Dire warning about AI water usage

Applications of AI


Analysis: One of the arguments often used to allay concerns about the growing demand for data center energy and resources is that less will be needed in the future as artificial intelligence (AI) models improve and become more efficient. But this seeming logic is a trap, according to a new United Nations report quantifying the environmental costs of AI.

The Conversation by Amanda Turnbull-McRae

The report estimates that by 2030, energy use from AI could double to consume 3% of the world’s electricity, produce emissions equivalent to the UK, and run out of cooling water that exceeds the annual drinking water needs of the world’s population.

Another way to look at it: Is AI water panic real?

It also predicts that the use of AI will follow an economic principle known as the Jevons paradox. This principle predicts that improvements in the efficiency of a resource due to improvements in technology will lead to an increase in the total consumption of that resource, rather than a decrease.

This paradox is named after economist William Stanley Jevons, who observed this effect of coal use in 19th century England. Increased efficiency did not reduce overall consumption. Rather, lower costs have led to expanded use and increased overall demand.

As AI models become cheaper and more attractive, the report predicts that this will drive new and increased usage, eroding and in some cases erasing savings from efficiency advances.

To avoid falling into this trap, we offer a roadmap for the responsible use of AI, based on the principles of transparency, efficiency by design, fairness and justice, lifecycle responsibility, global cooperation, and sustainable use.

scale of the problem

COL4 AI-enabled data center located on a 7-acre campus in Columbus, Ohio. COL4 is 256,000 square feet and provides 50 MW of power across three data halls.

Last year, data centers already consumed as much electricity as Saudi Arabia, the world’s 11th largest electricity consumer.

If electricity use were to double as predicted by 2030, the associated carbon emissions would require growing 6.7 billion trees over 10 years to offset this demand.

Data centers would also require 9.3 trillion liters of water and nearly 10 times the land area of ​​Mexico City.

Beyond resource use, the report also highlights the structural inequalities at the heart of the AI ​​boom, with only 32 countries hosting AI-specific cloud infrastructure, with 90% of that capacity in the US and China.

The report warns of a growing digital divide between countries that build and control AI systems and those that use them, with the latter often bearing a disproportionate environmental burden caused by mineral extraction and e-waste.

Responsible use of AI

There are two main factors shaping the operational footprint of AI. It’s all about how much AI you use and how you use it.

This includes all tasks performed by AI models, from text and code generation to images and videos. Each of these tasks requires different levels of computational complexity.

Model selection is also important, as each AI system performs these tasks at different energy and environmental costs.

The report argues that responsible AI requires full value chain governance, from mineral sourcing to recycling and safe disposal.

This requires both the ability and environmental stewardship to think about both what AI can do for us and the protection of the natural environment.

This means making environmental information disclosure, both at the model and task level, a routine part of AI development and incorporating projected AI demands into climate and energy planning.

Responsible AI is critical as countries promote and deploy AI across governments and the public sector.

In Aotearoa New Zealand, the government has launched a National AI Strategy and a Public Service AI Framework.

The framework is based on the OECD’s values-based AI principles, including inclusive and sustainable development, but there are no environmental disclosure obligations and no regulatory authority to aggregate energy use or emissions.

In Australia, improving public services is similarly part of the national AI plan. For example, the Australian National Film and Sound Archive created Bowerbird, a machine learning-enabled large-scale audio and video transcription engine for documenting materials. The Department of Veterans Affairs has developed a proof-of-concept tool to see if AI can help speed claims processing.

Both countries have deliberately adopted a “light touch” and principles-based regulatory approach to AI. However, this approach risks overlooking the increasing environmental costs of AI that cannot be resolved by improved AI.

The natural environment is the foundation of our economy, culture, and welfare. It should be at the center of our thinking. It’s time to rethink your AI innovation strategy and shift your focus to a sustainable technology future.

Author: Amanda Turnbull-McRae is a senior lecturer in law at the University of Waikato.

This article was republished from conversation Under Creative Commons License.





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