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Article

A National Framework for Giftedness: The Mawhiba Model for Identification and Nurturing Gifted Students

Self-Development Skills Department, Common First Year Deanship, King Saud University, Riyadh 12372, Saudi Arabia
Educ. Sci. 2026, 16(6), 884; https://doi.org/10.3390/educsci16060884
Submission received: 22 March 2026 / Revised: 29 April 2026 / Accepted: 29 May 2026 / Published: 3 June 2026
(This article belongs to the Special Issue Unlocking Potential: The Future of Gifted and Talented Education)

Abstract

This study conducted a comparative analysis of the King Abdulaziz and His Companions Foundation for Giftedness and Creativity (Mawhiba) as a national model for gifted education and talent development. Despite global recognition of nurturing giftedness, the literature lacks comprehensive, sustainable national talent development systems. Using a qualitative instrumental case study and documentary analysis, the research evaluated how Mawhiba differs from ten global gifted education institutions. Findings showed that Mawhiba design overcomes limitations of traditional models through endowment-based funding, national scale with decentralized delivery, and a multi-sector partnership aligned with Saudi Vision 2030. The study examined how Mawhiba integrated system translated identification and nurturing processes into measurable outcomes. Results demonstrated that Mawhiba operationalized contemporary giftedness frameworks via a multi-tiered ecosystem, from large-scale identification using the Mawhiba Multiple Cognitive Aptitude Test to diverse nurturing pathways including enrichment, research development, and university preparation. The model’s efficacy was evidenced by identifying over 244,000 gifted students and earning hundreds of international scientific awards, positioning Mawhiba as a paradigm shift in strategic human capital cultivation.

1. Introduction

In the context of the 21st-century global economy, the most valuable currency is no longer industrial machinery or physical capital, but rather the intangible asset of human capital. The capacity for innovation, critical thinking, and creative problem-solving has become the primary driver of national progress, economic competitiveness, and societal well-being (The Organisation for Economic Co-operation and Development [OECD], 2018; Shavinina, 2013; Wai et al., 2021). Within this context, the identification and cultivation of giftedness and creativity are not merely educational priorities but have progressed into strategic national imperatives. Gifted individuals, with their advanced cognitive abilities and potential for exceptional achievement, represent a nation’s most precious resource for navigating the complexities of a rapidly evolving world. However, this potential can only be realized through deliberate, systematic, and sustained investment in specialized educational frameworks designed to meet their unique needs. This paper examines one such framework, the King Abdulaziz and His Companions Foundation for Giftedness and Creativity (Mawhiba) in Saudi Arabia, presenting it as a comprehensive national model within the global ecosystem of gifted education.
The conceptualization of giftedness has evolved significantly from a narrow focus on high intelligence quotient (IQ) scores to more multidimensional and inclusive frameworks. Traditionally, giftedness was often equated with precocity and high academic achievement, leading to identification practices that were heavily reliant on standardized testing. This approach, however, has been widely criticized for its cultural and socioeconomic biases, which often resulting in the underrepresentation of students from diverse backgrounds (Ford, 2010; Peters, 2022; Robertson, 2024). Contemporary models of giftedness adopt a more holistic perspective, recognizing that talent can manifest in various domains beyond traditional academic fields.
The case for specialized gifted education is grounded in both principles of equity and excellence. From an equity perspective, gifted learners have a right to an education that is appropriately aligned with their abilities. Just as students with learning difficulties require specialized support to access the curriculum, gifted students need advanced and enriched learning opportunities to remain engaged and to reach their potential. Without appropriate challenges, gifted learners may experience boredom, underachievement, and even social-emotional difficulties (Pfeiffer & Stocking, 2000; Reis & Renzulli, 2010; Blaas, 2014; Stambaugh, 2017). From an excellence perspective, nurturing giftedness is a strategic investment in a nation’s future. The long-term societal benefits of cultivating talent are substantial. Longitudinal studies have demonstrated that gifted individuals are significantly more likely to pursue higher education, obtain doctoral degrees, secure patents, and make significant contributions in their chosen fields (Lubinski & Benbow, 2006; Wai et al., 2009; Kell et al., 2013). By providing a pipeline of innovators, leaders, and problem-solvers, gifted education programs contribute directly to a nation’s economic growth, scientific advancement, and cultural vitality.

1.1. A Global Landscape of Gifted Education Models

Globally, the imperative to nurture giftedness has led to a diverse array of educational models, each with its own structural characteristics, strengths, and limitations. These models can be broadly categorized into four main types: university-affiliated enrichment programs, state-funded residential academies, integrated programs within mainstream education, and private foundations (Ibata-Arens, 2012; Colangelo & Davis, 2003).
University-affiliated enrichment programs are one of the most established models, pioneered by institutions, such as the Johns Hopkins Center for Talented Youth (CTY). Founded in 1979, CTY identifies academically advanced students through above-grade-level testing and offers them accelerated summer and online courses (Johns Hopkins Center for Talented Youth, n.d.-a). This model leverages the intellectual capital and resources of a university to provide high-level instruction that typically extends beyond the standard school curriculum. The primary strengths of this model are its academic rigor and its ability to access a large pool of students through talent searches. However, these programs are often tuition-dependent, which can create barriers to access for students from lower socioeconomic backgrounds, despite financial aid provisions. Furthermore, their impact is often limited to short-term, intensive experiences rather than serving as a continuous, long-term developmental pathway.
State-funded residential academies represent a more intensive and immersive approach. These institutions, such as the Korea Science Academy of KAIST (KSA) in South Korea, are highly selective, government-funded high schools that convene the nation’s top students for a specialized, residential learning experience. The key advantage of this model is the creation of a rigorous learning environment where gifted students are surrounded by intellectual peers and have access to state of the art facilities and mentorship from top academics and researchers. However, this model is resource-intensive and, by its nature, can only serve a very small fraction of the gifted population. Its centralized structure also limits its ability to address the diverse needs of students from different regions of a country.
Integrated programs within mainstream education offer a more scalable and inclusive approach to gifted education. Singapore’s Gifted Education Programme (GEP) is a prime example of this approach. The GEP identifies the top 1% of students through a national screening process and places them in specialized within mainstream schools. These students follow an enriched curriculum that emphasizes higher-order thinking, inquiry-based learning, and interdisciplinary studies (Ministry of Education, Singapore, n.d.; Phillipson, 2011; Ibata-Arens, 2012). The strength of this model lies in its ability to integrate gifted education into the public school system, allowing students to remain in their local communities while receiving specialized instruction. However, the success of this model depends heavily dependent on the quality of teacher training and the resources available within each school, which can vary significantly.
Private foundations play a specialized yet important role in the gifted education landscape. Organizations like the Davidson Institute for Talent Development in the United States provide a range of services to profoundly gifted students, including scholarships, summer programs, and online communities (Davidson Institute, n.d.-a; Brandon et al., 2021). These foundations are often characterized by their flexibility and emphasis on the individual needs of a small, highly specific population. Their primary limitation lies in their small scale and dependence on philanthropic funding, which can be unpredictable.
While each of these models has its merits, they also have inherent limitations, particularly in terms of scale, sustainability, and equity. University-affiliated programs are often costly, state academies are highly exclusive, integrated programs can be inconsistent, and private foundations are limited in their reach. This landscape highlights a clear need for a model that effectively combines the strengths of these different approaches to create a system that is simultaneously comprehensive, sustainable, scalable, and equitable.

