Functional and Hydraulic Diversity of Forests Under Water Limitation: Trait-Based Responses, Resilience, and Adaptation to Global Change

The central premise is that water limitation—intensified by climate change through increased drought frequency, higher atmospheric demand, and altered precipitation regimes—has become a unifying driver shaping forest structure, function, and persistence across biomes. Rather than emphasizing single traits or simplified functional classifications, the Topic adopts a trait-based and mechanistic perspective, highlighting coordinated suites of functional and hydraulic traits that underpin diverse drought-response strategies within and across forest ecosystems.The scope is intentionally broad and integrative, encouraging cross-biome and cross-scale contributions from seasonally dry tropical forests, Mediterranean systems, and temperate or subtropical forests, including those developing on shallow, rocky, karstic, or otherwise water-limited substrates. These systems offer valuable natural laboratories for advancing our understanding of plant–soil–water interactions under global change. Contributions would span empirical, experimental, and modeling approaches, and explicitly promote dialogue among ecophysiologists, functional ecologists, hydrologists, soil scientists, and forest managers.A key objective of the Research Topic is to bridge fundamental science with applied perspectives. By integrating functional and hydraulic frameworks, the collection aims to contribute to a more predictive understanding of forest vulnerability and resilience, with direct implications for restoration, species selection, and adaptive forest management under climate uncertainty. We welcome contributions, including original research, reviews, data reports, perspectives, policy and reviews, that address (but are not limited to):• coordination and trade-offs among hydraulic and functional traits• intraspecific variability and plasticity along climatic or edaphic gradients• plant water-use regulation under drought and heat stress• ecohydrological coupling between vegetation and subsurface water pools• consequences of hydraulic strategies for growth, mortality, and recovery. • Studies addressing drought legacies, extreme events, and long-term shifts in forest composition are particularly encouraged. Topic editors: Mirna Valdez-Hernández, NURIA TORRESCANO, Paula Jackson Source: https://www.frontiersin.org/research-topics/78515/functional-and-hydraulic-diversity-of-forests-under-water-limitation-trait-based-responses-resilience-and-adaptation-to-global-change