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Differences in Cultural Views on AI in Healthcare: A Call for Local Engagement

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24 August 2026

Posted:

26 August 2026

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Abstract
The limited real-world adoption of Artificial Intelligence (AI) in healthcare is often attributed not to technical performance, but to a poor fit with the cultural, social, and ethical contexts of diverse populations. This study investigates this gap by exploring how cultural determinants shape the acceptance and implementation of AI-driven technologies in healthcare. Using multi-source qualitative design approach that combines a global narrative review with an in-depth case study of the AIMIX project in Kenya, we identify key socio-cultural factors—such as religious beliefs, family structures, and community governance—that are critical for designing trustworthy AI. The findings from extensive stakeholder engagement, including 84 participants through interviews and workshops, demonstrate that local legitimacy, secured through community co-design and ethical partnership, is as crucial as technical accuracy for successful implementation. This research suggests that moving beyond Western-centric models—that prioritize individual autonomy and technocratic ethics—to develop context-aware, culturally grounded frameworks is essential for achieving equitable and effective AI in global healthcare.
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1. Introduction

Artificial Intelligence (AI) has emerged as a transformative force in healthcare, promising more efficient, personalized, and predictive care [1]. By leveraging large-scale datasets and advanced algorithms, AI-driven technologies can interpret complex medical information, improving diagnostic accuracy, optimizing treatment plans, and enhancing clinical workflows [1]. These advancements have already demonstrated tangible benefits in domains such as radiology, cardiology, and oncology, where AI models have achieved performance comparable to or surpassing human experts. However, despite this rapid technological progress, the real-world adoption of AI in healthcare remains limited, particularly outside high-resource environments [2].
A growing body of literature identifies social, ethical, and cultural barriers as major determinants of AI’s limited implementation [3,4,5]. Most AI-driven technologies are trained on data from Western and high-income populations, leading to performance gaps and trust issues when deployed in different cultural contexts [6,7]. Furthermore, studies show that patient perceptions of AI in healthcare are deeply shaped by local beliefs, values, and social norms [8]. For example, attitudes toward data sharing, trust in automation, and the acceptability of algorithmic decision-making differ widely between Western, Eastern, and Global South societies [9]. These variations influence not only patient acceptance but also clinician trust, regulatory readiness, and ethical oversight of AI-driven healthcare.
Despite increasing recognition of these socio-cultural factors, the literature on AI ethics in healthcare remains largely theoretical or focused on technical fixes for algorithmic bias [10,11]. A critical, empirical gap persists: a lack of in-depth, multi-stakeholder case studies that move from identifying cultural barriers to demonstrating how they can be navigated through concrete, community-engaged processes in resource-limited settings. Previous works [12] offer high-level frameworks but offer limited empirical evidence on the practical negotiation of trust, the role of local power structures like religious leadership, and the adaptation of AI tools to collective, rather than individual, decision-making models.
This paper addresses this gap by presenting an empirical case study of the AIMIX project in Kenya. We argue that the AIMIX project provides a concrete exemplar of “engaged implementation,” providing a real-world model for bridging the theory-practice divide. Through an analysis of rich qualitative data from 84 diverse stakeholders—including pregnant women, families, healthcare workers, and religious leaders—this study does not merely describe cultural challenges but demonstrates the specific strategies and adaptations required to build legitimacy for AI in a non-Western, high-context community. Ultimately, we contend that addressing the cultural gap in AI requires not just new frameworks, but a fundamental reorientation towards methodologies of co-creation, which this study details and defends.

2. Methods

This study employed a qualitative, multi-method approach, combining a narrative literature review with an in-depth, single-case study design [13] to explore the cultural and ethical dimensions of AI in healthcare, with a specific focus on the African context.

2.1. Literature Review Methodology

A narrative review was conducted to map the conceptual terrain of cultural and ethical factors influencing AI adoption in healthcare.
Search Strategy & Sources: Searches were performed in PubMed® and Google Scholar between February-April 2025, covering publications from 2010-2025. This was supplemented by consultation with qualitative research experts and citation tracking. Foundational theoretical and methodological works published before 2010 (e.g., thematic analysis guidelines) were also consulted when relevant.
Search Terms: Combinations of the following keywords were used: “artificial intelligence,” “AI in healthcare,” “cultural competence,” “global health,” “ethics in AI,” “healthcare disparities,” “cultural determinants,” “local engagement,” “AI Africa,” “digital health.”
Inclusion Criteria: We included English-language peer-reviewed articles, grey literature, and policy reports that explicitly discussed cultural, ethical, or social aspects of AI in healthcare.
Exclusion Criteria: We excluded publications focusing solely on technical AI models without societal context, non-English publications, and non-analytical editorials.
Analytical Framework: From an initial pool of over 200 results, 68 sources were selected for final synthesis following the inclusion and exclusion criteria described above. Findings were organized and compared across four broad cultural perspectives—Western [14], Eastern [15], Global South [16], and Indigenous—to provide a structured global comparison before a deep dive into the African context.

2.2. A Review of Cultural Determinants of AI in Healthcare

To understand the challenges of implementing AI in diverse settings, it is essential to first map the global landscape of cultural determinants. This review moves beyond a simple catalogue of differences to analyze how deeply embedded cultural values—particularly the individualistic and technocratic assumptions of Western models shape the design, ethics, and anticipated adoption of AI tools. The following sections contrast these dominant Western frameworks with Eastern perspectives and, most critically, with the distinctive communal and relational paradigms of the African context, which fundamentally challenge the universality of the Western approach.

