a significant proportion of the UK’s wind capacity. As of 2024, wind power accounted for over 30% of the UK's electricity generation, positioning the nation as a global leader in harnessing wind energy.

Analysis of power station trends: capacity and transition

The power station data highlights a clear trend: a shift from large, centralised fossil fuel power plants to a more diversified and renewable-based energy system.

Some key observations in the shift away from coal:

  • Decreasing average capacity of new plants: While coal and nuclear plants like Longannet (2,400 MW) and Dungeness B (1,100 MW) provided large capacities, recent renewable energy projects, primarily onshore wind farms, tend to be smaller in scale. Most onshore wind farms, such as the Fairburn Estate (40 MW) and Earlsburn (37.5 MW), reflect this trend toward smaller, distributed generation assets.
  • Rapid expansion of wind capacity: The UK’s wind capacity expanded significantly between 2000 and 2024, as seen in projects like the Whitelee and Clyde wind farms. These projects are indicative of the strategic investments made in renewable energy infrastructure.
  • Regional focus on renewables: Scotland has emerged as a hub for renewable energy, with many of the UK’s largest wind farms. This focus aligns with Scotland’s ambitious climate goals, which aim to reach net-zero emissions before the rest of the UK.
  • Decline in fossil fuels and rise in naturasl gas: While coal has been phased out, natural gas has played a transitional role in the UK’s energy mix. Gas-fired power stations like Peterhead and Grangemouth have provided the flexibility to balance intermittent renewable generation. Still, gas’s role is expected to diminish as energy storage technologies become more viable.
  • The Governments importance of a just transition: Efforts to support displaced workers have characterised the transition away from coal. For instance, many former coal plant employees at Ratcliffe were offered training and opportunities in renewable energy and decommissioning work. This emphasis on a "just transition" has been critical in maintaining social support for the energy shift.

The role of energy policy in driving change

Government policy has been central to the UK’s energy transition. Introducing the Carbon Price Support mechanism in 2013 made coal generation more expensive, accelerating the shift to cleaner sources. Coupled with the Renewable Obligation and later the Contracts for Difference (CfD) scheme, these policies made wind and solar power increasingly competitive.
The UK’s decision to host the COP26 climate summit in Glasgow was a testament to its leadership in global climate policy. By bringing forward the coal phase-out to 2024 and setting ambitious renewable energy targets, the UK aimed to position itself as a model for other countries. This leadership has been reflected internationally, with many OECD countries following the UK’s example and committing to end coal use within the next decade.

Whitelee

Image credit: Dale Kelly/shutterstock.com

Image description: Whitelee windfarm is the largest onshore wind farm in the UK and one of the largest in Europe, with over 200 turbines spread across a wide area. It plays a crucial role in Scotland’s renewable energy generation.

Challenges and opportunities for clean energy

While the closure of Ratcliffe and the rise of renewable energy are significant achievements, the UK's energy transition faces ongoing challenges. The energy crisis 2022, triggered by geopolitical tensions, underscored the need for energy security and the role of gas as a backup to renewables. As gas prices soared, it highlighted the importance of developing energy storage solutions and investing in grid infrastructure to support a renewables-dominated system.

The next phase of the transition will focus on reducing reliance on gas, developing hydrogen as a clean energy carrier, and expanding battery storage capacity. Offshore wind is set to play a vital role, with the government aiming for 50 GW of offshore wind capacity by 2030. Achieving these goals will require sustained investment innovation and policies that ensure a fair transition for workers and communities affected by the shift away from fossil fuels.

Energy security amidst a transition to renewables

Although the UK’s phase-out of coal power has undeniably reduced its domestic carbon emissions, this transition has not been without trade-offs. As domestic coal mines closed and coal-fired power stations were decommissioned, the UK increasingly turned to natural gas to fill the gap. Natural gas, though cleaner than coal, still emits significant CO₂ when burned.