1.2. Mawhiba as a Unique Institutional Model

The design of national gifted education systems is increasingly informed by contemporary talent development research, which emphasizes the necessity of moving beyond mere identification to the sustained, systemic cultivation of potential. Subotnik et al. (2011) proposed the Talent Development Megamodel (TDMM), positing that giftedness is not a static trait but a developmental process requiring domain-specific interventions, psychosocial support, and structured opportunities for creative productivity. This framework argues that early potential must be nurtured through deliberate educational pathways that transition students from initial competence to expertise, and ultimately to outstanding achievement. Similarly, Olszewski-Kubilius et al. (2015) emphasized that effective talent development programs must address both cognitive and psychosocial dimensions—including motivation, self-efficacy, and resilience as these intrapersonal factors are as critical as intellectual ability in determining long-term success.
To effectively operationalize these principles, institutional design must be deeply grounded in contemporary talent development theory. For instance, Gagné’s (2004, 2020) Differentiated Model of Giftedness and Talent (DMGT) and Ziegler’s (2005) Actiotope Model of Giftedness posit that the transformation of innate gifts into developed talent requires robust environmental catalysts, such as educational opportunities, institutional support, and sustained investment, alongside intrapersonal catalysts like motivation, volition, and self-management. Furthermore, Renzulli’s (2005) Three-Ring Conception of Giftedness, complemented by Sternberg’s (2003, 2005) WICS model, underscores the importance of above-average ability, task commitment, and creativity as co-equal pillars of gifted behavior. This orientation is further reinforced by the TDMM (Subotnik et al., 2011; Worrell et al., 2019), which emphasizes that psychosocial skills, including resilience, identity formation, and social competence, are central, rather than peripheral, to the talent development process.
Against this backdrop of diverse but often fragmented global models, Mawhiba in Saudi Arabia offers a compelling and unique case study of how these theoretical frameworks can be successfully integrated at a national level. Established in 1999, Mawhiba was founded with the ambitious mandate to identify and nurture gifted students across the country and to develop a comprehensive ecosystem for talent development (Aboud, 2023; Mawhiba, 2026a). What distinguishes Mawhiba from many of its global counterparts is its institutional design, which serves as a deliberate, national-scale operationalization of the very catalysts and pillars identified by Gagné, Ziegler, Renzulli, and Sternberg. By embodying a hybrid model that explicitly targets multi-dimensional abilities and psychosocial skills, Mawhiba synthesizes the strengths of these various theoretical approaches while mitigating many of their inherent weaknesses.
Mawhiba uniqueness is rooted in a combination of key institutional factors that collectively facilitate its comprehensive and sustainable operation. First and foremost among these factors is its endowment-based funding model. Mawhiba is a non-profit endowment institution, and in 2014, it became one of the entities of the King Abdullah Humanitarian Foundation, which provides a stable and long-term source of funding (Mawhiba, n.d.-a). This financial structure is a significant departure from the tuition-dependent model of many university-affiliated programs and the annual budget allocations of government-run initiatives. The endowment provides Mawhiba with the financial autonomy and stability to engage in long-term strategic planning and to ensure the continuity of its programs, thereby insulating it from the vagaries of economic cycles.
Second, Mawhiba operates on a national scale with a decentralized delivery network. Unlike exclusive residential academies that serve a small elite, the Mawhiba talent identification process is a nationwide endeavor, reaching students in every corner of Saudi Arabia. Its programs are delivered through a wide network of partnerships with schools, universities, and research centers, enabling it to cater to a large and diverse population of gifted students without requiring them to leave their local communities. This approach combines the scale of a national program with the flexibility of a decentralized network, a characteristic that is rare in the global landscape of gifted education (Mawhiba, n.d.-b).
Third, and perhaps most significantly, Mawhiba has cultivated a strategic multi- sectoral partnership ecosystem. The foundation does not operate in isolation but serves as a central hub connecting government ministries, leading universities, private sector companies, and international organizations (Mawhiba, 2024). These partnerships create a cohesive talent development pipeline that extends beyond the classroom. For example, partnerships with universities provide students with access to advanced research opportunities, while collaborations with industry leaders offer mentorship and pathways to future careers. This ecosystem approach ensures that the nurturing of talent is not just an educational exercise but is directly linked to the nation’s economic and developmental goals.
Fourth, Mawhiba institutional maturity is further evidenced by its commitment to structured, long-term strategic planning. The foundation currently operates under its fourth strategic plan, which is organized around three overarching pillars: a sustainable learning journey driven by success, a sustainable system, and a powerful knowledge center (Mawhiba, 2026b). These pillars are operationalized through seven strategic goals, encompassing the comprehensive discovery of talent at scale, the guidance of gifted learners through sustainable learning journeys, the leveraging of Mawhiba competencies to support national transformation, the development of an effective partner ecosystem, the provision of policy advisory in the fields of giftedness and creativity, the advancement of knowledge and expertise, and the enhancement of thought leadership in the domain of giftedness and creativity (Mawhiba, 2026b). The existence of a fourth strategic plan reflects an institutional culture of continuous improvement and evidence-based planning, underscoring Mawhiba evolution from a program-focused initiative into a mature, systems-oriented national institution. This degree of strategic coherence is rarely observed in gifted education organizations globally, positioning Mawhiba as a model not only for what it delivers programmatically, but for how it governs and sustains itself over time.
The combination of these four features, sustainable endowment funding, a national scale with decentralized delivery, a multi-sector partnership ecosystem, and a strategic plan, positions Mawhiba as a unique institutional model. While other programs may exhibit one or two of these characteristics, the integration of all four into a single, comprehensive system renders Mawhiba a subject of significant research interest. There is a clear gap in the literature regarding the study of such holistic, national-scale talent development ecosystems. While the individual components of the Mawhiba model have been studied in other contexts, their synergistic effect within a single, integrated system remains largely unexplored. This study seeks to address that gap by providing an in-depth analysis of the Mawhiba model, examining its institutional design, operational processes, and ultimate outcomes.

1.3. A Review of Empirical Evidence on the Effectiveness of Mawhiba Programs

Mawhiba has established a comprehensive framework to nurture gifted students in Saudi Arabia, demonstrating significant positive impacts across various developmental domains. Empirical evidence underscores the effectiveness of Mawhiba programs in enhancing academic achievement, cognitive abilities, and psychosocial skills among gifted learners. A central component of this success is the Mawhiba-IAU summer enrichment program, which integrates knowledge, creativity, innovation, and entrepreneurship to prepare students for an innovation-based economy (O. Muammar & Maker, 2022). Evaluations of this program indicate that it significantly improves students’ holistic development, including their academic achievement, soft skills, and overall satisfaction (O. M. Muammar, 2023). Furthermore, the effectiveness of summer enrichment programs is closely linked to specific program dimensions, with psycho-social skills, logistics, and science content significantly correlating with students’ overall satisfaction (O. M. Muammar & Alfaiz, 2024). The holistic experience remains paramount; students’ satisfaction with logistics arrangements, soft-skills programs, and science content significantly influences their intention to promote the program, highlighting the importance of a secure and well-rounded learning environment (O. Muammar, 2024). Parental support also plays a critical role, with enabling factors such as content delivery, holistic experience, and family communication accounting for a substantial variance in the perceived outcomes of these summer enrichment programs (F. S. Alfaiz & Muammar, 2026).
Beyond summer enrichment programs, Mawhiba interventions within traditional school settings have also proven to be highly beneficial. The implementation of the Mawhiba supplementary math curriculum in public schools has led to significant improvements in both academic achievement and attitudes toward mathematics among middle school students, particularly when compared to their peers in regular classes (Alreshidi, 2017). Similarly, participation in Mawhiba programs has been shown to enhance critical thinking skills, as evidenced by a study involving female secondary school students who demonstrated improved critical thinking abilities following a five-week intensive training course (Alghamdi & Hassan, 2016). The pedagogical approaches employed in Mawhiba classes also contribute to these positive outcomes. Research indicates that teachers in Mawhiba classes foster more active learning environments and exhibit greater confidence in their students’ creative abilities compared to teachers in standard public classrooms (Bojulaia, 2025). Furthermore, a qualitative study examining creativity promotion across different school settings found that while practices are similar, student-centered approaches and extracurricular lessons within inclusive and exclusive classes have a positive impact on the promotion of creativity among gifted students, with Mawhiba playing a central role in providing these specialized programs (Salamah et al., 2023).
The structural design of Mawhiba programs, including ability-based grouping and specialized curricula, plays a crucial role in their effectiveness. Homogeneous grouping of gifted students according to cognitive ability, combined with specialized enrichment programs, significantly enhances both scholastic outcomes and affective development, leading to more positive self-perceptions academically and socially (Batterjee, 2016). A recent comprehensive assessment of the Mawhiba Classes Program (MCP) revealed high levels of student satisfaction across registration procedures, learning and teaching, and teacher performance, with elementary students reporting the highest satisfaction levels (F. S. Alfaiz, 2026). This comprehensive support system extends to specific domains such as language education. For instance, Mawhiba provides essential opportunities for verbally gifted students to enrich their English language skills through extended social networking and specialized support (Alharthi, 2022).
The broader impact of enrichment programs on gifted students in Saudi Arabia is further supported by meta-analytic research. A meta-analysis of studies evaluating the Oasis Enrichment Model (OEM), which was adopted by the Ministry of Education and implemented in collaboration with Mawhiba, demonstrated statistically significant positive effects on analytical abilities, creative abilities, thinking skills, critical thinking, and personal and social traits (Aljughaiman & Ayoub, 2013). This finding aligns with results from specific experimental studies showing that enrichment programs significantly enhance the analytical and creative abilities of elementary gifted students (Aljughaiman & Ayoub, 2012). More recently, a comprehensive meta-analysis of enrichment programs globally, which explicitly included Mawhiba programs, confirmed a large effect size on cognitive skills and a moderate effect size on affective personal skills, underscoring the vital role these programs play in fulfilling both the cognitive and non-cognitive needs of gifted learners (Gül & Ayık, 2025). Overall, the multifaceted approach adopted by Mawhiba, encompassing specialized curricula, targeted pedagogical strategies, and comprehensive enrichment programs, effectively supports the cognitive, academic, and psychosocial development of gifted students in Saudi Arabia.