2.2.1. Global perspective

The global discourse on AI in healthcare has been predominantly shaped by Western and, to a significant extent, Eastern perspectives, each with its own internal diversity. A comparative analysis reveals how core cultural values create divergent expectations and ethical requirements for AI systems.
Cultural competence refers to the ability of researchers, practitioners, and institutions to understand, respect, and effectively engage with individuals and communities from diverse cultural backgrounds. [17] It involves recognizing the influence of cultural values, beliefs, practices, and social structures on human behaviour, interactions, and societal systems for conducting ethical, inclusive, and impactful research. Initiatives aimed at promoting inclusivity in AI design processes are becoming more prevalent, recognizing that culturally sensitive AI can lead to better health outcomes and patient satisfaction [18]. To comprehensively explore the impact of cultural differences on AI in healthcare across the world, we will provide a synthesised overview mostly based on social sciences criteria. It made possible to draw up a list of the main cultural differences to be taken into account depending on the context of design, development and adoption of AI tools in healthcare.
However, the conventional notion of cultural competency has been criticised for reducing culture to a static set of traits associated with ethnic or linguistic groups. This approach can lead to stereotyping and may overlook the individual patient’s context and lived experiences. We advocate for a more broad and dynamic understanding of culture, emphasizing, among others, the importance of the medical community engaging directly with patients to understand their unique perspectives and social determinants affecting their health.

Sociocultural Dynamics

Religious Beliefs

The impact of religious beliefs on AI in healthcare is significant, as different religious traditions shape ethical perspectives, trust in technology, and healthcare decision-making [19]. In societies with strong religious influence, people may prefer human-led medical decisions over AI-generated ones, citing spiritual and ethical concerns. For instance, religious communities may resist AI in end-of-life care, genetic modifications, and reproductive technologies, preferring traditional human oversight. Some religious traditions, however, embrace AI as a technology for improving healthcare accessibility while maintaining ethical safeguards. Religious beliefs also impact policy and regulation of AI in healthcare. Faith-based medical institutions may require AI to align with their ethical standards, influencing healthcare AI policies. Health stakeholders must navigate these beliefs to ensure AI deployment is both culturally sensitive and ethically responsible.
From a Catholic perspective, ethics emphasizes human dignity, the sanctity of life, and moral responsibility in medical practices. This viewpoint advocates for AI systems that enhance human well-being without compromising ethical standards. Catholic healthcare institutions are encouraged to adopt AI technologies that minimize harm and promote human flourishing, aligning with the Church’s moral teachings [20]. The Vatican has issued ethical guidelines for AI use in healthcare [21], emphasizing that AI should complement human intelligence and not replace it, underscoring the need for careful oversight to prevent potential ethical issues.
Similarly, in Jewish ethical thought, perspectives on AI in healthcare emphasize human responsibility, ethical caution, and the obligation to heal [22]. In Halakhah, Jewish law, these principles support technological advancements like AI, provided they align with ethical standards and prioritize patient welfare. Jewish ethics advocate a cautious approach to AI, ensuring safety and reliability while preventing harm. Physicians have a duty to heal, and patients are obligated to seek medical care, making AI a valuable technology for enhancing diagnostics and treatment. Institutions like the Schlesinger Institute work to harmonize AI advancements with Jewish medical law, ensuring that AI-driven healthcare aligns with religious and ethical obligations.
From an Islamic bioethical standpoint, religious-moral duties are integrated with medical accountability. AI’s role in healthcare is examined through this dual framework, considering both legal obligations and spiritual responsibilities. Islamic scholars advocate for AI systems that support, rather than replace, human judgment, ensuring that moral and ethical considerations remain central in medical practice. From an Islamic perspective, these challenges are evaluated through the lens of Maqasid al-Shari’ah (the objectives of Islamic law), which prioritize the preservation of faith, life, intellect, progeny, and wealth. AI applications must align with these objectives, ensuring that technological advancements do not compromise fundamental Islamic values. Islamic jurisprudence (fiqh) plays a crucial role in assessing the permissibility of integrating AI into healthcare. AI systems that enhance patient care, improve diagnostic accuracy, and facilitate treatment are generally viewed favorably, provided they do not infringe upon ethical boundaries set by Islamic law [23].
Turning to Hinduism, its rich philosophical and ethical frameworks, particularly the concepts of Dharma (duty) and Karma (action and consequence), offer valuable insights for integrating AI into healthcare. AI systems in healthcare can be designed to consider the long-term impacts of their actions on patient health and well-being, promoting ethical decision-making that aligns with the holistic approach of Hindu philosophy. Hinduism views health as an integration of biological, psychological, and spiritual elements. AI applications in healthcare that address all three aspects may be more effective and better received by Hindu patients [24].
Lastly, within Buddhist ethics, beliefs significantly influence the ethical integration of AI in healthcare, particularly through principles like compassion, mindfulness, interconnectedness, and non-attachment. Compassion (karuṇā) emphasizes AI’s role in alleviating suffering and enhancing patient care, advocating for empathetic AI-driven interactions. Mindfulness (sati) encourages the ethical and transparent use of AI, ensuring respect for patient autonomy and dignity. The concept of interconnectedness (pratītyasamutpāda) highlights the complex relationships between patients, healthcare providers, and technology, supporting a holistic approach to AI in medicine [25].

Gender Inequalities

Gender inequalities in access to healthcare can lead to AI tools being less effective or even harmful for underrepresented genders. AI systems must be designed to identify and address specific health challenges faced by different genders. Additionally, gender biases in data can lead AI systems to perpetuate existing disparities, underscoring the need for gender-sensitive approaches in AI development [26]. For instance, cardiovascular diseases in women are often underdiagnosed because AI models are frequently trained on male-dominated datasets. Similarly, pain management tools may underestimate women’s symptoms, leading to inadequate treatment. Western healthcare systems often strive to address gender inequalities through policies that ensure equal access to AI-driven healthcare solutions. However, in Eastern cultures, traditional gender roles can restrict women’s access to new technologies, including AI, necessitating targeted interventions. In the Global South and among Indigenous communities, disparities in gender power dynamics are profound, affecting how health technologies are accessed and utilized, necessitating a gender-sensitive approach in AI tool deployment [27].

