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Article

Strategic Visions and Transformative Resilience: Architectural Design, Implementation, and Functional and Socio-Cultural Outcomes of Saudi Vision 2030 in Riyadh, Saudi Arabia

by
Ashraf Mohamed Soliman
1,2,* and
Salman Al Rasheed
1
1
Department of Architectural Engineering, College of Engineering and Design, Kingdom University, Riffa 3903, Bahrain
2
Department of Architectural Engineering, Faculty of Engineering, Minia University, Minia 61519, Egypt
*
Author to whom correspondence should be addressed.
Architecture 2026, 6(3), 158; https://doi.org/10.3390/architecture6030158
Submission received: 10 June 2026 / Revised: 3 September 2026 / Accepted: 4 September 2026 / Published: 7 September 2026
(This article belongs to the Special Issue From Participatory Design to Transformative Resilience)

Abstract

This study examines how Saudi Vision 2030 is reshaping architectural design and practice in Riyadh amid the challenge of balancing rapid urban development with local architectural identity. The study is framed by the concept of transformative resilience, defined here as the capacity of an urban system not merely to absorb disturbance but to deliberately reconfigure its structure, function and identity while sustaining cultural continuity. The research investigates Vision 2030’s impact across four analytical dimensions; design, implementation, functional performance, and socio-cultural context; and explores whether evaluative perceptions differ according to sociodemographic characteristics, including gender, age, nationality, educational level, professional background, and length of residency. A descriptive analytical methodology was adopted, employing a structured questionnaire. Instrument reliability was established with a Cronbach’s alpha of 0.70. Data were collected from a stratified random sample of 384 residents and professionals in Riyadh (response rate 93.7%). Because the instrument records perceived rather than objectively measured performance, the two evidence streams are reported separately: the survey data establish social legitimacy and acceptance, while the case studies supply the physical, technical and documentary evidence base. To contextualise the survey findings, three projects were purposively selected and examined as representative case studies, supported by field photographic documentation. Quantitative results demonstrate a strong consensus regarding the positive influence of Vision 2030 on architectural development, with mean scores ranging from 4.07 (design) to 4.13 (functional and socio-cultural dimensions). The highest-rated item (mean = 4.23) related to strengthening sense of place. Inferential analysis, now reported with effect sizes, revealed statistically significant differences across all sociodemographic variables, with age being the most influential factor, although all effects were small in magnitude. Qualitative findings identify preserving architectural identity and heritage as the main challenge, while diversifying contemporary design approaches is the most frequently proposed future direction. The study concludes that achieving Vision 2030’s architectural objectives requires regulatory frameworks that embed local identity, supported by community capacity building and sustained institutional commitment to culturally responsive and environmentally sustainable design. The principal contribution is an operationalised assessment framework that translates transformative resilience from a descriptive narrative into a set of architectural indicators applicable to other vision-led urban transformations.

