This month marks 10 years since the UK recorded its first named storm.
Storm Abigail struck in November 2015, bringing high winds, lightning and snow and causing power cuts and school closures in northern Scotland.
In the decade that has passed, storm naming has become a key part of how the Met Office warns the public about impending storms.
Storm naming is a public safety tool that makes severe weather easier to remember, talk about and follow.
The success of the scheme offers lessons for how clear communication can help communities prepare, adapt and build resilience in a changing climate.
Here, we look back at a decade of naming storms in the UK and some of the most notable events.
Storms in the UK
Storms in the UK typically take place during the autumn and winter months and last for between two and three days.
The number of named storms varies from year to year. Some storm seasons – for example, 2023–24 – are exceptionally active, while others are much quieter.
The UK owes its stormy climate in large part due to the jet stream – fast-moving winds that blow from west to east high in the atmosphere and push low-pressure weather systems across the Atlantic.
These low-pressure systems can bring heavy rain and strong winds to the UK, which, in turn, causes storms.
Storms in the UK can cause serious damage, felling trees, destroying infrastructure and causing travel disruptions.
Some have resulted in widespread flooding – and others, tragically, in loss of life.
Over the last decade, the UK has seen a number of storms with extreme wind speeds and heavy rainfall.
The table below sets out a list of records set by storms between November 2015 and October 2025.
| Maximum hourly gust speeds | Storm Eunice, 2022 | 122 miles per hour (mph) |
| Highest daily rainfall total | Storm Desmond, 2015 | 264.4mm |
| Lowest mean sea level pressure | Storm Éowyn, 2025 | 941.9 hectopascals (hPa) |
UK storm records for the period November 2015–October 2025. Source: Met Office
Storm naming
Storm naming was introduced in the UK and Ireland at the start of the 2015 storm season.
Launched by the Met Office and Ireland’s weather service, Met Éireann, Dutch weather service the Royal Netherlands Meteorological Institute (KNMI) joined the storm-naming scheme in 2019.
This collaboration between the UK, Ireland and Netherlands is one of three storm-naming groups in Europe. Each group releases a new alphabetical list of storm names in September.
The graphic below highlights the storm names picked by the Western European storm-naming group for 2025-26.

Not all storms are named. A storm will be named if the Met Office anticipates it having potential to cause disruption or damage.
This is often linked to whether strong winds are expected, but impacts caused by other weather types – for instance, heavy rain, hail or snow – are also considered.
Once named, the storm is referred to consistently by weather services and other authorities in Ireland, Netherlands and the UK.
Storm naming was introduced to improve communication of the weather forecast to the public and help people stay safe during severe weather.
Using a single, authoritative name for a storm allows government and media outlets to deliver a consistent message about approaching severe weather.
In this way, the public will be better placed to keep themselves, their homes and businesses safe.
There have typically been around half a dozen named storms each year since November 2015, although this varies on a year-to-year basis.
The 2023-24 storm season saw the most named storms to date. In August 2024, Storm Lillian became the 12th named storm of that season.
Below is a table of all the storms that have been named since 2015.
Storms named between November 2015 and October 2025. Source: Met Office.
Notable named storms
While every year since the scheme began has seen storms strong enough to be named, some storms have been particularly significant.
Storm Desmond, December 2015
Storm Desmond brought extreme rainfall to north-west England. The weather station in Honister Pass in Cumbria recorded 34.1cm of rainfall in just 24 hours in a new UK record. Another record was set when 405mm of rain fell at Thirlmere in Cumbria over two consecutive days.
The subsequent floods affected thousands of homes and businesses across Cumbria and other parts of northern England, sweeping away several bridges and cutting road and rail links.
Storm Desmond led to the government launching the National Flood Resilience Review.

Storm Arwen, November 2021
Storm Arwen is an example of how the damages caused by a storm depends on more than its overall strength. A storm’s location, duration and wind direction also plays a role.
This storm occurred after an area of pressure in the North Sea drove very strong northerly winds across north-eastern parts of the UK. Winds gusted at up to 98mph at Brizlee Wood in Northumberland.
The unusual wind direction of Storm Arwen resulted in the felling of thousands of trees and left more than a million homes without power. Parts of the Pennines also saw significant disruption from lying snow.
Storms, like Arwen, that have a wind direction different to the prevailing south-westerly direction are less frequent, but are nevertheless a key part of the UK’s climate.
Storm Eunice, February 2022
In February 2022, three named storms affected the UK within the space of a week. The second of these storms was Storm Eunice.
Storms in close succession can cause particular problems because clean-up efforts can be hampered by further severe weather.
Storm Eunice was the most severe and damaging storm to affect England and Wales since February 2014. Gusts reached 122mph at Needles on the Isle of Wight – the highest on record for England at a low-level station.
The storm caused deaths, widespread damage to buildings and major travel disruption, including the temporary closure of the Port of Dover.