Family Structure and Social Support

In many cultures, family and community play a significant role in health decisions. AI tools that accommodate family-based decision-making and include features that support communal engagement can see higher acceptance and more effective integration into daily healthcare management. In Western societies, where individualism prevails, AI healthcare solutions often focus on personal data and self-management tools [28]. Conversely, Eastern, Global South, and Indigenous cultures emphasize family and community involvement in healthcare decisions, requiring AI systems to support collective decision-making processes and community health strategies [29,30].
An example of how family structure influences AI in healthcare can be seen in the Hōkō family structure in East Asian cultures, particularly in Japan and China [31], where filial piety (deep respect and duty toward elders) shapes healthcare decisions. In these societies, AI-driven healthcare platforms must accommodate family-based decision-making rather than focusing solely on individual autonomy. For instance, AI-driven telemedicine and eldercare solutions in Japan integrate features that allow family members to monitor and participate in a patient’s healthcare remotely. AI chatbots and health monitoring systems send alerts not only to the patient but also to their children or caregivers, ensuring that medical decisions align with family expectations. Similarly, in India [32], AI applications in healthcare must consider joint-family structures, where multiple generations live together and share decision-making responsibilities. AI-based chronic disease management tools often provide family-accessible dashboards so that relatives can assist in managing conditions like diabetes or hypertension.

Economic and Environmental Context

Urban vs. Rural Living

The stark contrasts in infrastructure, resources, and access between urban and rural environments necessitate adaptable AI base healthcare technologies that account for the varying levels of infrastructure and resources across different regions and communities [33]. Urban areas generally have better access to digital infrastructure and healthcare resources, although this can vary significantly depending on regional development and investment priorities, facilitating the implementation of complex AI applications. In contrast, rural regions often face limited medical resources and geographical barriers, making AI solutions that require minimal resources and connectivity more suitable. For instance, integrating telemedicine with AI has shown promise in enhancing healthcare access and quality in rural settings by enabling remote consultations and diagnostics [34].
In Eastern and Global South regions, the pronounced disparities between urban and rural healthcare resources demand AI solutions that function effectively with minimal infrastructure, emphasizing mobile and offline capabilities. A comprehensive review highlights the potential of AI to mitigate healthcare disparities in rural areas of developing countries, suggesting that AI can bridge gaps in healthcare access and quality where resources are scarce [35].
Indigenous [36] communities may require even more tailored solutions that consider extreme remoteness and cultural specifics. For instance, initiatives like IndigenousTech.ai (https://www.indigenoustech.ai/) have partnered to implement AI-powered tele-dermatology solutions for remote Indigenous communities across Canada, demonstrating how AI can be adapted to meet the unique needs of these populations.

Economic Factors

The high costs associated with developing and implementing AI healthcare pose challenges to both underfunded healthcare services and hospital systems in Western countries, as well as to healthcare systems in low- and middle-income countries. The cost of AI in healthcare varies widely depending on the type of AI model, the complexity of data processing, and the integration requirements with existing healthcare systems [37]. Economic disparities affect not only the ability to access AI technologies, but also the resources available for ongoing support and maintenance. Affordable AI solutions are essential in low-income settings to ensure broad accessibility and sustainability. In countries in the East and Global South, where resources are often limited, AI solutions must be cost-effective to be feasible [38]. Indigenous communities face even greater economic challenges, highlighting the need for affordable AI-based healthcare solutions [39].

Communication and Education

Language

Language barriers can significantly hinder the effectiveness of healthcare AI, which must communicate complex medical information accurately and understandably. Multilingual capabilities and culturally appropriate communication are crucial to ensure that AI tools are accessible and useful to diverse populations. In multilingual Western societies, AI systems are increasingly required to offer language versatility to cater to diverse populations [40]. Eastern contexts often deal with a high degree of linguistic diversity, necessitating AI tools capable of understanding and processing multiple languages efficiently [41]. In Global South and Indigenous settings, preserving linguistic integrity while implementing AI is crucial for user comprehension and acceptance [42].
Moreover, taking into account communication styles, as defined by Edward T. Hall [43] and used in cross-cultural research can make AI healthcare tools linguistically and culturally competent. They could adapt to high-context (HC) and low-context (LC) communication styles. HC cultures, rely on implicit communication, shared cultural knowledge, and non-verbal cues, while LC cultures, prioritize direct, explicit verbal exchanges. AI tools designed solely with a low-context approach may seem blunt or insensitive to HC users, whereas a high-context approach might lack the clarity required by LC users. For instance, a telemedicine chatbot addressing a Japanese user might begin with polite formalities and indirect suggestions, whereas for a German user, it would provide precise, data-driven recommendations. Customizable interaction preferences would allow users to choose between direct and conversational styles enabling the system to adjust its communication style, shifting towards more explicit explanations when needed.