1. Introduction

Since a groundbreaking announcement by His Royal Highness Prince Mohammed bin Salman bin Abdulaziz Al Saud, the Crown Prince and Prime Minister, on 25 April 2016, of the Kingdom of Saudi Arabia’s ambitious Vision 2030, the Kingdom has embarked on a transformational journey of unprecedented proportions—one that goes beyond economic reform to touch every aspect of social, urban and cultural life. The Vision aims to expand sources of income generation beyond oil, improve the standard of living of its citizens and residents and create cities that reflect its rich cultural and heritage values. This aspiration is underpinned by three enduring national assets: the Kingdom’s deep Arab and Islamic identity as home to the Two Holy Mosques and spiritual epicentre of the Muslim world; its substantial investment capabilities, which allow it to pursue ambitious plans on a grand scale across all sectors; and its unique geopolitical location straddling three continents, which positions it as an emerging global hub for trade and logistics [1].
Architecturally, Vision 2030 builds on three interconnected pillars that give rise to 96 specific strategic goals. The first, A Vibrant Society, seeks to improve the quality of life through investment in art, culture and entertainment; strengthening national identity and pride in heritage; building sound health and social security systems. The second, A Thriving Economy, seeks to diversify the economy through foreign direct investment, private sector growth, small and medium enterprise development and human resource investment. The third, An Ambitious Nation, is focused on creating transparent and accountable governance, which can deliver good public services and protect the Kingdom’s precious resources for generations to come [2].
Most notable among the many areas affected by this vision are the fields of urban development and architecture. Located in the Kingdom’s political and administrative centre, the city of Riyadh is also its demographic epicentre—and a crucial site for the urban ambitions of Vision 2030 [3]. It has emerged as the backdrop for a series of mega-projects that signal a shift in architectural thinking: the resurgence of Najdi architecture at Historic Diriyah, contemporary economic urbanism at King Abdullah Financial District (KAFD) and environmental and lifestyle considerations at the Riyadh Sports Track. These projects demonstrate institutional attempts to navigate and negotiate the relationship between architectural modernity and local identity preservation, a growingly complex challenge in a rapidly urbanising world with both vertical and horizontal expansion of cities [4,5,6,7].
While these developments are underway, research that takes a critical view of these projects, especially that which incorporates quantitative and qualitative approaches to examine the impact of these projects on the local urban environment and social fabric, is lacking. This research will help fill this gap by providing a comprehensive assessment of the impact of Vision 2030 on local architecture in Riyadh, and how mega-projects relate to the cultural, social and environmental dimensions of the city. The empirical research is grounded in three case studies captured through the authors’ site visits with original photography, and the broader scholarly discourse on sustainable heritage and cultural continuity, revealing the enduring impacts of these projects on architectural identity and sense of place.
Despite the scale and ambition of Saudi Vision 2030, there remains a critical gap in understanding how its urban and architectural initiatives influence the balance between rapid modernisation and preservation of local architectural identity. While previous studies have addressed individual projects or policy frameworks, there is a lack of empirically grounded research that evaluates the multidimensional architectural impacts of Strategic Visions particularly across design, implementation, functional performance, and socio-cultural dimensions. Moreover, little is known about how different societal groups perceive these transformations. This gap limits the ability to assess whether ongoing developments truly achieve the Vision’s objective of creating culturally rooted yet globally competitive urban environments.
A second, and more fundamental, gap is conceptual. Cities undergoing state-led, accelerated transformation are increasingly examined through the lens of resilience, yet the resilience literature remains dominated by shock-and-recovery models developed for hazards, disasters and climate extremes. Riyadh presents a different and under-theorised condition: the disturbance is neither external nor unwanted but endogenous, anticipatory and deliberately engineered, driven by the need to reduce hydrocarbon dependence, absorb rapid demographic growth and respond to intensifying aridity. Assessing such a city therefore requires a transformative rather than a recovery-oriented conception of resilience, and an assessment instrument capable of reading resilience in architectural terms.
Accordingly, this study positions transformative resilience as the conceptual backbone of the research rather than as a concluding interpretation. Section 2.4 defines the concept, situates it within the socio-ecological and urban resilience literatures, and operationalises it into indicators that are then embedded in the survey instrument, the case-study protocol, the cross-case synthesis and the discussion. The four analytical dimensions used throughout the paper (design, implementation, functional performance and socio-cultural integration) are the architectural registers through which the properties of transformative resilience, namely persistence, adaptability, transformability and cultural continuity, become observable and assessable.

1.1. Research Aim

This study aims to systematically evaluate the impact of Saudi Vision 2030 on local architecture in Riyadh through a multidimensional framework encompassing architectural design, implementation practices, functional performance, and socio-cultural integration. By combining case-study analysis with quantitative survey data, the study seeks to assess both the physical outcomes of key projects and the perceptions of different societal groups regarding these transformations. A further and overarching aim is to determine the extent to which these outcomes evidence transformative resilience, and to establish whether the four-dimensional framework functions as a valid instrument for assessing it.

1.2. Research Questions

How does Saudi Vision 2030 influence architectural design characteristics in Riyadh?
How do implementation practices of Vision 2030 projects reflect sustainability and construction quality?
To what extent do Vision 2030 developments meet functional user needs?
How do these projects impact socio-cultural identity and sense of place?
Do perceptions of these impacts vary across different sociodemographic groups?
To what extent do Vision 2030 projects in Riyadh exhibit the properties of transformative resilience—persistence, adaptability, transformability and cultural continuity—and through which architectural strategies are these properties expressed?
This study advances current knowledge in three specific ways. First, it develops and empirically tested a multidimensional framework for assessing the architectural impact of national strategic visions, integrating design, implementation, and functional and socio-cultural dimensions—an approach that remains underdeveloped in the existing literature. Second, it provides one of the first large-scale empirical investigations combining perception-based survey data with an architectural case-study analysis within the context of Saudi Vision 2030. Third, it contributes to the broader discourse on global–local tensions in rapidly transforming cities by offering evidence from Riyadh as a model of how state-led development strategies negotiate cultural identity and modernisation.

