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Incorporating Indigenous Knowledge Systems into AI Governance: Enhancing Ethical Frameworks with Maori and Navajo Perspectives

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26 December 2024

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27 December 2024

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Abstract
This paper proposes a paradigm shift in AI governance by integrating Indigenous knowledge systems to foster inclusivity and cultural sensitivity. Traditional AI governance frameworks are primarily Western-centric, often overlooking the community-oriented values and ethical considerations essential to Indigenous cultures. This study highlights principles such as Kaitiakitanga from Māori culture, which emphasizes guardianship and environmental stewardship, and Hózhó from Navajo philosophy, which stresses harmony and balance. By engaging Indigenous leaders and knowledge holders throughout the AI lifecycle, this approach ensures technology aligns with community values, addressing critical issues like data sovereignty, ethical technology use, and cultural sensitivity. This paper underscores the necessity of relational accountability in AI governance, which includes prioritizing the health of ecosystems alongside community welfare. This model advocates for an AI framework that not only rectifies historical marginalization but also empowers Indigenous communities to shape the technologies affecting their lives. Furthermore, integrating Indigenous perspectives strengthens the ethical foundation of AI systems, advancing sustainability, social justice, and cultural responsiveness in technology applications. The proposed framework illustrates how Indigenous ethical concepts can transform AI governance by aligning technological progress with values of ecological stewardship and community welfare, creating an AI landscape that respects and reflects diverse cultural contexts. Ultimately, this research demonstrates that Indigenous knowledge systems can significantly enhance AI’s effectiveness and equity, paving the way for more sustainable and culturally attuned technological solutions.
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1. Introduction

The rapid advancement of artificial intelligence (AI) has ushered in a new era of technological possibilities, transforming industries and reshaping how we live and work (Li, 2020; Pal et al., 2023; Vinothkumar & Karunamurthy, 2023). However, this transformative power is profoundly responsible for ensuring AI is developed and deployed ethically, equitably, and sustainably (Putri & Tran, 2023). This necessitates robust AI governance frameworks that can address the complex ethical challenges posed by AI, from algorithmic bias and data privacy to the societal impact of automation and the existential risks of unchecked AI development (Renda, 2019). While numerous efforts are underway to establish such frameworks, they often reflect a predominantly Western-centric perspective, overlooking the valuable insights and ethical traditions of Indigenous knowledge systems (Ayana et al., 2024; Grancia, 2024; Nemorin, 2024; Varanasi, 2021).
Indigenous communities worldwide have long cultivated sophisticated systems of knowledge that emphasize interconnectedness, reciprocity, and long-term stewardship (Datta, 2024; Jamieson, 2010; Mazzocchi, 2020). These perspectives offer crucial guidance for navigating the ethical complexities of AI in a manner that prioritizes community well-being, environmental sustainability, and intergenerational equity (Carpena-Méndez et al., 2022). By integrating Indigenous knowledge into AI governance, we can move beyond narrow Western-centric ethical paradigms and develop more holistic and inclusive frameworks that respect diverse cultural values and promote a more just and sustainable technological future (Curtis et al., 2024; Mehta et al., 2024; Mokoena, 2023; Moleka, 2024).
This paper focuses specifically on two distinct Indigenous knowledge systems: the Māori concept of Kaitiakitanga and the Navajo principle of Hózhó. Kaitiakitanga embodies a deep sense of guardianship and responsibility for the well-being of the natural world and future generations (Paul-Burke & Rameka, 2015). At the same time, Hózhó emphasizes harmony, balance, and the interconnectedness of all things (Haskie, 2002). By exploring the core principles of these traditions and examining their practical applications, we aim to demonstrate their relevance to AI governance and identify concrete ways to incorporate them into ethical frameworks.
Ultimately, this paper argues that integrating Indigenous knowledge systems into AI governance is not merely a matter of cultural sensitivity but a necessity for creating a more ethical, responsible, and sustainable AI landscape. Through a comparative analysis of Kaitiakitanga and Hózhó, we will demonstrate how these Indigenous perspectives can enhance existing AI governance approaches and contribute to a more inclusive technological future that respects the rights and values of all communities.

2. Literature Review

2.1. Indigenous Knowledge Systems and AI

Indigenous communities worldwide hold diverse and sophisticated knowledge systems that offer unique perspectives on the relationship between humanity, the natural world, and technology (Barnhardt & Kawagley, 2005; Sillitoe, 1998; Snively & Corsiglia, 2001). These systems developed over millennia through direct environmental interaction and passed down through generations, emphasizing interconnectedness, reciprocity, and long-term stewardship (Jamieson, 2010; Kealiikanakaoleohaililani & Giardina, 2016). Examples of such systems include the concept of Buen Vivir in Andean South America, which emphasizes harmonious living with nature and community well-being, and the Aboriginal Australian concept of Caring for Country, which highlights responsibility for land management and intergenerational sustainability (Mero-Figueroa et al., 2020; Woodward et al., 2020). In the context of AI, these perspectives offer invaluable guidance for navigating the complex ethical challenges posed by this rapidly evolving technology.
Recent research has highlighted the potential of Indigenous knowledge to contribute to AI development in several crucial ways. Firstly, AI can serve as a powerful tool for digitizing and revitalizing Indigenous languages, stories, and traditional knowledge, ensuring their preservation and accessibility for future generations (Masenya, 2023; Nanduri, 2024; Pinhanez et al., 2024; Zou & Lin, n.d.). This not only helps to maintain cultural heritage but also allows Indigenous communities to actively participate in shaping the future of AI (Pisoni et al., 2021). For example, the Endangered Languages Project utilizes AI to document and revitalize endangered Indigenous languages, while the Māori tribal group Ngāti Whātua Ōrākei uses AI to preserve and share their cultural heritage through interactive digital platforms (Camacho & Zevallos, 2020; Williams, 2020).
Secondly, Indigenous wisdom, with its emphasis on ecological consciousness, respect for diverse worldviews, and social justice principles, can inform the design of AI algorithms to avoid biases, prioritize sustainability, and promote equitable outcomes (Ahmed et al., 2024; Fernández Fernández, 2022; Ofosu-Asare, 2024). This is essential to ensure that AI systems are developed and deployed in a manner that is both ethical and culturally sensitive. For instance, researchers are exploring the use of Indigenous knowledge to develop AI systems for environmental monitoring and resource management that respect Indigenous land rights and traditional ecological practices (Al-Mansoori & Hamdan, 2023; Gordon et al., 2023; Molino, 2023).
Finally, AI can be used to integrate Indigenous knowledge with scientific data to address complex environmental challenges, such as climate change adaptation and sustainable resource management (Chakravarty & Gattupalli, 2024; Nishant et al., 2020). This integration can lead to more effective and adaptive management strategies that benefit both Indigenous communities and the environment. For example, the work of Sebastián Lehuedé explores the intersection of Indigenous knowledge and AI in addressing land management challenges faced by Indigenous communities in Chile (Lehuedé, 2024a, 2024b). Lehuedé’s research highlights the potential of AI to support Indigenous-led initiatives in land stewardship and resource governance, while also emphasizing the importance of ensuring that AI technologies are developed and deployed in a culturally appropriate and respectful manner (Lehuedé, 2023; Vidal & Dias, 2016). Another example is the application of AI in partnership with Indigenous communities in the Amazon rainforest to monitor deforestation and protect biodiversity (Asif et al., 2023; Causevic et al., 2024; Raihan, 2023). This approach combines cutting-edge technology with traditional ecological knowledge to create more effective conservation strategies.

2.2. Incorporating Indigenous Knowledge into AI Governance

Integrating Indigenous knowledge into AI governance ensures that AI systems respect Indigenous values, rights, and interests (Hooper & Oyege, 2024). This can be achieved through various approaches. Two-Eyed AI integrates Indigenous knowledge and Western scientific perspectives, balancing ethical considerations with technological advancements (Habash, 2024; Kroeker, 2022). For example, in healthcare, Two-Eyed AI could involve using AI to analyze patient data while incorporating Indigenous healing practices for holistic care (Silano, 2024). Indigenous-led AI development empowers Indigenous communities to shape technologies affecting their lives, ensuring alignment with community values and addressing data sovereignty. An example is the development of AI-powered language learning tools by Indigenous communities in Canada to revitalize and preserve their languages (Ajani et al., 2024). Community-based participatory research involves collaborating with Indigenous communities throughout the AI lifecycle, ensuring that AI systems are developed responsively to their needs and concerns (Kankanamge et al., 2024; Sahota, 2010). For instance, a project in New Zealand involves Māori communities working with researchers to develop AI applications for environmental monitoring that align with Māori values (Barnes et al., 2021; Cherrington et al., 2020; Reid et al., n.d.).
Furthermore, Indigenous-led AI development initiatives are crucial for ensuring that AI technologies align with Indigenous values and priorities. The work of Jason Edward Lewis, a University of Toronto professor and co-director of the Indigenous Futures Research Centre, exemplifies this approach. Lewis advocates for Indigenous-led AI development that empowers Indigenous communities to shape the technologies affecting their lives, ensuring that AI respects Indigenous knowledge systems and promotes Indigenous self-determination (Baudemann, 2021; Igloliorte & Taunton, 2022; Ryan, 2023). Similarly, Angie Abdilla, a Torres Strait Islander woman and AI researcher, emphasizes the importance of Indigenous data governance and the development of AI systems that empower Indigenous communities (Abdilla et al., 2021; Van Den Hoven et al., 2020). In New Zealand, Te Hiku Media is a Māori-led organization that has developed AI-powered language learning tools to revitalize and preserve the Māori language (Jones et al., 2023; Munn, 2024). These examples demonstrate the potential of Indigenous-led AI development to create AI technologies that are both innovative and culturally responsive.

2.3. The Ethical Dimensions of AI Governance

The ethical dimensions of AI governance are multifaceted and complex, demanding careful consideration and proactive strategies to mitigate potential risks (Patel, 2024). AI systems, while offering tremendous potential benefits, can also perpetuate and amplify existing societal biases, leading to discriminatory outcomes in various domains (Keles, 2023; Modi, 2023; Scatiggio, 2020). The vast amounts of data required to train AI models raise serious concerns about individual privacy and the potential for misuse of personal information (Manheim & Kaplan, 2019). Furthermore, the increasing automation capabilities of AI have sparked anxieties about job displacement and the need for workforce transitions (George, 2024; West, 2018).
The “black box” nature of many AI algorithms, which often obscures the decision-making process, raises concerns about accountability and the potential for unintended consequences (Busuioc, 2021; Murad, 2021; Tschider, 2020). Moreover, the substantial computational resources required to train and deploy AI models can have a significant environmental impact, contributing to increased energy consumption and carbon emissions (Alzoubi & Mishra, 2024; Wu et al., 2022). Addressing these ethical challenges necessitates a comprehensive approach that involves developing robust ethical guidelines and standards for AI development, promoting transparency and explainability in AI algorithms, and ensuring diversity and inclusion in the AI workforce to mitigate bias. Prioritizing data privacy and security in AI systems is paramount, as is investing in research and development of AI for social good and environmental sustainability (Foffano et al., 2023).
However, conventional approaches to AI ethics often fall short of addressing the unique concerns and values of Indigenous communities. For example, the emphasis on individual privacy in Western ethical frameworks may not fully align with Indigenous concepts of collective ownership and data sovereignty (Hummel et al., 2021; Tsosie, 2019). In many Indigenous cultures, data is not seen as an individual possession but as a collective resource that belongs to the community as a whole (Brown, 2009; Gervais, 2003; Posey & Dutfield, 1996). This perspective challenges the notion of individual consent and control over data, highlighting the need for AI governance frameworks that recognize and respect Indigenous data sovereignty.
Furthermore, the potential for AI to exacerbate existing societal biases raises concerns about its impact on Indigenous communities, who already face systemic discrimination and marginalization (Bose, 2025; Raza, 2022). AI algorithms trained on biased data can perpetuate and amplify these biases, leading to unfair and discriminatory outcomes for Indigenous peoples (Lewis, 2024). This underscores the importance of incorporating Indigenous knowledge and perspectives into the design and development of AI systems to ensure that they are fair, equitable, and culturally sensitive.
The environmental impact of AI also raises concerns from an Indigenous perspective (Molino, 2023). Many Indigenous cultures deeply connect to the land and prioritize environmental sustainability (Clarkson et al., 1992; Garnett et al., 2018; Gordon et al., 2023). The energy consumption and carbon emissions associated with AI development and deployment can threaten the delicate balance of ecosystems and undermine Indigenous efforts to protect the environment. This highlights the need for AI governance frameworks that prioritize environmental sustainability and consider the long-term ecological consequences of AI technologies.
The drawbacks of current AI systems raise additional ethical concerns. For instance, the increasing prevalence of large language models (LLMs) has the potential to create language hegemonies, where dominant languages are further amplified and marginalized languages are further disadvantaged (Ovalle, 2024; Peng, 2024; Smart et al., 2024). This raises concerns about cultural diversity and the preservation of Indigenous languages. Additionally, the substantial computational resources required to train and deploy AI models, particularly the energy consumption of data centers, contribute to environmental harm (Beloglazov et al., 2012; Robertson & Romm, 2002). This raises concerns about the sustainability of AI and its impact on the natural world, which is particularly relevant to Indigenous communities who have a deep connection to the land and prioritize environmental stewardship.