Educational Background

Educational background significantly influences individuals’ interactions with AI technologies in healthcare, affecting their trust, scepticism, and technical proficiency [44]. Those with higher education levels may feel more comfortable using AI-driven medical applications, comprehending AI-generated reports, and critically assessing potential biases. Conversely, individuals with limited education might face challenges with complex AI-driven health platforms, leading to disparities in AI accessibility and effectiveness. This educational divide impacts both patients and healthcare professionals, influencing the adoption and effective engagement with AI innovations [45].
Healthcare professionals’ educational backgrounds play a crucial role in AI adoption. A study conducted in Kerala, India, highlighted those medical students perceive AI as an assistive technology in healthcare, emphasizing the importance of structured AI training in undergraduate curricula to address evolving healthcare needs and ethical considerations [46]. Similarly, integrating AI into health professions education enhances interactive learning experiences, increases knowledge, and prepares students for future healthcare roles [47].
In Eastern countries, there is a focus on balancing advanced urban education systems with less developed rural ones. The Global South and Indigenous areas, characterized by educational variability, necessitate AI solutions that accommodate a broad range of user capabilities [48].

Health System Interaction

Differences in Healthcare Experiences

People’s prior experiences with healthcare systems—whether positive or negative—can influence their willingness to adopt new technologies. In regions with historically inadequate healthcare, there may be scepticism towards new solutions like AI, requiring developers to build more robust outreach and education efforts. Conversely, in well-served areas, there may be higher expectations for AI to provide significant added value, pushing developers to innovate beyond basic functionalities [49].
Western perspectives hold high expectations for AI to enhance well-established healthcare systems by improving efficiency and advancing diagnostics. In Eastern perspectives, where healthcare varies from advanced urban facilities to under-resourced rural care, AI must be highly adaptable and scalable to meet the diverse needs of different populations. From the viewpoint of the Global South and Indigenous communities, where systemic neglect in healthcare is common, AI has the potential to improve access to healthcare, but only if solutions are reasoning for patient perspective to understand patient concerns, needs and previous experiences.

Health Literacy

Health literacy refers to a person’s ability to obtain, understand, and use health-related information to make informed decisions. Addressing health literacy at the community level provides great potential for improving health knowledge, skills and behaviours, resulting in better health outcomes [50]. Considering the varying levels of health literacy across different populations permits to design AI healthcare tools that are too complex and may not be usable for individuals with lower health literacy, reducing their effectiveness and adoption. Simplified interfaces and clear, jargon-free language can help bridge this gap. Health literacy varies widely across Western populations, influencing the design of user interfaces in AI systems to ensure they are accessible to all education levels. Eastern and Global South regions, with their varying educational backgrounds, require AI tools that are intuitive and provide localized health education. For Indigenous communities, integrating traditional health knowledge into AI applications is vital for acceptance and effectiveness [51].

Regulatory and Ethical Considerations

Ethical Norms and Values

Ethical considerations, including how data is used, how privacy is maintained, and how consent is obtained, can vary by culture. AI developers must ensure that their designs comply with these varying norms to foster trust and acceptance, crucial for the successful deployment and utilization of AI in healthcare [52]. Western societies often prioritize individual rights and privacy, guiding the ethical deployment of AI in healthcare [53]. In contrast, Eastern cultures may emphasize community welfare over individual rights, affecting data usage norms [54]. Global South and Indigenous perspectives frequently integrate community consensus in ethical considerations, influencing AI’s operational ethics.
One of the most pressing ethical challenges in the use of AI in healthcare is algorithmic bias, which arises from systemic errors that disproportionately affect certain patient groups based on factors such as race, gender, and socioeconomic status. Many AI systems are trained on datasets that predominantly represent Western populations, leading to less accurate diagnostics for underrepresented groups. For instance, dermatology AI tools have been shown to perform better on lighter skin tones, potentially worsening health disparities for people with darker skin. This bias highlights a broader issue in healthcare AI, where training data often lacks diversity or reflects historical inequalities, resulting in flawed predictions and inadequate care for marginalized populations.
Beyond diagnostic inaccuracies, AI systems may also rely on proxy variables, such as healthcare costs, that fail to account for disparities in access to care. Additionally, unconscious assumptions made during AI development can further embed bias into algorithms, leading to inequitable healthcare outcomes. These biases can contribute to misdiagnoses, inappropriate treatments, and unequal distribution of healthcare resources, reinforcing existing inequalities rather than mitigating them. Addressing these challenges requires the integration of diverse and representative datasets, rigorous bias detection methods, and collaboration between AI developers, clinicians, and policymakers [55].

Regulatory Environment

The regulatory frameworks governing data privacy, medical devices, and AI can differ greatly across regions and have a direct impact on what is permissible in the development of AI tools. Navigating these regulations effectively is crucial for bringing AI solutions to market and scaling them across borders. In the West, stringent regulations govern the development and deployment of AI in healthcare, focusing on patient safety. Data protection regulations like the FDA [56] and GDPR [57] guide AI development with a focus on compliance and safety. Eastern countries may have less stringent or rapidly evolving AI regulations, requiring agile responses from AI developers. In the Global South and Indigenous regions, the regulatory frameworks are often underdeveloped, presenting both challenges and opportunities for AI implementation. Key concerns include patient privacy breaches, biases related to race, culture, and social status, errors affecting health outcomes, reduced patient involvement in care, increased costs, and potential legal disputes.
The World Health Organization (WHO) recognizes the potential of AI in enhancing health outcomes and emphasizes the need for regulatory considerations that address data security, protection, and equitable access. Global harmonization efforts aim to create common frameworks [58] for risk assessment, performance evaluation, and post-market surveillance of AI-enabled medical devices, facilitating safer and more effective AI integration across diverse healthcare systems.