1.4. Statement of the Problem of the Study

Despite the global consensus on the importance of nurturing giftedness, there remains a significant gap in the literature concerning the design and implementation of comprehensive, sustainable, and scalable national talent development systems. Much of the existing research focuses on specific program types, pedagogical interventions, or the psychological characteristics of gifted individuals. While this body of work is invaluable, it often does not adequately address the broader institutional and systemic factors that are essential for creating a holistic talent development ecosystem. There is a pressing need for rigorous case studies of successful national models that can provide transferable insights for other nations. This study addresses this problem by conducting a multi-level analysis of Mawhiba, a unique and under-researched example of a comprehensive national talent development system.

1.5. Purpose and Research Questions

The purpose of this study was to conduct a comprehensive comparative analysis of Mawhiba as a national model for gifted education and talent development. Specifically, this research sought to: (a) evaluate the extent to which Mawhiba model differs from those of comparable global gifted education institutions, identifying the structural factors that account for the most significant institutional differences; and (b) examine how Mawhiba integrated talent development system translates its processes of identification and nurturing into measurable outcomes, with particular attention to the key results produced by this model at both the student and institutional levels. To achieve this purpose, the study was guided by the following research questions:
  • To what extent does Mawhiba model differ from those of comparable global gifted education institutions, and what structural factors account for the most significant institutional differences?
  • How does Mawhiba integrated talent development system implement its identification and nurturing processes, and what are the key outcomes of this model?

2. Method

2.1. Research Design

This study employed a qualitative, instrumental case study design to conduct an in-depth analysis of Mawhiba. This approach was selected for its suitability in investigating complex social phenomena within their real-world contexts, particularly for addressing the “how” and “why” questions that were central to this research (Yin, 2018). As an instrumental case study, the examination of Mawhiba served the broader purpose of understanding the dynamics of a comprehensive, national-scale talent development system.

2.2. Selection of Global Gifted Education Institutions

The author developed five criteria to guide the selection of global institutions for this comparative analysis, ensuring relevance, comparability, and analytical rigor. To be included in the study, an institution had to meet all of the following criteria. First, its primary mission had to be the identification and nurturing of gifted and talented youth, ensuring a shared foundational purpose with Mawhiba. Second, all selected institutions were required to have a non-profit status to align with Mawhiba operational structure. Third, each institution had to demonstrate significant scale or influence, defined as operating at a national level, possessing a substantial international reach, or being widely recognized as a leader in the field. Fourth, a practical criterion of publicly available information was applied, requiring sufficient data in English on the institution’s mission, governance, and programs to support an evidence-based analysis. Finally, the criterion of programmatic diversity ensured that the selected institutions offered a comprehensive portfolio of services rather than a single intervention, allowing for a more holistic comparison of their talent development ecosystems. As a result, ten leading global institutions dedicated to identifying and nurturing gifted students were identified. The comparison spanned eight strategic dimensions, including governance, mission, funding, identification, program portfolio, scale, partnerships, and research. Table 1 presented these dimensions. It should be noted that this criterion introduced a potential selection bias toward English-speaking or internationally oriented institutions, which may have resulted in the exclusion of relevant models from non-English-speaking contexts. The implications of this constraint for the generalizability of the comparative findings were acknowledged as a limitation of the study.
The ten leading global institutions were selected for this comparative analysis, along with their respective countries, as follows: the Sirius Foundation (Russia), the Hamdan Bin Rashid Al Maktoum Foundation (United Arab Emirates), the Qatar Foundation (Qatar), the Hong Kong Academy for Gifted Education (Hong Kong), the Davidson Institute for Talent Development (United States of America), the Johns Hopkins Center for Talented Youth (United States of America), the Jack Kent Cooke Foundation (United States of America), the Korea Science Academy of KAIST (South Korea), Jugend Forscht (Germany), and the African Science Academy (United Kingdom/Ghana).

2.3. Data Sources and Collection

The primary data for this study were derived exclusively from documentary sources. The use of documentary analysis was a well-established method in qualitative research, which allowed for the systematic review of existing documents to gain understanding and empirical knowledge (Bowen, 2009; Morgan, 2022). This method was particularly suitable for this study as it enabled a comprehensive and non-intrusive examination of the Mawhiba complex system. Data were collected through a systematic search of online databases, institutional websites, and public archives. The collected documents were organized into three main categories to ensure a comprehensive and triangulated dataset: (a) Primary Institutional Documents, which included official publications produced by Mawhiba, such as annual reports and the content of its official website (mawhiba.sa). These documents provided direct insight into the foundation’s mission, structure, operational processes, and self-representation; (b) Academic and Grey Literature, which comprised scholarly articles and peer-reviewed journals related to Mawhiba, gifted education in Saudi Arabia, and national talent development strategies; and (c) Public Domain and Media Sources, which included press releases, news articles from reputable media outlets, official social media content, and publicly available reports. These sources provided valuable information on the public perception of the foundation, its key initiatives, and its positioning within the national and international landscape.
A two-stage data analysis process was employed, which combined thematic analysis with a subsequent comparative analysis to address the research questions. The first stage involved a rigorous thematic analysis of the collected documents, following the six-phase process outlined by Braun and Clarke (2006). This process included: (a) familiarization with the data through repeated reading of the documents; (b) generating initial codes by systematically identifying features of the data relevant to the research questions; (c) searching for themes by collating codes into potential themes, which ultimately yielded three overarching themes for the second research question; (d) reviewing themes to ensure they were coherent and distinct; (e) defining and naming themes to refine the specifics of each theme; and (f) producing the final analysis. The second stage, which followed the thematic analysis, consisted of a comparative analysis that was conducted to contextualize the findings within the global landscape of gifted education. The key characteristics of the Mawhiba model, as identified in the thematic analysis, were systematically compared and contrasted with those of different global gifted education institutions. To enhance methodological transparency, the document selection process followed explicit inclusion criteria: documents were included if they were produced by Mawhiba or peer-reviewed academic sources, were publicly accessible, and contained verifiable data on the foundation’s structure, programs, or outcomes. Documents were excluded if they were undated, lacked institutional attribution, or were purely promotional without substantive data. The initial codes generated during this stage were iteratively grouped and refined into the eight thematic dimensions that ultimately structured the comparative analysis presented in the Results section (i.e., Institutional Identity and Governance; Mission and Strategic Alignment; Funding and Financial Model; Identification and Selection; Program Portfolio; Scale and Reach; Partnerships and Ecosystem; Research and Knowledge Production). This explicit mapping between raw codes and final themes allowed the reader to evaluate the analytical logic underpinning the comparative framework.

2.4. Generative AI Disclosure Statement

Generative artificial intelligence (GenAI) was used in the preparation of this manuscript solely to assist in the review the global institution comparison section. Specifically, GenAI was employed to support the systematic organization and cross-referencing of publicly available information pertaining to the ten global gifted education institutions included in the comparative analysis.

3. Results

Q1:
To what extent does Mawhiba model differ from those of comparable global gifted education institutions, and what structural factors account for the most significant institutional differences?
To comprehensively evaluate how the Mawhiba model compared to other global gifted education institutions, this analysis examined eight key dimensions that highlighted structural and operational differences. These dimensions included institutional identity and governance, which explored the foundational structures of the organizations; mission and strategic alignment, focusing on their integration with national development goals; and funding and financial model, detailing their economic sustainability. Furthermore, the analysis considered identification and selection processes, program portfolio breadth, and the overall scale and reach of their initiatives. Finally, it assessed partnerships and ecosystems, alongside research and knowledge production, to provide a holistic understanding of how Mawhiba approach to nurturing talent aligned with or diverged from international benchmarks.