Storm Babet, October 2023
Storm Babet was notable for prolonged and intense rainfall which led to severe flooding, evacuations and sadly, deaths. In eastern Scotland, particularly in the county of Angus, rainfall totals reached 150-200mm, with some areas experiencing their wettest day on record since 1891.
A key factor with this storm was its unusual track, or path. The storm moved south to north, picking up additional moisture as it crossed the Bay of Biscay. A high-pressure “blocking” weather system over Scandinavia prevented Babet clearing the UK eastwards into the North Sea. As a result, high wind speeds were sustained across north-east England and much of Scotland for a prolonged period.

Storm Éowyn, January 2025
Storm Éowyn was the UK’s most powerful windstorm in more than decade, with the brunt of impacts felt in Northern Ireland and Scotland’s populous Central Belt.
Gusts exceeded 90mph in Northern Ireland – where this was the most severe wind storm since 1998 – while a 100mph gust was recorded at Drumalbin in Lanarkshire.
Roads were closed, flights, ferries and trains were cancelled and more than a million homes were reported to be without power at the peak of the storm. Scotland’s national botanical collection at the Royal Botanic Garden in Edinburgh saw several dozen felled or badly damaged trees.
Storm Éowyn’s intensity and geographic reach made it a standout event in recent years.
The timeline below shows how the Met Office worked with Met Éireann and KNMI to alert the public about Storm Éowyn.

Climate change and storms
There is no evidence of positive or negative trends in windstorm number or intensity in the UK’s recent climate.
Trends in windstorm frequency are difficult to detect, because numbers vary year-to-year and decade-to-decade.
Most climate projections indicate that winter windstorms will increase slightly in number and intensity over the UK, including disproportionately more severe storms. However, scientists have “medium confidence” in these projections – because a few climate models indicate differently.
This uncertainty highlights the need for ongoing research into how climate change may influence the severity and frequency of windstorms in northern Europe.
On the other hand, scientists are confident that climate change is making rainfall during storms more intense.
A 2024 attribution study involving Met Office scientists showed that climate change has made rainfall during storms more intense through autumn and winter in the UK. The researchers noted that this trend is set to increase as the planet warms.
Recent increases in flooding in the UK have also been linked to climate change.
Other research, meanwhile, has found that sea level rise caused by climate change will worsen storm surges and high waves during windstorms.
The continuing unpredictability of UK storms – combined with projections of increased rainfall and heightened coastal damage under climate change – means that being prepared for, and adapting to, the future weather is crucial.
The post Met Office: Ten years of naming UK storms to warn the public appeared first on Carbon Brief.
Met Office: Ten years of naming UK storms to warn the public
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Climate Change
Heatwaves driving recent ‘surge’ in compound drought and heat extremes
Drought and heatwaves occurring together – known as “compound” events – have “surged” across the world since the early 2000s, a new study shows.
Compound drought and heat events (CDHEs) can have devastating effects, creating the ideal conditions for intense wildfires, such as Australia’s “Black Summer” of 2019-20 where bushfires burned 24m hectares and killed 33 people.
The research, published in Science Advances, finds that the increase in CDHEs is predominantly being driven by events that start with a heatwave.
The global area affected by such “heatwave-led” compound events has more than doubled between 1980-2001 and 2002-23, the study says.
The rapid increase in these events over the last 23 years cannot be explained solely by global warming, the authors note.
Since the late 1990s, feedbacks between the land and the atmosphere have become stronger, making heatwaves more likely to trigger drought conditions, they explain.
One of the study authors tells Carbon Brief that societies must pay greater attention to compound events, which can “cause severe impacts on ecosystems, agriculture and society”.
Compound events
CDHEs are extreme weather events where drought and heatwave conditions occur simultaneously – or shortly after each other – in the same region.
These events are often triggered by large-scale weather patterns, such as “blocking” highs, which can produce “prolonged” hot and dry conditions, according to the study.
Prof Sang-Wook Yeh is one of the study authors and a professor at the Ewha Womans University in South Korea. He tells Carbon Brief:
“When heatwaves and droughts occur together, the two hazards reinforce each other through land-atmosphere interactions. This amplifies surface heating and soil moisture deficits, making compound events more intense and damaging than single hazards.”
CDHEs can begin with either a heatwave or a drought.
The sequence of these extremes is important, the study says, as they have different drivers and impacts.
For example, in a CDHE where the heatwave was the precursor, increased direct sunshine causes more moisture loss from soils and plants, leading to a drought.
Conversely, in an event where the drought was the precursor, the lack of soil moisture means that less of the sun’s energy goes into evaporation and more goes into warming the Earth’s surface. This produces favourable conditions for heatwaves.
The study shows that the majority of CDHEs globally start out as a drought.
In recent years, there has been increasing focus on these events due to the devastating impact they have on agriculture, ecosystems and public health.
In Russia in the summer of 2010, a compound drought-heatwave event – and the associated wildfires – caused the death of nearly 55,000 people, the study notes.