Psychological and Behavioural Aspects

Trust in Technology and Institutions

Trust varies widely depending on historical and cultural contexts. In areas with low trust in healthcare systems or technology, AI tools must be introduced transparently and with clear benefits to overcome scepticism. Western trust in healthcare AI is shaped by public perceptions of data privacy and transparency [59]. Eastern trust varies significantly, often necessitating government endorsement to foster acceptance. In the Global South and Indigenous areas, historical mistrust in external interventions makes community engagement and transparency crucial for AI acceptance [60].
The integration of AI into healthcare has the potential to transform the doctor-patient relationship. Automated diagnostics and decision-making tools could reduce the need for human interaction, which is more accepted in regions like Asia, where telemedicine is widely used. However, in Europe, where human contact remains central to healthcare, there is resistance to the idea of AI replacing doctors. This cultural difference highlights the need for AI systems that complement, rather than replace, human expertise.
The significance of patient-doctor trust in shared decision-making, has been for instance explored since 2013 [61], highlighting the cultural dynamics that influence this relation [62].As highlighted in recent discussions, this intercultural approach of trustworthy must be developed to promote effective patient-centered care [63]. Healthcare providers can build trust and empower patients by being transparent about AI use and respecting different comfort levels with its role in treatment [64].

2.2.2. African Perspective

The African context cannot be adequately understood as a mere variation of the Eastern or Global South perspectives; it presents a distinctive and powerful challenge to the Western-centric AI paradigm. The continent’s rich cultural diversity is underpinned by shared philosophical orientations and historical experiences that demand a fundamental rethinking of what constitutes “ethical” and “effective” AI. A focused examination reveals several themes central to AI adoption in African healthcare that directly contrast with the individualistic, technocratic assumptions of Western models.
Ubuntu and Communal Ethics in the Kenyan context [65]: Perhaps the most significant philosophical pillar comes from African humanist philosophies like Ubuntu, encapsulated in the principle “I am because we are.” Beyond a simple cultural motto, Ubuntu represents a relational conception of personhood in which individual identity is constituted through one’s obligations, reciprocity, and mutual care within the community. This philosophy finds direct expression in Kenya through concepts like Ujamaa (familyhood) and the national ethos of Harambee (all pull together). This stands in stark contrast to the Cartesian “I think, therefore I am” that underpins Western individualism [66]. Ubuntu emphasizes interconnectedness, communal well-being, and human dignity over individualistic gain [67]. Under this framework, an ethical intervention—including the deployment of an AI system—is judged by its capacity to foster social harmony, protect vulnerable members and strengthen the fabric of the community, rather than by technical performance alone. In practice, this means the success of an AI technology is judged not only by its diagnostic accuracy but by its ability to strengthen social cohesion, involve the community in its governance, and produce collective benefit [68]. This requires a shift from a model of “informed consent” focused on the individual to one of “communal endorsement”[69,70], where the legitimacy of a technology is negotiated with the community as a whole [71].
Infrastructural Realities and Frugal Innovation: The African context demands a move beyond technocratic solutions designed for stable, high-resource environments. Challenges like intermittent connectivity, limited electricity, and a scarcity of specialized healthcare workers are not mere obstacles to be overcome but are core design constraints [72,73]. This has spurred innovation in frugal AI, mobile-first (mHealth) solutions, and models that augment the capabilities of community health workers rather than replacing them, a direct contrast to the Western narrative of AI as a direct replacement for human expertise.
Data Sovereignty and Historical Legacies of Exploitation: Discussions about data in Africa are inextricably linked to histories of colonial and corporate extraction and exploitation. This has fuelled a powerful discourse on data sovereignty, demanding that data for AI be governed locally [74], stored on the continent where possible, and used in ways that directly and transparently benefit African populations [75]. Building trust requires data practices that actively counter this legacy of exploitation, going beyond the Western compliance-based model of GDPR to address deeper historical and political grievances.
The Centrality of Non-State Authority: As will be demonstrated in the AIMIX case study, formal regulatory frameworks are often only one part of the governance puzzle in many African contexts. The influence of religious leaders, tribal elders, and community health committees is profound and often surpasses that of distant government or corporate entities. Effective AI implementation requires engaging these non-state authorities as essential co-designers and moral gatekeepers. Their concerns about spiritual compatibility, modesty, and the dehumanization of care are not peripheral “cultural sensitivities” but central determinants of adoption, a reality that is largely absent from Western technocratic deployment models.
By centring these African perspectives, this review moves beyond applying global frameworks and instead builds a context-specific foundation that actively challenges the individualistic and technocratic assumptions of the Western model. Embedded in this rich, complex, and relational landscape, the AIMIX case study shows how these theoretical imperatives can be meaningfully operationalised to secure local legitimacy for AI. We therefore present a series of recommendations to guide such operationalisation (Table 1).

2.3. AIMIX Case Study Methodology

The Inclusive Artificial Intelligence for Accessible Medical Imaging Across Resource-Limited Settings (AIMIX) project in Kenya was selected as a critical case study exemplifying “engaged implementation” in a resource-limited African setting.

2.3.1. Case Study Context and Justification

The AIMIX project (Grant Agreement No. 101044779) focuses on developing affordable, AI-enabled ultrasound tools and building the social and ethical frameworks necessary for their successful adoption in prenatal care workflows in Kenya. It was selected for this research precisely because of this dual structure: AIMIX combines state-of-the-art AI model development—tailored to low-resource imaging conditions—with an equally strong emphasis on community engagement, cultural relevance, and responsible implementation. This integrated design provides a unique live setting in which to study not only how AI tools are technically developed for use in low-resource environments but also how socio-cultural, religious, and ethical factors are actively negotiated throughout their deployment process.

