Back
About RSIS
Introduction
Building the Foundations
Welcome Message
Board of Governors
Staff Profiles
Executive Deputy Chairman’s Office
Dean’s Office
Management
Distinguished Fellows
Faculty and Research
Associate Research Fellows, Senior Analysts and Research Analysts
Visiting Fellows
Adjunct Fellows
Administrative Staff
Honours and Awards for RSIS Staff and Students
RSIS Endowment Fund
Endowed Professorships
Career Opportunities
Getting to RSIS
Research
Research Centres
Centre for Multilateralism Studies (CMS)
Centre for Non-Traditional Security Studies (NTS Centre)
Centre of Excellence for National Security
Institute of Defence and Strategic Studies (IDSS)
International Centre for Political Violence and Terrorism Research (ICPVTR)
Research Programmes
National Security Studies Programme (NSSP)
Social Cohesion Research Programme (SCRP)
Studies in Inter-Religious Relations in Plural Societies (SRP) Programme
Other Research
Future Issues and Technology Cluster
Research@RSIS
Science and Technology Studies Programme (STSP) (2017-2020)
Graduate Education
Graduate Programmes Office
Exchange Partners and Programmes
How to Apply
Financial Assistance
Meet the Admissions Team: Information Sessions and other events
RSIS Alumni
Outreach
Global Networks
About Global Networks
RSIS Alumni
Executive Education
About Executive Education
SRP Executive Programme
Terrorism Analyst Training Course (TATC)
International Programmes
About International Programmes
Asia-Pacific Programme for Senior Military Officers (APPSMO)
Asia-Pacific Programme for Senior National Security Officers (APPSNO)
International Conference on Cohesive Societies (ICCS)
International Strategy Forum-Asia (ISF-Asia)
Publications
RSIS Publications
Annual Reviews
Books
Bulletins and Newsletters
RSIS Commentary Series
Counter Terrorist Trends and Analyses
Commemorative / Event Reports
Future Issues
IDSS Papers
Interreligious Relations
Monographs
NTS Insight
Policy Reports
Working Papers
External Publications
Authored Books
Journal Articles
Edited Books
Chapters in Edited Books
Policy Reports
Working Papers
Op-Eds
Glossary of Abbreviations
Policy-relevant Articles Given RSIS Award
RSIS Publications for the Year
External Publications for the Year
Media
Cohesive Societies
Sustainable Security
Other Resource Pages
News Releases
Speeches
Video/Audio Channel
External Podcasts
Events
Contact Us
S. Rajaratnam School of International Studies Think Tank and Graduate School Ponder The Improbable Since 1966
Nanyang Technological University Nanyang Technological University
  • About RSIS
      IntroductionBuilding the FoundationsWelcome MessageBoard of GovernorsHonours and Awards for RSIS Staff and StudentsRSIS Endowment FundEndowed ProfessorshipsCareer OpportunitiesGetting to RSIS
      Staff ProfilesExecutive Deputy Chairman’s OfficeDean’s OfficeManagementDistinguished FellowsFaculty and ResearchAssociate Research Fellows, Senior Analysts and Research AnalystsVisiting FellowsAdjunct FellowsAdministrative Staff
  • Research
      Research CentresCentre for Multilateralism Studies (CMS)Centre for Non-Traditional Security Studies (NTS Centre)Centre of Excellence for National SecurityInstitute of Defence and Strategic Studies (IDSS)International Centre for Political Violence and Terrorism Research (ICPVTR)
      Research ProgrammesNational Security Studies Programme (NSSP)Social Cohesion Research Programme (SCRP)Studies in Inter-Religious Relations in Plural Societies (SRP) Programme
      Other ResearchFuture Issues and Technology ClusterResearch@RSISScience and Technology Studies Programme (STSP) (2017-2020)
  • Graduate Education
      Graduate Programmes OfficeExchange Partners and ProgrammesHow to ApplyFinancial AssistanceMeet the Admissions Team: Information Sessions and other eventsRSIS Alumni
  • Outreach
      Global NetworksAbout Global NetworksRSIS Alumni
      Executive EducationAbout Executive EducationSRP Executive ProgrammeTerrorism Analyst Training Course (TATC)
      International ProgrammesAbout International ProgrammesAsia-Pacific Programme for Senior Military Officers (APPSMO)Asia-Pacific Programme for Senior National Security Officers (APPSNO)International Conference on Cohesive Societies (ICCS)International Strategy Forum-Asia (ISF-Asia)
  • Publications
      RSIS PublicationsAnnual ReviewsBooksBulletins and NewslettersRSIS Commentary SeriesCounter Terrorist Trends and AnalysesCommemorative / Event ReportsFuture IssuesIDSS PapersInterreligious RelationsMonographsNTS InsightPolicy ReportsWorking Papers
      External PublicationsAuthored BooksJournal ArticlesEdited BooksChapters in Edited BooksPolicy ReportsWorking PapersOp-Eds
      Glossary of AbbreviationsPolicy-relevant Articles Given RSIS AwardRSIS Publications for the YearExternal Publications for the Year
  • Media
      Cohesive SocietiesSustainable SecurityOther Resource PagesNews ReleasesSpeechesVideo/Audio ChannelExternal Podcasts
  • Events
  • Contact Us
    • Connect with Us

