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Communications Earth & Environment· 2026Q1

Integrating local and landscape management promotes biodiversity, multifunctionality and yields in tropical agroforests

Pablo Aycart, Blanca Ivañez‐Ballesteros, Abed Alvino-Rosas, Daniel Ochterbeck et al.

Short summary

Amazonian cacao agroforests embedded in landscapes with 30-35% forest cover and 40-45% other arboreal habitats achieved the highest biodiversity and yields, with flying-vertebrate-mediated arthropod suppression doubling cacao yields.

AI-generated from the title and abstract; the full text is not read.

Key points

  • Agroforests with high spatial/vertical shade-tree heterogeneity in landscapes with 30-35% forest cover and 40-45% other arboreal habitats showed highest biodiversity and yields.
  • Flying-vertebrate-mediated arthropod suppression doubled cacao yields in these optimal landscapes.
  • Increasing shade-tree cover from ~15% to ~80% quadrupled cacao fruit-set, tripled soil potassium, and enhanced thermal buffering.
  • Light limitation, not pest pressure, reduced harvestable yields above 30% shade-tree cover.

AI-generated from the title and abstract; the full text is not read.

Abstract

Abstract Reconciling food production and biodiversity conservation requires socio-ecologically viable agroecosystems. To meet this goal, tropical agroforestry must balance yield-biodiversity trade-offs through local and landscape-level management. By integrating assessments of multi-taxa diversity, biocontrol, pollination, crop pests, soil fertility, microclimate, and yield in Amazonian cacao agroforests, we identified ecological-economic synergies. Yield gains were not associated with species loss. Instead, agroforests with high spatial and vertical shade-tree heterogeneity embedded in landscapes combining 30–35% forest cover and 40–45% of other arboreal habitats (e.g., orchards/agroforests) achieved the highest biodiversity and yields. In these landscapes, flying-vertebrate-mediated arthropod suppression doubled cacao yields. Increasing agroforest shade-tree cover from ≈15% to ≈80% yielded a four-fold rise in cacao fruit-set, tripled soil potassium and enhanced thermal buffering. But light limitation, rather than pest pressure, reduced harvestable yields above 30% shade-tree cover. Our findings demonstrate that combined agroforest-level and landscape-scale management can align biodiversity conservation and economic returns in tropical landscapes.

The authors' abstract, as published at the source. Communications Earth & Environment, 2026 · DOI ↗

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ForestryAgricultural and Biological Sciences