2.4. Existing AI Governance Frameworks and Their Limitations

Numerous organizations and governments are actively developing AI governance frameworks to address the ethical challenges and societal implications of AI. These frameworks typically encompass a range of principles, guidelines, and best practices aimed at promoting responsible AI development and deployment. For example, the European Union’s AI Act proposes a risk-based approach to regulating AI, categorizing AI systems based on their potential for harm and imposing stricter requirements for high-risk applications (Ebers, 2024; Korshenko, 2024). The OECD Principles on AI, adopted by many countries, promote human-centered AI that respects human rights, democracy, and the rule of law (Nikolinakos, 2023; Rotenberg, 2024). Other notable frameworks include the Asilomar AI Principles, which focus on long-term safety and ethical considerations, and the Montreal Declaration for Responsible AI, which emphasizes human well-being, autonomy, and justice (Buruk et al., 2020; Gábor, n.d.).
However, despite the growing number of AI governance frameworks, many fall short in addressing the unique needs and perspectives of Indigenous communities. The EU AI Act, while comprehensive, has been criticized for not adequately addressing Indigenous concerns regarding data sovereignty and cultural heritage protection (Madsen, 2022; Moerel & Timmers, 2021). Its primary focus on individual rights and autonomy may overlook the collectivist worldview prevalent in many Indigenous cultures, where collective well-being and decision-making are prioritized. This individualistic bias can perpetuate the marginalization of Indigenous communities and undermine their self-determination.
Similarly, the OECD Principles, while advocating for human-centered AI, may not fully capture the nuances of Indigenous perspectives on human-nature relationships and the interconnectedness of all beings (Aaronson, 2022; Runde et al., 2022). These principles, rooted in Western philosophical traditions, may not adequately address the spiritual and cultural dimensions of AI and its potential impact on Indigenous communities.
Furthermore, existing frameworks may not adequately address the unique challenges Indigenous communities face regarding data sovereignty and the protection of cultural heritage in the context of AI (Gupta et al., 2020; Kukutai et al., 2020; Marley, 2019; Nicholas, 2022; Wagner & de Clippele, 2023). Indigenous data is often intertwined with cultural identity, traditional knowledge, and sacred practices, requiring specific safeguards and governance approaches that respect Indigenous rights and self-determination (Kuokkanen, 2019; Shepard, 2015). The failure to adequately address these concerns can result in the misuse or exploitation of Indigenous data, leading to further cultural harm and erosion of Indigenous sovereignty.
The limitations of current AI governance frameworks highlight the urgent need for greater inclusion of Indigenous perspectives. By incorporating Indigenous knowledge and values, we can create more robust and culturally appropriate frameworks that ensure AI benefits all members of society, including Indigenous communities. This requires Indigenous communities’ active participation in AI governance processes and a willingness to learn from their unique perspectives and experiences.

2.5. Māori Kaitiakitanga and Navajo Hózhó: Core Principles and Applications

Māori Kaitiakitanga and Navajo Hózhó represent distinct yet complementary Indigenous knowledge systems that offer valuable insights for AI governance. Kaitiakitanga, rooted in Māori culture, embodies a profound sense of guardianship and responsibility for the well-being of the natural world and future generations (Beverland, 2022; Kawharu, 2000; Roberts et al., 1995). It emphasizes the interconnectedness of all living things and the importance of sustainable practices that ensure the health and vitality of ecosystems for generations to come (Jamieson, 2010; Jones, 2022). This principle has been successfully applied in various environmental management contexts.
For instance, in Aotearoa New Zealand, Kaitiakitanga has guided the collaborative restoration of the Whitefish River watershed, where Māori iwi (tribes) partnered with government agencies and local communities to improve water quality and restore the health of the ecosystem (Bohn & Kershner, 2002; Kiffney et al., 2018). This involved combining traditional Māori knowledge of the watershed with scientific data to develop sustainable management practices that respect the cultural significance of the river (AMC Engineers, 2015). Kaitiakitanga also informs Māori approaches to fisheries management, where sustainable fishing practices and marine conservation efforts are guided by the principle of rāhui, a traditional practice of temporary resource restriction to allow for replenishment (Matthews, 2018; Stanaway, 2016; van Halderen, 2020).
Hózhó, a core principle in Navajo philosophy, emphasizes harmony, balance, beauty, and the interconnectedness of all beings (Haskie, 2002; Kahn-John & Koithan, 2015). It represents a holistic worldview that seeks to maintain equilibrium between physical, mental, spiritual, and social well-being (Willeto, 2012). Hózhó finds expression in various aspects of Navajo life, including community wellness programs, traditional healing practices, and cultural ceremonies (Kahn-John et al., 2021; Lewton & Bydone, 2000). The Navajo Nation’s community health programs, for example, draw upon Hózhó to promote holistic well-being through initiatives that integrate traditional healing practices with modern medicine (Esteve, 2006). This includes incorporating traditional ceremonies, herbal remedies, and spiritual counseling into healthcare services (Nelson, 2020). The CIRCLE model, developed by the Navajo Nation, provides a culturally grounded framework for addressing family violence and promoting healthy relationships (Oetzel & Duran, 2004; Walters et al., 2020). This model emphasizes restoring balance and harmony within individuals, families, and communities, reflecting the core principles of Hózhó (Haskie, 2002).
Both Kaitiakitanga and Hózhó offer valuable perspectives on ethical AI development and governance, emphasizing the importance of community engagement, ecological consciousness, and long-term stewardship. By incorporating these principles into AI governance frameworks, we can promote the development of AI systems that are not only technologically advanced but also ethically sound and culturally sensitive.

2.6. Traditional Ecological Knowledge (TEK) and AI

Traditional Ecological Knowledge (TEK) represents the cumulative body of knowledge, practices, and beliefs concerning the relationships between living beings and their environments accumulated by Indigenous and local communities over generations (Dudgeon & Berkes, 2003; Hunter, 2014). TEK is characterized by its deep understanding of ecological processes, its emphasis on the interconnectedness of all living things, and its focus on long-term sustainability (Martin et al., 2010; Nelson & Shilling, 2018). In the context of AI, TEK offers valuable insights for developing and deploying AI systems that are ethically sound, environmentally responsible, and culturally appropriate (Perera et al., n.d.).
TEK can inform AI governance in several ways. First, it can help identify and mitigate potential biases in AI algorithms that may arise from a limited or Western-centric worldview. Second, in developing AI models for wildlife conservation, incorporating TEK can help ensure that the models accurately reflect the complex relationships between species and their environment, including Indigenous perspectives on animal behavior and habitat use. This can help avoid biases arising from relying solely on Western scientific data, which may not fully capture the nuances of Indigenous ecological knowledge (Duarte et al., 2019; Lauer & Aswani, 2009; van Eijck & Roth, 2007).
In the context of AI-powered resource management, TEK can challenge assumptions about optimal resource allocation and utilization (Huntington, 2000). For instance, TEK may emphasize the importance of preserving certain areas for cultural or spiritual reasons, even if they do not appear to have immediate economic value (Dudgeon & Berkes, 2003; Nelson & Shilling, 2018; Tsuji & Ho, 2002). By incorporating TEK into AI algorithms for resource management, we can ensure that these models consider a broader range of values and priorities, leading to more sustainable and equitable outcomes.
Furthermore, TEK can contribute to developing culturally appropriate AI governance frameworks that respect Indigenous rights, values, and knowledge systems (Ludwig & Macnaghten, 2020). By integrating TEK into the design and implementation of AI systems, we can ensure that these technologies are developed and deployed in a manner that is sensitive to Indigenous perspectives and promotes the well-being of Indigenous communities.

2.7. AI Governance Frameworks and Indigenous Participation

One of the key limitations of existing AI governance frameworks is the lack of Indigenous representation in their development and implementation (Omotubora & Basu, 2024). This exclusion can lead to AI governance structures that fail to consider Indigenous values, rights, and knowledge systems. To address this gap, it is essential to ensure the meaningful participation of Indigenous communities in AI governance processes. This can be achieved through various mechanisms.
The New Zealand government has established a Māori advisory board to provide guidance on AI policies affecting Māori communities (Kukutai et al., 2024; McGavin, 2023; Taiuru, 2020). This board ensures Māori perspectives are considered in AI governance decisions, and AI technologies are developed and deployed in a way that respects Māori rights and interests (Waitematā AI Governance Group, 2023). This has resulted in the development of culturally appropriate AI applications for environmental management and language revitalization (Mato, 2018).
In Canada, the First Nations Technology Council empowers Indigenous communities to participate in the digital economy and shape AI technologies (Budka, 2017; Matthews et al., 2021; McMahon, 2011). This has led to increased digital literacy and technological capacity within Indigenous communities, enabling them to leverage AI for economic development and cultural preservation (Holcombe & Kemp, 2019).
Another vital mechanism is mandatory consultation with Indigenous communities on AI-related policies. This ensures Indigenous voices are heard, and their concerns are addressed in developing AI governance frameworks. For instance, in Australia, the government has committed to consulting with Aboriginal and Torres Strait Islander communities on developing its national AI strategy (Browne et al., 2017; Hansen & O’Shane, 2016; Puszka et al., 2016). This commitment has resulted in the inclusion of Indigenous knowledge and values in the strategy, ensuring that AI benefits all Australians.
Furthermore, initiatives like the Indigenous Protocol and Artificial Intelligence (IPAI) working group demonstrate the power of Indigenous-led governance in AI. This international group, composed of Indigenous scholars and activists, is developing ethical guidelines and protocols for AI development that respect Indigenous rights and knowledge (Lewis et al., 2020). Their work has influenced AI policy discussions at the United Nations and other international forums, highlighting the importance of Indigenous leadership in shaping the future of AI (Garcia, 2022).

