Europe’s widening climate insurance gap is not a problem that insurance alone can solve. It is a warning that physical climate risks are intensifying, and that organisations must reduce both their exposure to climate impacts and their contribution to the forces intensifying them.
Insurance remains an essential part of climate-risk management because it can provide funds for recovery after a disaster. But it does not make a factory, vineyard, warehouse or supply route physically safer; it transfers part of the financial consequence when damage occurs.
The limits of that model are becoming visible. The European Insurance and Occupational Pensions Authority’s (EIOPA) latest dashboard-based analysis estimates that only around one quarter of losses from extreme events across Europe were insured between 1980 and 2024 and warns that climate change may further strain the affordability and availability of cover. The European Environment Agency estimates that weather- and climate-related extremes caused €822 billion in economic losses in the EU between 1980 and 2024, including more than €208 billion in the four years from 2021 to 2024.
The widening protection gap matters because it changes the strategic question. The issue is no longer only how to finance recovery after a climate shock. It is how to reduce the probability and scale of loss before the shock occurs, and how to prevent the underlying risk environment from continuing to deteriorate.
The insurance gap is a diagnostic signal
Insurance, adaptation and mitigation intervene at different points in the same chain of risk. Insurance redistributes financial losses after an event. Adaptation changes exposure and vulnerability before it occurs: a company may protect a site from flooding, reduce its dependence on scarce water or redesign a supply route. Mitigation addresses the longer-term trajectory of the hazard by reducing the driving factors behind climate change.
These functions reinforce one another, but they are not substitutes. The European Central Bank (ECB) and EIOPA argue that insurance and adaptation should complement ambitious mitigation. Their joint analysis also warns that a widening insurance gap can place greater pressure on public finances, weaken credit provision and create financial-stability risks. The EEA’s first European Climate Risk Assessment reaches a similar conclusion from a physical-risk perspective: it identifies 36 major risks to areas including food, water, infrastructure, health, ecosystems and financial stability, many of which have already reached critical levels and could become catastrophic without urgent action.
Uninsurability should therefore be read as evidence that the existing allocation of risk is becoming untenable, not as the root problem itself. Making an exposed asset more robust can reduce physical exposure and may support the future availability and affordability of insurance, but it does not guarantee continued coverage. Whether that protection remains effective over the asset’s full life depends on how far the hazard continues to intensify. That brings the argument from risk transfer to the limits of adaptation.
Adaptation has an operating range
Adaptation can reduce physical risk exposures and insured losses. EIOPA identifies measures such as flood-resistant building features as ways to lower physical exposure and support the future availability and affordability of non-life insurance. Yet its evidence also shows how early this practice remains: the underlying pilot involved 31 insurers in 14 countries, and EIOPA described the European market for recognising adaptation in underwriting as being at an early stage.
More fundamentally, adaptation does not prevent all losses, and its options become more constrained and less effective as warming increases. The IPCC concludes that additional human and natural systems reach adaptation limits as warming rises. UNEP’s 2025 assessment indicates why this matters for long-lived organisational decisions: full implementation of current national climate pledges would still imply an estimated 2.3–2.5°C of warming this century, while current policies point to 2.8°C.
Adaptation investments should therefore be treated as having an operating range rather than as permanent fixes. A cooling system depends on assumptions about temperature, water and electricity. A flood barrier depends on a design level. A drought response depends on how much water, land or crop flexibility remains available. As conditions move beyond the range for which a measure was designed, the organisation may need to reinforce it, replace it or change location or business model.
Planning under these conditions is not a matter of predicting one precise future. The Dynamic Adaptive Policy Pathways method developed by Haasnoot and colleagues offers a more useful logic: select near-term actions, identify the conditions under which they no longer meet their objectives, monitor relevant signposts and prepare subsequent actions before those thresholds are reached. This turns adaptation from a one-off project into a sequence of choices. It also makes the role of mitigation concrete: limiting warming reduces losses and damages and preserves more scope for effective adaptation.
