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How we\u2019re applying the latest AI developments to help fight climate change and build a more sustainable, low-carbon world<\/b><\/p>\n
AI is a powerful technology that will transform our future, so how can we best apply it to help combat climate change and find sustainable solutions?<\/p>\n
Our climate & sustainability lead, Sims Witherspoon, who recently spoke about how AI can accelerate our transition to renewables at TED Countdown<\/a>, explains, \u201cClimate change is a multifaceted problem with no single solution. We need to move beyond discussing what<\/i> we can do and start focusing on how<\/i> we can do it.\u201d<\/p>\n The effects of climate change on Earth\u2019s ecosystems are incredibly complex, and as part of our effort to use AI for solving some of the world\u2019s most challenging problems, here are some of the ways we\u2019re working to advance our understanding, optimise existing systems, and accelerate breakthrough science of climate and its effects.<\/p>\n Better understanding the core problems and their effects is a critical first step to tackling climate change. Working together with the UK Met Office, we developed a precipitation nowcasting model<\/a> to better understand changing weather. This nowcasting model is more accurate than the existing state of the art, and much preferred by the Met\u2019s expert meteorologists. Our climate and weather research spans short-range (under two hours) to medium-range (ten days) forecasting, which can hugely impact how we optimise renewable energy systems that are based on natural resources.<\/p>\n From modelling the behaviour of animal species<\/a> across the Serengeti to supporting machine learning projects that advance conservation projects<\/a> in Africa, we\u2019ve been helping scientists track and better understand the effects of climate change on ecosystems and biodiversity. Going forward, our team is also building upon AI systems used to identify bird song<\/a> in Australia, helping advance tools that monitor changing wildlife at scale.<\/p>\n Moreover, we\u2019re partnering with non-profit Climate Change AI<\/a> to close important gaps in climate-related data. Currently, this partnership focuses on building a comprehensive wishlist of datasets whose availability would advance AI solutions for climate change. We\u2019ll make this wishlist available to the wider public when it\u2019s complete.<\/p>\n While we transition to more sustainable infrastructure, we need to optimise the systems the world depends on today. For example, today\u2019s computing infrastructure, including AI itself, is energy-intensive. To help solve some of these issues, we\u2019ve been developing AI that can enhance existing systems, including optimising industrial cooling<\/a> and more efficient computer systems<\/a>.<\/p>\n Given our energy grids are not yet running on clean energy, it’s important we use our resources as efficiently as possible while we work on the transition to renewables. Accelerating the global transition to renewable energy sources can also greatly reduce carbon emissions.<\/p>\n In 2019, our climate & sustainability team collaborated with domain experts at a Google-owned wind farm to increase the value of wind energy<\/a> \u2013 ultimately, aiming to support growth across the broader industry. By developing a custom AI tool to better predict wind power output and another model to recommend commitments to supply this anticipated energy to the electricity grid, this tool greatly boosted the value of the wind energy. Cloud is now developing a software product using this model, which is being piloted by French power company ENGIE.<\/p>\n<\/div>\n Beyond optimising our existing infrastructure, we need scientific breakthroughs to help us build a sustainable energy future. One particular area that holds great promise is nuclear fusion, an incredibly powerful technology with the potential to deliver limitless carbon-free energy. Fusion reactors are powered by a pressurised plasma of ionised hydrogen that is hotter than the core of the sun. The intense heat means this plasma can only be held by a rapidly adjusted magnetic field \u2013 a notoriously difficult engineering challenge.<\/p>\n Mastering the magnetic control of plasma is a fundamental part of solving the challenge to controlling the nuclear fusion process and harnessing the abundant green energy it could provide. So we collaborated with the Swiss Plasma Center at EPFL to develop an AI system that learned how to successfully predict and control plasma in a tokamak-style nuclear fusion reactor<\/a>. And not merely to contain the plasma, but to ‘sculpt’ it into a range of experimental shapes.<\/p>\n To build effective AI solutions, researchers need a solid understanding of the challenges faced by people around the world. This includes getting access to data that\u2019s representative of the problems, partnering with domain experts to make sure we\u2019re building reliable systems, following policy guidance on regulatory structures, and finding real-world opportunities for testing these systems. For these reasons, collaboration with affected communities, scientists, industry professionals, regulators, and governments is central to our sustainability efforts.<\/p>\n If you are an industry domain expert or climate scientist with a specific challenge to solve that could help the world understand, mitigate, or adapt to climate change, our climate & sustainability team would love to hear from you.<\/p>\n Get in touch: contact-gdm-sustainability@google.com<\/a><\/p>\n<\/div>\nUnderstand weather, climate, and their effects<\/h2>\n
Optimise existing systems<\/h2>\n
Accelerate breakthrough science<\/h2>\n
Bring us your challenges<\/h2>\n