2.8. International Collaboration for Indigenous Inclusion in AI Governance

International collaboration is key to promoting Indigenous perspectives in AI governance. Organizations like UNESCO and the United Nations recognize the importance of Indigenous knowledge and are working to ensure Indigenous participation in AI policymaking (Hewitt, 2021). UNESCO’s report on Indigenous data sovereignty emphasizes Indigenous control over their data, while the UN Declaration on the Rights of Indigenous Peoples provides a framework for protecting Indigenous rights in AI development (Hu et al., 2019; Régis et al., 2023).
The Global Indigenous Data Alliance (GIDA) exemplifies successful international collaboration. It brings together Indigenous organizations, researchers, and policymakers worldwide to advocate for Indigenous data sovereignty (Austin et al., 2021; Lovett et al., 2019). GIDA has been instrumental in promoting the CARE Principles for Indigenous Data Governance, which provide a framework for ethical data management that respects Indigenous rights (Oguamanam, 2020).
The International Council for Science (ICSU) program on “Indigenous and Local Knowledge Systems and Climate Change” fosters collaboration between Indigenous knowledge holders and scientists (Atkin et al., 1998; Ernster, 1984; Harrison, 2018). This program highlights the value of integrating Indigenous knowledge with scientific data for effective and sustainable solutions. International research projects also demonstrate the successful incorporation of Indigenous perspectives. The “AI for Social Good” initiative, led by the University of British Columbia with Indigenous communities in Canada, develops AI applications for environmental monitoring, language revitalization, and cultural heritage preservation that respect Indigenous knowledge (Dodhia, 2024; Oluwasanmi, 2020).
These examples demonstrate the potential of international collaboration to promote Indigenous inclusion in AI governance, ensuring AI benefits all humanity while respecting diverse cultures and knowledge systems.

3. Māori Kaitiakitanga and AI Governance

3.1. Applications of Kaitiakitanga in Environmental Management

Kaitiakitanga, a core principle in Māori culture, emphasizes guardianship, responsibility, and the interconnectedness of all living things. It has influenced legislation such as the Te Urewera Act 2014, which recognizes Te Urewera, a region of land, as a legal entity with intrinsic rights, reflecting the interconnectedness of humans and the natural world (Coombes, 2020; Exton, 2017; Puketapu-Dentice, 2018, 2019; Te Urewera, 2018). By recognizing the rights of natural entities, Kaitiakitanga can inform the development of AI systems that respect ecological limits and prioritize the long-term health of ecosystems.
Another key application lies in resource allocation and utilization. Kaitiakitanga challenges conventional economic models that prioritize short-term gains over long-term sustainability. It emphasizes the importance of considering the interconnectedness of ecosystems and the potential impacts of resource extraction on future generations. By prioritizing long-term sustainability and incorporating Māori perspectives, initiatives like the National Policy Statement for Freshwater Management have led to improved water quality and the protection of culturally significant waterways (Ruckstuhl, 2022; Whaanga & Wehi, 2015).
Kaitiakitanga has played a crucial role in land-based conservation efforts, with Māori iwi implementing frameworks that incorporate traditional ecological knowledge to restore biodiversity (Arnold, 2024; Harcourt et al., 2022; Kahui & Richards, 2014; McAllister et al., 2023). This approach can inform the development of AI systems for conservation, enabling more effective monitoring of ecosystems and prediction of environmental changes while aligning with Indigenous values.
These examples demonstrate the diverse applications of Kaitiakitanga in promoting environmental sustainability and resource management. By drawing upon these experiences and integrating Kaitiakitanga principles into AI governance frameworks, we can promote the development of AI systems that respect the interconnectedness of humans and the natural world, prioritize long-term sustainability, and contribute to a more just and equitable technological future. These diverse applications of Kaitiakitanga offer valuable insights for developing AI governance frameworks that prioritize sustainability, intergenerational equity, and respect for the interconnectedness of humans and the natural world.

3.2. Kaitiakitanga and AI Governance Frameworks

Kaitiakitanga provides a robust ethical framework for environmental management, emphasizing collective guardianship, responsibility, and the interconnectedness of all living things (Aithal, 2023; Goralski & Tan, 2020; Khakurel et al., 2018; Khogali & Mekid, 2023). Its principles offer valuable guidance for developing AI governance frameworks that prioritize long-term well-being, sustainability, and respect for both present and future generations.
A key implication of Kaitiakitanga for AI governance is the focus on interconnectedness and holistic thinking. It recognizes that actions in one area can have far-reaching consequences for others, highlighting the need to consider the broader social, economic, and environmental impacts of AI development and deployment. By incorporating Kaitiakitanga principles into AI governance frameworks, we can promote AI systems that consider these interconnectedness and avoid unintended consequences (Connolly et al., 2024; Reid et al., n.d.; Wikitera, 2024).
For example, Kaitiakitanga can inform the development of AI systems for resource management. By considering the interconnectedness of ecosystems, AI algorithms can be designed to optimize resource allocation while minimizing negative environmental impacts (Challoumis, 2024; Kalusivalingam et al., 2020). This could involve incorporating traditional ecological knowledge into AI models to ensure they reflect the complex relationships between humans and the natural world, such as incorporating Māori knowledge of mauri (life force) into AI models for water management. This ensures that these models consider not only the physical and chemical properties of water but also its cultural and spiritual significance (Rangiwananga, 2020).
Furthermore, Kaitiakitanga emphasizes the importance of respecting and incorporating Indigenous knowledge and values in AI governance (Moewaka Barnes et al., 2021). This involves recognizing the value of traditional ecological knowledge and integrating it with scientific data to develop more effective and sustainable solutions. For instance, in developing AI systems for conservation, incorporating Indigenous perspectives on land management and resource stewardship can lead to more holistic and culturally appropriate solutions.
Kaitiakitanga can also guide the inclusion of Indigenous communities in AI governance processes. This could involve establishing Indigenous advisory boards, mandating consultation with Indigenous communities on AI-related policies, and including Indigenous representatives in AI governance bodies. By actively involving Indigenous communities in shaping the future of AI, we can ensure that AI technologies are developed and deployed in a way that respects Indigenous rights and interests (Palmer et al., 2023; Ruckstuhl et al., 2019).
In addition to these strategies, Kaitiakitanga can inform the development of new AI governance models that prioritize long-term sustainability and intergenerational equity. This could involve incorporating environmental impact assessments into every stage of the AI development lifecycle and promoting the use of AI for conservation and ecological restoration. By embedding Kaitiakitanga values into the core of AI governance, we can ensure that AI technologies are developed and deployed in a way that benefits both present and future generations.

4. Navajo Hózhó and AI Governance

4.1. Applications of Hózhó in Navajo Community Wellness Programs

Hózhó, a core principle in Navajo philosophy, emphasizes harmony, balance, beauty, and the interconnectedness of all beings. It represents a holistic worldview that seeks to maintain equilibrium between physical, mental, spiritual, and social well-being (Limb & Hodge, 2008). This principle finds expression in various aspects of Navajo life, including community wellness programs, where it guides the development of culturally grounded initiatives that promote health and healing.
One example is the Navajo Nation’s Diabetes Prevention and Control Program, which incorporates Hózhó principles to address the disproportionately high rates of diabetes among Navajo people (Broussard et al., 1995; Satterfield, 2016). This program integrates traditional Navajo practices, such as storytelling and ceremonies, with modern health education and support services (The Diabetes Prevention Program Research Group, 2013). By recognizing the interconnectedness of mind, body, and spirit, the program promotes healthy lifestyles and empowers individuals to take control of their health.
Another application of Hózhó is in the Navajo Nation’s Traditional Agricultural Outreach Program, which promotes food sovereignty and healthy eating habits by revitalizing traditional Navajo farming practices. This program supports Navajo farmers in growing traditional crops, such as corn, beans, and squash, using sustainable and culturally appropriate methods (McCaleb, 2024; Nabhan, 2016; Raymond & Falk, 2018). By fostering a connection to the land and traditional foodways, the program promotes physical health, strengthens cultural identity, and contributes to community well-being (Powell, 2018).
Hózhó also informs the Navajo Nation’s efforts to address mental health challenges, particularly historical trauma and intergenerational grief stemming from colonization and forced relocation. Culturally-based healing programs incorporate traditional practices, such as storytelling, singing, and sand painting, to promote emotional healing and resilience (Griffin-Pierce, 1995; Salm—n, 2012; Tafoya, 2014). These programs recognize the interconnectedness of mental, emotional, and spiritual well-being, offering a holistic approach to healing that aligns with Hózhó values.
These examples illustrate the diverse applications of Hózhó in promoting community wellness and addressing health challenges. By integrating this Indigenous knowledge system into healthcare and community development programs, the Navajo Nation has made significant strides in promoting holistic well-being and strengthening cultural identity.

4.2. Hózhó and AI Governance Frameworks

The Navajo principle of Hózhó, with its emphasis on harmony, balance, interconnectedness, and holistic well-being, offers valuable insights for developing AI governance frameworks that are ethically sound, culturally sensitive, and aligned with the values of community and environmental well-being (Bengio et al., 2023; Williams & Shipley, 2021).
One key implication of Hózhó for AI governance is the focus on relationality and interconnectedness. Hózhó recognizes that all things are interconnected and that actions taken in one area can have far-reaching consequences for others. This perspective is crucial in AI governance, where decisions about data collection, algorithm design, and AI deployment can have significant social, economic, and environmental impacts. By incorporating Hózhó principles into AI governance frameworks, we can promote the development of AI systems that consider these interconnectedness and strive to create positive outcomes for all stakeholders, including Indigenous communities and the natural world.
Hózhó also emphasizes the importance of balance and harmony. In Navajo philosophy, Hózhó represents a state of equilibrium and well-being that encompasses physical, mental, spiritual, and social dimensions. This concept can inform AI governance by encouraging the development of AI systems that promote balance and harmony within society (LCJ, 2023). This could involve designing AI algorithms that avoid bias and discrimination, ensuring that AI technologies are used to promote social justice and equity, and considering the potential impacts of AI on human well-being and the environment.
Furthermore, Hózhó highlights the importance of community engagement and collaboration. In Navajo culture, decisions are often made collectively, with input from various community members (Chataway, 1997; Iseke & Moore, 2011; Searight & Gafford, 2005). This approach can inform AI governance by promoting the inclusion of diverse voices in AI development and deployment processes. This could involve establishing community advisory boards, conducting consultations with Indigenous communities on AI-related policies, and ensuring that Indigenous representatives are involved in decision-making processes related to AI (Ben Dhaou et al., 2024).
Moreover, Hózhó can guide the development of AI systems that respect Indigenous cultural values and knowledge systems. By incorporating Indigenous perspectives into the design and development of AI algorithms, we can mitigate the potential for AI to perpetuate cultural biases and discrimination. This could involve collaborating with Indigenous knowledge holders to identify and address potential biases in AI models and ensuring that AI systems are developed and deployed in a culturally sensitive and appropriate manner. This aligns with Hózhó’s emphasis on balance and harmony, promoting the respectful integration of AI technologies into Indigenous communities.