Familia Torres: integrating resilience across a living system
Familia Torres offers an instructive example of resilience that extends beyond hardening a single facility. Viticulture depends on a living system in which water availability, soil condition, biodiversity and crop characteristics interact. EU-backed research identifies summer drought, short periods of heavy rainfall, soil erosion and new pests as material climate pressures on European vineyards, making resilience a question of whether the productive ecosystem continues to function rather than whether one asset survives intact.
The company’s adaptation measures address several of those dependencies. Familia Torres reports that its Pacs del Penedès winery reused 45% of its process water in 2023, collects almost all rainwater from the facility’s roofs and has approximately 45 ponds across its Catalan estates with total storage capacity of 122,000 cubic metres. A 2025 company update reported that facility water consumption had fallen 22% compared with 2016. Regenerated water is used for irrigation, cleaning and cooling, while moisture sensors, night-time irrigation and underground systems are intended to reduce avoidable water losses.
The company is also diversifying the biological and geographic basis of production. It has planted the ancestral Pirene variety at 950 metres in the Pre-Pyrenees, and has described Pirene as resistant to high temperatures and drought. These measures do not eliminate climate risk, but they broaden the climatic and biological options available to the company as growing conditions change.
A further layer is the company’s move towards regenerative viticulture. Familia Torres reports implementing regenerative practices across organic vineyards totalling more than 500 hectares, including cover crops, animal integration, more efficient irrigation and the selection of plant material for changing climate conditions. The final 2026 results of the CREAF-led RegeneraCat project, which compared regenerative and conventional plots across four Catalan farms including Familia Torres, found greater water retention and soil biodiversity overall. At the Familia Torres vineyard specifically, CREAF reported a positive trend in soil carbon while noting that changes are slower in perennial dryland crops such as vineyards.
That caution is important. Independent evidence supports the potential of some of these practices without turning “regenerative” into a guarantee. A 2025 meta-analysis covering 64 vineyard studies and 1,308 paired comparisons found that cover crops improved regulating and supporting ecosystem services on average without a statistically significant overall effect on grape yield. At the same time, 42% of the multi-service studies reported trade-offs, showing that outcomes depend on climate, soil and management choices. The resilience case is therefore strongest when practices are measured locally and adjusted in response to evidence, not when the label itself is treated as proof.
Mitigation is connected to the same operating system. Familia Torres reports a 47% reduction in CO₂ emissions per bottle across its value chain from 2008 to the end of 2025, based on its latest audited emissions balance. The company attributes the result to measures including lower agricultural inputs, reusable packaging, multimodal transport, biomass, supplier action and earlier reforestation projects. It also states that recovery in vineyard yields after drought contributed materially to the 2025 result. That qualification matters: a per-bottle reduction is an intensity metric and does not, by itself, demonstrate an equivalent reduction in total emissions.
The company also co-founded International Wineries for Climate Action. Its membership rules require regular Scope 1, 2 and 3 inventories verified to ISO 14064-1, extending the focus from selected operational emissions to the wider value chain. Sector collaboration does not remove the company’s environmental impacts, but it makes the example more relevant than a resilience project confined to one site: water, soil, crop genetics, packaging, transport, energy and supplier emissions are being treated as connected sources of risk.
A useful contrast is BASF. Its response to low-water risk on the Rhine is technically substantial: the company uses early-warning systems, alternative transport modes such as rail and road, an expanded shipping fleet and special vessels designed for low water levels to protect supply to sites including Ludwigshafen. In its 2025 climate reporting, BASF says its resilience reviews focus primarily on its own business, while upstream and downstream value-chain resilience is considered where particular exposure makes it necessary. BASF also pursues mitigation targets, including a 25% reduction in Scope 1 and 2 greenhouse-gas emissions by 2030 compared with 2018 and net zero for Scope 1, Scope 2 and Scope 3.1 emissions by 2050. The distinction, then, is not that BASF adapts while Familia Torres mitigates. It is the system boundary of the resilience strategy. In this specific Rhine example, BASF’s measures chiefly extend the operating range of an existing industrial system under climate stress. Familia Torres combines operational adaptation with changes to the productive ecosystem itself, soil, water, biodiversity and crop genetics, and connects those interventions to value-chain decarbonisation. The comparison illustrates how resilience can involve not only protecting existing assets, but also changing some of the ecological and operational dependencies on which the business relies.
