Adaptive Forest Management Under Climate Change

Adaptive forest management under climate change encompasses an iterative and flexible approach to planning and intervention that seeks to sustain forest health, productivity and the provision of ecosystem services in the face of rising temperatures, altered precipitation patterns and more frequent disturbances. By combining long-term monitoring, scenario modelling and stakeholder engagement, this approach enables managers to update silvicultural practices as new information emerges on species responses, disturbance regimes and socio-economic drivers. Core strategies include diversifying species composition to enhance stand resilience, adjusting rotation lengths and thinning regimes to balance growth and risk, and exploring transformation pathways from even-aged to uneven-aged or continuous cover systems. Economic considerations are increasingly integrated with ecological objectives through portfolio-based and bio-economic models that quantify trade-offs between yield, risk and multifunctionality. Case studies range from temperate mixed forests adapting to shifts in species competition and drought risk to mountain ecosystems transitioning from monocultures to site-appropriate mixed stands. At the landscape scale, coordinated planning can amplify heterogeneity and reduce synchronised losses, yet it also raises governance and policy challenges. The global significance of this research lies in its capacity to inform practical interventions that reconcile timber production, carbon sequestration, biodiversity conservation and community livelihoods under deep uncertainty.

Research from Nature Portfolio

Recent studies have integrated economic optimisation with spatially explicit forest planning to assess the efficacy of tree-species diversification under intensifying extreme weather events. By modelling local versus regionally coordinated allocation of stand types, researchers demonstrated that α-diversity (within-unit heterogeneity) and β-diversity (between-unit heterogeneity) can be enhanced through targeted management. However, neither local nor regional diversification fully buffers enterprise-level economic returns against correlated disturbances, leading managers to favour low-risk species mixes that may compromise broader ecosystem services and long-term stability.

Research from all publishers

An analytical framework comparing continuous cover forestry with clear-fell systems revealed that continuous cover approaches not only yield higher long-term economic returns but also exhibit 18–52 % faster recovery of present value after severe disturbance, underscoring their potential to bolster economic resilience. In mountain regions dominated by secondary pure spruce stands, simulation of seven transformation scenarios—ranging from shelterwood and gap-coupes to strip clear-cuts—identified gap and slit-coupe techniques as offering the best balance of growth, carbon sequestration, stand stability and biodiversity, thus providing realistic pathways to mixed uneven-aged forests. Foundational conceptual work has also clarified that non-management is viable only in a narrow subset of forest types; most productive stands will require ongoing adaptations in species composition, age structure and rotation periods in response to shifting climatological and biological parameters.

Adaptive Forest Management Under Climate Change publication trend

The graph below shows the total number of articles in adaptive forest management under climate change across all publications each year (not limited to Nature Index journals).

Technical terms

Adaptive forest management: An iterative decision-making process that integrates monitoring, feedback and flexible interventions to cope with uncertain climate impacts.

α-diversity, β-diversity, γ-diversity: Metrics of species heterogeneity at local (α), between-unit (β) and landscape (γ) scales, used to assess ecological resilience.

Continuous cover forestry: A silvicultural system that maintains permanent canopy cover through selective harvesting, promoting uneven-aged stands and structural diversity.

Economic resilience: The capacity of a forest management system to recover or maintain economic value following disturbance events.

References

1. Severe and frequent extreme weather events undermine economic adaptation gains of tree-species diversification. Scientific Reports (2024).
2. Forest adaptation to climate change—is non-management an option?. Annals of Forest Science (2019).
3. A framework for modeling adaptive forest management and decision making under climate change. Ecology and Society (2017).
4. Assessing transformation scenarios from pure Norway spruce to mixed uneven-aged forests in mountain areas. European Journal of Forest Research (2020).
5. Assessing the Economic Resilience of Different Management Systems to Severe Forest Disturbance. Environmental and Resource Economics (2022).