5. A Comparative Analysis: Weaving Indigenous Perspectives Together

Māori Kaitiakitanga and Navajo Hózhó, while arising from distinct cultural contexts, share a common thread: a profound respect for the interconnectedness of all things and a commitment to long-term well-being. By analyzing their core principles and applications, we can identify key areas of convergence and divergence that offer valuable insights for developing holistic and culturally responsive AI governance frameworks.
Table 1. Kaitiakitanga versus Hózhó.
Table 1. Kaitiakitanga versus Hózhó.
Principle Māori Kaitiakitanga Navajo Hózhó
Focus Guardianship and stewardship of the natural world Harmony, balance, and interconnectedness of all things
Core Values Guardianship, stewardship, reciprocity, collective responsibility Harmony, balance, beauty, interconnectedness
Applications Environmental management, resource allocation, community decision-making Health initiatives, community development, cultural preservation
Relevance to AI Governance Data sovereignty, ecological sustainability, intergenerational equity Human well-being, environmental sustainability, ethical technology use
  • Points of Convergence:
Interconnectedness in AI Systems: Both Kaitiakitanga and Hózhó stress the interconnectedness of all things, prompting a shift away from siloed thinking in AI governance (Ashok et al., 2024; Andrade & Vasquez, 2024). This encourages the development of AI systems that consider the complex interplay between humans, the environment, and technology, fostering harmony and minimizing unintended consequences. For instance, AI algorithms for resource management could integrate ecological data with social and cultural considerations, ensuring equitable and sustainable outcomes.
Long-Term Vision for AI: Both traditions prioritize long-term well-being over short-term gains, challenging the often anthropocentric and short-sighted focus of existing AI governance frameworks (Causevic et al., 2024; Caudill et al., 2024). By incorporating these Indigenous perspectives, we can promote the development of AI that prioritizes sustainability and intergenerational equity. This could involve designing AI systems that consider the long-term impacts on future generations, ensuring that AI technologies contribute to a more just and equitable future for all.
Community-Driven AI Governance: Both traditions emphasize community engagement and collaboration in decision-making processes (Grant & Söderbergh, 2020; Li & Brar, 2022; Williams & Shipley, 2021). This shared value underscores the importance of including Indigenous communities in AI governance, ensuring that AI technologies are developed and deployed in a culturally appropriate and respectful manner. This could involve establishing Indigenous-led AI ethics committees, mandating consultation with Indigenous communities on AI policies, and supporting Indigenous-driven AI initiatives that address community-specific needs and priorities.
  • Points of Divergence:
Focus and Scope: While both traditions emphasize interconnectedness, their focus and scope differ. Kaitiakitanga is deeply rooted in environmental stewardship and the relationship between humans and the natural world. In contrast, Hózhó encompasses a broader notion of well-being that includes physical, mental, spiritual, and social dimensions. This difference is evident in how Hózhó has shaped the Navajo Nation’s approach to health and wellness, which considers physical, mental, spiritual, and social well-being as interconnected aspects of a whole. This holistic perspective could inform AI applications in healthcare, ensuring they address not only physical ailments but also the social and cultural determinants of health.
Cultural Expression: The cultural expressions of Kaitiakitanga and Hózhó are distinct, reflecting the unique histories and traditions of Māori and Navajo communities. These diverse cultural expressions can enrich AI governance by providing a broader understanding of ethical values and practices from different Indigenous perspectives. For example, Hózhó’s emphasis on balance and harmony could inform the development of AI systems that promote social justice and equity, while Kaitiakitanga’s concept of whakapapa (genealogy), which emphasizes the interconnectedness of all living things through ancestral lineage, could inform AI development by promoting the consideration of historical and intergenerational impacts, ensuring that AI technologies do not perpetuate past injustices or harm future generations.
  • Implications for AI Governance:
This comparative analysis reveals that Kaitiakitanga and Hózhó offer complementary yet distinct perspectives that can enhance AI governance frameworks. By weaving these Indigenous perspectives together, we can create more holistic and culturally responsive approaches to AI development and deployment. This involves recognizing the interconnectedness of all things, prioritizing long-term well-being, and ensuring the active participation of Indigenous communities in AI governance processes. This could involve developing ethical guidelines for AI that incorporate both Kaitiakitanga and Hózhó principles, such as prioritizing long-term sustainability, ensuring community engagement in AI development, and recognizing the interconnectedness of human societies, natural ecosystems, and technological systems. Additionally, creating mechanisms for ongoing dialogue and collaboration between Indigenous communities and AI developers is crucial.
Moreover, Kaitiakitanga and Hózhó offer valuable tools for addressing specific challenges in AI governance. For instance, Kaitiakitanga’s emphasis on collective ownership and responsibility can inform the development of data governance frameworks that prioritize Indigenous data sovereignty. Hózhó’s focus on balance and harmony can guide the design of AI algorithms that avoid bias and discrimination. Both traditions can contribute to a more ethical and culturally sensitive approach to AI deployment, ensuring that AI technologies are used in a way that respects Indigenous rights and values.
While Kaitiakitanga and Hózhó offer valuable insights, potential tensions may arise when integrating them with existing AI governance frameworks. For instance, the emphasis on collective ownership in Kaitiakitanga may need careful consideration alongside individual rights and data privacy concerns. Similarly, the concept of utu (reciprocity) in Kaitiakitanga, which suggests that any harm to the environment should be met with reciprocal action to restore balance, may present challenges in the context of AI development, where unintended consequences can be difficult to predict or fully mitigate (Barnett, 2021; Kawharu, 2000). Navigating these tensions requires open dialogue and collaboration between Indigenous communities, AI developers, and policymakers to develop culturally appropriate solutions that respect both individual and collective rights. Additionally, it necessitates a critical examination of Western ethical principles and legal frameworks, recognizing that they may not always align with Indigenous values and worldviews.

6. Recommendations and Implementation Strategies

Integrating Indigenous knowledge systems like Kaitiakitanga and Hózhó into AI governance requires a multifaceted approach that considers the intricate tapestry of AI’s technical and ethical dimensions. This necessitates creating frameworks that guide decision-making throughout the AI lifecycle, from the initial stages of data collection and algorithm design to the deployment and ongoing monitoring of AI systems. We propose a framework that draws upon key principles from Kaitiakitanga and Hózhó to foster the development of AI that is not only innovative but also responsible, ethical, and culturally sensitive.
Effective data governance forms the bedrock of ethical AI development, particularly when Indigenous communities and knowledge are involved. Establishing Indigenous-led data governance bodies is paramount. These bodies, empowered to oversee the collection, storage, and use of Indigenous data, would play a critical role in crafting culturally appropriate data governance protocols. These protocols would prioritize Indigenous data sovereignty, ensuring that data is collected and utilized in a manner that respects Indigenous rights, values, and traditional practices. This might involve implementing robust data anonymization and encryption techniques, drawing upon cutting-edge privacy-enhancing technologies like differential privacy and federated learning to safeguard sensitive Indigenous information (Aouedi et al., 2024; Paul & Mandal, 2024). Drawing inspiration from the work of Indigenous AI leaders like Jason Edward Lewis, Angie Abdilla, and Te Hiku Media, these protocols should include provisions for data sharing agreements that respect Indigenous intellectual property rights, community consent mechanisms that prioritize collective decision-making, and the establishment of data trusts that empower Indigenous communities to manage and protect their data.
The design of AI algorithms should be guided by Indigenous knowledge and values to mitigate bias, promote fairness, and ensure transparency and accountability. Collaborating with Indigenous knowledge holders can illuminate potential biases embedded within existing AI models and inform the development of decolonizing algorithms. AI models should be designed with a deep understanding of the interconnectedness of human societies, natural ecosystems, and technological systems, promoting holistic and sustainable outcomes (Bibri et al., 2024; Nishant et al., 2020). This could entail embedding Indigenous perspectives on environmental sustainability, social justice, and intergenerational equity into the very fabric of AI algorithms (Golub et al., 2013; Mitrofanenko, 2016). To ensure cultural appropriateness and prevent the perpetuation of harmful stereotypes, Indigenous communities should be actively involved in evaluating and testing AI algorithms. This could involve creating culturally specific datasets for training and testing AI models and establishing community-led review boards to assess the ethical implications of AI algorithms.
Prior to deploying AI systems, rigorous ethical impact assessments are crucial. These assessments, conducted in collaboration with Indigenous communities, should incorporate Indigenous knowledge and values to ensure that AI technologies are deployed in a culturally sensitive and responsible manner. This might involve developing culturally specific ethical guidelines that address the unique concerns and values of Indigenous communities. For instance, an Indigenous AI Ethics Council, composed of Indigenous knowledge holders, AI ethicists, and legal experts, could be established to provide guidance on the ethical development and deployment of AI systems that impact Indigenous communities. This council could develop culturally specific ethical guidelines, review AI projects for potential impacts on Indigenous rights and interests, and provide recommendations for mitigating harm. Additionally, community-led monitoring and evaluation frameworks are essential for tracking the long-term impacts of AI on Indigenous communities and ensuring alignment with Indigenous values. This could involve creating community-based monitoring programs, developing culturally relevant indicators for measuring AI impacts, and establishing robust feedback mechanisms for Indigenous communities to voice their experiences and concerns. In cases where AI systems inadvertently cause harm to Indigenous communities, mechanisms for redress and accountability should be readily available. This could involve establishing Indigenous-led tribunals or dispute resolution processes that draw upon Indigenous legal traditions and prioritize restorative justice.
Investing in capacity building is essential for empowering Indigenous communities to become active participants in AI governance. This involves supporting educational and training programs tailored to the specific needs and interests of Indigenous communities, increasing their understanding of AI and their ability to engage in AI governance processes. Furthermore, supporting the development of Indigenous-led AI initiatives can foster self-determination and technological empowerment. This could involve providing funding, resources, and mentorship to Indigenous entrepreneurs and innovators developing AI solutions for their communities. Fostering collaboration between Indigenous knowledge holders, AI developers, and policymakers is vital for weaving Indigenous perspectives into the fabric of AI governance frameworks. This could involve creating platforms for knowledge sharing and dialogue, establishing joint research initiatives, and developing collaborative governance models that recognize and respect Indigenous knowledge systems.
Furthermore, AI models should be designed to consider the interconnectedness of human societies, natural ecosystems, and technological systems, promoting holistic and sustainable outcomes. This could involve incorporating Indigenous perspectives on environmental sustainability, social justice, and intergenerational equity into the design of AI algorithms. To mitigate the environmental impact of AI, particularly the energy consumption of data centers, we recommend promoting the development of sustainable AI infrastructure, such as data centers powered by renewable energy sources and the use of energy-efficient AI algorithms. Additionally, to counteract the potential for LLMs to create language hegemonies, we recommend supporting the revitalization and preservation of Indigenous languages through AI-powered language learning tools and the development of culturally diverse language models.
By embracing these recommendations and grounding AI governance in Indigenous knowledge systems, we can foster the development of AI technologies that are not only ethically sound and culturally sensitive but also contribute to a more just and sustainable future for all. This approach requires a commitment to ongoing dialogue, collaboration, and mutual respect between Indigenous communities, AI developers, and policymakers to navigate the complexities of integrating Indigenous knowledge into AI governance and ensure that AI technologies benefit all members of society.

7. Discussion and Conclusions

This paper has explored the potential of Indigenous knowledge systems, specifically Māori Kaitiakitanga and Navajo Hózhó, to enhance AI governance frameworks. By examining the core principles and applications of these traditions, we have demonstrated their relevance to addressing the ethical challenges posed by AI and promoting a more inclusive and sustainable technological future.
Our analysis reveals that Kaitiakitanga and Hózhó offer valuable insights for shaping AI governance in several key ways. First, they emphasize the interconnectedness of all things, challenging the anthropocentric and often siloed approaches prevalent in existing AI governance frameworks. This holistic perspective encourages the development of AI systems that consider the broader impacts of AI on human societies, natural ecosystems, and future generations. Second, these Indigenous traditions prioritize long-term well-being over short-term gains, promoting a more sustainable and responsible approach to AI development and deployment. This challenges the prevailing focus on rapid technological advancement and economic growth, encouraging a more mindful and ethical approach to AI innovation.
Third, Kaitiakitanga and Hózhó emphasize the importance of community engagement and collaboration in decision-making processes. This highlights the need for Indigenous communities to be actively involved in shaping AI policies and development processes, ensuring that AI technologies are culturally appropriate, respect Indigenous rights and interests, and contribute to the well-being of Indigenous communities.
By integrating these Indigenous perspectives into AI governance frameworks, we can foster the development of AI technologies that are not only ethically sound and culturally sensitive but also contribute to a more just and sustainable future for all. This requires a commitment to ongoing dialogue, collaboration, and mutual respect between Indigenous communities, AI developers, and policymakers to navigate the complexities of integrating Indigenous knowledge into AI governance and ensure that AI technologies benefit all members of society.
Further research could explore the applications of other Indigenous knowledge systems to AI governance, enriching the global conversation on AI ethics and promoting the inclusion of diverse cultural perspectives in shaping the future of technology. Additionally, investigating the potential of AI to support Indigenous communities in revitalizing their languages, protecting their cultural heritage, and addressing pressing social and environmental challenges could further illuminate the mutually beneficial relationship between Indigenous knowledge and AI.