2.3.2. Data Collection

Multiple qualitative methods were used to collect rich, empirical data between August and December 2024.
Qualitative Interviews and Focus Group Discussions (FGDs): The team conducted a total of 58 qualitative sessions. This included 55 one-on-one, in-depth interviews and 3 Focus Group Discussions (FGDs). These activities engaged 84 unique participants. The sample comprised a diverse range of stakeholders: pregnant women, their partners, healthcare providers, community health promoters, Sub-County Health Management Teams, and community opinion leaders (including local administrators, religious leaders, women, and youth leaders, and a traditional birth attendant). The interviews and FGDs explored socio-cultural contexts, ethical considerations, and perceived needs and barriers related to AI-assisted prenatal ultrasound.
Community Meetings: The project organized 47 community meetings in Rabai, engaging pregnant women, their husbands, and community health volunteers. These meetings served as an open forum to discuss expectations, concerns, and feedback on the AI-based healthcare tools.
Stakeholder Workshops: A series of workshops were held with local authorities, including Sub-County Health Management Teams, local administration (chiefs, village elders), and religious leaders. These workshops, held between September and November 2024, focused on integrating the AI tools within existing maternal health programs and local governance structures.
Community Advisory Board (CAB): A CAB was established in September 2024, comprising 17 members from the local Rabai community (including mothers, husbands, and healthcare workers). The CAB met regularly to provide ongoing feedback, ensure community alignment, and strengthen researcher-community trust.
Document Analysis: The study also analysed internal AIMIX project documents, technical reports, and community engagement summaries produced between August and December 2024 to provide complementary context on project design and adaptation processes.

2.3.3. Data Analysis

All qualitative data (interview and FGD transcripts, workshop notes, meeting minutes) were analysed using a thematic analysis approach [76]. The process involved familiarization with the data, generating initial codes, searching for themes, reviewing themes, and defining and naming themes. This process allowed for the identification of recurring patterns related to cultural beliefs, gender norms, trust in technology, and community perceptions of AI.

2.3.4. Ethical Considerations

The AIMIX project obtained full ethical approval from the Aga Khan University Institutional Scientific and Ethics Review Committee (ISERC), followed by research permits from the National Commission for Science, Technology, and Innovation (NACOSTI), and local authorization from the Kilifi County Department of Health. Ethical approval was also granted by the University of Barcelona Ethics Committee. The study fully complied with established human subjects research principles, ensuring informed consent, strict confidentiality, and robust data protection measures.

3. Results: Navigating the Social Ecosystem for AI Legitimacy

The analysis of the AIMIX case study reveals that the acceptance of AI was not determined by technical performance alone but emerged from a complex, socially negotiated process. Communities evaluated the technology through existing moral, religious, familial, and governance structures that shape how prenatal care is understood and practiced. This directly challenges the dominant “deployment” narrative in global health AI, which often assumes that once a tool is validated, adoption will naturally follow. Instead, AIMIX demonstrated that legitimacy must be earned across multiple socio-cultural dimensions—ranging from religious norms and gender dynamics to health literacy, trust in institutions, and regulatory expectations. Table 2 summarises the twelve key socio-cultural factors identified through the case study and outlines how AIMIX operationalised culturally competent strategies to address each of them.

3.1. The Moral Gatekeepers: Religious Leaders as Co-designers

Our engagement revealed that religious leaders acted not as passive stakeholders, but as essential moral and ethical co-designers, a finding that challenges the common treatment of “culture” as a peripheral variable in ethical AI frameworks [6,11]. Their primary concern transcended common issues like data privacy, focusing instead on a profound theological unease: the potential for AI to disrupt the sacred, compassionate covenant of the doctor-patient relationship.
From Suspicion to Sanction: The project’s initial, technocratic framing of AI as an “efficiency tool” was met with deep scepticism. This forced a fundamental re-negotiation of the technology’s moral purpose. We subsequently articulated a theological rationale for assistive AI, positioning it not as a replacement, but as a tool that “frees the healthcare provider to offer more compassionate, human care.” This reframing was crucial for gaining their endorsement.
Proactive Ethical Safeguarding: The leaders’ insistence on withholding fetal sex information was not a simple preference but a community-level ethical safeguard. They foresaw a social risk—gender-based selective abortion—that the technical team had not prioritized. This intervention demonstrates how localized ethical foresight can surpass the generic principles of “non-maleficence” found in global guidelines [3], actively shaping the AI system to preempt societal harm.
The “Sermon as Sensitization” Model: The subsequent endorsement from religious leaders, delivered through sermons and community talks, carried a legitimacy no project brochure could match. This illustrates a key finding: in this context, trust is transferred, not built from scratch. The AI gained credibility by being sanctioned by a trusted moral institution, a mechanism of legitimation largely absent from Western models of technology adoption.

3.2. The Collective End-User: Re-inventing Consent within the Family Unit

The data starkly contrasted the Western model of individual patient autonomy, which underpins most bioethical frameworks and “informed consent” protocols [52]. We found that for technologies impacting pregnancy, the family unit is the primary decision-making entity.
The “Husband’s Veto” and Familial Authorization: Concerns from husbands about data privacy were, in practice, a manifestation of their role as family protectors and decision-makers. Their buy-in was a non-negotiable social prerequisite for their wives’ participation. This necessitated a move from a model of “informed consent” to one of “familial authorization.” This finding directly challenges the universality of individual autonomy and suggests that in strong-structure contexts, ethical AI requires a relational, rather than individualistic, model of consent.
Redefining “The User”: The common Human-Centered Design (HCD) focus on the “pregnant woman” was revealed to be insufficient. Our findings show that in this collective structure, the true “user” is a network—the woman, her spouse, and often her mother-in-law. AI tools designed for individual self-management were destined to fail. This necessitates a fundamental shift from a Western human-computer interaction paradigm to a community-computer interaction paradigm, requiring features that support and respect collective decision-making dynamics.

