home Anil Madhavapeddy, Professor of Planetary Computing  

Artificial Intelligence is an emerging tool that could be leveraged to identify the effective conservation solutions demanded by the urgent biodiversity crisis.

We present the results of our horizon scan of AI applications likely to significantly benefit biological conservation. An international panel of conservation scientists and AI experts identified 21 key ideas. These included species recognition to uncover 'dark diversity', multimodal models to improve biodiversity loss predictions, monitoring wildlife trade, and addressing human–wildlife conflict. We consider the potential negative impacts of AI adoption, such as AI colonialism and loss of essential conservation skills, and suggest how the conservation field might adapt to harness the benefits of AI while mitigating its risks.

# 1st Dec 2024   iconpapers ai biodiversity conservation evidence horizon journal

Related News

Horizon scan on AI and conservation published / Dec 2024

Back in July 2024, a large group of conservation and computer scientists got together in the CCI to prioritise the storm of AI-related projects that have been kicking off around the world. Our key goal was to harness AI to accelerate the positive impact of conservation efforts, while minimising harm caused through either the direct or indirect use of AI technologies.

The first horizon scan resulting from this has just been published in Trends in Ecology and Evolution. If you're looking for a gentle introduction to some of the terms in AI from a non-experts perspective, the first section does a good job of defining a glossary as well. […118 words]

# 1st Dec 2024   iconpapers ai biodiversity cci conservation evidence horizon journal

Mapping LIFE on Earth / Jan 2023

Human-driven habitat loss is recognised as the greatest cause of biodiversity loss, but we lack robust, spatially explicit metrics quantifying the impacts of anthropogenic changes in habitat extent on species' extinctions. LIFE is our new metric that uses a persistence score approach that combines ecologies and land-cover data whilst considering the cumulative non-linear impact of past habitat loss on species' probability of extinction. We apply large-scale computing to map ~30k species of terrestrial vertebrates and provide quantitative estimates of the marginal changes in the expected number of extinctions caused by converting remaining natural vegetation to agriculture, and also by restoring farmland to natural habitat. We are also investigating many of the conservation opportunities opened up via its estimates of the impact on extinctions of diverse actions that change land cover, from individual dietary choices through to global protected area development.   […457 words]

# 1st Jan 2023   iconprojects biodiversity conservation hpc