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| Four lakes in the Lakes Region experiencing drought at different levels |
The issue of drought appears as a bigger problem every passing year than the last, and it is obvious that this problem will grow in the coming years. However, public discourse on this critical topic is often stuck within a superficial and misleading framework.
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“Our per capita consumption is very high, we must use less water individually.”
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“The lakes are drying up, urgent action must be taken.”
Such comments are narratives that reduce a complex system to something simple and focus responsibility in the wrong place. This situation brings to mind the quote by NYTimes writer Ross Douthat: “Conspiracy theories are generally false because those who produce them are outside of power and try to impose a narrative order on a world they don’t fully understand.” Indeed, popular discourse on drought resembles the effort of those who do not understand the topic to impose a simple and moral narrative by ignoring the systemic factors holding the power.
The adoption of this superficial narrative by the media, some experts, and even policymakers prevents us from understanding the root causes of the problem. Focusing on well-intentioned but ineffective solutions like individual water conservation renders the structural problems that actually need intervention, such as agricultural policies, infrastructure inefficiency, and faulty water management, invisible. To break free from this intellectual chaos and reach the truth, we must strip the problem of emotional and moral narratives and approach it with a methodological and systemic approach.
1. What is Drought? Defining the System
The first step in solving any problem is to correctly define that problem. The word “drought” is not a monolithic concept with a single meaning; it is a system with different layers.
1.1. Is there a Decrease in Precipitation? (Meteorological Drought)
Yes, statistically significant decreases in precipitation regimes are observed globally and in specific regions. This is meteorological drought and is confirmed by data. However, this is only the first and simplest piece of the equation. Reducing the problem simply to “it’s not raining” is often a methodological error that masks the real problem. One of the best examples of this is Lake Burdur. The lake has lost more than half of its volume over the past 50 years. However, when the long-term precipitation data of the basin is examined, there is no statistically significant precipitation decrease trend to explain this dramatic retreat. This situation shows that other components of the system play a much more dominant role.
1.2. Is there an Increase in Water Expenditure? (Agricultural Drought)
This is where the real malfunction of the system lies. Demand on water resources has increased much more dramatically than the decrease in precipitation. The almost sole and overwhelming source of this demand is not the water flowing from the individual consumer’s tap, but systemic and structural agricultural policy errors. Incentivizing water-intensive agricultural production in a water-scarce basin is not a rational policy. For instance, according to Burdur’s 2022 agricultural production data, silage corn, alfalfa, and sugar beet—crops requiring the most water—are planted over an area exceeding 200,000 decares in total, with silage corn at 111,042 decares, alfalfa at 61,762 decares, and sugar beet at 34,600 decares. These crops constitute a significant portion of the total field crop planting area in the province and create a massive pressure on water resources. Almost all of the dams and ponds built on the streams feeding the lake in the Lake Burdur basin, as well as thousands of drilled wells, support this production. This is not an individual choice, but a central policy error. Therefore, the party responsible for the massive increase in water expenditure is not the “citizen washing dishes for too long,” but agricultural policies that incorrectly price water as a commodity, incentivize the wrong crops, and cannot manage water resources rationally.
1.3. Is there Another Effect? (Infrastructural Drought)
The third and potentially least understood malfunction of the system is infrastructure inefficiency. It is a generally accepted fact that leak and loss rates are at serious levels in both drinking water lines in city networks and agricultural irrigation canals. However, systematic, current, and publicly available datasets that reveal the true extent of these losses are quite limited. How much water is lost to evaporation and seepage through methods like wild irrigation, or how much water from aging city networks mixes with the soil, is not clearly measured. Thus, in a system with decreasing income and increasing expenses, we do not exactly know how much of our existing capital we are spilling along the way. This situation reveals that leak and loss rates in the infrastructure must urgently and transparently be measured and reported for the correct diagnosis and solution of the problem. This is not a meteorological problem, but an engineering and data management problem.