References

  1. Aaronson, S.A. (2022). A Missed Opportunity to Further Build Trust in AI: A Landscape Analysis of OECD. AI (No. 2022-10).
  2. Ahmed, S.; Sumi, A.A.; Aziz, N.A. Exploring Multi-Religious Perspective of Artificial Intelligence. Theology and Science 2024, 1–25. [Google Scholar] [CrossRef]
  3. Aithal, P.S. Super-Intelligent Machines-analysis of developmental challenges and predicted negative consequences. International Journal of Applied Engineering and Management Letters (IJAEML) 2023, 7, 109–141. [Google Scholar] [CrossRef]
  4. Ajani, Y.A.; Tella, A.; Dlamini, N.P. Indigenous Language Preservation and Promotion through Digital Media Technology in the Fourth Industrial Revolution. Digital Media and the Preservation of Indigenous Languages in Africa: Toward a Digitalized and Sustainable Society, 2024; 49. [Google Scholar]
  5. Al-Mansoori, F.; Hamdan, A. Integrating indigenous knowledge systems into environmental education for biodiversity conservation: a study of sociocultural perspectives and ecological outcomes. AI IoT and the Fourth Industrial Revolution Review 2023, 13, 61–74. [Google Scholar]
  6. Alzoubi, Y.I.; Mishra, A. Green artificial intelligence initiatives: Potentials and challenges. Journal of Cleaner Production 2024, 143090. [Google Scholar] [CrossRef]
  7. Andrade, A.C.C.; Vasquez, M.C.S. The Compatibility Between SDGs and the EU Regulatory Framework of AI. Journal of Ethics and Legal Technologies 2024, 6, 11–144. [Google Scholar]
  8. Aouedi, O.; Vu, T.H.; Sacco, A.; Nguyen, D.C.; Piamrat, K.; Marchetto, G.; Pham, Q.V. (2024). A survey on intelligent Internet of Things: Applications, security, privacy, and future directions. IEEE communications surveys & tutorials.
  9. Arnold, J.W. (2024). Indigenising Aotearoa New Zealand’s Protected Area Land Classifications: Are biocultural approaches effective frameworks for biodiversity and Treaty Partnership to Flourish on Conservation Lands? (Doctoral dissertation, University of Otago).
  10. Ashok, M.; Ganesan, K.; Saravanan, R.; Kumar, R. (2024). Energy Solutions Based on Artificial Intelligence: Methods and Challenges. In Exploring Ethical Dimensions of Environmental Sustainability and Use of AI (pp. 287–306). IGI Global.
  11. Asif, M.; Raza, Z.H.; Mahmood, T. Harnessing Artificial Intelligence for Sustainable Forestry: Innovations in Monitoring, Management, and Conservation. Revista Espanola de Documentacion Cientifica 2023, 17, 350–373. [Google Scholar]
  12. Atkin, J.M.; Black, P.; Lederman, L.; Ogawa, M.; Prime, G.; Rennie, L.J. (1998). The ICSU Programme on capacity building in science.
  13. Austin, C.C.; Bernier, A.; Bezuidenhout, L.; Bicarregui, J.; Biro, T.; Cambon-Thomsen, A. . & Alliance, R.D. Fostering global data sharing: highlighting the recommendations of the Research Data Alliance COVID-19 working group. Wellcome open research 2021, 5, 267. [Google Scholar]
  14. Ayana, G.; Dese, K.; Daba Nemomssa, H.; Habtamu, B.; Mellado, B.; Badu, K. . & Kong, J.D. Decolonizing global AI governance: assessment of the state of decolonized AI governance in Sub-Saharan Africa. Royal Society Open Science 2024, 11, 231994. [Google Scholar]
  15. Barnett, R. (2021). Utu in the Anthropocene. Places Journal.
  16. Barnhardt, R.; Oscar Kawagley, A. Indigenous knowledge systems and Alaska Native ways of knowing. Anthropology & education quarterly 2005, 36, 8–23. [Google Scholar]
  17. Baudemann, K. (2021). The Future Imaginary in Indigenous North American Arts and Literatures. Routledge.
  18. Beloglazov, A.; Abawajy, J.; Buyya, R. Energy-aware resource allocation heuristics for efficient management of data centers for cloud computing. Future generation computer systems 2012, 28, 755–768. [Google Scholar] [CrossRef]
  19. Ben Dhaou, S.; Isagah, T.; Distor, C.; Ruas, I. (2024). Global Assessment of Responsible Artificial Intelligence in Cities: Research and recommendations to leverage AI for people-centred smart cities.
  20. BENGIO, Y.; COHEN, A.; PRUD’HOMME, B.E.N.J.A.M.I.N.; ALVES, A.L.D.L.; ODER, N. INNOVATION ECOSYSTEMS FOR SOCIALLY BENEFICIAL AI. Missing links in AI governance 2023, 133. [Google Scholar]
  21. Beverland, M.J.H. (2022). Kaitiakitanga: Māori experiences, expressions, and understandings: a thesis presented in fulfilment of the requirements for the Doctor of Philosophy at Massey University, Manawatū, Aotearoa New Zealand (Doctoral dissertation, Massey University).
  22. Bibri, S.E.; Krogstie, J.; Kaboli, A.; Alahi, A. Smarter eco-cities and their leading-edge artificial intelligence of things solutions for environmental sustainability: A comprehensive systematic review. Environmental Science and Ecotechnology 2024, 19, 100330. [Google Scholar] [CrossRef]
  23. Bohn, B.A.; Kershner, J.L. Establishing aquatic restoration priorities using a watershed approach. Journal of Environmental Management 2002, 64, 355–363. [Google Scholar] [CrossRef] [PubMed]
  24. Bose, M. (2025). Bias in AI: A Societal Threat: A Look Beyond the Tech. In Open AI and Computational Intelligence for Society 5.0 (pp. 197–224). IGI Global Scientific Publishing.
  25. Broussard, B.A.; Sugarman, J.R.; Bachman-Carter, K.; Booth, K.; Stephenson, L.; Strauss, K.; Gohdes, D. Toward comprehensive obesity prevention programs in Native American communities. Obesity Research 1995, 3(S2), 289s–297s. [Google Scholar] [CrossRef]
  26. Brown, M.F. (2009). Who owns native culture?. Harvard University Press.
  27. Browne, J. , de Leeuw, E.; Gleeson, D.; Adams, K.; Atkinson, P.; Hayes, R. A network approach to policy framing: A case study of the National Aboriginal and Torres Strait Islander Health Plan. Social Science & Medicine 2017, 172, 10–18. [Google Scholar]
  28. Budka, P. (2017). Indigenizing the Internet. Socio-technical Change, Technology Appropriation and Digital Practices in Remote First Nation Communities in Northwestern Ontario, Canada (Doctoral dissertation, Dissertation, Universität Wien).
  29. Buruk, B.; Ekmekci, P.E.; Arda, B. A critical perspective on guidelines for responsible and trustworthy artificial intelligence. Medicine Health Care and Philosophy 2020, 23, 387–399. [Google Scholar] [CrossRef] [PubMed]
  30. Busuioc, M. Accountable artificial intelligence: Holding algorithms to account. Public administration review 2021, 81, 825–836. [Google Scholar] [CrossRef]
  31. Camacho, L.; Zevallos, R. (2020, September). Language technology into high schools for revitalization of endangered languages. In 2020 IEEE XXVII International Conference on Electronics, Electrical Engineering and Computing (INTERCON) (pp. 1–4). IEEE.
  32. Carpena-Méndez, F.; Virtanen, P.K.; Williamson, K.J. Indigenous pedagogies in a global world and sustainable futures. Anthropology & Education Quarterly 2022, 53, 308–320. [Google Scholar]
  33. Caudill, C.M.; Pulsifer, P.L.; Thumbadoo, R.V.; Taylor, D.F. Meeting the Challenges of the UN Sustainable Development Goals through Holistic Systems Thinking and Applied Geospatial Ethics. ISPRS International Journal of Geo-Information 2024, 13, 110. [Google Scholar] [CrossRef]
  34. Causevic, A.; Causevic, S.; Fielding, M.; Barrott, J. Artificial intelligence for sustainability: opportunities and risks of utilizing Earth observation technologies to protect forests. Discover Conservation 2024, 1, 2. [Google Scholar] [CrossRef]
  35. Causevic, A.; Causevic, S.; Fielding, M.; Barrott, J. Artificial intelligence for sustainability: opportunities and risks of utilizing Earth observation technologies to protect forests. Discover Conservation 2024, 1, 2. [Google Scholar] [CrossRef]
  36. CBE, L.C.J. The Westminster Parliament’s impact on UK AI strategy. Missing Links in AI Governance 2023, 191. [Google Scholar]
  37. Chakravarty, P.; Gattupalli, S. (2024). Integration of Indigenous Traditional Knowledge and AI in Hurricane Resilience and Adaptation. In Advances in Hurricane Risk in a Changing Climate (pp. 125–158). Cham: Springer Nature Switzerland.
  38. Challoumis, C. (2024, October). BUILDING A SUSTAINABLE ECONOMY-HOW AI CAN OPTIMIZE RESOURCE ALLOCATION. In XVI International Scientific Conference (pp. 190–224).
  39. Chataway, C.J. An examination of the constraints on mutual inquiry in a participatory action research project. Journal of Social Issues 1997, 53, 747–765. [Google Scholar] [CrossRef]
  40. Clarkson, L.; Morrissette, V.; Regallet, G. (1992). Our responsibility to the seventh generation: Indigenous peoples and sustainable development (p. 63). Winnipeg: International Institute for Sustainable Development.
  41. Connolly, J.; Director, D.; May, K.; Scientist–Te Kūwaha, M.; Stafford, N.K. (2024). Causal Loop Mapping Pilot–a whānau perspective for Te Tai-o-Aorere ki Mohua.
  42. Coombe, R.J. Intellectual Property, Human Rights & (and) Sovereignty: New Dilemmas in International Law Posed by Recognition of Indigenous Knowledge and the Conservation of Biodiversity. Ind. J. Global Legal Stud. 1998, 6, 59. [Google Scholar]
  43. Coombes, B. Nature’s rights as Indigenous rights? Mis/recognition through personhood for Te Urewera. Espace populations sociétés. Space populations societies 2020, (2020/1-2).
  44. Curtis, S.M.S.; Desimoni, V.; Crumley-Effinger, M.; Salajan, F.D.; jules, T.D. (2024). Beyond the Anthropocene: Ethics, Equity, and Responsible Use of AI in CIE. In The Technological-Industrial Complex and Education: Navigating Algorithms, Datafication, and Artificial Intelligence in Comparative and International Education (pp. 55–76). Cham: Springer Nature Switzerland.
  45. Datta, R. Relationality in Indigenous Climate Change Education Research: A Learning Journey from Indigenous Communities in Bangladesh. Australian Journal of Environmental Education 2024, 1–15. [Google Scholar] [CrossRef]
  46. Dodhia, R. (2024). AI for social good: Using artificial intelligence to save the world. John Wiley & Sons.
  47. Duarte, M.E.; Vigil-Hayes, M.; Littletree, S.; Belarde-Lewis, M. Of Course, Data Can Never Fully Represent Reality”: Assessing the Relationship between” Indigenous Data” and” Indigenous Knowledge,”“ Traditional Ecological Knowledge,” and” Traditional Knowledge. Human biology 2019, 91, 163–178. [Google Scholar] [CrossRef]
  48. Dudgeon, R.C.; Berkes, F. (2003). Local understandings of the land: Traditional ecological knowledge and indigenous knowledge. In Nature across cultures: Views of nature and the environment in non-Western cultures (pp. 75–96). Dordrecht: Springer Netherlands.
  49. Dudgeon, R.C.; Berkes, F. (2003). Local understandings of the land: Traditional ecological knowledge and indigenous knowledge. In Nature across cultures: Views of nature and the environment in non-Western cultures (pp. 75–96). Dordrecht: Springer Netherlands.
  50. Ebers, M. Truly Risk-Based Regulation of Artificial Intelligence How to Implement the EU’s AI Act. European Journal of Risk Regulation 2024, 1–20. [Google Scholar] [CrossRef]