3.3. The Governance Bridge: Local Authorities and Systemic Integration

Engagement with local authorities revealed that for AI to be sustainable, it must be woven into the fabric of existing governance, countering the tendency for top-down digital health projects to create parallel systems [72].
From “Project” to “Programme”: Health management officials were less interested in the AI’s algorithm and more in its integration pathway into their existing maternal health programs. Their primary question was: “How does this become our tool, not your experiment?” This perspective led to the co-development of training materials and reporting pathways that aligned directly with county health priorities, ensuring the project enhanced, rather than bypassed, local systems.
The Tripartite Model of Legitimacy: The most effective engagement structure that emerged was a tripartite model, linking the project simultaneously to community representatives (CAB), religious authorities, and the local health administration. This created a robust system of checks and balances where social, moral, and bureaucratic legitimacy reinforced one another. This model offers a concrete alternative to the often abstract “multi-stakeholder” engagement promoted in global health literature, providing a specific architecture for accountability in non-Western settings.

4. Discussion: From Western Frameworks to Socially-Accountable AI

The AIMIX case study provides a detailed blueprint for what “ethical AI” means in contexts where community and authority are distributed and relational. Our findings directly challenge the portability of Western-centric models and demand a more nuanced, socially-accountable paradigm.

4.1. The Limits of “Trustworthy AI” in a Relational World

Prevailing frameworks for “Trustworthy AI”[5,11] prioritize transparency, fairness, and accountability to the individual user. The AIMIX experience exposes the limitations of this model when applied to communal societies.
Our finding that informed consent must be re-engineered as “familial authorization” directly challenges the Western bioethical principle of individual autonomy as a universal standard. In our context, the Western concept of autonomy clashed with the local reality of familial interdependence. This novel concept is a critical addition to the ethical AI lexicon, suggesting that consent models must be fluid and adaptable to the social structures they encounter.
We found that abstract ethical principles are insufficient and require cultural translation. “Fairness” or “non-maleficence” must be translated into locally resonant moral terms. For religious leaders, this meant framing AI through the lens of compassion and human dignity; for families, it was about collective well-being and protection. This finding challenges the checklist approach of many global AI ethics guidelines [5] and instead suggests that AI ethics must be a dialogical process of cultural translation, where universal principles are given life through local values.

4.2. The Specificity of Engagement in Strong-Structure Contexts

A key question concerns what is distinctive about engaging communities shaped by strong family and religious structures. This study provides a clear, three-part answer that contrasts with common Western assumptions:
The “Why” is rooted in social hierarchy: the “why” behind the concerns—the fear of dehumanization, the need for familial authorization—is rooted in the primacy of relational harmony and predefined social roles. This stands in stark contrast to the individualistic risk-benefit calculus often assumed in Western HCD. Authority is not evenly distributed; it is vested in specific figures (husbands, elders, clergy). Effective engagement requires mapping and respectfully engaging this hierarchy, not attempting to circumvent it.
Effective implementation required the team to cede a degree of control: the most significant adaptations—withholding fetal sex, creating parallel engagement sessions for men—were not our ideas. They were concessions to community logic. This finding challenges the technocratic assumption that developers retain control over system design and implementation. It demonstrates that true co-creation in these contexts involves ceding a degree of technical and procedural control to social and ethical imperatives.
Legitimacy is borrowed, not built: the project’s legitimacy was not built solely on its technical merits but was “borrowed” from the pre-existing legitimacy of religious and local authorities. This turns the standard tech deployment model on its head. Whereas in Western contexts, trust might be built through technical transparency and corporate reputation, our study shows that in contexts like rural Kenya, the most important factor for adoption may be the quality of the technology’s endorsement by the community’s moral and governance pillars.

4.3. Contribution: Operationalizing “Local Legitimacy” as an Alternative Framework

The primary contribution of this research is to move the discourse from acknowledging the importance of culture to operationalizing it. We provide empirical evidence that “local legitimacy” is a tangible, achievable outcome built on three pillars that collectively form an alternative to Western-centric models:
Moral Legitimacy: secured not through ethics review boards alone, but through deep engagement with religious leaders, translating AI ethics into local theological frameworks. This challenges the secular, principle-based foundation of most AI ethics.
Social Legitimacy: achieved by designing for the family unit, not the individual, and re-engineering consent as a collective process. This challenges the individual-as-end-user paradigm at the heart of both bioethics and human-centered design.
Bureaucratic Legitimacy: ensured by embedding the technology within existing local government and health management systems. This challenges the “plug-and-play” or “disruptive” innovation model often favoured by technology firms.
This tripartite model offers a replicable framework for researchers and policymakers. It argues that the budget, timeline, and success metrics for AI deployment in the Global South must account for the intensive work of building this multi-faceted legitimacy. The AIMIX case proves that a technically sound AI tool is a scientific achievement; a culturally legitimate AI tool is a social one, and in many parts of the world, the latter is the prerequisite for the former to matter.

5. Conclusions

This study demonstrates that for AI to become a truly transformative force in global health, a fundamental shift from top-down implementation to co-created legitimacy is required. The in-depth case study of the AIMIX project in Kenya provides a granular, empirical model for this shift, moving beyond the identification of cultural barriers to reveal the precise mechanisms for overcoming them.
Our findings yield a critical, field-tested insight: in contexts where authority is distributed and relational, the “end-user” of an AI tool is not an individual patient but the entire social ecosystem—a finding that fundamentally challenges the individualistic orientation of Western bioethics and HCD. The AIMIX data uniquely show that trust was built not through explaining the algorithm’s accuracy, but by navigating a network of moral and social gatekeepers. This involved:
  • Translating “Ethical AI” into Local Moral Frameworks, thereby challenging the sufficiency of secular, principle-based ethics guidelines.
  • Re-engineering “Informed Consent” as “Familial Authorization,” thereby offering a concrete alternative to the universal application of individual autonomy.
  • Embedding AI within Existing Community Governance, thereby proposing a sustainability model that counters top-down, disruptive deployment strategies.
Therefore, this research does not merely add a “cultural” caveat to existing AI deployment models. It provides an empirically-grounded challenge to their foundational assumptions and offers a replicable pathway for designing AI systems that are accountable to the communities they serve, ensuring that the pursuit of health equity drives technological innovation, not the other way around.