3.1. Dimension 1: Institutional Identity and Governance

Mawhiba stood out as a non-profit endowment institution that was established in 1999 by royal decree. This model was mirrored in the Gulf region by the Hamdan Bin Rashid Al Maktoum Foundation (UAE), which had also been established by Sheikh Hamdan Bin Rashid Al Maktoum in 1999 (Hamdan Bin Rashid Al Maktoum Foundation for Medical and Educational Sciences, n.d.), and the Qatar Foundation, a state-led non-profit that was founded in 1995 by Sheikh Hamad Al Thani (Qatar Foundation, n.d.). Russia’s Sirius Foundation shared this strong state link, having been founded in 2014 by presidential initiative, with the president chairing its Board of Trustees (Sirius, n.d.-a).
This contrasted sharply with the North American models. The Davidson Institute was a private foundation that had been established in 2000 by educational software entrepreneurs Bob and Jan Davidson (Davidson Institute, n.d.-a), and the Jack Kent Cooke Foundation was a private independent foundation that had been established through the will of its founder in 2000 (Jack Kent Cooke Foundation, n.d.). Johns Hopkins CTY was a non-profit academic center within a private university, which had been founded in 1979 by psychologist Julian Stanley (Johns Hopkins Center for Talented Youth, n.d.-a). Germany’s Jugend Forscht was a registered non-profit association driven by a public–private partnership, with the Federal President as patron, but had been founded by a magazine editor in 1965 (Jugend Forscht, n.d.-a). The Hong Kong Academy for Gifted Education (HKAGE) occupied a middle ground as a government-subvented NGO that had been established in 2007 (The Hong Kong Academy for Gifted Education, n.d.-a). The Korea Science Academy (KSA) was a national public high school that had been founded in 1991 and was directly affiliated with Korea Advanced Institute of Science and Technology (KAIST), a public university (Korea Science Academy of KAIST, n.d.-a). The African Science Academy (ASA) was a UK-registered charity operating in Ghana since 2016 (African Gifted Foundation, n.d.-a).

3.2. Dimension 2: Mission and Strategic Alignment

A key differentiator for Mawhiba was its explicit and deep alignment with a national development strategy, Saudi Vision 2030 (Mawhiba, n.d.-a). Its mission to discover and nurture gifted and creative individuals as “fundamental drivers of human prosperity” was a direct reflection of this strategic imperative. The Sirius Foundation (Russia) and Qatar Foundation shared this characteristic of being tightly woven into their respective national visions, with Qatar Foundation explicitly aligned with Qatar National Vision 2030 (Government Communications Office, n.d.).
In contrast, while most institutions aimed to benefit their nations, their missions were often more independent of specific government strategies. The Davidson Institute focused on the unique psychological and educational needs of gifted individuals (Davidson Institute, n.d.-d). The Jack Kent Cooke Foundation uniquely added a socioeconomic lens, targeting “exceptionally promising students who had financial need” (Jack Kent Cooke Foundation, n.d.). The African Science Academy focused specifically on gifted young women from low-income backgrounds across Africa, addressing both gender and economic equity in STEM (African Gifted Foundation, n.d.-a). Jugend Forscht was mission-driven around STEM engagement and career development, without an explicit national development strategy alignment (Jugend Forscht, n.d.-a).

3.3. Dimension 3: Funding and Financial Model

Mawhiba operated as a non-profit endowment institution valued at approximately USD 1.8 billion, with an annual revenue of approximately USD 45 million, as reported in an annual report (Al-Awad & Al-Drees, 2024), which was supplemented by partnership revenues (Mawhiba, 2024). Programs were largely free or subsidized for students. This endowment model ensured long-term sustainability while maintaining independence. The Jack Kent Cooke Foundation was the most financially robust private institution in this comparison, with an endowment valued at approximately USD 890 million and annual expenses of around USD 45.4 million, and it provided full scholarships to all its scholars (ProPublica, 2024). The Davidson Institute reported total revenues of approximately USD 244 million in 2024, with total assets of USD 212 million (CauseIQ, n.d.).
Johns Hopkins CTY operated on a fee-paying model, with tuition varying by course, and was supplemented by donations and university support (Johns Hopkins Center for Talented Youth, n.d.-c). KSA was fully government-funded, providing full scholarships to all enrolled students (Korea Science Academy of KAIST, n.d.-b). Jugend forscht was funded through a public–private partnership with over 250 corporate sponsors, and awarded over one million euros in prizes annually (Jugend Forscht, n.d.-c). The African Science Academy relied entirely on donations and partnerships, providing full scholarships to all 50 annual students (African Gifted Foundation, n.d.-b).

3.4. Dimension 4: Identification and Selection

Mawhiba employed a purpose-built national identification instrument, the Mawhiba Multiple Cognitive Aptitude Test (MMCAT), which assessed over 686,000 students and identified over 244,000 since 2011 (Mawhiba, 2026a). This scale of national identification was unmatched among the institutions in this comparison and represented a deliberate policy choice to cast a wide net across Saudi Arabia’s entire student population. Beyond psychometric assessment, Mawhiba also identified gifted students through STEM-focused competitions, acknowledging that exceptional talent might have been better revealed through domain-specific performance, with three competitions being particularly central to this effort.
The Davidson Institute used IQ and achievement tests, specifically targeting students who scored over 145 in IQ, making its identification the most selective in this comparison (Davidson Institute, n.d.-c). CTY used a range of standardized tests (SCAT, SAT, ACT) and served students in grades 2–12 (Johns Hopkins Center for Talented Youth, n.d.-b). The HKAGE used a combination of school nominations, parent nominations, and a screening test (The Hong Kong Academy for Gifted Education, n.d.-b). The KSA employed a multi-stage process including document review, a math and science test, and an interview (Korea Science Academy of KAIST, n.d.-b). The Jack Kent Cooke Foundation used a holistic review process that explicitly included financial need as a primary criterion (Jack Kent Cooke Foundation, n.d.). Jugend Forscht had the most open identification model, simply requiring students to submit a research project, with no prior testing required (Jugend Forscht, n.d.-a). The African Science Academy received 731 applications in 2022 for 50 places, selecting candidates based on academic excellence and passion for STEM (African Gifted Foundation, n.d.-c).

3.5. Dimension 5: Program Portfolio

Mawhiba offered one of the most comprehensive general education levels among all institutions reviewed, with over 18 distinct programs in STEM areas that covered every stage of the talent development journey, including identification, in-school and after-school enrichment, research mentorship, and international Olympiad training (Mawhiba, n.d.-b). This integrated, multi-stage approach represented a significant institutional strength.
The Sirius Foundation also offered a broad portfolio across science, arts, and sports, and uniquely integrated this with a dedicated university (Sirius University of Science and Technology), creating a seamless K-12-to-higher-education pipeline (Sirius, n.d.-b). CTY and the Davidson Institute also provided comprehensive K-12 pipelines, with a greater emphasis on academic enrichment courses, summer programs, and online learning (Johns Hopkins Center for Talented Youth, n.d.-a; Davidson Institute, n.d.-b). The Hamdan Foundation offered a diverse portfolio of awards, training programs, the World Giftedness Center, and scholarships for Masters in gifted education, extending its pipeline beyond K-12 (Hamdan Bin Rashid Al Maktoum Foundation for Medical and Educational Sciences, n.d.). In contrast, institutions like KSA and ASA were specialized high schools, offering deep, immersive experiences but for a narrower age range (Korea Science Academy of KAIST, n.d.-a; African Gifted Foundation, n.d.-a). Jugend Forscht was almost entirely focused on a single, large-scale national competition, a very different model from Mawhiba diverse program suite (Jugend Forscht, n.d.-a).

