Biodiversity resilience in a tropical rainforest
Timo Metz · Nina Farwig · Carsten F. Dormann · H. Martin Schaefer · Juan E. Guevara-Andino · Gunnar Brehm · Santiago Burneo · Anne Chao · Robin L. Chazdon · Robert K. Colwell · Ugo M. Diniz · David A. Donoso · María-José Endara · Santiago Erazo · Sebastián Escobar · Ana Falconí-López · Heike Feldhaar · Mishell Garcia Villamarin · Nina Grella · Katrin Heer · Michael Heethoff · Alexander Keller · Anna R. Landim · Sara D. Leonhardt · Eva Tamargo Lopez · Diego Marín-Armijos · Jörg Müller · Karla Neira-Salamea · Eike Lena Neuschulz · Karen M. Pedersen · Mark-Oliver Rödel · Matthias Schleuning · Thomas Schmitt · Michael Staab · Arianna Tartara · Boris A. Tinoco · Constance J. Tremlett · Marco Tschapka · Sybille Unsicker · Edith Villa-Galaviz · Nico Blüthgen
期刊Nature
类型Article
发表2026-04-08 (online)
卷期页652(8112): 1232-1239
收录2026-10-09
被浏览…
关键词biodiversity recoverytropical rainforestforest restorationold-growth forestsecondary forest successionrecovery timereturn ratetrophic levelsseed disperserspollinators
标签—
The UN Decade on Ecosystem Restoration aims to stop biodiversity losses 1 . Approximately 60% of tropical forests have already been lost or severely degraded 2 , making restoration essential to achieve conservation goals. Recovery trajectories of trees have been studied intensively 3,4 , but a comprehensive understanding of biodiversity recovery is lacking. Here we analyse recovery trajectories across trophic levels including 16 taxonomic groups from three kingdoms in a lowland tropical forest by investigating resistance to perturbation, recovery times and return rates to old-growth forest conditions. Abundance and diversity regained more than 90% and composition approximately 75% similarity to old-growth forests within 30 years, but full recovery takes several decades. Mobile animal communities acting as seed dispersers or pollinators had high resistance levels and recovered faster than trees or tree seedlings. Return rates contributed 1–2.5 times more than resistance to the recovery times of species composition. Taxon-specific recovery times could not be explained by simple mechanisms (life-history strategies, trophic level or mobility). We show the enormous potential of protecting naturally recovering secondary forests to stop and reverse biodiversity losses.

@article{metz2026,
author = {Timo Metz and Nina Farwig and Carsten F. Dormann and H. Martin Schaefer and Juan E. Guevara-Andino and Gunnar Brehm and Santiago Burneo and Anne Chao and Robin L. Chazdon and Robert K. Colwell and Ugo M. Diniz and David A. Donoso and María-José Endara and Santiago Erazo and Sebastián Escobar and Ana Falconí-López and Heike Feldhaar and Mishell Garcia Villamarin and Nina Grella and Katrin Heer and Michael Heethoff and Alexander Keller and Anna R. Landim and Sara D. Leonhardt and Eva Tamargo Lopez and Diego Marín-Armijos and Jörg Müller and Karla Neira-Salamea and Eike Lena Neuschulz and Karen M. Pedersen and Mark-Oliver Rödel and Matthias Schleuning and Thomas Schmitt and Michael Staab and Arianna Tartara and Boris A. Tinoco and Constance J. Tremlett and Marco Tschapka and Sybille Unsicker and Edith Villa-Galaviz and Nico Blüthgen},
title = {Biodiversity resilience in a tropical rainforest},
journal = {Nature},
year = {2026},
volume = {652},
number = {8112},
pages = {1232-1239},
doi = {10.1038/s41586-026-10365-2},
publisher = {Springer Science and Business Media LLC},
}· END ·