  51. Eijck, M.V.; Roth, W.M. Keeping the local local: Recalibrating the status of science and traditional ecological knowledge (TEK) in education. Science Education 2007, 91, 926–947. [Google Scholar] [CrossRef]
  52. Engineers, A.M.C. (2015). WHITEFISH AREA WATER RESOURCES REPORT: A STATUS OF THE WHITEFISH LAKE WATERSHED AND SURROUNDING AREA.
  53. Ernster, L. The International Council of Scientific Unions (ICSU): scientific research and education. Higher Educattion in Europe 1984, 9, 41–49. [Google Scholar] [CrossRef]
  54. Esteve, R. (2006). At a Social Crossroads: Navajo Healing and Western Biomedicine (Doctoral dissertation, University of Pennsylvania).
  55. Exton, M. (2017). Personhood: A legal tool for furthering Māori aspirations for land (Doctoral dissertation, University of Otago.[).
  56. Fernández Fernández, J.L. (2022). Ethical considerations regarding biases in algorithms.
  57. Foffano, F.; Scantamburlo, T.; Cortés, A. Investing in AI for social good: an analysis of European national strategies. AI & society 2023, 38, 479–500. [Google Scholar]
  58. Gábor, O. Critique of the Asilomar AI Principles.
  59. Garcia, E.V. (2022). Multilateralism and Artificial Intelligence: What Role for the United Nations?. In The Global Politics of Artificial Intelligence (pp. 57–84). Chapman and Hall/CRC.
  60. Garnett, S.T.; Burgess, N.D.; Fa, J.E.; Fernández-Llamazares, Á.; Molnár, Z.; Robinson, C.J. . & Leiper, I. A spatial overview of the global importance of Indigenous lands for conservation. Nature Sustainability 2018, 1, 369–374. [Google Scholar]
  61. George, A.S. Artificial Intelligence and the Future of Work: Job Shifting Not Job Loss. Partners Universal Innovative Research Publication 2024, 2, 17–37. [Google Scholar]
  62. Gervais, D.J. Spiritual but not intellectual-the protection of sacred intangible traditional knowledge. Cardozo J. Int’l & Comp. L. 2003, 11, 467. [Google Scholar]
  63. Golub, A.; Mahoney, M.; Harlow, J. Sustainability and intergenerational equity: do past injustices matter? Sustainability science 2013, 8, 269–277. [Google Scholar] [CrossRef]
  64. Goralski, M.A.; Tan, T.K. Artificial intelligence and sustainable development. The International Journal of Management Education 2020, 18, 100330. [Google Scholar] [CrossRef]
  65. Gordon, H.S.J.; Ross, J.A.; Bauer-Armstrong, C.; Moreno, M.; Byington, R.; Bowman, N. Integrating Indigenous Traditional Ecological Knowledge of land into land management through Indigenous-academic partnerships. Land use policy 2023, 125, 106469. [Google Scholar] [CrossRef]
  66. Grancia, M.K. Decolonizing AI ethics in Africa’s healthcare: An ethical perspective. AI and Ethics 2024, 1–14. [Google Scholar] [CrossRef]
  67. Grant, P.; Söderbergh, C. (Eds.). (2020). Minority and Indigenous Trends 2020-Focus on technology. Minority Rights Group.
  68. Griffin-Pierce, T. (1995). Earth is my mother, sky is my father: Space, time, and astronomy in Navajo sandpainting. UNM Press.
  69. Gupta, N.; Blair, S.; Nicholas, R. What we see, what we don’t see: data governance, archaeological spatial databases and the rights of indigenous peoples in an age of big data. Journal of Field Archaeology 2020, 45(sup1), S39–S50. [Google Scholar] [CrossRef]
  70. Habash, R. Two-Eyed Seeing: An ethical space of engagement to shape engineering and computing education for sustainable development. Sustainable Horizons 2024, 12, 100118. [Google Scholar] [CrossRef]
  71. Hansen, Y.S.; O’Shane, D. Australian Institute of Aboriginal and Torres Strait Islander Studies. Our Culture Our Future: Report on Australian Indigenous Cultural and Intellectual Property Rights.
  72. Harcourt, N.; Awatere, S.; Hyslop, J.; Taura, Y.; Wilcox, M.; Taylor, L. . & Timoti, P. Kia manawaroa kia puawai: Enduring Māori livelihoods. Sustainability Science 2022, 17, 391–402. [Google Scholar]
  73. Harrison, F.V. (2018). International Union of Anthropological and Ethnological Sciences (IUAES). Hilary Callan (éd.), International Encyclopedia of Anthropology, Hoboken (NJ), John Wiley & Sons, 3386-3397.
  74. Haskie, M.J. (2002). Preserving a culture: Practicing the Navajo principles of Hózho˛’ dóó K’é (Doctoral dissertation, Fielding Graduate Institute).
  75. Hewitt, T. (2021). Imagining the future of knowledge mobilization: Perspectives from UNESCO Chairs. Canadian Commission for UNESCO.
  76. Holcombe, S.; Kemp, D. Indigenous peoples and mine automation: An issues paper. Resources Policy 2019, 63, 101420. [Google Scholar] [CrossRef]
  77. Hooper, K.D.; Oyege, I. (2024, June). Application of African Indigenous Knowledge Systems to AI Ethics Research and Education: A Conceptual Overview. In 2024 ASEE Annual Conference & Exposition.
  78. Hu, X.; Neupane, B.; Echaiz, L.F.; Sibal, P.; Rivera Lam, M. (2019). Steering AI and advanced ICTs for knowledge societies: A Rights, Openness, Access, and Multi-stakeholder Perspective. UNESCO Publishing.
  79. Hummel, P.; Braun, M.; Tretter, M.; Dabrock, P. Data sovereignty: A review. Big Data & Society 2021, 8, 2053951720982012. [Google Scholar]
  80. Hunter, J. (2014). Seven generations healing: traditional ecological knowledge, recording, application, maintenance and revival (Doctoral dissertation, Macquarie University).
  81. Huntington, H.P. Using traditional ecological knowledge in science: methods and applications. Ecological applications 2000, 10, 1270–1274. [Google Scholar] [CrossRef]
  82. Igloliorte, H.L.; Taunton, C. (Eds.). (2022). The Routledge Companion to Indigenous Art Histories in the United States and Canada. London: Routledge.Abdilla, A.; Kelleher, M.; Shaw, R.; Yunkaporta, T. (2021). Out of the black box: indigenous protocols for AI. Melbourne: Deakin University (https://hdl. handle. net/10536/DRO/DU: 30159239).
  83. Iseke, J.; Moore, S. Community-based Indigenous digital storytelling with elders and youth. American Indian Culture and Research Journal 2011, 35. [Google Scholar] [CrossRef]
  84. Jamieson, J. The role of indigenous communities in the pursuit of sustainability. NZJ Envtl. L. 2010, 14, 161. [Google Scholar]
  85. Jiang, L.; Manson, S.M.; Beals, J.; Henderson, W.G.; Huang, H.; Acton, K.J. . & Special Diabetes Program for Indians Diabetes Prevention Demonstration Project. Translating the diabetes prevention program into American Indian and Alaska native communities: results from the special diabetes program for Indians diabetes prevention demonstration project. Diabetes care 2013, 36, 2027–2034. [Google Scholar]
  86. Jones, H. (2022). Environmentalism for the environment’s sake: Towards an understanding of the influence of the Māori worldview on Western environmental management perspectives in Aotearoa New Zealand through a lens of nature connectivity (Doctoral dissertation, The University of Waikato).
  87. Jones, P.L.; Mahelona, K.; Duncan, S.; Leoni, G. (2023). Kia tangata whenua: Artificial intelligence that grows from the land and people.
  88. Kahn-John, M.; Koithan, M. Living in health, harmony, and beauty: The Diné (Navajo) Hózhó wellness philosophy. Global advances in health and medicine 2015, 4, 24–30. [Google Scholar] [CrossRef]
  89. Kahn-John, M.; Badger, T.; McEwen, M.M.; Koithan, M.; Arnault, D.S.; Chico-Jarillo, T.M. The Diné (Navajo) Hózhó Lifeway: a focused ethnography on intergenerational understanding of american indian cultural wisdom. Journal of Transcultural Nursing 2021, 32, 256–265. [Google Scholar] [CrossRef]
  90. Kahui, V.; Richards, A.C. Lessons from resource management by indigenous Maori in New Zealand: Governing the ecosystems as a commons. Ecological Economics 2014, 102, 1–7. [Google Scholar] [CrossRef]
  91. Kalusivalingam, A.K.; Sharma, A.; Patel, N.; Singh, V. Optimizing Resource Allocation with Reinforcement Learning and Genetic Algorithms: An AI-Driven Approach. International Journal of AI and ML 2020, 1. [Google Scholar]
  92. Kangana, N.; Kankanamge, N.; De Silva, C.; Goonetilleke, A.; Mahamood, R.; Ranasinghe, D. Bridging Community Engagement and Technological Innovation for Creating Smart and Resilient Cities: A Systematic Literature Review. Smart Cities 2024, 7, 3823–3852. [Google Scholar] [CrossRef]
  93. Kawharu, M. Kaitiakitanga: a Maori anthropological perspective of the Maori socio-environmental ethic of resource management. The Journal of the Polynesian Society 2000, 109, 349–370. [Google Scholar]
  94. Kealiikanakaoleohaililani, K.; Giardina, C.P. Embracing the sacred: an indigenous framework for tomorrow’s sustainability science. Sustainability Science 2016, 11, 57–67. [Google Scholar] [CrossRef]
  95. Keles, S. Navigating in the moral landscape: analysing bias and discrimination in AI through philosophical inquiry. AI and Ethics 2023, 1–11. [Google Scholar] [CrossRef]
  96. Khakurel, J.; Penzenstadler, B.; Porras, J.; Knutas, A.; Zhang, W. The rise of artificial intelligence under the lens of sustainability. Technologies 2018, 6, 100. [Google Scholar] [CrossRef]
  97. Khogali, H.O.; Mekid, S. The blended future of automation and AI: Examining some long-term societal and ethical impact features. Technology in Society 2023, 73, 102232. [Google Scholar] [CrossRef]
  98. Kiffney, P.M.; Cram, B.; Faulds, P.L.; Burton, K.; Koehler, M.; Quinn, T.P. Spatiotemporal patterns of mountain whitefish (Prosopium williamsoni) in response to a restoration of longitudinal connectivity. Ecology of Freshwater Fish 2018, 27, 1037–1053. [Google Scholar] [CrossRef]
  99. KORSHENKO, V. Risk regulation approach to governing artificial intelligence on the example of the EU’s Artificial Intelligence Act.
  100. Kroeker, J. (2022). Adopting a two-eyed seeing approach to leadership in public education: encapsulating both Indigenous ways of knowing and western knowledge to meet our commitment to reconciliation.
  101. Kukutai, T.; McIntosh, T.; Boulton, A.; Durie, M.; Foster, M.; Hutchings, J.; ... & Ruru, J. (2024). Te Pūtahitanga: a Tiriti-led science-policy approach for Aotearoa New Zealand.
  102. Kukutai, T.; Russo Carroll, S.; Walter, M. (2020). Indigenous data sovereignty.
  103. Kuokkanen, R. (2019). Restructuring relations: Indigenous self-determination, governance, and gender. Oxford University Press.
  104. Lauer, M.; Aswani, S. Indigenous ecological knowledge as situated practices: understanding fishers’ knowledge in the western Solomon Islands. American Anthropologist 2009, 111, 317–329. [Google Scholar] [CrossRef]
  105. Lehuedé, S. An alternative planetary future? Digital sovereignty frameworks and the decolonial option. Big Data & Society 2024, 11, 20539517231221778. [Google Scholar]
  106. Lehuedé, S. An elemental ethics for artificial intelligence: water as resistance within AI’s value chain. AI & SOCIETY 2024, 1-14.
