Some Thoughts About Unlocking the Power of AI for Environmental Geoscientists

DEG President Bert Vogler III shares how he feels science and AI intersect.

The intersection of artificial intelligence and science has in recent years sparked a wave of innovation that is fundamentally transforming how scientists understand and address scientific challenges in general. I was asked recently whether AI really means anything for an environmental geoscientist? So, I decided to investigate this.

As we environmental geoscientists know, we work routinely to decipher complex Earth systems. There are indeed AI-driven tools and techniques available to enhance an environmental geoscientist’s work involving monitoring, analysis, prediction and mitigation efforts, among other tasks. From monitoring climate change to assessing natural hazards, AI is proving to be an invaluable ally to environmental geoscientists in our quest for a sustainable future. Here are some lessons I’ve learned about how AI might aid the environmental geoscientist in four specific areas:

Data Analysis and Interpretation

One significant contribution of AI to environmental geoscience lies in AI’s ability to analyze vast amounts of data with unprecedented speed and accuracy. I can attest firsthand that an environmental geoscientist deals with a plethora of data coming from a range of sources, including satellite imagery, geological surveys, weather data, analytical laboratory data and more. Natural Language Processing algorithms can be applied to help environmental geoscientists extract valuable information from unstructured textual data such as research papers, reports and field notes. NLP techniques can also be used to automate literature reviews, summarize scientific findings and facilitate knowledge discovery. I’ve been told that AI algorithms are especially great at recognizing patterns and anomalies within datasets. This application enables the environmental geoscientist to extract meaningful insights that might otherwise remain concealed. As examples, machine-learning algorithms are capable of processing satellite imagery to identify changes in land cover, track deforestation rates, monitor urban expansion and assess the impact of human activities on ecosystems. Additionally, AI can be used to assist in monitoring and ensuring compliance with environmental regulations by analyzing data and identifying areas of concern. By automating the analysis process, AI empowers environmental geoscientists to focus our efforts on interpreting results and making informed decisions based on actionable intelligence.

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The intersection of artificial intelligence and science has in recent years sparked a wave of innovation that is fundamentally transforming how scientists understand and address scientific challenges in general. I was asked recently whether AI really means anything for an environmental geoscientist? So, I decided to investigate this.

As we environmental geoscientists know, we work routinely to decipher complex Earth systems. There are indeed AI-driven tools and techniques available to enhance an environmental geoscientist’s work involving monitoring, analysis, prediction and mitigation efforts, among other tasks. From monitoring climate change to assessing natural hazards, AI is proving to be an invaluable ally to environmental geoscientists in our quest for a sustainable future. Here are some lessons I’ve learned about how AI might aid the environmental geoscientist in four specific areas:

Data Analysis and Interpretation

One significant contribution of AI to environmental geoscience lies in AI’s ability to analyze vast amounts of data with unprecedented speed and accuracy. I can attest firsthand that an environmental geoscientist deals with a plethora of data coming from a range of sources, including satellite imagery, geological surveys, weather data, analytical laboratory data and more. Natural Language Processing algorithms can be applied to help environmental geoscientists extract valuable information from unstructured textual data such as research papers, reports and field notes. NLP techniques can also be used to automate literature reviews, summarize scientific findings and facilitate knowledge discovery. I’ve been told that AI algorithms are especially great at recognizing patterns and anomalies within datasets. This application enables the environmental geoscientist to extract meaningful insights that might otherwise remain concealed. As examples, machine-learning algorithms are capable of processing satellite imagery to identify changes in land cover, track deforestation rates, monitor urban expansion and assess the impact of human activities on ecosystems. Additionally, AI can be used to assist in monitoring and ensuring compliance with environmental regulations by analyzing data and identifying areas of concern. By automating the analysis process, AI empowers environmental geoscientists to focus our efforts on interpreting results and making informed decisions based on actionable intelligence.

Predictive Modeling and Risk Assessment

AI-driven predictive modeling is revolutionizing how environmental geoscientists assess and mitigate various natural hazards, including floods, landslides, earthquakes and wildfires. By leveraging historical data, weather forecasts, terrain characteristics and other relevant factors, AI algorithms generate reasonable and accurate predictions of where and when such events are likely to occur. Such predictive models enable early warning systems to alert communities to impending hazards, providing critical time for evacuations and emergency response preparation and implementation. By simulating different scenarios and assessing the potential impact of human interventions, AI can assist environmental geoscientists with helping policy makers and urban planners develop more resilient infrastructure and land-use policies.

Climate Change Monitoring and Adaptation

I think more people today realize that climate change poses one of the most pressing challenges of our time, as it impacts ecosystems, weather patterns, sea levels and biodiversity worldwide. Environmental geoscientists can rely on AI-driven climate models to simulate the complex interactions between the atmosphere, oceans, land and ice, and of human influences (i.e., pollution) upon them, thereby gaining insight into future climate trends and potential impacts on our planet. AI algorithms can be used to analyze historical climate data to identify trends, detect anomalies and forecast future climate scenarios with greater precision than traditional methods. Gaining a better understanding of how climate change affects different regions and ecosystems enables environmental geoscientists to help policymakers develop targeted adaptation strategies to mitigate adverse effects and promote sustainability.

Sustainable Resource Management

Efficient management of our natural resources – including water, minerals and energy – is essential to ensure the long-term health and prosperity of human society and the environment. AI technology plays a crucial role these days in optimizing resource extraction processes, minimizing waste and promoting sustainable practices across various industries. As an example, AI-powered algorithms can be used to analyze geological data to identify promising sites for renewable energy developments such as wind farms and solar installations. Optimizing the placement and operation of such renewable energy infrastructure assists environmental geoscientists in accelerating the transition to a low-carbon economy while minimizing environmental impacts.

A Paradigm Shift

The integration of AI into environmental geoscience offers a paradigm shift in our ability to understand, monitor and manage the Earth’s natural systems. Harnessing the power of AI-driven analytics, predictive modeling and data-driven decision-making offers opportunity for the environmental geoscientist to be better equipped to address the complex challenges we and our planet face. As scientists continue to innovate and refine AI technologies, I hope the potential for collaboration between human expertise and AI will equate to a brighter, more sustainable future for generations to come. If you’re presently utilizing AI in an environmental geoscience application, I’d appreciate learning how.

In closing, I hope many of you will be attending the Carbon Capture, Utilization and Storage 2024 conference in Houston on March 11-13, hosted by AAPG along with the Society of Petroleum Engineers and the Society of Exploration Geophysicists. I again thank our membership in the Division of Environmental Geosciences for permitting me to serve as your 2023-24 DEG president, and I acknowledge the service of my current fellow DEG officers: Mattias Imhof, president-elect; Sherilyn Williams-Stroud, vice president; Disnahir Pinto, secretary-treasurer and Autumn Haagsma, editor. Our DEG will soon need to identify candidates for the upcoming 2024-25 term, so if you’re a DEG member who has interest in serving as an officer of DEG, please let us know.

I can be reached at
[email protected].

As scientists continue to innovate and refine AI technologies, I hope the potential for collaboration between human expertise and AI will equate to a brighter, more sustainable future for generations to come.

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