How Generative AI is Helping to Tackle Climate Change

In today’s rapidly changing world, the synergy between artificial intelligence (AI) and climate change has sparked widespread discussion and concern. As we confront the pressing need to tackle the climate crisis, it’s crucial to explore the dual role that AI plays in this critical arena. While AI, particularly in the form of large generative models, can contribute to environmental challenges due to its energy consumption, there’s a burgeoning acknowledgment of AI’s potential as a tool for combating climate change. When we talk about “large generative AI models,” we’re referring to sophisticated systems capable of generating diverse content like text, images, and music based on vast datasets and complex patterns learned during their training. These models, such as the renowned Generative Pre-trained Transformer (GPT) models, are adept at tasks like natural language processing, offering solutions across numerous industries. Despite the high energy costs associated with AI, from forecasting energy demand to optimizing renewable energy systems, AI holds promise for revolutionizing climate mitigation efforts. The following sections are examples of how AI can contribute to benefiting the climate crisis while also recognizing the challenges that exist from its significant demand on energy consumption.

Citations: Marr, 2024,  What is Generative AI , n.d. Masterson, 2024.

AI Revolutionizing Iceberg Monitoring: Enhancing Understanding of Climate Change’s Impact

Iceberg monitoring is crucial for many reasons, it helps us understand climate change, keeps ships safe, and allows researchers to study polar environments. Icebergs, which are huge chunks of ice that break off from glaciers or ice shelves, can cause big changes in ocean ecosystems, affect sea levels, and even influence weather. They can also be dangerous for ships if they move into busy shipping routes. By keeping an eye on icebergs, we can avoid accidents, learn more about how icebergs interact with the ocean, and make better predictions about future climate changes. Using tools like AI, scientists can track icebergs more accurately and gather the information needed to make our planet safer and more sustainable, offering profound insights into the impacts of climate change.

Scientists at the University of Leeds in the United Kingdom have spearheaded advancements in AI technology tailored for rapidly mapping extensive Antarctic icebergs through satellite imagery. This innovative AI system facilitates a pace of measurement approximately 10,000 times faster than conventional manual observation methods, representing a monumental leap in efficiency and accuracy.

But the application of AI in iceberg monitoring extends beyond data collection; it also revolutionizes our understanding of these icy giants’ behavior and interactions with the environment. By analyzing historical satellite data alongside real-time observations, AI algorithms can predict iceberg trajectories, anticipate potential collisions with shipping lanes, and assess the risk of iceberg calving events. This predictive capability is invaluable for maritime safety, climate modeling, and ecosystem management in polar regions.

Furthermore, AI-powered iceberg monitoring enables researchers to delve deeper into the physics of ice-ocean interactions and the dynamics of ice sheet stability. Through advanced computational modeling and machine learning algorithms, scientists can simulate the complex processes governing iceberg formation, movement, and melting. These simulations not only improve our understanding of current climate trends but also enhance predictive models for future sea level rise and ocean circulation patterns.

In parallel, researchers at the British Antarctic Survey (BAS) have pioneered a groundbreaking approach to track icebergs in the Southern Ocean, leveraging AI for comprehensive monitoring. Icebergs exert a far-reaching influence on ocean dynamics, impacting everything from freshwater release to sea ice dynamics. Accurate detection and tracking are paramount, particularly given the navigational hazards they pose. The BAS’s AI tool, capable of identifying icebergs even in regions with extensive sea ice cover, represents a significant stride forward in understanding the lifecycle of icebergs across Antarctica. By monitoring these icy behemoths from their inception through to their eventual dissolution, scientists glean invaluable insights into Southern Ocean iceberg dynamics, thereby advancing our comprehension of these critical environmental processes.

Therefore, the integration of AI into iceberg monitoring not only advances scientific knowledge but also contributes to climate change mitigation efforts by providing crucial insights into the complex interactions between icebergs and the changing environment.

Citations: AI Tracking Icebergs, 2023, AI Maps Icebergs 10,000 Times Faster than Humans, n.d., Iceberg Detection Tracking and Management , n.d.

Harnessing AI for Sustainable Industrial Decarbonization

Artificial intelligence is becoming a powerful tool to help industries cut their carbon emissions. Companies in sectors like metal and mining, oil, and gas are turning to AI to streamline their operations and lower emissions.

A good example is, a California-based company. They’ve created a high-tech platform to track emissions. By combining satellite imagery with data from machines and processes, allows companies to monitor and analyze their emissions in real time. Using advanced AI, these companies can pinpoint where they’re wasting energy and figure out how to cut emissions by 20-30%.