  107. Lewis, J. AI and Bias: Addressing Discrimination in Machine Learning Algorithms Abstract. AlgoVista: Journal of AI & Computer Science 2024, 1.
  108. Lewis, J.E.; Abdilla, A.; Arista, N.; Baker, K.; Benesiinaabandan, S.; Brown, M.; Whaanga, H. (2020). Indigenous protocol and artificial intelligence. Honolulu, HI, USA: The Initiative for Indigenous Futures and the Canadian Institute for Advanced Research (CIFAR).
  109. Lewton, E.L.; Bydone, V. Identity and healing in three Navajo religious traditions: Sa’ah Naaghai Bik’eh Hozho. Medical Anthropology Quarterly 2000, 14, 476–497. [Google Scholar] [CrossRef]
  110. Li, J.; Brar, A. The use and impact of digital technologies for and on the mental health and wellbeing of Indigenous people: a systematic review of empirical studies. Computers in Human Behavior 2022, 126, 106988. [Google Scholar] [CrossRef]
  111. Li, R. (2020). Artificial intelligence revolution: How AI will change our society, economy, and culture. Simon and Schuster.
  112. Limb, G.E.; Hodge, D.R. Developing spiritual competency with Native Americans: Promoting wellness through balance and harmony. Families in society 2008, 89, 615–622. [Google Scholar] [CrossRef]
  113. Lovett, R.; Lee, V.; Kukutai, T.; Cormack, D.; Rainie, S.C.; Walker, J. Good data practices for Indigenous data sovereignty and governance. Good data 2019, 26–36. [Google Scholar]
  114. Ludwig, D.; Macnaghten, P. Traditional ecological knowledge in innovation governance: a framework for responsible and just innovation. Journal of Responsible Innovation 2020, 7, 26–44. [Google Scholar] [CrossRef]
  115. Madsen, P. (2022). Artificial Intelligence Risk Management: The risk-based approach in the Artificial Intelligence Act (Master’s thesis).
  116. Manheim, K.; Kaplan, L. Artificial intelligence: Risks to privacy and democracy. Yale JL & Tech. 2019, 21, 106. [Google Scholar]
  117. Marley, T.L. Indigenous data sovereignty: University institutional review board policies and guidelines and research with American Indian and Alaska Native communities. American Behavioral Scientist 2019, 63, 722–742. [Google Scholar] [CrossRef]
  118. Martin, J.F.; Roy, E.D.; Diemont, S.A.; Ferguson, B.G. Traditional Ecological Knowledge (TEK): Ideas, inspiration, and designs for ecological engineering. Ecological Engineering 2010, 36, 839–849. [Google Scholar] [CrossRef]
  119. Masenya, T.M. Revitalization and Digital Preservation of Indigenous Knowledge Systems for Sustainable Development of Indigenous Communities in South Africa. The Serials Librarian 2023, 84, 86–102. [Google Scholar] [CrossRef]
  120. Mato, P.J. (2018). Mā te hangarau te oranga o te reo Māori e tautoko ai? Can technology support the long-term health of the Māori language? (Doctoral dissertation, The University of Waikato).
  121. Matthews, B. (2018). Ko Au Te Moana, Ko Te Moana Ko Au: Te Rangatiratanga Me Te Kaitiakitanga o Roto i Te Rāngai Kaimoana Māori (I Am The Ocean, The Ocean Is Me: Rangatiratanga And Kaitiakitanga In The Māori Seafood Sector).
  122. Matthews, M.; Rice, F.; Quan, T. (2021). Responsible Innovation in Canada and Beyond: Understanding & Improving the Social Impacts of Technology. Matthews, M.; Rice, F., and Quan, T.(January 2021). Responsible Innovation in Canada and Beyond: Understanding and Improving the Social Impacts of Technology. Information and Communications Technology Council. Canada.
  123. Mazzocchi, F. A deeper meaning of sustainability: Insights from indigenous knowledge. The Anthropocene Review 2020, 7, 77–93. [Google Scholar] [CrossRef]
  124. McAllister, T.; Hikuroa, D.; Macinnis-Ng, C. Connecting Science to Indigenous Knowledge. New Zealand Journal of Ecology 2023, 47, 1–13. [Google Scholar]
  125. McCaleb, M.A. (2024). An Exploratory Study of Tribal Extension Services and Needs in the Pawnee Nation Community of Oklahoma (Master’s thesis, Oklahoma State University).
  126. McGavin, C. (2023). At the Confluence of Harm, Power, and Humanity: Can the European Commission’s Draft Artificial Intelligence Act Inform Future Regulation in Aotearoa New Zealand (Doctoral dissertation, Open Access Te Herenga Waka-Victoria University of Wellington).
  127. McMahon, R. The institutional development of indigenous broadband infrastructure in Canada and the United States: Two paths to “Digital Self-Determination”. Canadian Journal of Communication 2011, 36, 115–140. [Google Scholar] [CrossRef]
  128. Mehta, P.; Sari, S.; Mosqueda, T. (2024). Community Visioning through the Lens of Spatial Justice: A Guidance Framework for Inclusivity and Ecological Resilience.
  129. Mero-Figueroa, M.; Galdeano-Gómez, E.; Piedra-Muñoz, L.; Obaco, M. Measuring well-being: A buen vivir (living well) indicator for Ecuador. Social Indicators Research 2020, 152, 265–287. [Google Scholar] [CrossRef]
  130. Mitrofanenko, T. (2016). Intergenerational Practice: An Approach to Implementing Sustainable Development and Environmental Justice. In Women and Children as Victims and Offenders: Background, Prevention, Reintegration: Suggestions for Succeeding Generations (Volume 2) (pp. 721–743). Cham: Springer International Publishing.
  131. Modi, T.B. Artificial Intelligence Ethics and Fairness: A study to address bias and fairness issues in AI systems, and the ethical implications of AI applications. Revista Review Index Journal of Multidisciplinary 2023, 3, 24–35. [Google Scholar]
  132. Moerel, L.; Timmers, P. (2021). Reflections on digital sovereignty. EU cyber direct, research in focus series.
  133. Moewaka Barnes, H.; Harmsworth, G.; Tipa, G.; Henwood, W.; McCreanor, T. Indigenous-led environmental research in Aotearoa New Zealand: beyond a transdisciplinary model for best practice, empowerment and action. AlterNative: An International Journal of Indigenous Peoples 2021, 17, 306–316. [Google Scholar] [CrossRef]
  134. Mokoena, K.K. (2023). Towards an Ubuntu/Botho ethics of technology (Doctoral dissertation, University of Pretoria (South Africa)).
  135. Moleka, P. (2024). The Transformative Power of Innovationology.
  136. Molino, J.N. Interreligious Views on the Integration of Artificial Intelligence and Indigenous Knowledge for Environmental Preservation. Religion and Social Communication Journal of the 2023, 431. [Google Scholar] [CrossRef]
  137. Munn, L. The five tests: designing and evaluating AI according to indigenous Māori principles. AI & SOCIETY 2024, 39, 1673–1681. [Google Scholar]
  138. Murad, M. (2021). Beyond the” Black Box”: Enabling Meaningful Transparency of Algorithmic Decision-Making Systems through Public Registers (Doctoral dissertation, Massachusetts Institute of Technology).
  139. Nabhan, G.P. (2016). Enduring seeds: Native American agriculture and wild plant conservation. University of Arizona Press.
  140. Nanduri, D.K. (2024). Exploring the Role of Generative Artificial Intelligence in Culturally Relevant Storytelling for Native Language Learning Among Children (Master’s thesis, University of Maryland, College Park).
  141. Nelson, M.K.; Shilling, D. (Eds.). (2018). Traditional ecological knowledge: Learning from Indigenous practices for environmental sustainability. Cambridge University Press.
  142. Nelson, S. (2020). “ We Take Care of Each Other”: Understanding the Narratives that Surround Drug Use on the Navajo Nation (Master’s thesis, Northern Arizona University).
  143. Nemorin, S. (2024). Towards decolonising the ethics of AI in education. Globalisation, Societies and Education, 1-13.
  144. Nicholas, G. Protecting Indigenous heritage objects, places, and values: challenges, responses, and responsibilities. International Journal of Heritage Studies 2022, 28, 400–422. [Google Scholar] [CrossRef]
  145. Nikolinakos, N.T. (2023). Ethical principles for trustworthy AI. In EU Policy and Legal Framework for Artificial Intelligence, Robotics and Related Technologies-The AI Act (pp. 101–166). Cham: Springer International Publishing.
  146. Nishant, R.; Kennedy, M.; Corbett, J. Artificial intelligence for sustainability: Challenges, opportunities, and a research agenda. International Journal of Information Management 2020, 53, 102104. [Google Scholar] [CrossRef]
  147. Oetzel, J.; Duran, B. Intimate partner violence in American Indian and/or Alaska Native communities: a social ecological framework of determinants and interventions. American Indian and Alaska Native Mental Health Research The Journal of the National Center 2004, 11, 49–68. [Google Scholar] [CrossRef] [PubMed]
  148. Ofosu-Asare, Y. Cognitive imperialism in artificial intelligence: counteracting bias with indigenous epistemologies. AI & society 2024, 1-1.
  149. Oguamanam, C. Indigenous peoples, data sovereignty, and self-determination: Current realities and imperatives. The African Journal of Information and Communication 2020, 26, 1–20. [Google Scholar] [CrossRef]
  150. Okediji, R.L. A tiered approach to rights in traditional knowledge. Washburn LJ 2019, 58, 271. [Google Scholar]
  151. Oluwasanmi, M. A14D: Mapping the benefits and risks of AI driven Development in the Global South. Federalism-E 2020, 21, 68–79. [Google Scholar] [CrossRef]
  152. Omotubora, A.; Basu, S. (2024). Decoding and reimagining AI governance beyond colonial shadows. In Handbook on Public Policy and Artificial Intelligence (pp. 220–234). Edward Elgar Publishing.
  153. Ovalle, A.A. (2024). Learning from the Outliers: On Centering Underrepresented Communities to Build Inclusive and Socially-Grounded Language Technologies (Doctoral dissertation, University of California, Los Angeles).
  154. Pal, Subharun, et al. “The ai revolution.” IARA Publication (2023).
  155. Palmer, F.; Rarawa, T.; Aupoūri, T.; Awa, N. (2023, July). Indigenous Agents of Change. In World Congress of Architects (pp. 3–16). Cham: Springer International Publishing.
  156. Patel, K. Ethical reflections on data-centric AI: balancing benefits and risks. International Journal of Artificial Intelligence Research and Development 2024, 2, 1–17. [Google Scholar] [CrossRef]
  157. Paul, S.; Mandal, S. Privacy and Security on. Multifaceted Uses of Cutting-Edge Technologies and Social Concerns 2024, 213.
  158. Paul-Burke, K.; Rameka, L.K. (2015). Kaitiakitanga-Active guardianship, responsibilities and relationships with the world: Towards a bio-cultural future In early childhood education.
  159. Peng, L. (2024). Artificial Divides: Global AI Access Disparities and Constructions of New Digital Realities (Master’s thesis, University of Washington).
  160. Perera, M.; Vidanaarachchi, R.; Chandrashekeran, S.; Kennedy, M.; Kennedy, B.; Halgamuge, S. Exploring the Intersection of Indigenous Knowledge and AI: A Systematic Review and Future Directions.