1.3. Research Structure

The paper is structured as follows: Section 2 presents the theoretical background and conceptual framework. Section 3 outlines the research methodology. Section 4 presents case-study analyses, followed by survey results in Section 5. Section 6 discusses the findings in relation to the existing literature, and Section 7 concludes with implications and future research directions.

2. Theoretic and Historic Background

The study’s theoretical framework taps into three inter-related domains of expert knowledge: the concept of vernacular, or local, architecture and its traits; Saudi Arabia’s Vision 2030 and its urban development goals; and the wider regional context of the Gulf Cooperation Council (GCC) national visions in relation to contemporary architecture. The construction of an integrated theoretical framework plays a critical role in research design, as it guides the inquiry towards a specific research objective, facilitates the identification of the main and secondary variables [8], and provides the scientific foundation from which the empirical data can be interpreted, discussed and compared with the literature [9].

2.1. Local Architecture—Concept and Features

Local, or vernacular, architecture might be defined as building tradition that is inexorably tied to a particular geographical and cultural context, and that is a direct expression of the cultural, social, environmental and historical specificities of its setting [10,11]. Unlike other building traditions, it does not merely utilise local materials or building techniques that have developed over time in each geographical context, but is also deeply rooted in the cultural context of its origin. Construction techniques have been developed over time in response to an understanding of the climate, terrain and materials of the region. As such, vernacular architecture is more than a traditional system of building; it is an outward manifestation of a community’s social organisation, values and culture—an invaluable component of cultural heritage with a compelling urgency to be captured, preserved and passed on to future generations.
In Saudi Arabia, and most conspicuously in the Najd region, this tradition has developed its own distinctive features bearing the unique traces of human adaptation to harsh desert conditions [12]. Traditionally, natural stone and clay-based materials have been used as the main structural materials, not only for their abundance in the region but for their excellent thermal performance [13] (their ability to store heat during the day and release it during the night offers a natural type of climate control that is difficult to achieve with modern materials). Najdi architecture’s spatial repertoire is similarly unique: internal courtyards to encourage air flow and maintain privacy; thick load-bearing walls to insulate against extreme outside temperature; small windows, and high windows to light interiors while minimising heat gain; and flat roofs traditionally constructed using tamarisk trunks and palm fronds [10,14].
The decorative aspect is equally important; the triangular parapet elements (locally called shurafat) as well as the rhythmically organised geometric designs on the building façade together form a visual language that is aesthetically consistent and culturally distinctive. In its totality, Najdi vernacular architecture is an evolved and inherently sustainable environmental adaptation while offering a vital connection to a sense of community, place and architectural identity that endures over time [1,10].

2.2. Saudi Vision 2030’s Urban Development Ambitions

The Kingdom of Saudi Arabia’s Vision 2030 is a holistic strategic plan for the economic, social, cultural and environmental development of the Kingdom. While the Vision is widely known for its aim to diversify the Kingdom’s economy away from its over-reliance on traditional oil resources, it also places significant emphasis on enhancing quality of life and promoting development in all key sectors—none more prominently than the built environment, which is one of the most directly and consequentially impacted sectors of the agenda [1]. In the urban realm, the Vision has defined a series of strategic targets that together announce a remarkable shift in Saudi urban policy: a doubling of UNESCO World Heritage Sites (from five to over ten), a rise in the coverage of green space in Saudi cities, an improvement in ambient air quality, the building of integrated public transport systems in key urban settlements, and an increase in national home ownership levels.
The magnitude of this vision is best embodied in the projects on Riyadh’s urban landscape. The Diriyah Historical Project redevelops Najdi architectural heritage at the site of the original Saudi capital; the King Abdullah Financial District is a new model of modern economic urbanism and smart cities; the Riyadh Sports Track, a 135 km track, promotes active mobility and healthy living; the Riyadh Green Project seeks to plant 7.5 million new trees in the city; the Riyadh Art Project, which seeks to transform the city into an open-air museum of more than one thousand commissioned artworks; and the Riyadh Metro, one of the world’s largest public transport projects, which aims to reshape mobility patterns across the metropolis [14]. At the heart of all these initiatives are three interconnected urban values—sustainability, urban intelligence and urban identity—the latter of which is expressed in the conscious inclusion of heritage elements and built traditions into new projects, ensuring that new urban development is rooted in a sense of place [15,16].
Although Saudi Vision 2030 articulates comprehensive national goals for urban and architectural development, its formulation has been largely driven through centralised strategic planning processes. Existing literature indicates that while Vision reflects broad societal aspirations, such as quality of life, cultural identity, and economic diversification, the direct involvement of the wider public and design professionals in its early conceptualisation has been relatively limited. Participation has instead emerged more prominently at the level of project implementation, through stakeholder engagement, professional practice, and public interaction with built environments. This context is particularly relevant to the present study. By incorporating both architects and non-architects within the survey sample, the research effectively captures a broad spectrum of societal perceptions, offering a post-implementation participatory evaluation of Vision’s architectural outcomes. In this sense, the methodology contributes an empirical layer of societal feedback that complements the predominantly top-down formulation of Vision.