      rsis.ntu
      rsis_ntu
      rsisntu
      rsisvideocast
      school/rsis-ntu
      rsis.sg
      rsissg
      RSIS
      RSS
      Subscribe to RSIS Publications
      Subscribe to RSIS Events

      Getting to RSIS

      Nanyang Technological University
      Block S4, Level B3,
      50 Nanyang Avenue,
      Singapore 639798

      Click here for direction to RSIS

      Get in Touch

    Connect
    Search
    • RSIS
    • Publication
    • RSIS Publications
    • IP22039 | The Environmental Impact of Military AI
    • Annual Reviews
    • Books
    • Bulletins and Newsletters
    • RSIS Commentary Series
    • Counter Terrorist Trends and Analyses
    • Commemorative / Event Reports
    • Future Issues
    • IDSS Papers
    • Interreligious Relations
    • Monographs
    • NTS Insight
    • Policy Reports
    • Working Papers

    IP22039 | The Environmental Impact of Military AI
    Wichuta Teeratanabodee

    15 July 2022

    download pdf

    While militaries increasingly rely on artificial intelligence (AI) applications, including in the areas of enhancing preparedness and mitigation for climate-related disasters, AI development can counterproductively be energy intensive and environmentally damaging. The environmental consideration must be included in military AI governance, contends WICHUTA TEERATANABODEE.

    COMMENTARY

    From the North Atlantic Treaty Organization’s Green Defence Framework adopted in 2014 to the United States Army’s 2022 Climate Strategy, it is becoming more evident that some militaries are attempting to reduce the impact of their operations on the environment. A lot of attention has gone into the infrastructure (installations that support military forces, such as bases) and operations of conventional forces due to the carbon emissions from their massive fuel consumption. However, little has been said about the climate impact of the emerging technologies that these forces are increasingly employing.

     

    IP22039 PowerFOB NATO
    Used by the North Atlantic alliance, this intelligent system which stores surplus energy and distributes it has been known to cut fuel consumption by an average of 30 per cent. Source: North Atlantic Treaty Organization.

     

    Artificial intelligence — one of the key emerging kinds of technology in defence — has been used to combat climate crises, including by improving preparedness and disaster risk mitigation. With the capability to store, process, and analyse large amounts of data, AI and machine learning systems can help monitor and forecast extreme natural disasters, subsequently reducing the risks of those occurrences.

    However, AI technologies may at the same time have adverse environmental impact as most processes involved in training and developing the technology, such as data storage and processing, themselves consume enormous amounts of energy. Consequently, militaries must address the environmental aspects in their development of AI governance frameworks.

    How Militaries Can Help Fight Climate Change

    Relying on machine-based learning systems and patterns of data to make predictions, recommendations, or decisions, AI can assist in preparing for and responding to climate-related disasters. AI’s ability to process vast amounts of data, including pictures, graphs, and maps, has opened the door to more possibilities for monitoring natural terrain across its spatial and temporal differentials, as well as in spotting unusual changes in those areas.