3.6. Dimension 6: Scale and Reach

In terms of sheer scale of identification, Mawhiba was a global leader, assessing over 686,000 students and having identified over 244,000 since 2011 through the MMCAT, while serving over 159,000 in its enrichment programs (Mawhiba, 2026a). This national-level scale was remarkable. Jugend forscht in Germany had engaged over 350,000 participants since its founding in its competition (Jugend Forscht, n.d.-a). CTY recorded nearly 30,000 program enrollments, although this was global and course-based (Johns Hopkins Center for Talented Youth, n.d.-a). The Sirius Foundation operated at a large scale, with its online courses reaching 64,000 students since its inception (Sirius, n.d.-b).
The specialized academies were intentionally small: KSA had 383 enrolled students, and the African Science Academy admitted only 50 students per year (Korea Science Academy of KAIST, n.d.-c; African Gifted Foundation, n.d.-c). This reflected a deliberate trade-off between depth of intervention and breadth of reach. The Jack Kent Cooke Foundation had awarded scholarships to nearly 3900 students since its founding in 2000 (Jack Kent Cooke Foundation, n.d.). The Davidson Institute’s Young Scholars program, the Hamdan Bin Rashid Al Maktoum Foundation, the Qatar Foundation, and the HKAGE did not publicly report precise annual enrollment figures.

3.7. Dimension 7: Partnerships and Ecosystem

Mawhiba had cultivated a strong ecosystem of over 100 active partners, including government ministries, universities, and international organizations. Its UNESCO NGO accreditation (2023) represented a landmark partnership that validated its global standing (Mawhiba, 2026b). This multi-sectoral approach was crucial for its national strategy and distinguished it from most other institutions. The Hamdan Foundation demonstrated a similarly rich partnership ecosystem, with formal collaborations with UNESCO (for the UNESCO-Hamdan Prize for Teacher Development), ICESCO, and ALECSO (ICESCO, 2025; Hamdan Bin Rashid Al Maktoum Foundation for Medical and Educational Sciences, 2025). The Sirius Foundation had strong government partnerships (with the Russian President chairing its board), industry partners (Rosneft, Rostelecom), and international collaborations with Kazakhstan (Kazinform International News Agency, 2025). Jugend Forscht was built on a foundation of public–private partnerships, with over 250 corporate partners supporting its competitions, making it the strongest in terms of industry engagement (Jugend Forscht, n.d.-b). HKAGE had established partnerships with local universities (CUHK, HKUST, HKU) and international institutions like Johns Hopkins University and the Weizmann Institute of Science (The Hong Kong Academy for Gifted Education, n.d.-c).

3.8. Dimension 8: Research and Knowledge Production

Mawhiba made a significant contribution to this area, most notably through its 2023 UNESCO NGO accreditation, which formally recognized its standing and impact within the global gifted education field (Mawhiba, 2023). Furthermore, since 2008, Mawhiba had translated more than 40 academic books in the field of gifted education into Arabic and had made them available free of charge on its website to teachers, parents, and educators, thereby broadening access to specialized knowledge across the Arabic-speaking world. In addition, since 2020, Mawhiba had hosted a biennial Global Gifted and Creativity Conference, with the next edition scheduled for October 2026, reflecting its sustained ambition to position itself as a leading international knowledge center for giftedness and creativity. While CTY held the longest and most distinguished history of research in gifted education among all institutions reviewed, Mawhiba trajectory demonstrated a clear and deliberate commitment to building a comparable research and knowledge legacy within both the regional and global contexts.
Q2:
How does the Mawhiba Integrated Talent Development System implement its identification and nurturing processes, and what are the key outcomes of this model?
The thematic analysis of Mawhiba documentary evidence yielded two overarching themes that collectively describe how the foundation translates talent development theory into practice. These two themes, identified through the iterative coding process, are: (a) the operationalization of identification processes, and (b) the structuring of nurturing processes across a developmental continuum. Each theme is analyzed below, with attention to what the evidence suggests about the model’s functioning and its alignment with theoretical frameworks, rather than merely describing programmatic activities.

3.9. Translation of Identification Processes

The foundation of the Mawhiba talent development system was its systematic approach to gifted identification, which served as the gateway to all subsequent nurturing processes. The documentary evidence suggests that Mawhiba has successfully operationalized the theoretical need for objective, multi-dimensional talent discovery into a standardized national mechanism of substantial scale. The term ‘successful’ here is used in an interpretive sense, grounded in the documented quantitative outputs of the system, including the number of students identified and the breadth of programs delivered. It is important to note that these figures represent programmatic reach rather than causally established evidence of student-level effectiveness; the latter would require longitudinal primary data, such as tracking individual student trajectories over time. The analysis that follows therefore focuses on what the documentary evidence can reasonably support, namely, the structural coherence and scale of the identification system, rather than making claims about individual student outcomes that the available data cannot substantiate.
The primary instrument for this process was the Mawhiba Multiple Cognitive Aptitude Test (MMCAT), which was implemented through a tripartite partnership between Mawhiba, the Ministry of Education, and the National Center for Assessment (Mawhiba, n.d.-b). The MMCAT operationalized a multi-dimensional conception of giftedness by assessing students across four cognitive domains: (a) linguistic reasoning and reading comprehension, (b) mental flexibility, (c) mathematical and spatial reasoning, and (d) scientific and mechanical reasoning. This multi-domain structure ensured that identification was not confined to traditional academic achievement metrics but captured a broader spectrum of cognitive potential, consistent with contemporary theoretical frameworks of giftedness (Gagné, 2004, 2020). Importantly, the MMCAT is administered as a universal screening instrument, targeting all eligible students rather than relying on teacher nominations or voluntary participation. This design reflects a key principle in equitable gifted identification: universal screening has been shown to significantly increase the representation of underrepresented student populations by removing the gatekeeping function of nomination-based systems (Card & Giuliano, 2016; Peters et al., 2021). This approach directly addresses a critical limitation of many global gifted programs, where reliance on self-selection or teacher referral can inadvertently exclude gifted students from disadvantaged backgrounds (Ford, 2010). Regarding creativity, Mawhiba identification framework acknowledges that creativity, as a core component of giftedness (Renzulli, 2005), may not be fully captured by cognitive aptitude tests alone. Notably, however, the MMCAT does partially address creativity through its inclusion of mental flexibility as one of its four assessed cognitive domains. Mental flexibility, the capacity to shift thinking, generate alternative solutions, and adapt to novel problem configurations, is widely recognized as a foundational cognitive component of creative thinking (Kaufman & Beghetto, 2009). In this respect, the MMCAT provides a psychometric indicator of creative potential at the cognitive level. Beyond this psychometric measure, Mawhiba explicitly addresses creativity through its STEM competition pathway and enrichment programs. Creativity in this context is defined as the capacity to generate novel and useful solutions to complex problems, consistent with domain-specific models of creative giftedness (Kaufman & Beghetto, 2009). It is measured through performance-based indicators, such as the quality and originality of student projects submitted in competitions, such as the National Olympiad for Scientific Creativity (Ibdaa), and developed through the Research Enrichment and Mentorship programs. This multi-pathway approach, combining psychometric screening with performance-based identification, aligns with best practices in the field (Cramond & Kim, 2021).
The identification process was stratified across three developmental levels, targeting students in Grades 3 through 10, which ensured that giftedness could be identified at multiple entry points in a student’s educational journey (Mawhiba, 2026a). The cumulative results of this program were substantial. A total of 686,000 students had been tested through the MMCAT since the program’s inception in 2011, resulting in the formal identification of 244,000 gifted students (Mawhiba, 2026a). This represented an identification rate of approximately 35.5% among the tested population, demonstrating a rigorous yet broad-based approach to capturing talent across all regions of the country.
Complementing this psychometric approach, Mawhiba also employed STEM-focused competitions as an additional and parallel pathway for identifying gifted students, recognizing that exceptional talent manifested through domain-specific performance rather than general cognitive assessments alone. Three competitions were particularly central to this effort. The Kangaroo Mawhiba Mathematics Competition represented the Saudi chapter of one of the world’s largest mathematics contests, held across more than 70 countries and attracted approximately six million participants globally (Mawhiba, n.d.-b). Targeting students from grades 3 through 12 via a remote electronic platform, the competition had registered over 285,000 students in Saudi Arabia to date, with more than 10,600 winners identified, serving as a large-scale screening instrument for mathematical talent at the national level (Mawhiba, n.d.-b). The Bebras Mawhiba Informatics Competition (BMC), in turn, was the Saudi chapter of an international initiative designed to promote computational thinking, logical reasoning, and informatics among school students of all ages, with over two million participants from more than 70 countries worldwide (Mawhiba, n.d.-b). Within the Saudi context, the BMC fulfilled a dual function: it developed students’ critical thinking and problem-solving capacities as a standalone competition, while simultaneously serving as the primary gateway to the Mawhiba International Olympiad Program for the Saudi Informatics Team, with over 132,000 students registered nationally (Mawhiba, n.d.-b). Finally, the Mawhoob Competition served as the foundational entry point into the Mawhiba International Olympiad Program, through which students who successfully advanced through its initial stages were nominated for a structured, multi-stage training pipeline spanning the disciplines of mathematics, physics, chemistry, biology, science, and informatics (Mawhiba, n.d.-b). This pipeline culminated in intensive preparation at King Abdullah University of Science and Technology (KAUST) and the nomination of Saudi national teams for participation in international scientific Olympiads, with eligibility open to students from grades 8 to 12 (Mawhiba, n.d.-b). Collectively, these competitions illustrated how Mawhiba constructed a layered talent identification system that complemented the MMCAT by capturing gifted students through demonstrated performance in specialized STEM domains, thereby ensuring that no form of exceptional potential went unrecognized.

