Researchers at KAUST and international collaborators have published a framework in Nature Microbiology for using microbiomes to protect wildlife. The framework outlines a path from laboratory research to large-scale applications of microbiome solutions for threatened ecosystems. It addresses ethical considerations and risk assessment for applying environmental probiotics. Why it matters: This framework provides a science-based guide for responsible research and development of microbiome solutions to combat global biodiversity loss, particularly in sensitive marine ecosystems like coral reefs.
KAUST Professor Raquel Peixoto will co-lead the first global body under the International Union for Conservation of Nature (IUCN) to safeguard microbial biodiversity. The Microbial Conservation Specialist Group will explore ecological disruption and potential extinction of microbes vital to ecosystems and human health. The group will assess extinction risks, set conservation priorities, and establish criteria for a microorganism Red List. Why it matters: This initiative highlights the growing recognition of the importance of microbial ecosystems and positions KAUST as a leader in integrating microbiology into global biodiversity governance.
A KAUST scientist led a global call for climate solutions, published simultaneously by 14 academic journals and released at COP29. The publication, prepared by 18 scientists, urges international governments to deploy microbial 'vaccines' against climate change. Six simple 'vaccine' examples are outlined, including carbon sequestration boosters and methane busters. Why it matters: This coordinated effort highlights the urgency of addressing climate change and KAUST's leading role in microbial solutions.
KAUST researchers collaborated on a study published in Nature analyzing microbiomes in 170 glacier-fed streams worldwide. The study, led by EPFL, identified a unique microbiome distinct from other cryospheric systems, with almost half the bacteria endemic to specific mountain ranges. KAUST's sequencing efforts helped create a global atlas of these threatened microbiomes. Why it matters: Understanding these microbiomes is crucial for monitoring the impact of climate change on vital freshwater sources originating from glaciers.
A study co-authored by KAUST researchers and published in Science analyzes the intertwined climate and biodiversity crises, noting that human activities have altered roughly 75% of land and 66% of marine waters. Greenhouse-gas emissions amount to over 55 gigatonnes of carbon dioxide equivalent per year, with global mean temperature increased by over 1.1 degrees Celsius since the preindustrial era. The study proposes an ambitious approach including emissions reduction, restoration, and cross-institutional alliances. Why it matters: This highlights KAUST's contribution to global research on pressing environmental challenges and informs strategies for regional sustainable development initiatives.