    Furthermore, many military technologies with dual-use capabilities can become tools to help fight climate change. Drones or unmanned aerial vehicles, for instance, are commonly used to collect data to help scientists understand basic atmospheric processes and eventually apply them to climate models. The gathered data could lead to more accurate weather pattern forecast systems, which would enhance climate-related disaster mitigation.

    Such use of AI technologies can help improve alert systems so that responsible stakeholders and first responders — who, in many cases, are military personnel — might act promptly in the event of natural disaster, while civilians are given early warning. In the United States, for example, the Department of Defense (DoD) carried out a joint research project with the Joint Artificial Intelligence Center and the California National Guard to develop automated fire tracking support using machine learning as a tool to delineate a wildfire’s perimeter.

    The project should help increase accuracy in locating a fire, and provide near-real time updates so that responders and local communities might be better informed. Consequently, in the event of wildfire, responsible units would be able to detect the sources of the fire and respond more quickly to reduce the physical and environmental damage. A similar approach can be applied to cope with other climate-related disasters, including floods and storms.

    AI’s Environmental Challenges

    While military AI could enhance climate disaster preparedness and response, it is equally, if not more, essential to assess the impact of such technologies on the environment. This point is particularly important as the integration of AI in the military is steadily increasing, adding more environmental concerns to the institution that is already one of the primary sources of global carbon emission.

    Every process involved in AI and machine learning systems can be energy intensive and therefore environmentally damaging. Before the systems are deployed, the algorithms often require millions of rounds of practice to be able to identify a particular object accurately. Such training comes at a high cost in terms of energy consumption, which does not even include the energy needed for data storage and processing.

    Virginia Dignum, a professor in social and ethical AI at Sweden’s Umeå University, has noted that some of the huge data farms which support the training and operating of AI systems, especially in European countries and Canada, could consume “as much energy as a small city”. As the use of AI for both military and civilian purposes increases, it is estimated that the amount of energy required for computing would take up to 8 per cent of the world’s total energy consumption by 2030.

    Furthermore, manufacturing the devices and other electronics necessary to develop AI technology requires the intensive use of raw materials, particularly nickel, cobalt, and graphite. The extraction and transportation of those materials would add to the technology’s environmental costs.

    Green Technologies and AI Governance

    Given the advantages of AI systems in helping to fight climate change, abandoning the technologies altogether for environmental reasons might not be the best solution. However, using them without proper regulation or accountability mechanisms would continue to compromise their effectiveness.

    Efforts have been made to address the environmental impact of military AI, yet they are too limited, compared to the urgency of the issue. The DoD, for example, released the Responsible AI Guidelines in Practice (RAI) in 2021 to provide guidance to the various collaborators who partner with it on AI projects. The RAI puts forward environmental impact as one of the questions for third-party developers’ consideration. Nevertheless, it confines environmental considerations to the planning phase, overlooking the development and deployment processes.

    Addressing the environmental challenges requires novel approaches to AI governance. If the objective of AI governance frameworks, in general, is to ensure that the application of AI is safe, ethical, and responsible, climate change — one of the world’s most pressing issues — must not be neglected. Consequently, more comprehensive and transparent military AI governance frameworks are necessary to help ensure that the benefits of AI would be greater than their potential environmental harm.

    In designing their AI governance frameworks, militaries should specifically identify and clarify all the processes involved in AI technology and machine-based learning systems, and then analyse the potential environmental impact of each — whether these involve energy consumption, raw material extraction, or any other means of leaving a carbon footprint. They should also consider the roles and responsibilities of different actors involved in those stages to minimise the gaps in climate responsibility between actors and across processes. Simultaneously, defence institutions should continue to improve AI systems’ capabilities to combat climate-related events more efficiently.

    Green Technologies in Defence

    Several militaries today aspire towards green defence, aiming to achieve smart energy and transition away from fossil fuels to more sustainable energy sources. These green defence initiatives will not only support the global effort to fight climate change, but can also yield strategic advantages on the battlefield by improving the forces’ mobility and endurance.

    Accounting for the environmental aspect in AI governance frameworks would contribute to achieving those green aspirations. Furthermore, as the military is increasingly becoming the first responder in climate-related disasters, ensuring that military training and operations ­­— including those involving AI systems — put less of a burden on the environment might be a good way to help solve climate change at its roots.