2.3. Comparison with the Region: The GCC Experiences

Over the past 20 years, the GCC nations have experienced dramatic strategic shifts in response to national visions that prioritise economic diversification and a smooth transition to a knowledge economy, which has had direct consequences for urban and architectural policies and practices in the region [17,18,19]. The UAE’s Vision 2021 made a direct connection between economic diversification and a smart and sustainable built environment, making significant advances with the institutionalisation of green-building protocols—most notably the Estidama Pearl Rating System in Abu Dhabi and the Green Building Regulations in Dubai—and the implementation of iconic projects like Masdar City, which positioned the Emirates as a regional benchmark for low-carbon urban development [20]. Qatar’s National Vision 2030 targeted its construction and architecture sectors towards local urban identity and environmental responsibility, institutionalising green-building practices into key urban projects such as Lusail City and The Pearl, albeit hampered by the lack of technical skills and excessive cost of green building [18]. Kuwait Vision 2035 focused on new cities to secure long-term economic sustainability and sustainable housing [21] in Oman, and a more balanced approach has been pursued, which seeks to balance sustainable urban development with heritage preservation [22], while Bahrain’s Vision 2030 has approached urban development through heritage regeneration, linking historic fabric preservation and renewal strategies [23].
Amid these diverse national approaches, a clear set of recurrent themes appears: an overall focus on environmental sustainability and smart-building integration; the unresolved dilemma between global architectural modernity and the need for local identity preservation; persistent institutional and legislative gaps; and inadequate development of community participation processes. What stands out from these diverse national experiences is that turning national vision into tangible architectural outcomes is not simply a matter of political intention but needs to be supported by legislative and regulatory frameworks, credible enforcement mechanisms and a nuanced balance between development and preservation. Amongst this region’s pantheon of national visions, Saudi Arabia’s Vision 2030 is distinctive both in the scale of the urban projects it entails, and in the way architectural identity has been explicitly defined as a national priority rather than incidental design detail ([1,19]).