2. Anthropological Causes of Drought: Faulty Architecture
After correctly diagnosing the fundamental components of the problem, we can analyze the human factor behind the architecture of this faulty system.
2.1. Local Impacts: Management Based Not on Data, but on Saving the Day
The main cause of drought is the inefficiency of human-made systems rather than natural phenomena. At the root of this inefficiency lies a management approach based on short-term political and economic interests instead of data-driven, long-term planning. Water resource management is shaped not by scientific basin planning and ecological sustainability principles, but by which product will receive more incentives or which infrastructure project will bring more votes. Even the lack of data on infrastructure is a symptom of this situation; a system that is not measured cannot be managed. This is not a “fate,” but the cumulative result of irrational “choices.”
2.2. Global Impacts: Exposure of the System’s Fragility
Where does climate change stand in this equation? Climate change is not the main cause of drought, but a “stress multiplier” or “accelerator” that exposes the current faulty and fragile system. A system that already relies on water-intensive agriculture, has inefficient infrastructure, and is managed with data deficiency goes bankrupt more quickly in the face of more extreme weather events (long dry periods, sudden and heavy precipitation) brought by climate change.
3. Possible Solutions: Redesigning the System and Adapting to the Inevitable
Contrary to popular discourse, the solution is not to shorten shower times out of a collective sense of guilt, but to redesign the system rationally with data-driven and scientific principles. However, if current policies continue, we need a Plan B.
Plan A: The Inevitable Consequence of the Current Course - The Aral Sea Scenario
If current water management policies do not change and Lake Burdur continues to dry up, the future awaiting the basin is the fate of the Aral Sea, one of the greatest ecological disasters in human history. Lake Burdur is a saline lake. When the lake waters recede, what remains is not arable land, but a barren terrain containing high concentrations of salt and other minerals.
This arid and saline land is completely vulnerable to wind erosion. Strong winds will lift this toxic and saline dust and carry it kilometers away. The consequences of this situation will be catastrophic:
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Agricultural Devastation: Wind-carried salt will settle on fertile agricultural lands in the basin, rendering the soils barren and halting production.
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Health Problems: These inhaled saline and potentially pollutant-laden particles will lead to severe respiratory diseases and other health problems in the local population.
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Collapse of the Ecosystem: The region’s vegetation and climate will irrevocably change.
This is not an assumption, but a documented reality experienced in the Aral Sea basin. If nothing is done, this is the future of the Burdur basin.
Plan B: Adaptation and Reclamation - Halophytic Agriculture
If it is accepted that the drought cannot be solved and Lake Burdur is sacrificed, a rational adaptation plan should be put into effect instead of waiting for a disaster. This plan aims to reclaim the emerging barren land and transform it into a new economic value.
In the highly saline areas where the lake has receded, it is possible to rapidly reclaim the soil using halophytic (salt-tolerant) plants. These plants take up the salt in the soil into their structure, lowering the soil’s salinity level over time. At the end of this process, dryland farming activities with plants requiring little water can be carried out in these new lands with reduced salinity. This both prevents ecological devastation and creates a new economic model for the region.
Final Warning: Construction Ban and Earthquake Reality
While implementing this adaptation plan, the geological reality of the basin must never be forgotten. Burdur is a first-degree earthquake zone. In a very severe earthquake, there is a risk that the existing dam systems holding back the waters feeding the lake could suffer a disaster and collapse, causing this entire basin to rapidly flood again. Therefore, the lands reclaimed from the lake must never ever be opened to construction, regardless of the circumstances. These areas should only be used for agricultural reclamation and ecological restoration.
Consequently, drought is no longer a natural phenomenon but has become a crisis of management and system design. The solution lies not in placing a moral burden on the shoulders of individuals, but in states and institutions taking on the responsibility to develop rational, scientific, and long-term policies. If this responsibility is not fulfilled, we should at least have a rational Plan B against the impending disaster. Our problem is not the scarcity of water, but the scarcity of reason and foresight.