Industries account for around 30% of global greenhouse gas emissions, making decarbonization a major priority. While consumer AI applications often get the spotlight, AI’s real power is in optimizing industrial processes. Yokogawa, a leader in industrial automation, is another key player. They focus on “green AI,” which aims to save energy during learning and execution phases. Yokogawa’s innovative algorithms, like Factorial Kernel Dynamic Policy Programming (FKDPP), have helped them reduce emissions while boosting performance.

AI also has huge potential to decarbonize the real estate sector, which has faced challenges with building energy efficiency. Traditionally, real estate companies had to conduct lengthy and expensive building audits. But now, with AI, they can use satellite data, geospatial analytics, and building characteristics to quickly analyze a building’s energy use without physical audits. Machine learning and physics-based modeling help identify ways to cut emissions, like upgrading heating and cooling systems or adding solar panels and better insulation.

Beyond environmental benefits, AI-driven decarbonization offers economic advantages. AI can create cost-effective plans for real estate portfolios, considering building specifics, regulations, and lease structures. This approach is much faster than traditional methods and can help real estate companies reach net-zero emissions while saving money.

Integrating these insights into business decisions can also lead to smarter investments in energy-efficient equipment and better use of government incentives. AI is paving the way for industries to cut emissions efficiently and profitably, making a real difference in the fight against climate change.

Citations: Marr, 2024; Future of Sustainability: the Role of AI in Decarbonization Strategies, 2023; How Groundbreaking AI Can Decarbonize Industry, n.d

Optimizing Waste Recycling with AI

The battle against climate change receives a significant boost from innovative AI systems designed to streamline waste management processes. According to the United States Environmental Protection Agency (EPA), waste accounts for a considerable portion of global greenhouse gas emissions, with methane production being a major concern. In response to this challenge, Greyparrot, a London-based software startup, has developed an AI solution aimed at optimizing waste processing and recycling operations.

By analyzing data from waste facilities, Greyparrot’s system identifies opportunities to recover and recycle more waste material. In 2022 alone, the company tracked an astonishing 32 billion waste items across 67 categories, highlighting the vast potential for improving waste management practices.

In the United States, waste management is a pressing issue, prompting innovative initiatives to address the problem. Led by Lokendra Pal, a professor at North Carolina State University, a collaborative effort involving the National Renewable Energy Laboratory, IBM, and the Town of Cary, North Carolina, is underway to revolutionize waste management practices. At the heart of this initiative is the development of a “smart waste management system” tailored to identify and characterize organic materials in non-recyclable waste. By integrating smart sensors, visual cameras, and hyperspectral cameras with automated sorting technology, the system aims to enhance the sorting process and improve waste characterization.

Furthermore, AI-powered waste management systems offer scalability and adaptability to evolving waste streams and recycling technologies. Through continuous machine learning and data analysis, these systems can identify emerging trends in waste composition and recycling methods, enabling more agile and responsive waste management strategies.

AI-driven initiatives in waste management enable real-time monitoring and optimization of recycling processes. By analyzing vast amounts of data on material composition, recycling rates, and equipment performance, AI algorithms can identify bottlenecks and inefficiencies in recycling operations. This information empowers waste management facilities to implement targeted interventions, such as equipment upgrades or process adjustments, to improve recycling efficiency and reduce waste.

Citations: AI Robots Better at Sorting Recycling, 2023,  AI and Waste Management, 2023, GreyParrot AI, n.d., Importance Methane, n.d.

Harnessing AI to Map Deforestation: Advancing Environmental Conservation Efforts

In the ongoing battle against deforestation, AI is emerging as a potential game-changer. This technology makes it possible to take a proactive approach against illegal logging. In the past, monitoring large forest areas like the Amazon involved manual surveys and aerial flyovers, but AI is changing that. Now, authorities can predict and prevent deforestation with much greater efficiency.

AI’s integration into deforestation monitoring marks a significant leap forward in environmental protection. Continued research and development are crucial to making AI even more effective, with better algorithms and more advanced data collection methods at the core.

AI-powered deforestation tracking also fosters cooperation between governments, conservation groups, and local communities. By offering clear and accessible data on deforestation trends, these AI-driven projects empower people to push for policy changes, carry out conservation plans, and use land sustainably.

AI is also useful in making supply chains in industries like agriculture and timber more transparent and accountable. Using satellite imagery and machine learning, AI can trace products back to their source, pinpointing areas at risk of deforestation and helping companies adopt sustainable sourcing practices.

Moreover, AI-based deforestation monitoring doesn’t just track forest loss; it examines how deforestation affects biodiversity, ecosystems, and indigenous peoples. AI can spot biodiversity hotspots, track habitat fragmentation, and study the social and environmental impacts of deforestation by analyzing satellite and ground-level data.