    About the Author

    Wichuta TEERATANABODEE is a Senior Analyst in the Military Transformations Programme of the Institute of Defence and Strategic Studies, RSIS. Her research focuses on norms and governance for military technology and security in the Indo-Pacific region.

    Categories: IDSS Papers / Energy Security / International Political Economy / Non-Traditional Security / Technology and Future Issues / Americas / Europe / Global
    comments powered by Disqus

    While militaries increasingly rely on artificial intelligence (AI) applications, including in the areas of enhancing preparedness and mitigation for climate-related disasters, AI development can counterproductively be energy intensive and environmentally damaging. The environmental consideration must be included in military AI governance, contends WICHUTA TEERATANABODEE.

    COMMENTARY

    From the North Atlantic Treaty Organization’s Green Defence Framework adopted in 2014 to the United States Army’s 2022 Climate Strategy, it is becoming more evident that some militaries are attempting to reduce the impact of their operations on the environment. A lot of attention has gone into the infrastructure (installations that support military forces, such as bases) and operations of conventional forces due to the carbon emissions from their massive fuel consumption. However, little has been said about the climate impact of the emerging technologies that these forces are increasingly employing.

     

    IP22039 PowerFOB NATO
    Used by the North Atlantic alliance, this intelligent system which stores surplus energy and distributes it has been known to cut fuel consumption by an average of 30 per cent. Source: North Atlantic Treaty Organization.

     

    Artificial intelligence — one of the key emerging kinds of technology in defence — has been used to combat climate crises, including by improving preparedness and disaster risk mitigation. With the capability to store, process, and analyse large amounts of data, AI and machine learning systems can help monitor and forecast extreme natural disasters, subsequently reducing the risks of those occurrences.

    However, AI technologies may at the same time have adverse environmental impact as most processes involved in training and developing the technology, such as data storage and processing, themselves consume enormous amounts of energy. Consequently, militaries must address the environmental aspects in their development of AI governance frameworks.

    How Militaries Can Help Fight Climate Change

    Relying on machine-based learning systems and patterns of data to make predictions, recommendations, or decisions, AI can assist in preparing for and responding to climate-related disasters. AI’s ability to process vast amounts of data, including pictures, graphs, and maps, has opened the door to more possibilities for monitoring natural terrain across its spatial and temporal differentials, as well as in spotting unusual changes in those areas.

    Furthermore, many military technologies with dual-use capabilities can become tools to help fight climate change. Drones or unmanned aerial vehicles, for instance, are commonly used to collect data to help scientists understand basic atmospheric processes and eventually apply them to climate models. The gathered data could lead to more accurate weather pattern forecast systems, which would enhance climate-related disaster mitigation.

    Such use of AI technologies can help improve alert systems so that responsible stakeholders and first responders — who, in many cases, are military personnel — might act promptly in the event of natural disaster, while civilians are given early warning. In the United States, for example, the Department of Defense (DoD) carried out a joint research project with the Joint Artificial Intelligence Center and the California National Guard to develop automated fire tracking support using machine learning as a tool to delineate a wildfire’s perimeter.

    The project should help increase accuracy in locating a fire, and provide near-real time updates so that responders and local communities might be better informed. Consequently, in the event of wildfire, responsible units would be able to detect the sources of the fire and respond more quickly to reduce the physical and environmental damage. A similar approach can be applied to cope with other climate-related disasters, including floods and storms.

    AI’s Environmental Challenges

    While military AI could enhance climate disaster preparedness and response, it is equally, if not more, essential to assess the impact of such technologies on the environment. This point is particularly important as the integration of AI in the military is steadily increasing, adding more environmental concerns to the institution that is already one of the primary sources of global carbon emission.

    Every process involved in AI and machine learning systems can be energy intensive and therefore environmentally damaging. Before the systems are deployed, the algorithms often require millions of rounds of practice to be able to identify a particular object accurately. Such training comes at a high cost in terms of energy consumption, which does not even include the energy needed for data storage and processing.