Acknowledgments

This project has received funding from a grant from the European Research Council (ERC) under the European Union’s Horizon Europe research and innovation programme (AIMIX project - Grant Agreement No. 101044779).

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Table 1. List of social, cultural, structural and individual factors, along with recommended strategies and approaches, for the design, development and adoption of AI in healthcare.
Table 1. List of social, cultural, structural and individual factors, along with recommended strategies and approaches, for the design, development and adoption of AI in healthcare.
Group Theme/Type of Difference Importance for Healthcare AI Suggested Stakeholder Engagement Strategies Recommended Community/Citizen Engagement Approaches
Sociocultural Dynamics

Religious Beliefs Influences ethical considerations and acceptance of AI tools Engage religious leaders to ensure alignment with cultural norms Tailor outreach to respect and integrate religious practices
Gender Inequalities Affects access and relevance of AI tools across different genders Include gender perspectives to create equitable health solutions Ensure AI tools are accessible and useful for all genders
Family Structure and Social Support Influences decision-making and acceptance of healthcare interventions Engage family and social networks in the design and trial phases Leverage community structures for better outreach and education
Economic and Environmental Context
Urban vs. Rural Living Impacts accessibility and design of AI due to infrastructure differences Consider diverse technological and resource environments in design Adapt AI tools to both resource-rich and resource-limited settings
Economic Factors Determines affordability and accessibility of AI technologies Develop cost-effective solutions suitable for all economic levels Ensure AI tools are economically viable for broad adoption
Communication and Education

Language and Communication Essential for usability and accessibility of AI tools Involve linguists and cultural experts to design inclusive interfaces Develop multilingual support and culturally relevant communication
Health Literacy Influences how individuals understand and use AI tools Collaborate with educational bodies to inform AI tool design Educate the community to improve understanding and engagement
Educational Background Determines the complexity and functionality of AI interfaces Ensure AI tools cater to varied educational levels for effective use Improve community education on AI to boost usability and acceptance
Regulatory and Ethical Considerations
Ethical Norms and Values Dictates AI’s adherence to privacy, consent, and data handling Ensure AI complies with local ethical standards for wider acceptance Build trust through transparent and culturally sensitive AI practices
Regulatory Environment Affects the legal deployment and scalability of AI solutions Navigate and comply with varying regulations across regions Adhere to regulations to ensure community trust and safety
Psychological and Behavioural Aspects
Trust in Technology and Institutions Crucial for the adoption and effectiveness of AI tools Build partnerships with trusted institutions to promote AI adoption Enhance public trust through consistent and beneficial AI interactions
Table 2. Operationalizing Cultural Competence: AIMIX Project Strategies for Addressing Key Socio-Cultural Factors.
Table 2. Operationalizing Cultural Competence: AIMIX Project Strategies for Addressing Key Socio-Cultural Factors.
Cultural Factor AIMIX Project’s Approach and Solutions
1. Religious Beliefs AIMIX engaged with local religious leaders (e.g., imams, priests, and pastors) to address concerns about AI in healthcare. The project ensured that AI tools respected local religious norms, such as privacy during ultrasound scans for pregnant women.
2. Gender Inequalities The project actively involved women in decision-making processes, ensuring that AI-driven technologies were accessible to both genders. Female healthcare workers were trained to conduct ultrasounds, addressing gender-specific concerns and mothers were consulted to express their expectations.
3. Family Structure and Social Support AIMIX incorporated family and community involvement in healthcare decisions. The project held community meetings with husbands and family members to ensure that AI tools supported family-based decision-making.
4. Urban vs. Rural Living Environments AIMIX adapted its tools for rural settings by using low-cost, portable ultrasound devices like the Philips Lumify and GE Vscan. The project also addressed power supply issues in rural areas with solar panels and generators.
5. Economic Factors The project focused on affordable AI solutions by using low-cost ultrasound devices and federated learning, which reduces the need for expensive computational infrastructure. This made the technology accessible in low-income settings.
6. Language and Communication AIMIX developed multilingual support for its tools and trained local healthcare workers to communicate effectively with patients. The project also used visual guides and simplified instructions to overcome language barriers.
7. Health Literacy The project created user-friendly interfaces and provided training to healthcare workers with varying levels of education. Simplified protocols and visual aids were used to ensure that even minimally trained workers could use the AI tools.
8. Educational Background AIMIX tailored its training programs to accommodate different educational levels. The project provided training sessions for local healthcare workers and researchers, focusing on both technical skills and ethical considerations.
9. Differences in Healthcare Experiences AIMIX addressed scepticism towards AI by engaging with communities through 47 community meetings and establishing a Community Advisory Board (CAB) to build trust and ensure the tools met local needs.
10. Ethical Norms and Values The project prioritized transparency and consent in data collection and usage. AIMIX ensured that AI tools complied with local ethical standards, such as communal consent and respect for privacy.
11. Regulatory Environment AIMIX worked closely with local authorities to secure ethical approvals and research permits. The project aligned its AI tools with local regulations, ensuring compliance with data protection laws in Kenya and Spain.
12. Trust in Technology and Institutions To build trust, AIMIX conducted community engagement initiatives, such as workshops and meetings with local leaders. The project also emphasized the complementary role of AI to human healthcare providers, reducing scepticism.
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