3.10. Translation of Nurturing Processes Across a Developmental Continuum

Once they were identified, students were channeled into a differentiated set of nurturing pathways. The results demonstrated that Mawhiba translated its nurturing processes through a continuum of programs that increased in specialization and intensity as students progressed. This continuum was organized into four primary domains: enrichment programs, research and innovation development, school partnerships, and university preparation.

3.10.1. Enrichment Programs

Mawhiba enrichment model was characterized by its multi-modal delivery and broad national reach. The Academic Enrichment Program served as the largest foundational initiative, having reached 79,337 students (Mawhiba, 2026a). This broad base was complemented by more specialized and intensive programs. The After School Enrichment Program provided 42 h of specialized instruction across 12 scientific units, which were delivered entirely via an e-learning platform to ensure equitable access for students across all regions of Saudi Arabia (Mawhiba, n.d.-b). As students demonstrated higher levels of capability, the nurturing process became more intensive. The Universal Enrichment Program, a residential summer initiative, provided 3584 students with immersive experiences in advanced science and technology courses (Mawhiba, 2026a). The Mawhiba Ambassadors program further extended this international dimension by facilitating the participation of 1769 students in prestigious educational programs hosted by premier global universities (Mawhiba, 2026a). The Skills Enrichment Program addressed the holistic developmental needs of 4420 students, ensuring that academic giftedness was complemented by strong personal, social, and leadership competencies (Mawhiba, 2026a).

3.10.2. Research and Innovation Development

A critical component of the Mawhiba nurturing process was the deliberate cultivation of research competencies through a structured progression from foundational knowledge to active scientific contribution. The Research Enrichment Program served 3087 students in systematic research methodologies, data collection, and academic writing (Mawhiba, n.d.-b; Mawhiba, 2026a). This was supported by the Scientific Research Foundations Program, which introduced students to the principles of scientific inquiry, and the Mentorship Program, which paired students with experienced researchers, translating the theoretical benefits of cognitive apprenticeship into practical, one-on-one guidance (Mawhiba, n.d.-b). The Qualifying Program for International Standards Olympiad further bridged research development and competitive preparation by equipping students with the advanced problem-solving skills required for international Olympiad standards (Mawhiba, n.d.-b).

3.10.3. Structural Integration via School Partnerships

To ensure that nurturing processes were embedded in the daily educational environment, Mawhiba had established robust school partnerships. The Mawhiba Classes program had embedded specialized cohorts within 168 partner schools, which served 50,886 students (Mawhiba, n.d.-b; Mawhiba, 2026a). This ability-grouping strategy allowed for a more rigorous academic pace and deeper content exploration (Mawhiba, n.d.-b). Additionally, the Advanced Program for Science and Mathematics had provided an enriched and accelerated curriculum to 12,298 students across partner institutions, demonstrating a commitment to sustained academic acceleration (Mawhiba, n.d.-b; Mawhiba, 2026a).

3.10.4. STEM Competitions

Analytically, the STEM competition data serve a dual function: they represent both a developmental pathway and a proxy measure for the system’s reach and engagement. However, it is important to interpret these figures as indicators of participation and programmatic scale rather than as direct measures of individual student learning outcomes. The scale of national engagement is nonetheless noteworthy. The National Olympiad for Scientific Creativity (Ibdaa) recorded a cumulative total of 1,406,737 students, resulting in 1531 granted awards (Mawhiba, 2026a). This competition served as the primary qualifying pathway for Saudi student participation in the International Science and Engineering Fair (ISEF), directly linking national competition to international achievement (Mawhiba, n.d.-b). Broad-based mathematical enrichment was evidenced by the 285,800 students in the Kangaroo Mawhiba competition, while computational thinking was promoted through the 129,243 students in the Bebras Mawhiba competition (Mawhiba, 2026a). The National Science and Mathematics Olympiad (NSMO) engaged 133,259 students across eight scientific disciplines, serving as a key feeder program for Saudi national scientific teams (Mawhiba, 2026a).
While direct causal attribution is constrained by the documentary nature of this study, the international outcomes provide interpretive indicators that are consistent with the model’s intended goals. Saudi students, who were nurtured through Mawhiba integrated programs, had accumulated a total of 185 major and special prizes at the Regeneron International Science and Engineering Fair (ISEF) since 2007 (Mawhiba, 2026a). In the domain of international scientific Olympiads, students had achieved a total of 691 medals and certificates of appreciation, with 833 participants engaging in regional and international competitions across more than 20 distinct Olympiad disciplines (Mawhiba, 2026a).

3.10.5. University Preparation

At the apex of the nurturing continuum, the Tamayuz program and its preparatory pathway represent the final stage of the documented talent development pipeline. University placement data serve as one measurable indicator of the program’s outputs, though they should be interpreted as a structural outcome of the pipeline rather than a comprehensive measure of student development. Through comprehensive academic advising and standardized test preparation, Mawhiba facilitated the acceptance of 815 students into the top 100 universities worldwide, which generated a total of 2515 admissions to these elite institutions (Mawhiba, n.d.-b; Mawhiba, 2026a). Additionally, 190 students were directly supported through the Mawhiba Scholarship program (Mawhiba, 2026a).

4. Discussion

The purpose of this study was to conduct a comprehensive, multi-level analysis of Mawhiba, examining it as a unique national model for talent development. The findings reveal that Mawhiba institutional design and operational outputs are consistent with many of the principles that underpin effective talent development systems. It is important to note that, given the reliance on documentary evidence, the following discussion presents interpretive conclusions rather than causally established empirical claims. Conclusions regarding effectiveness, equity, scalability, and transferability are framed as evidence-informed interpretations that warrant further validation through primary empirical research. By synthesizing the strengths of various approaches, Mawhiba has created a system that is both comprehensive, sustainable, scalable, and equitable.

4.1. Institutional Design and Overcoming Traditional Limitations

The comparative analysis demonstrates that the Mawhiba institutional model differs significantly from those of comparable global institutions, primarily due to its unique combination of endowment-based funding, national scale, and a multi-sector partnership ecosystem. This hybrid model directly addresses the limitations of the four traditional models identified in the literature.
Unlike university-affiliated enrichment programs such as Johns Hopkins CTY, which often rely on tuition fees and may inadvertently create socioeconomic barriers, the Mawhiba endowment-based funding model, valued at approximately USD 1.8 billion with an annual revenue of approximately USD 45 million (Al-Awad & Al-Drees, 2024), ensures that its programs are predominantly free or heavily subsidized. This financial structure promotes equity, by ensuring that talent development is not contingent upon a student’s financial background. This approach aligns with the equity imperative in gifted education, which argues that all gifted learners have a right to an education commensurate with their abilities, regardless of socioeconomic status (Ford, 2010; Peters, 2022; Robertson, 2024). The Jack Kent Cooke Foundation, with a comparable annual expenditure of approximately USD 45.4 million (ProPublica, 2024; Brandon et al., 2021), represents the most financially robust private model in this comparison, yet its scope is intentionally limited, targeting high-achieving, low-income students exclusively. Mawhiba, by contrast, pursues both breadth and equity simultaneously.
Furthermore, while state-funded residential academies such as the Korea Science Academy (KSA) offer intensive, immersive experiences, their highly selective nature restricts their reach to a small fraction of the gifted population. KSA, for instance, enrolls only 383 students at any given time (Korea Science Academy of KAIST, n.d.-b; Kang, 2019). Mawhiba addresses this limitation through its decentralized delivery network. By partnering with 168 schools to establish Mawhiba Classes, which have served 50,886 students since its establishment, and utilizing e-learning platforms for its After School Enrichment Program, Mawhiba achieves a national scale that is rare in the global landscape (Mawhiba, 2026a). This approach allows students to remain in their local communities while receiving specialized instruction, thereby mirroring the inclusivity of integrated programs within mainstream education such as Singapore’s Gifted Education Programme (Phillipson, 2011), but with the added benefit of centralized, standardized quality control.
The strategic multi-sector partnership ecosystem developed by Mawhiba further distinguishes its model. By connecting government ministries, leading universities, and private sector companies through a network of over 100 active partners, and by obtaining UNESCO NGO accreditation in 2023 (Mawhiba, 2026b), Mawhiba ensures that talent development is directly linked to the nation’s economic and developmental goals, specifically Saudi Vision 2030. This ecosystem approach transforms gifted education from an isolated educational exercise into a strategic national imperative, reflecting The Organisation for Economic Co-operation and Development [OECD]’s (2018) assertion that human capital is the primary driver of national progress in the 21st-century global economy (Shavinina, 2013; Wai et al., 2021). This characteristic is shared, to varying degrees, by the Sirius Foundation in Russia, which benefits from strong state backing and presidential oversight (Sirius, n.d.-a), and by the Qatar Foundation, which is explicitly aligned with Qatar National Vision 2030 (Government Communications Office, n.d.). However, Mawhiba combination of endowment independence, UNESCO accreditation, and the breadth of its program portfolio positions it as a uniquely comprehensive model.