The record-breaking Pacific north-west “heat dome” in 2021 triggered extreme drought conditions that caused “significant declines” in wheat yields, as well as in barley, canola and fruit production in British Columbia and Alberta, Canada, says the study.
Increasing events
To assess how CDHEs are changing, the researchers use daily reanalysis data to identify droughts and heatwaves events. (Reanalysis data combines past observations with climate models to create a historical climate record.) Then, using an algorithm, they analyse how these events overlap in both time and space.
The study covers the period from 1980 to 2023 and the world’s land surface, excluding polar regions where CDHEs are rare.
The research finds that the area of land affected by CDHEs has “increased substantially” since the early 2000s.
Heatwave-led events have been the main contributor to this increase, the study says, with their spatial extent rising 110% between 1980-2001 and 2002-23, compared to a 59% increase for drought-led events.
The map below shows the global distribution of CDHEs over 1980-2023. The charts show the percentage of the land surface affected by a heatwave-led CDHE (red) or a drought-led CDHE (yellow) in a given year (left) and relative increase in each CDHE type (right).
The study finds that CDHEs have occurred most frequently in northern South America, the southern US, eastern Europe, central Africa and south Asia.

Threshold passed
The authors explain that the increase in heatwave-led CDHEs is related to rising global temperatures, but that this does not tell the whole story.
In the earlier 22-year period of 1980-2001, the study finds that the spatial extent of heatwave-led CDHEs rises by 1.6% per 1C of global temperature rise. For the more-recent period of 2022-23, this increases “nearly eightfold” to 13.1%.
The change suggests that the rapid increase in the heatwave-led CDHEs occurred after the global average temperature “surpasse[d] a certain temperature threshold”, the paper says.
This threshold is an absolute global average temperature of 14.3C, the authors estimate (based on an 11-year average), which the world passed around the year 2000.
Investigating the recent surge in heatwave-leading CDHEs further, the researchers find a “regime shift” in land-atmosphere dynamics “toward a persistently intensified state after the late 1990s”.
In other words, the way that drier soils drive higher surface temperatures, and vice versa, is becoming stronger, resulting in more heatwave-led compound events.
Daily data
The research has some advantages over other previous studies, Yeh says. For instance, the new work uses daily estimations of CDHEs, compared to monthly data used in past research. This is “important for capturing the detailed occurrence” of these events, says Yeh.
He adds that another advantage of their study is that it distinguishes the sequence of droughts and heatwaves, which allows them to “better understand the differences” in the characteristics of CDHEs.
Dr Meryem Tanarhte is a climate scientist at the University Hassan II in Morocco, and Dr Ruth Cerezo Mota is a climatologist and a researcher at the National Autonomous University of Mexico. Both scientists, who were not involved in the study, agree that the daily estimations give a clearer picture of how CDHEs are changing.
Cerezo-Mota adds that another major contribution of the study is its global focus. She tells Carbon Brief that in some regions, such as Mexico and Africa, there is a lack of studies on CDHEs:
“Not because the events do not occur, but perhaps because [these regions] do not have all the data or the expertise to do so.”
However, she notes that the reanalysis data used by the study does have limitations with how it represents rainfall in some parts of the world.
Compound impacts
The study notes that if CDHEs continue to intensify – particularly events where heatwaves are the precursors – they could drive declining crop productivity, increased wildfire frequency and severe public health crises.
These impacts could be “much more rapid and severe as global warming continues”, Yeh tells Carbon Brief.
Tanarhte notes that these events can be forecasted up to 10 days ahead in many regions. Furthermore, she says, the strongest impacts can be prevented “through preparedness and adaptation”, including through “water management for agriculture, heatwave mitigation measures and wildfire mitigation”.
The study recommends reassessing current risk management strategies for these compound events. It also suggests incorporating the sequences of drought and heatwaves into compound event analysis frameworks “to enhance climate risk management”.
Cerezo-Mota says that it is clear that the world needs to be prepared for the increased occurrence of these events. She tells Carbon Brief:
“These [risk assessments and strategies] need to be carried out at the local level to understand the complexities of each region.”
The post Heatwaves driving recent ‘surge’ in compound drought and heat extremes appeared first on Carbon Brief.
Heatwaves driving recent ‘surge’ in compound drought and heat extremes
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