2.4. Transformative Resilience: Definition, Theoretical Framing and Operationalisation

Resilience has passed through three successive formulations. Engineering resilience treats resilience as the speed of return to a single equilibrium after disturbance [24]. Ecological resilience replaces this with the magnitude of disturbance a system can absorb while retaining its structure and function [24,25]. Evolutionary or socio-ecological resilience abandons equilibrium altogether, describing systems that persist, adapt and, when existing trajectories become untenable, transform into fundamentally different configurations [26,27]. Within this third formulation, resilience is decomposed into three properties: persistence, the retention of valued structures and identities; adaptability, the capacity of actors to adjust the system within its current trajectory; and transformability, the capacity to create a demonstrably new development pathway when the prevailing one is no longer viable [25,26].
Urban resilience scholarship has largely absorbed the first two properties while under-specifying the third. Reviews of the field report that the majority of definitions remain hazard-anchored and recovery-oriented, framing the city as an object that receives shocks rather than as a system that initiates change [28]. Critical readings argue further that this framing risks depoliticising urban change by obscuring the question of resilience of what, to what, for whom, and decided by whom [27,28]. Recent work on urban transformation responds by distinguishing incremental adaptation from deliberate, anticipatory reconfiguration of urban systems [29].
This study adopts and specifies the latter position. Transformative resilience is defined here as the capacity of an urban system to deliberately and anticipatorily reconfigure its physical form, economic base and functional programme while sustaining the cultural continuity through which its inhabitants recognise the city as their own. Three features distinguish it from conventional urban resilience. First, the disturbance is endogenous and intentional rather than external and unwanted. Second, the objective is not restoration of a prior state but the construction of a new one. Third, the binding constraint is cultural rather than structural: transformation that severs continuity of identity may deliver technical performance while eroding the legitimacy on which long-term adaptive capacity depends. Riyadh under Vision 2030 is therefore a paradigmatic, and largely unexamined, case of planned transformative resilience.
Operationalisation proceeds by treating the four analytical dimensions of this study as the architectural registers in which resilience properties become observable, and by attaching to each an indicator set and an evidence source. Persistence is read primarily in the design dimension through the retention and reinterpretation of vernacular typologies, materials and proportional systems. Adaptability is read primarily in the implementation and functional dimensions through programmatic flexibility, environmental performance under increasing thermal stress, and the presence of maintenance and skills systems capable of sustaining what has been built. Transformability is read primarily in the implementation and functional dimensions through the introduction of building types, mobility systems and economic functions with no local precedent. Cultural continuity is read primarily in the socio-cultural dimension through identity retention, community acceptance and sense of place. These mappings indicate dominant analytical associations, but the properties are not mutually exclusive and may operate across multiple dimensions simultaneously. Figure 1 illustrates the conceptual framework of resilience architecture for urban transformation in Saudi Arabia. It elaborates the idea of Vision 2030 as a basic input of Resilience Architecture and Urban Interventions that are measured through four dimensions: Outcome Resilience with Persistence, Adaptability, Transformability, and Cultural Continuity. The resilience architecture is moderated by socio-demographic characteristics of the users, developers and experts. In methodological terms, the framework establishes that resilience is not measured directly. Instead, resilience is operationalised through four analytical dimensions, which provide observable indicators that reveal the extent to which a development demonstrates persistence, adaptability, transformability, and cultural continuity. This makes the abstract concept of resilience empirically measurable and suitable for architectural and urban analysis.

2.5. The Four-Dimensional Analytical Framework and Its Distinctiveness

Theoretical Foundations of the Four Dimensions

The conceptual framework of this study is grounded in established theories of urban development, sustainable architecture, and cultural identity in the built environment. It draws particularly on (1) sustainability assessment frameworks in urban projects, (2) place-making and sense-of-place theory, and (3) heritage conservation paradigms that emphasise the integration of tradition and modernity. These theoretical perspectives collectively inform the identification of key analytical dimensions through which the impact of Vision 2030 on architecture can be systematically evaluated [30].
This framework is built around four basic and inter-analytical dimensions. The selection of these four dimensions is not arbitrary but derived from prior research. The design dimension reflects architectural identity and regionalism studies [10]. The implementation dimension aligns with sustainability and construction performance frameworks [16]. The functional dimension is rooted in user-centred and performance-based design theories. The socio-cultural dimension is informed by place-making and cultural heritage scholarship emphasising identity, belonging, and community acceptance.
The design dimension is concerned with the presence and treatment of traditional architectural features such as courtyards, balconies, ornamentation and proportional systems [31], the selection of traditional building materials (clay and stone) versus imported materials and the aesthetic quality that results from this. The implementation dimension concerns building construction techniques, quality assurance, and application of environmental sustainability requirements in terms of energy efficiency, water conservation, the use of recycled materials, and mitigation of carbon emissions during construction. The functional dimension relates to the extent to which the final built products (buildings and/or urban projects) meet actual users’ needs and patterns of use. And finally, the cultural and social dimension explores the extent to which projects respect local culture, the degree of community acceptance of urban change and development, and the degree to which the built environment is successful in generating a sense of attachment, place-making and belonging [1,32].
Although there is growing emphasis on integrating heritage and modernity in urban development, existing literature reveals a persistent tension between symbolic representation of identity and its authentic architectural translation in contemporary projects. This raises a critical question of whether large-scale strategic visions produce genuinely context-responsive architecture or merely stylistic reinterpretations of tradition. This study addresses this gap by empirically examining how such dynamics manifest in the case of Riyadh.
The distinctiveness of the framework rests on three claims that are stated explicitly here rather than implied. First, on the selection of dimensions: the four were not chosen for comprehensiveness but because each corresponds to a stage at which a strategic vision can fail architecturally. A vision may be well designed but poorly built (design versus implementation), well-built but unused (implementation versus function), or well used but culturally alien (function versus socio-cultural integration). The framework is therefore a failure-mode structure rather than a checklist, and the four dimensions are the minimum set required to locate where a vision breaks down.
Second, on differentiation from existing models: building- and district-scale certification systems such as LEED and BREEAM assess technical and environmental performance but are largely silent on cultural continuity and on identity; the Historic Urban Landscape approach foregrounds heritage and cultural layering but was not designed to evaluate newly created, economically driven districts; composite instruments such as the City Resilience Index [33] measure institutional and infrastructural resilience at city scale but do not resolve to architectural form; and post-occupancy evaluation captures user experience but not design intent or heritage performance. The framework proposed here is positioned in the gap between these instruments: it operates at project scale, retains architectural specificity, and treats cultural continuity as a performance criterion of equal standing to environmental performance.
Third, on theoretical contribution: the framework converts transformative resilience, which in the urban literature remains largely a descriptive category, into an operational one by supplying indicators, evidence sources and a dual-stream evidence logic that separates perceived from measured performance. Its measurement properties are reported rather than assumed, and it is applied to three projects representing structurally different transformation strategies. This distinguishes the framework from a classification scheme, which orders observations, and establishes it as an assessment instrument, which generates falsifiable statements about performance.