4.2. The Developmental Continuum

The analysis of Mawhiba operational efficacy demonstrates how the foundation successfully translates contemporary theoretical frameworks of giftedness into actionable, scalable processes. The foundation underpinning this system is the Mawhiba Multiple Cognitive Aptitude Test (MMCAT), which operationalizes a multidimensional conception of giftedness. By assessing students across four cognitive domains, including linguistic reasoning, mental flexibility, mathematical and spatial reasoning, and scientific and mechanical reasoning, the MMCAT extends beyond the traditional, narrow focus on IQ scores or academic achievement, a focus that has been widely criticized for cultural and socioeconomic biases (Ford, 2010; Peters, 2022). This approach is consistent with Gagné’s (2004, 2020) Differentiated Model of Giftedness and Talent (DMGT), which distinguishes between innate “giftedness” in various domains and the mastery of systematically developed “talent,” and emphasizes the crucial role of educational catalysts in facilitating this transformation.
Once identified, students enter a differentiated continuum of nurturing pathways. This continuum reflects the DMGT’s emphasis on the role of environmental catalysts in transforming innate potential into outstanding performance (Gagné, 2004, 2020). Mawhiba enrichment programs, ranging from broad academic enrichment that serves 79,337 students to specialized research training involving 3087 participants and international immersion through the Ambassadors program engaging 1769 studentsprovide the necessary challenges to prevent boredom and underachievement, while addressing the social-emotional needs of gifted learners (Pfeiffer & Stocking, 2000; Reis & Renzulli, 2010; Blaas, 2014; Stambaugh, 2017). The Sirius Foundation in Russia offers a comparably broad portfolio and uniquely integrates its K-12 programs with Sirius University of Science and Technology, thereby creating a seamless pipeline to higher education (Sirius, n.d.-b). The Mawhiba Tamayuz program serves an analogous function, providing a structured pathway to elite global universities, which has resulted in 815 students being accepted into the top 100 universities worldwide (Mawhiba, 2026a).
A critical dimension that warrants deeper analytical attention is the psychosocial development of gifted students, which the DMGT identifies as intrapersonal catalysts, encompassing motivation, volition, self-management, and personality traits (Gagné, 2004, 2020). These intrapersonal catalysts are not secondary to cognitive development; rather, they are co-equal drivers of the talent development process. Research consistently demonstrates that gifted students who develop strong self-efficacy, resilience, and a positive academic self-concept are significantly more likely to sustain high performance and pursue advanced educational pathways (Rinn & Crutchfield, 2022; Gül & Ayık, 2025). Casino-García et al. (2021) found that inclusive extracurricular enrichment programs significantly improved the psychological well-being and social competence of gifted adolescents, underscoring the importance of holistic program design. Furthermore, the opportunity to interact with intellectual peers, a feature central to Mawhiba residential and cohort-based programs, has been identified as a key protective factor against the social isolation and underachievement that gifted students may otherwise experience (Pfeiffer & Stocking, 2000; Reis & Renzulli, 2010). These findings suggest that Mawhiba multi-program approach, which extends beyond academic enrichment to include skills development and mentorship, is theoretically well-grounded in addressing the full spectrum of intrapersonal catalysts.
Moreover, Mawhiba emphasizes research and innovation development that aligns closely with Renzulli’s (2005, 2016) Three-Ring Conception of Giftedness and Sternberg’s (2003, 2005) WICS model, which posits that gifted behavior is an interaction among above-average ability, high levels of task commitment, and high levels of creativity. The Mawhiba Research Enrichment Program and Mentorship Program actively cultivate these traits by immersing students in authentic scientific inquiry and pairing them with experienced researchers. This cognitive apprenticeship model fosters both task commitment and creative problem-solving skills necessary for high-level scientific contribution. Beyond cognitive outcomes, the Mawhiba model also addresses the psychosocial and non-cognitive dimensions of talent development, which are central to the DMGT’s concept of intrapersonal catalysts (Gagné, 2004, 2020). The Skills Enrichment Program, which served 4420 students, explicitly targets personal, social, and leadership competencies. Empirical evidence from Mawhiba programs provides interpretive support for these non-cognitive gains: O. M. Muammar (2023) documented significant improvements in students’ soft skills and overall satisfaction, while O. M. Muammar and Alfaiz (2024) demonstrated that psychosocial dimensions, including peer interaction and holistic experience, were significant predictors of program effectiveness as rated by participants. Although these findings are based on self-report data and should be interpreted with appropriate caution, they are consistent with broader meta-analytic evidence showing that enrichment programs yield moderate effect sizes on affective and personal skills, in addition to large effects on cognitive skills (Gül & Ayık, 2025). These outcomes extend beyond academic achievement to encompass the full developmental profile of the gifted learner, including self-efficacy, motivation, and social competence, which are essential for long-term flourishing (Rinn & Crutchfield, 2022). Importantly, the Talent Development Megamodel (Subotnik et al., 2011; Worrell et al., 2019) explicitly positions psychosocial skills as a prerequisite for transitioning from competence to expertise, suggesting that Mawhiba attention to these dimensions is not supplementary but foundational to its talent development mission. The Jugend Forscht model in Germany, while structurally different, shares this emphasis on authentic scientific engagement, requiring students to submit original research projects as the sole criterion for participation (Jugend Forscht, n.d.-a). However, Jugend Forscht’s focus on a single national competition, rather than a multi-stage developmental continuum, limits its capacity to provide the sustained, longitudinal support that characterizes the Mawhiba approach.

