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The Kunming–Montreal Global Biodiversity Framework (GBF) outlines targets for protecting and restoring biodiversity by 2030, with the vision of “living in harmony with nature” by 2050. Although the 20-year vision clearly is aspirational, we emphasize that many forest attributes crucial for biodiversity—such as the abundance of large trees and the availability of dead wood—recover over much longer timescales.

Many global biodiversity datasets overlook or misrepresent the knowledge of Indigenous Peoples, Local Communities, and Afro-Descendants (IPLCAD). We propose minimum data and metadata standards for a global data infrastructure on biodiversity knowledge and use, co-designed with IPLCAD, including information on language, community attribution and consent, to ensure data traceability and ethical use. This initiative integrates ancestral and academic sciences to advance inclusive biodiversity governance, addressing historical inequities for global sustainability.

Vessel traffic represents one of the most pervasive and escalating sources of disturbance in marine environments, affecting organisms through noise, physical presence, habitat degradation, collisions, and pollution. For some marine megafauna, including species of cetaceans, sirenians, fishes, pinnipeds, and marine reptiles, many of which are at high risk of extinction, effects of vessels are especially pronounced, well-documented, and recognized as a significant threat.

Last week, firecrackers went off around the world in celebration of the Lunar New Year. According to the Chinese zodiac, 2026 welcomes the year of the Fire Horse – a symbol of vitality, energy and momentum. Experts recommend slowing down and managing the fast-paced changes of the Fire Horse by staying grounded.

In that spirit, let us pause and reflect on some of the recent progress on biodiversity restoration. From species coming back from the brink of extinction to a decrease in wildlife crimes, here are some of the best conservation stories from 2025. 

Coral reefs are marine biodiversity hotspots that provide a wide range of ecosystem services1. They are reservoirs of bioactive metabolites, many produced by microorganisms associated with reef invertebrate hosts2.

Mangrove forests, located along tropical and subtropical coastlines, are increasingly recognized for their role in buffering climate disasters, storing carbon, supporting wildlife and livelihoods. Yet even as interest in mangrove conservation and restoration has surged in recent years, many projects fail — seedlings die, sites degrade further or communities disengage.

The world has four years left to achieve the Convention on Biological Diversity (CBD) Kunming–Montreal Global Biodiversity Framework Target 3, which calls for the conservation of at least 30% of planet Earth by 2030 (the 30×30 target). This global effort requires countries to acknowledge and support a wide range of governance systems that deliver sustained biodiversity outcomes within and beyond protected areas.

Ocean sustainability demands interdisciplinary knowledge. While interdisciplinary collaborations involving the natural sciences are common, few have also included the ocean humanities despite the entanglement of human culture and history with the ocean. We
a team of both ocean scientists and humanities researchers outline a framework for integrating these disciplines. We show how

Ocean warming is increasing the frequency, extent, and severity of tropical-coral bleaching and mortality. During 2014–2017, marine heatwaves caused the Third Global Coral Bleaching Event. We analyze data from 15,066 reef surveys globally during 2014–2017. Across all surveyed reefs, 80% and 35% experienced moderate or greater (affecting >10% of corals) bleaching and mortality, respectively.

Tropical forests enhance regional rainfall but a robust analysis of this benefit is lacking. Consequently, the rainfall generating services of tropical forests are rarely accounted for in policymaking. We synthesised observational and model-based values of the reduction in rainfall due to tropical deforestation to quantify rainfall generation. Across these studies, we estimate that each meter squared of forest contributes 240 ± 60 L each year to regional rainfall. The Amazon forest has an even stronger rainfall benefit, with each meter squared of forest contributing 300 ± 110 L each year.