The case shows how an organisation can address physical risk drivers such as water scarcity and crop vulnerability while also reducing emissions, testing ecological outcomes and preserving alternatives as conditions change.
From climate projects to a truly resilient capital strategy
Once adaptation and mitigation are understood as parts of the same risk system, climate resilience becomes a capital-allocation discipline rather than two parallel sustainability workstreams. A major investment should be evaluated against two linked questions: how far does it reduce physical risk over its useful life, and what does it do to the organisation’s climate impact trajectory and dependence on vulnerable ecological or social systems?
This joint test prevents a company from mistaking asset protection for long-term resilience. Hardening a highly polluting facility may protect short-term cash flow, but if it extends the life of emissions-intensive infrastructure it can increase transition exposure and contribute to further warming. The IPCC warns that delayed mitigation and adaptation can lock in high-emissions infrastructure, increase stranded-asset risk, escalate costs and reduce the feasibility of later action. The relevant decision is therefore not simply whether an asset can be defended, but whether defending it supports a credible future business model.
The same capital process should specify thresholds and options. Management needs to know the conditions under which an intervention no longer performs: the water level at which an alternative transport mode is required, the temperature at which a cooling design becomes inadequate, or the point at which maintaining a crop or location costs more than changing it.
Finally, the system boundary must extend beyond the insured asset. An adaptation that protects one site while increasing water scarcity, shifting climate vulnerability downstream, increasing greenhouse-gas emissions elsewhere or worsening inequities can become maladaptive rather than durable resilience. The IPCC warns that maladaptation can create lock-ins of vulnerability, exposure and risk. Separately, the ECB and EIOPA show that a widening insurance protection gap can transfer a larger share of disaster losses to governments and the wider financial system.
Insurance can provide useful feedback within this strategy, particularly where underwriters explicitly recognise verified risk-reduction measures. But insurance terms are only one signal of perceived risk, not proof that underlying physical risk has fallen. Continued access to a policy is not the final measure of success: cover may remain available at a higher price or with tighter terms, while public institutions can also absorb part of the residual risk. A truly resilient strategy should therefore assess underlying physical exposure, the durability of adaptation across plausible future conditions and the organisation’s contribution to the emissions trajectory.
The strategic conclusion
Europe’s insurance protection gap exposes the limits of treating climate risk mainly as a financial-transfer problem. It leads first to adaptation, because organisations must reduce losses from impacts that are already occurring. It then leads beyond adaptation, because those measures operate within physical limits that become harder to manage as warming increases.
Therefore, organisations should reduce near-term vulnerability, cut absolute emissions and other harmful dependencies, monitor whether interventions are producing the intended outcomes, and prepare the next decision before critical thresholds are crossed. They should also test whether their resilience is achieved by reducing risk for the wider system or merely transferring it to suppliers, communities and governments.
The defining question is not whether an organisation can survive the next disruption. It is whether its strategy helps keep future disruption within a range that organisations and societies can still manage. Shall we?
This article is part of The Outside World, ftrprf’s very own research center.
As changemakers, we believe that what happens in the outside world is the most powerful force shaping organizational strategy – and also the most underestimated. To do well, organizations need to understand what’s happening in the outside world. To do significantly better, they need to be aware of what it means for their future, their relations, their strategy, and their impact. We serve as a bridge between society and tailored strategy by analysing societal dynamics, global trends, and shifting public expectations with a multidisciplinary team of international analysts, excellent tooling, sophisticated AI, and a systems approach. This article is part of our second trimester research focus, which centers on resilience.
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