4.3. Measurable Outcomes and Strategic Impact

The available documentary evidence provides interpretive support for the Mawhiba integrated model’s reach and alignment with its stated goals, as reflected in its measurable outputs at both the national and international levels. While these outputs cannot be taken as direct evidence of causal effectiveness without primary empirical data, they are consistent with the model’s theoretical design and warrant analytical attention. The extensive scale of national engagement in scientific competitions, most notably the National Olympiad for Scientific Creativity (Ibdaa), with over 1,406,737 cumulative participants and 1531 awards granted (Mawhiba, 2026a), illustrates the system’s broad reach and is consistent with the goal of fostering a culture of scientific inquiry across Saudi Arabia, though the extent to which participation translates into sustained scientific engagement requires longitudinal investigation. This scale of national engagement is comparable to, and in many respects surpasses, that of Jugend Forscht, which has engaged over 350,000 participants since its founding in 1965 (Jugend Forscht, n.d.-a), despite Mawhiba considerably shorter operational history.
The international outcomes provide particularly compelling evidence of the model’s success. The accumulation of 185 major and special prizes at the Regeneron International Science and Engineering Fair (ISEF) since 2007, along with 691 medals and certificates in international scientific Olympiads across more than 20 distinct disciplines, and the participation of 833 individuals in regional and international competitions (Mawhiba, 2026a), suggests, in an interpretive sense, that Mawhiba nurturing processes are associated with the development of talent capable of competing at the highest global levels, though the documentary nature of this study precludes definitive causal conclusions. These achievements support the excellence perspective of gifted education, demonstrating that the strategic nurturing of giftedness yields tangible and measurable returns on national investment (Lubinski & Benbow, 2006; Wai et al., 2009; Kell et al., 2013). Furthermore, the report by Arab News (2026) that Saudi gifted students earned 129 awards in international competitions in 2025 alone underscores the sustained and growing impact of Mawhiba developmental pipeline.
The successful placement of 815 students into the top 100 universities worldwide through the Tamayuz program, resulting in 2515 total admissions and supporting 190 scholarship recipients (Mawhiba, 2026a), underscores the long-term impact of the Mawhiba developmental continuum. Longitudinal research has consistently demonstrated that gifted individuals who are provided with appropriate educational interventions are significantly more likely to pursue higher education, obtain advanced degrees, secure patents, and make significant contributions in their chosen fields (Lubinski & Benbow, 2006; Wai et al., 2009; Kell et al., 2013). By providing a structured pathway to elite academic institutions, Mawhiba actively cultivates a pipeline of future innovators and leaders, directly contributing to Saudi Arabia’s transition toward a knowledge-based economy as envisioned by Saudi Vision 2030. This finding is further supported by Shan and Wang’s (2024) comparative analysis of global talent development practices, which highlights strategic alignment between talent development systems and national economic goals as a critical determinant of long-term national competitiveness.

4.4. Implications for Theory and Practice

The findings of this study have significant interpretive implications for both theory and practice, with the caveat that these implications are grounded in documentary evidence and should be understood as hypothesis-generating rather than hypothesis-confirming. From a theoretical standpoint, the Mawhiba model offers interpretive support, rather than empirical proof, for the DMGT’s emphasis on environmental catalysts as essential drivers of talent development (Gagné, 2004, 2020). The model illustrates that when a national system provides a comprehensive, multi-stage set of educational catalysts, spanning early identification to university placement, the transformation of innate potential into outstanding performance can be achieved at a national scale. This advances the DMGT framework beyond its typical application in individual or classroom-level analyses to the level of national policy.
It is also important to adopt a balanced perspective on the equity dimensions of the Mawhiba model. While the endowment-based funding and universal screening approach are theoretically conducive to equitable access, the documentary evidence does not provide disaggregated data on the demographic composition of identified students, such as regional, socioeconomic, or gender distributions. This represents a significant gap in the available evidence, as equity in gifted education requires not only the removal of financial barriers but also the active redress of systemic underrepresentation of historically marginalized groups (Ford, 2010; Peters et al., 2021; Robertson, 2024). Future research should examine whether Mawhiba identification and nurturing processes achieve equitable outcomes across diverse student populations, as the mere availability of free programs does not guarantee equitable participation or outcomes.
From a practical standpoint, the study offers several potentially transferable insights for policymakers and educational leaders, though these should be understood as context-dependent lessons rather than universally applicable prescriptions. First, the endowment-based funding model illustrates one approach to creating financially sustainable gifted education systems, though its replicability depends on the availability of philanthropic or state capital and a supportive legal framework for endowment institutions. Second, the decentralized delivery network demonstrates how national scale may be achieved without sacrificing local relevance, though the effectiveness of this approach in different educational contexts would require empirical validation. Third, the multi-sector partnership ecosystem illustrates how gifted education can be positioned as a strategic national asset, though the conditions enabling such partnerships, including strong state support and a clear national development agenda, may not be universally present. Finally, the study by O. M. Muammar (2023) on the impact of Mawhiba gifted summer programs provides direct evidence of the positive outcomes experienced by program participants, thereby further validating the operational model.

4.5. Limitations and Future Research

This study is not without limitations. As a qualitative, documentary case study, its findings are based entirely on publicly available institutional documents and secondary sources. This reliance on secondary and documentary data is the most significant limitation of the study. Conclusions pertaining to the model’s effectiveness, equity, scalability, and transferability are interpretive in nature and cannot be treated as causally established empirical claims. The absence of primary data, such as student surveys, longitudinal tracking data, or interviews with program administrators and participants, constrains the depth of insight into the lived experiences of program participants and the internal operational dynamics of the foundation. Additionally, the selection of comparison institutions was limited to those with publicly available information in English, which may have introduced a bias toward English-speaking or internationally oriented organizations, potentially excluding relevant models from non-English-speaking contexts. Future research should prioritize primary empirical methods, including longitudinal studies and mixed-methods designs, to validate and deepen the documentary findings presented here. Future research should aim to complement this institutional-level analysis with student-level longitudinal studies that examine the long-term academic and career trajectories of Mawhiba program participants, thereby building on the work of O. M. Muammar (2023) and F. Alfaiz et al. (2026).
Furthermore, while this study identifies the Mawhiba model as a compelling blueprint for other nations, the question of replicability remains to be further investigated. The model’s success is, in part, contingent upon specific contextual factors, including the availability of endowment funding, strong government support, and a national commitment to human capital development. Future comparative research should explore the extent to which these factors are present in other national contexts and how the model might be adapted to accommodate different political, economic, and cultural environments.

5. Conclusions

In conclusion, this study suggests that the Mawhiba model represents a significant and distinctive contribution to the global field of gifted education. By integrating endowment-based funding, national scale with decentralized delivery, and a multi-sector partnership ecosystem, Mawhiba has created a framework that is, based on available documentary evidence, simultaneously comprehensive, sustainable, and broadly accessible. It is important to reiterate that these conclusions are interpretive in nature, grounded in institutional documents and secondary sources, and should not be read as causally established empirical claims. The study’s findings are best understood as a foundation for further primary empirical research rather than as definitive evidence of effectiveness. The model’s documented outputs, from the identification of nearly a quarter of a million gifted students to the accumulation of hundreds of international scientific awards, provide interpretive evidence of its potential efficacy. These findings, while promising, should be understood as a foundation for further empirical investigation rather than definitive proof of causal impact. As nations around the world grapple with the challenges of the 21st-century knowledge economy, the Mawhiba model offers a compelling case study demonstrating that the strategic, systemic cultivation of human capital is both possible and potentially transformative for national progress. The gifted and creative minds of a nation’s youth are its most valuable resource; the Mawhiba experience demonstrates what may become possible when a nation commits to nurturing that resource with vision, rigor, and sustained investment.

Funding

This research received no external funding.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

The datasets generated and analyzed during the current study are available from the corresponding author upon reasonable request.

Conflicts of Interest

The author declares no conflicts of interest.

Abbreviations

The following abbreviations are used in this manuscript:
MawhibaKing Abdulaziz and his Companions Foundation for Giftedness and Creativity

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Table 1. A Comparison Dimensions between Mawhiba and other Global Institutions.
Table 1. A Comparison Dimensions between Mawhiba and other Global Institutions.
No.DimensionWhat It Measures
1Institutional Identity and GovernanceLegal status, founding authority, governance structure, national/international scope
2Mission and Strategic AlignmentCore mission, national development alignment, target beneficiary, talent domains
3Funding and Financial ModelFunding sources, sustainability, budget/endowment size, student fee structure
4Identification and SelectionMethodology, age range, annual scale, inclusivity
5Program PortfolioTypes of programs, K-12, breadth, international delivery
6Scale and ReachStudents served annually, geographic reach, delivery modes
7Partnerships and EcosystemGovernment, industry, academic, and international partners
8Research and Knowledge ProductionResearch capacity, publications, field contribution, accreditation
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Alfaiz, F.S. A National Framework for Giftedness: The Mawhiba Model for Identification and Nurturing Gifted Students. Educ. Sci. 2026, 16, 884. https://doi.org/10.3390/educsci16060884

AMA Style

Alfaiz FS. A National Framework for Giftedness: The Mawhiba Model for Identification and Nurturing Gifted Students. Education Sciences. 2026; 16(6):884. https://doi.org/10.3390/educsci16060884

Chicago/Turabian Style

Alfaiz, Fahad S. 2026. "A National Framework for Giftedness: The Mawhiba Model for Identification and Nurturing Gifted Students" Education Sciences 16, no. 6: 884. https://doi.org/10.3390/educsci16060884

APA Style

Alfaiz, F. S. (2026). A National Framework for Giftedness: The Mawhiba Model for Identification and Nurturing Gifted Students. Education Sciences, 16(6), 884. https://doi.org/10.3390/educsci16060884

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