Supplementary material from "Exploring the transformative potential of multi-trophic strategies to enhance coral restoration and mitigate disease"

Read full text
Authors: Raquel Silva Peixoto, Barbara Ribeiro, Gustavo Duarte, Torsten Thomas, Simon E. Reeves, David J. Suggett
Cited by: 0

Abstract

Unprecedented coral reef degradation from climate change, local impacts, and disease, requires time-critical development of innovative, cost-effective, and ecologically grounded restoration strategies. Conventional restoration strategies to recover coral reef ecosystems largely focus on coral propagation, often de-prioritizing the broader ecological interactions that underpin reef resilience. However, coral reefs are complex ecosystems where other reef-associated organisms have fundamental and connected roles in nutrient cycling, biofiltration, pathogen control, and microbiome stewardship. Integrating these key functional groups into restoration efforts in both the production phase (co-cultivation) and ecological recovery phase (ecological reconstruction) is required to advance coral restoration efforts towards more holistic coral reef ecological restoration frameworks. Integrating multi-trophic strategies provides a multifunctional, nature-based solution to enhance coral survival, mitigate disease outbreaks, and promote overall ecosystem health. Here, we discuss the benefits of such a multi-trophic approach, where filter-feeders, suspension-feeders, detritivores, and grazers are incorporated into the processes of reef restoration efforts. By leveraging positive species interactions based on facilitation theory, a multi-trophic approach provides a tool that not only enhances microbiome stewardship and coral reef restoration success but also reinforces the long-term sustainability of reef ecosystems in a changing climate.

Fields of Study & Subjects

Coral and Marine Ecosystems Studies Marine Bivalve and Aquaculture Studies Marine Biology and Ecology Research

Publication details

Journal / source
Figshare
Publication date
1 January 2026