Additionally, AI-driven projects incorporate socio-economic data, like land ownership rights and patterns of livelihood, to develop comprehensive forest conservation strategies. By identifying the root causes of deforestation, policymakers can implement targeted solutions that promote sustainable development and social fairness.

Overall, AI’s role in deforestation monitoring and prevention provides a multi-pronged approach to protecting the environment. By harnessing technology, stakeholders can collaborate to safeguard crucial forest ecosystems and reduce the effects of deforestation globally.

Citations: Advanced Remote Sensing: Can AI Turn the Tide on Deforestation, 2024, How Can AI Help Curb Deforestation in the Amazon , 2020, Could AI Stop Deforestation Before It Starts , 2023

AI and Energy Consumption: Balancing Innovation with Environmental Impact

Beyond its many benefits to climate, the energy consumption of AI is a growing concern as the technology becomes more pervasive and cannot be overlooked. Data centers, which power AI systems, are major consumers of energy, primarily sourced from fossil fuels. These data centers contribute significantly to global greenhouse gas emissions, with estimates ranging from 2.5 to 3.7 percent of total emissions, astonishingly surpassing even those of the aviation industry.

However, the conversation about AI and energy consumption is not solely about its environmental impact; it’s also about innovation and sustainability. Efforts are underway to mitigate the environmental impact of AI while maximizing its benefits. One approach involves promoting transparency in energy usage and carbon emissions across AI systems. Standardized metrics and tracking tools enable developers and companies to measure and compare the environmental footprint of their AI models, fostering accountability and driving efficiency improvements.

Furthermore, transitioning to renewable energy sources for data centers is a key strategy to reduce carbon emissions. Major cloud providers have committed to powering their operations with 100 percent renewable energy by 2030. This shift not only reduces the carbon footprint of AI but also accelerates the transition to a clean energy future. By investing in renewable energy infrastructure and partnering with renewable energy providers, the AI industry can play a significant role in driving the global energy transition.

Moreover, improving the efficiency of hardware and algorithms is another avenue for greening AI. Specialized chips designed for AI tasks, such as tensor processing units, offer greater energy efficiency compared to traditional GPUs, Graphics Processing Unit. These are specialized electronic circuit designed to quickly process and render visual data, originally for graphics and gaming, but now widely used in artificial intelligence and high-performance computing due to its parallel processing capabilities.  Optimizing algorithms and model architectures can also significantly reduce energy consumption without compromising performance. For example, using smaller, task-specific models instead of large, generalized ones for certain applications can lead to substantial energy savings without sacrificing accuracy or functionality.

Additionally, innovative cooling methods, such as liquid immersion cooling and underwater data centers, offer more energy-efficient alternatives to traditional air conditioning systems. Liquid immersion cooling has shown promising results in reducing power consumption in server operations, minimizing the environmental impact of AI infrastructure.

Looking ahead, advancements in space-based data centers powered by solar energy present a futuristic solution to further minimize the environmental impact of AI infrastructure. By harnessing the virtually unlimited energy potential of the sun and leveraging space-based infrastructure, AI data centers can operate with minimal environmental footprint while supporting the continued growth and innovation of AI technologies.

Government support and regulatory frameworks are crucial for driving sustainable practices in the AI industry. Establishing transparency requirements for carbon emissions and providing incentives for renewable energy adoption can incentivize businesses to prioritize sustainability in their AI operations. With thoughtful leadership and concerted efforts from both the public and private sectors, AI can be harnessed as a force for positive environmental change rather than contributing to the growing carbon footprint.

The challenge of balancing AI innovation with environmental sustainability requires a multifaceted approach. By addressing energy consumption through transparency, renewable energy adoption, efficiency improvements, and innovative technologies, the AI industry can mitigate its environmental impact while driving progress towards a sustainable future.

Citation: Marr, 2024, The AI Boom Could Use a Shocking Amount of Electricity , 2023, Obscene Amount of Energy Demands on AI, 2024, What is a GPU, n.d. MIT Technology Review , n.d.


In conclusion, while artificial intelligence presents groundbreaking solutions to combat climate change, its widespread adoption raises concerns about energy consumption and environmental impact. However, strides are being made to address these challenges through transparency initiatives, renewable energy adoption, hardware and algorithm optimizations, and innovative cooling methods. By prioritizing sustainability and leveraging government support, the AI industry can minimize its environmental footprint while continuing to drive innovation. Ultimately, a balanced approach that considers both technological advancement and environmental responsibility is essential to ensure that AI remains a transformative force for positive change in the fight against climate change.

By Jarett Emert