  161. Pinhanez, C.; Cavalin, P.; Storto, L.; Finbow, T.; Cobbinah, A.; Nogima, J.; ... & Gonçalves, I. (2024). Harnessing the Power of Artificial Intelligence to Vitalize Endangered Indigenous Languages: Technologies and Experiences. arXiv preprint arXiv:2407.12620.
  162. Pisoni, G.; Díaz-Rodríguez, N.; Gijlers, H.; Tonolli, L. Human-centered artificial intelligence for designing accessible cultural heritage. Applied Sciences 2021, 11, 870. [Google Scholar] [CrossRef]
  163. Posey, D.A.; Dutfield, G. (1996). Beyond intellectual property: toward traditional resource rights for indigenous peoples and local communities. IDRC.
  164. Powell, D.E. (2018). Landscapes of power: politics of energy in the Navajo Nation. Duke University Press.
  165. Puketapu-Dentice, M.C. (2019). He Mauri tō Te Urewera: Understanding Legal Entities: The Transition from Resource Management to HumanManagement within Te Urewera (Doctoral dissertation, University of Otago).
  166. Puszka, S.; Dingwall, K.M.; Sweet, M.; Nagel, T. E-mental health innovations for Aboriginal and Torres Strait Islander Australians: a qualitative study of implementation needs in health services. JMIR mental health 2016, 3, e5837. [Google Scholar] [CrossRef]
  167. Putri, A.; Tran, M.Q. Artificial Intelligence and the Quest for Sustainable Innovation: Ethical Implications, Cultural Considerations, and Operational Excellence in the Deployment of AI across Diverse Sectors. AI IoT and the Fourth Industrial Revolution Review 2023, 13, 12–17. [Google Scholar]
  168. Raihan, A. Artificial intelligence and machine learning applications in forest management and biodiversity conservation. Natural Resources Conservation and Research 2023, 6, 3825. [Google Scholar] [CrossRef]
  169. Rangiwananga, N.H.R.A. (2020). Empowering mātauranga Māori to transform our understandings of freshwater management: a thesis presented in partial fulfilment of the requirements for the degree of Master’s of Science in Ecology at Massey University, Palmerston North, New Zealand (Doctoral dissertation, Massey University).
  170. Raymond, T.D.; Falk, C.L. Feeding the tribe: the role of soft infrastructure in addressing the root problems of the navajo nation san juan river irrigation system. American Indian Quarterly 2018, 42, 306–328. [Google Scholar] [CrossRef]
  171. Raza, S. Artificial Unintelligence: How “Smart” and AI technologies perpetuate bias and systemic discrimination. Gender sex and tech 2022, 185–205. [Google Scholar]
  172. Régis, C.; Farnadi, G.; Dreier, V.; Rubel, S.; d’Oultremont, C. (2023). Missing Links in AI Governance. B. Prud’homme (Ed.). United Nations Educational, Scientific and Cultural Organization (UNESCO).
  173. REID, J.; COTE, K.; ROUT, M.; RUHA, C.; MITCHELL, R.; MANHIRE, J. ;... & WHAANGA-SCHOLLUM, D.E.S.N.A. Kaitiaki Intelligence Platforms.
  174. Renda, A. (2019). Artificial Intelligence. Ethics, governance and policy challenges. CEPS Centre for European Policy Studies.
  175. Roberts, M.; Norman, W.; Minhinnick, N.; Wihongi, D.; Kirkwood, C. Kaitiakitanga: Maori perspectives on conservation. Pacific conservation biology 1995, 2, 7–20. [Google Scholar] [CrossRef]
  176. Robertson, C.; Romm, J. (2002). Data centers, power, and pollution prevention. The Center for Energy and Climate Solutions.
  177. Rotenberg, M. Human rights alignment: the challenge ahead for AI lawmakers. Hannes Werthner· Carlo Ghezzi· Jeff Kramer· Julian Nida-Rümelin· Bashar Nuseibeh· Erich Prem· 2024, 611.
  178. Ruckstuhl, K.; Haar, J.; Hudson, M.; Amoamo, M.; Waiti, J.; Ruwhiu, D.; Daellenbach, U. Recognising and valuing Māori innovation in the high-tech sector: a capacity approach. Journal of the Royal Society of New Zealand 2019, 49(sup1), 72–88. [Google Scholar] [CrossRef]
  179. Ruckstuhl, K. Data Is a Taonga: Aotearoa New Zealand, Maori Data Sovereignty and Implications for Protection of Treasures. NYU J. Intell. Prop. & Ent. L. 2022, 12, 391. [Google Scholar]
  180. Runde, D.F.; McKeown, S.; Askey, T. (2022). OECD Faces a Decision Point in 2021. Center for Strategic and International Studies (CSIS).
  181. Ryan, C.E. (2023). Reckoning with a Haunting: Creating Indigenous Future Imaginaries through Relationality and Engagement within Human-Technology Relationships (Doctoral dissertation, Concordia University).
  182. Sahota, P.C. (2010). Community-based participatory research in American Indian and Alaska Native communities. Washington DC: NCAI Policy Research Center.
  183. Salm—n, E. (2012). Eating the landscape: American Indian stories of food, identity, and resilience. University of Arizona Press.
  184. Satterfield, D. (2016). Health promotion and diabetes prevention in American Indian and Alaska Native communities—Traditional foods project, 2008–2014. MMWR supplements, 65.
  185. Scatiggio, V. (2020). Tackling the issue of bias in artificial intelligence to design ai-driven fair and inclusive service systems. How human biases are breaching into ai algorithms, with severe impacts on individuals and societies, and what designers can do to face this phenomenon and change for the better.
  186. Searight, H.R.; Gafford, J. Cultural diversity at the end of life: issues and guidelines for family physicians. American family physician 2005, 71, 515–522. [Google Scholar]
  187. Shepard, M.A.A. (2015). The substance of self-determination: language, culture, archives and sovereignty (Doctoral dissertation, University of British Columbia).
  188. Silano, J.A. (2024, June). Towards abundant intelligences: Considerations for Indigenous perspectives in adopting AI technology. In Healthcare Management Forum (p. 08404704241257144). Sage CA: Los Angeles, CA: SAGE Publications.
  189. Sillitoe, P. The development of indigenous knowledge: a new applied anthropology. Current anthropology 1998, 39, 223–252. [Google Scholar] [CrossRef]
  190. Smart, A.; Hutchinson, B.; Amugongo, L.M.; Dikker, S.; Zito, A.; Ebinama, A.; ... & Smith-Loud, J. (2024). Socially Responsible Data for Large Multilingual Language Models. arXiv preprint arXiv:2409.05247.
  191. Snively, G.; Corsiglia, J. Discovering indigenous science: Implications for science education. Science education 2001, 85, 6–34. [Google Scholar] [CrossRef]
  192. Stanaway, K. Sustainable Nearshore Marine Fisheries in Hawai’i: Applying Principles from Traditional Practitioners in Hawai’i and Aotearoa New Zealand. APLPJ 2016, 18, 123. [Google Scholar]
  193. Tafoya, M.K. (2014). Traditional Navajo Culture is a Protective Factor (Master’s thesis, The University of Arizona).
  194. Taiuru, K. (2020). Treaty of Waitangi. Te Tiriti and Māori Ethics Guidelines for: AI, Algorithms, Data and IOT, 65.
  195. Tschider, C.A. Beyond the” Black Box”. Denv. L. Rev. 2020, 98, 683. [Google Scholar]
  196. Tsosie, R. Tribal Data Governance and informational privacy: constructing indigenous data sovereignty. Mont. L. Rev. 2019, 80, 229. [Google Scholar]
  197. Tsuji, L.J.; Ho, E. Traditional environmental knowledge and western science: in search of common ground. Canadian Journal of Native Studies 2002, 22, 327–360. [Google Scholar]
  198. Urewera, T.; Puketapu-Dentice, M.C. (2018). He Mauri tō Te Urewera.
  199. Van Den Hoven, E.; Shaer, O.; Loke, L.; Van Dijk, J.; Kun, A. (2020, February). TEI 2020 Chairs? Welcome. In TEI 2020-Proceedings of the 14th International Conference on Tangible, Embedded, and Embodied Interaction.
  200. van Halderen, L. (2020). Investigating rāhui as a customary fisheries management tool (Doctoral dissertation, MSc thesis, University of Otago]. OUR Archive. http://hdl. handle. net/10523/10041).
  201. Varanasi, U. Mapping the vocabulary of AI through pluriversal lens (Master’s thesis).
  202. Vermeylen, S.; Martin, G.; Clift, R. (2008). Intellectual property rights systems and the assemblage of local knowledge systems. International Journal of Cultural Property 2021, 15, 201–221. [Google Scholar] [CrossRef]
  203. Vidal, F.; Dias, N. (Eds.). (2016). Endangerment, biodiversity and culture (p. 2). London: Routledge.
  204. Vinothkumar, J.; Karunamurthy, A. Recent Advancements in Artificial Intelligence Technology: Trends and Implications. Quing: International Journal of Multidisciplinary Scientific Research and Development 2023, 2, 1–11. [Google Scholar] [CrossRef]
  205. Wagner, A.; de Clippele, M.S. Safeguarding cultural heritage in the digital era–A critical challenge. International Journal for the Semiotics of Law-Revue internationale de Sémiotique juridique 2023, 36, 1915–1923. [Google Scholar] [CrossRef]
  206. Walters, K.L.; Johnson-Jennings, M.; Stroud, S.; Rasmus, S.; Charles, B.; John, S. . & Boulafentis, J. Growing from our roots: Strategies for developing culturally grounded health promotion interventions in American Indian, Alaska Native, and Native Hawaiian communities. Prevention Science 2020, 21, 54–64. [Google Scholar] [PubMed]
  207. West, D.M. (2018). The future of work: Robots, AI, and automation. Brookings Institution Press.
  208. Whaanga, H.; Wehi, P. (2015). Te Wawao I Te Mātauranga Māori: Indigenous Knowledge in a Digital Age—Issues and Ethics of Knowledge Management and Knowledge Exchange in Aotearoa/New Zealand. In Ethnographies in Pan Pacific Research (pp. 241–260). Routledge.
  209. Whittaker, R.; Dobson, R.; Jin, C.K.; Style, R.; Jayathissa, P.; Hiini, K. . & Waitematā AI Governance Group Mark A. 1 Armstrong D. 1 Frost E. 1 Buxton J. 1 Lunny J. 1 Andrew P. 1 Bloomfield S. 1 Puddle S. 1 Miles W. 1. An example of governance for AI in health services from Aotearoa New Zealand. NPJ Digital Medicine 2023, 6, 164. [Google Scholar] [PubMed]
  210. Wikitera, K.A. (2024). TE WHAKATERE I TE PĀNGA AHUREA NAVIGATING CULTURAL IMPACT ASSESSMENT (CIA).
  211. Willeto, A.A. Happiness in navajos (diné ba’hózhó). Happiness across cultures: Views of happiness and quality of life in non-western cultures 2012, 377-386.
  212. Williams, D.H.; Shipley, G.P. Enhancing artificial intelligence with indigenous wisdom. Open Journal of Philosophy 2021, 11, 43–58. [Google Scholar] [CrossRef]
  213. Williams, W. (2020). Digital taniwha: Growing Māori participation in the IT industry (Doctoral dissertation, The University of Waikato).
  214. Woodward, E.; Hill, R.; Harkness, P.; Archer, R. (2020). Our Knowledge Our Way in caring for Country: Indigenous-led approaches to strengthening and sharing our knowledge for land and sea management. Best Practice Guidelines from Australian Experiences.
  215. Wu, C.J.; Raghavendra, R.; Gupta, U.; Acun, B.; Ardalani, N.; Maeng, K. . & Hazelwood, K. Sustainable ai: Environmental implications, challenges and opportunities. Proceedings of Machine Learning and Systems 2022, 4, 795–813. [Google Scholar]
  216. Zou, D.; Lin, Z. Research on Innovative Applications of AI Technology in the Field of Cultural Heritage Conservation. Academic Journal of Humanities & Social Sciences, 7, 111-120.
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