    Virginia Dignum, a professor in social and ethical AI at Sweden’s Umeå University, has noted that some of the huge data farms which support the training and operating of AI systems, especially in European countries and Canada, could consume “as much energy as a small city”. As the use of AI for both military and civilian purposes increases, it is estimated that the amount of energy required for computing would take up to 8 per cent of the world’s total energy consumption by 2030.

    Furthermore, manufacturing the devices and other electronics necessary to develop AI technology requires the intensive use of raw materials, particularly nickel, cobalt, and graphite. The extraction and transportation of those materials would add to the technology’s environmental costs.

    Green Technologies and AI Governance

    Given the advantages of AI systems in helping to fight climate change, abandoning the technologies altogether for environmental reasons might not be the best solution. However, using them without proper regulation or accountability mechanisms would continue to compromise their effectiveness.

    Efforts have been made to address the environmental impact of military AI, yet they are too limited, compared to the urgency of the issue. The DoD, for example, released the Responsible AI Guidelines in Practice (RAI) in 2021 to provide guidance to the various collaborators who partner with it on AI projects. The RAI puts forward environmental impact as one of the questions for third-party developers’ consideration. Nevertheless, it confines environmental considerations to the planning phase, overlooking the development and deployment processes.

    Addressing the environmental challenges requires novel approaches to AI governance. If the objective of AI governance frameworks, in general, is to ensure that the application of AI is safe, ethical, and responsible, climate change — one of the world’s most pressing issues — must not be neglected. Consequently, more comprehensive and transparent military AI governance frameworks are necessary to help ensure that the benefits of AI would be greater than their potential environmental harm.

    In designing their AI governance frameworks, militaries should specifically identify and clarify all the processes involved in AI technology and machine-based learning systems, and then analyse the potential environmental impact of each — whether these involve energy consumption, raw material extraction, or any other means of leaving a carbon footprint. They should also consider the roles and responsibilities of different actors involved in those stages to minimise the gaps in climate responsibility between actors and across processes. Simultaneously, defence institutions should continue to improve AI systems’ capabilities to combat climate-related events more efficiently.

    Green Technologies in Defence

    Several militaries today aspire towards green defence, aiming to achieve smart energy and transition away from fossil fuels to more sustainable energy sources. These green defence initiatives will not only support the global effort to fight climate change, but can also yield strategic advantages on the battlefield by improving the forces’ mobility and endurance.

    Accounting for the environmental aspect in AI governance frameworks would contribute to achieving those green aspirations. Furthermore, as the military is increasingly becoming the first responder in climate-related disasters, ensuring that military training and operations ­­— including those involving AI systems — put less of a burden on the environment might be a good way to help solve climate change at its roots.

    About the Author

    Wichuta TEERATANABODEE is a Senior Analyst in the Military Transformations Programme of the Institute of Defence and Strategic Studies, RSIS. Her research focuses on norms and governance for military technology and security in the Indo-Pacific region.

    Categories: IDSS Papers / Energy Security / International Political Economy / Non-Traditional Security / Technology and Future Issues

    Popular Links

    About RSISResearch ProgrammesGraduate EducationPublicationsEventsAdmissionsCareersVideo/Audio ChannelRSIS Intranet

    Connect with Us

    rsis.ntu
    rsis_ntu
    rsisntu
    rsisvideocast
    school/rsis-ntu
    rsis.sg
    rsissg
    RSIS
    RSS
    Subscribe to RSIS Publications
    Subscribe to RSIS Events

    Getting to RSIS

    Nanyang Technological University
    Block S4, Level B3,
    50 Nanyang Avenue,
    Singapore 639798

    Click here for direction to RSIS

    Get in Touch

      Copyright © S. Rajaratnam School of International Studies. All rights reserved.
      Privacy Statement / Terms of Use
      Help us improve

        Rate your experience with this website
        123456
        Not satisfiedVery satisfied
        What did you like?
        0/255 characters
        What can be improved?
        0/255 characters
        Your email
        Please enter a valid email.
        Thank you for your feedback.
        This site uses cookies to offer you a better browsing experience. By continuing, you are agreeing to the use of cookies on your device as described in our privacy policy. Learn more
        OK
        Latest Book
        more info