Wildfires in Turkey: Why They Are Getting Worse Every Year

Every summer now, Turkey burns. Not every year in the same place, not always at the same scale — but the pattern is no longer in doubt. The country's wildfire seasons are longer, hotter, and more destructive than they were a generation ago, and the scientific explanation for why is both clear and deeply connected to the broader climate changes reshaping the country.

To understand Turkey's wildfire crisis, you need to understand the three interlocking conditions that create catastrophic fire — and how climate change is worsening all three simultaneously.

The Fire Triangle, Applied to Turkey

Fire requires three things: fuel, heat, and ignition. Climate change does not create fire — but it loads the landscape with more fuel, raises the heat to a level the fuel more readily ignites, and in Turkey's case, creates the wind conditions that turn a manageable blaze into an unstoppable one.

Fuel: Drier Forests, More Ready to Burn

Turkey's Mediterranean and Aegean forests are dominated by pine species — Calabrian pine, Turkish red pine, and black pine — that evolved in a fire-prone climate and are naturally adapted to periodic burning. Under normal conditions, their oils and resins make them fire-prone but resilient: they burn, and they recover.

What has changed is the moisture content of the forests before fire season begins. Prolonged droughts — a direct consequence of the climate changes documented across Turkey over the past thirty years — are reducing the water content of forest soils and vegetation to historically low levels. Dry fuel ignites more readily, burns hotter, and spreads faster than moist fuel. A forest that received normal winter and spring rainfall can resist and slow a fire; a forest emerging from a multi-year drought cannot.

The drought crisis affecting Turkey's agricultural regions and rivers is the same drought crisis loading its forests with tinder.

Heat: Rising Temperatures, Lower Ignition Threshold

Turkey's average temperature has risen approximately 1.5°C over three decades, but peak summer temperatures in fire-prone coastal and inland zones have risen faster. In parts of Muğla, Antalya, Izmir, and Hatay provinces — Turkey's most fire-prone regions — extreme heat days have become more frequent and more intense.

Higher ambient temperatures affect fire risk in two ways. First, they accelerate the drying of vegetation, reducing the moisture available to resist ignition. Second, they raise the air temperature itself, so that ignited material encounters an atmosphere that is already hot and hungry for combustion. The same spark that might produce a limited, manageable fire in a cool autumn produces a racing crown fire in a 40°C heatwave.

Wind: Shifting Pressure Systems

The third element — wind — is the most destructive in terms of fire spread, and here too the climate signal is visible. Changing atmospheric pressure patterns over the eastern Mediterranean are producing more frequent and more intense offshore wind events during fire season — the hot, dry winds from the interior that historically accompanied fire conditions but now accompany them more regularly and with greater intensity.

The 2021 Muğla fires that burned over 140,000 hectares in a single week were driven by a combination of all three factors: the forests were drier than normal after a drought-affected spring, temperatures exceeded 40°C across the region, and offshore winds with gusts above 60 km/h spread the fires faster than suppression efforts could respond.

The Scale of the Problem: What the Data Shows

The statistical record of Turkey's wildfire seasons tells a clear story of escalation.

The average annual area burned in Turkey between 2020 and 2025 is more than three times higher than the average for the 2000–2010 decade, according to data from Turkey's General Directorate of Forestry. The number of fire incidents has not tripled — the number of catastrophic large fires has. This is the fingerprint of climate-driven fire: not more ignitions, but ignitions that, under dry and hot conditions, escape control and grow to landscape scale.

The 2021 fires in Muğla and Antalya remain the most severe in Turkey's recorded history. But major fire seasons in 2022, 2023, and 2024 confirmed that 2021 was not a one-off event. It was a preview of a new normal.

Geographically, fire risk is expanding. Areas of the western Black Sea coast and parts of inner Anatolia that were historically considered low-risk are now showing elevated fire conditions in models and, increasingly, in reality. The fire zone is moving as the climate moves.

What Burns, and What Is Lost

The ecological and human costs of Turkey's wildfires go well beyond the immediate destruction of trees.

Biodiversity loss is severe. Turkey's Mediterranean forests are biodiversity-rich ecosystems that support endemic plant species, reptile populations, nesting birds, and a complex understory of shrubs and herbs. When a mature pine forest burns at high intensity, the ecosystem does not simply reset — it may shift to a different stable state, particularly when post-fire soil erosion prevents natural regeneration. Repeated fires at short intervals, which climate change is making more likely, can prevent forest recovery entirely in some locations.

Soil erosion and flash flooding follow major fires with dangerous regularity. The bare mineral soil exposed by high-intensity fire loses its capacity to absorb rainfall. The following winter's rains — particularly in an era of more intense precipitation events — strip topsoil, carry ash and debris into rivers and reservoirs, and create flash flood risks in valleys downstream of burned areas. Communities that survived the fire itself sometimes face greater immediate danger from the flooding that follows.

Carbon emissions from forest fires create a troubling feedback loop. Burning forests release the carbon they have stored over decades back into the atmosphere, contributing to the same warming that made them more vulnerable to fire in the first place. Turkey's large fire seasons have transformed its forests from carbon sinks — absorbers of atmospheric CO₂ — into net carbon sources in fire years.

Livelihoods and tourism are directly affected. Turkey's Aegean and Mediterranean coasts are among the country's most important tourism destinations. Fires that burn the forested slopes above resort towns damage the landscape that tourists come to see, disrupt local economies, and in some cases destroy the infrastructure of communities that have no other major economic base.

Is Turkey Fighting Back?

Turkey has invested significantly in wildfire suppression and prevention infrastructure, and the country's firefighting capacity has expanded substantially over the past decade. The fleet of firefighting aircraft has grown, ground response times have improved, and early warning systems using satellite monitoring are now operational.

But suppression alone cannot solve a problem driven by underlying conditions. Firefighting is a response to fires that are already burning; it does not address the drought, the heat, and the fuel loading that make those fires inevitable.

The more durable responses are those that address the underlying conditions:

The Road Ahead

Turkey's wildfires are not going to stop. The climate conditions that drive them are not reversing on any timescale relevant to the forests currently standing. The realistic goal is not to eliminate fire — it is to manage a fire-adapted landscape with the full awareness that conditions have changed and will continue to change.

That requires honest acknowledgment of what the data shows: that the era of controllable, bounded wildfire seasons in Turkey's coastal forests is over, and that the institutions, infrastructure, and land management practices designed for that era need to be updated for the one that has arrived.

COP31 in Antalya in November 2026 will bring the world's climate negotiators to a city that sits in the middle of one of Turkey's most fire-affected regions. The charred hillsides of the Taurus foothills will be visible context for every conversation about what the global temperature trajectory means in practice.

This article is part of Atmoswire's Cluster 1 series on Climate Change in Turkey. Read the full guide: The Complete Guide to Climate Change in Turkey. Related: Turkey's Drought Crisis: How Water Scarcity Is Reshaping the Country · How Climate Change Is Threatening Turkey's Agricultural Identity.