Initially, much of the UK's gas came from the North Sea, supporting energy independence. But as the Scottish and UK governments have focused on reducing reliance on the north sea oil industry, the UK has become more reliant on imports to meet its energy needs. This includes liquefied natural gas (LNG) from countries like Qatar and pipeline gas from Norway, as well as more recent imports from the United States. In the wake of geopolitical events such as the war in Ukraine, the UK's reliance on imported gas has heightened concerns about energy security. With Russia’s invasion of Ukraine disrupting gas supplies across Europe, the UK was reminded of the vulnerabilities that come with dependence on global energy markets.

A separate article is available in our news section on this topic.

The impact on building energy ratings

The decline in coal and other fossil fuel use for electricity generation has had a positive ripple effect on the UK's building energy ratings. As the national grid has become cleaner, with a larger share of electricity generated from low-carbon sources like wind and solar, the carbon intensity of the energy supplied to homes and businesses has decreased. This shift has improved buildings' overall energy performance ratings, as their associated CO₂ emissions from electricity consumption are now lower. With reduced emissions, buildings can achieve better Energy Performance Certificate (EPC) ratings, which are critical for meeting regulations and attracting investment in real estate. Improved EPC ratings can lead to higher property values, lower energy costs, and a reduced environmental footprint, making the transition from coal and other fossil fuels a win-win for both the environment and the economy. As the UK continues decarbonising its energy system, the potential for further improvements in building energy efficiency remains strong, supporting the nation’s broader climate goals.

Conclusion: A historic turning point

The shutdown of Ratcliffe-on-Soar marks the end of a chapter that began with the Holborn Viaduct power station in 1882. The UK’s transition from coal to renewables is a story of rapid change driven by policy, market forces, and a collective recognition of the need for climate action. As the country looks to the future, its experience offers valuable lessons for other nations seeking to balance economic growth with environmental stewardship.

With the closure of its last coal plant, the UK has positioned itself as a leader in the global energy transition. The challenge now lies in sustaining this momentum, ensuring that the benefits of clean energy are widely shared, and building a resilient, net-zero energy system that can serve as a blueprint for the world. The shift away from fossil fuels might have reduced the UK's inhouse carbon footprint and brought about broader benefits, such as improved energy efficiency in buildings and a cleaner atmosphere but to what extent has it offshored it? Read more about offshoring carbon emissions.

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Updated: 29/09/2026


Image: Vitaliistock/Shutterstock.com

Appendix: significant renewable energy power producers in Scotland

Scotland has made significant strides in renewable energy, leveraging its natural geography for wind, hydroelectric, and tidal power generation. Here are some of the largest renewable power facilities in Scotland. 

Major renewable energy facilities in Scotland replacing coal
Facility Location Capacity Opened/Commissioned Type Description
Whitelee Wind Farm East Renfrewshire, South Lanarkshire, and East Ayrshire 539 MW 2009 (expansions in 2013) Onshore Wind Largest onshore wind farm in the UK with over 200 turbines, playing a crucial role in Scotland’s renewable energy generation.
Beatrice Offshore Wind Farm Moray Firth (Northeast of Scotland) 588 MW 2018 Offshore Wind One of the most significant offshore wind projects in Scottish waters, with 84 turbines supplying power to thousands of homes.
Cruachan Power Station (Pumped Storage Hydro) Argyll and Bute 440 MW 1965 Hydroelectric Pumped Storage Known as the "Hollow Mountain," it helps balance the grid by storing energy and releasing it during peak demand.
Foyers Hydroelectric Power Station Highland 300 MW Reconfigured in 1971 Hydroelectric Located on Loch Ness's shores, it is one of the larger hydroelectric schemes contributing to renewable energy production and grid stability.
Moray East Offshore Wind Farm Moray Firth 950 MW (projected) 2021 Offshore Wind A large-scale offshore wind project that significantly contributes to Scotland's renewable energy capacity.
SSE Hydro Scheme (Multiple Locations) Across Highlands and other areas Over 1,000 MW (combined) N/A Hydroelectric Includes small schemes and larger installations like Sloy (152.5 MW) and Tummel Bridge, enhancing Scotland’s hydroelectric capacity.

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