3. Methodology

This research adopts a mixed descriptive–analytical methodology based explicitly on two complementary research methods: a case-study method, and a survey method. Together, these methods examine the influence of Saudi Vision 2030 on local architecture in Riyadh through four analytical dimensions: architectural design, implementation, functional performance, and socio-cultural integration. The diagram in Figure 2 illustrates the research methodology. The case studies provide an in-depth architectural reading of selected flagship projects, while the survey captures public and professional perceptions of Vision 2030’s architectural outcomes and identifies variations across demographic groups. Qualitative responses further document perceived challenges and future proposals within the Vision framework.

3.1. Epistemological Position: Perceived Versus Measured Performance

A methodological distinction is maintained throughout this study between perceived architectural success and objectively measured architectural performance. The survey instrument measures the former: it records how residents and professionals evaluate Vision 2030 projects, and it is therefore evidence of social legitimacy, acceptance and cultural resonance. It is not, and is not treated as, evidence of urban resilience, sustainability performance, construction quality or heritage-conservation success, none of which can be established by aggregated opinion. Claims about physical and technical performance are supported exclusively by the case-study evidence stream, comprising field documentation, project and certification documentation, and published technical sources; claims about legitimacy and identity are supported by the survey stream. Where the two streams diverge, the divergence is reported as a finding rather than reconciled. This dual-stream logic is applied consistently in Section 5 and Section 6, and the wording of the results and discussion has been revised accordingly.
This study has six limitations that should be acknowledged. First, the empirical investigation is geographically limited to Riyadh; therefore, the findings may not fully represent conditions in other Saudi cities experiencing different development trajectories. Second, data collection for the case studies was conducted in 2022, during the middle phase of Vision 2030 implementation, which constrains the ability to assess the long-term impacts of ongoing and completed projects. Third, the study adopts a cross-sectional survey approach, which captures perceptions at a single point in time rather than changes over time. Fourth, and most importantly, the survey measures perception and not performance; the study therefore cannot make independent claims about energy use, thermal comfort, occupancy, material authenticity or conservation quality beyond what the documentary and field evidence supports. Fifth, self-selected participation in a survey concerning a flagship national programme carries a risk of social desirability and acquiescence bias, which plausibly contributes to the uniformly high and narrowly distributed mean scores reported in Section 5; the anonymity of administration mitigates but does not eliminate this risk [34]. Sixth, the internal consistency of the design axis (α = 0.561) falls below the conventional threshold, and the four dimensions are strongly inter-correlated (Section 5.4); results for that axis are therefore interpreted with corresponding caution, and the dimensions are used as analytical categories rather than as independent measurement scales.
The four conceptual dimensions identified in the framework directly inform both the design of the survey instrument and the structure of the case-study analysis. Each questionnaire item was mapped to one of these dimensions, ensuring alignment between theoretical constructs and empirical measurement. Similarly, the case-study evaluation applies the same dimensions to interpret architectural characteristics across projects, enabling methodological consistency and integrative analysis.

3.2. Case-Study Method

The case-study method was employed to examine how the objectives of Saudi Vision 2030 are translated into architectural and urban forms. Three projects were purposively selected to represent different strategic directions of the Vision and different roles of architecture in national transformation: Historic Diriyah, representing heritage preservation and the revitalisation of national identity [35]; Riyadh Sports Track, representing improvements in quality of life and environmental sustainability; and King Abdullah Financial District (KAFD), representing economic diversification and Riyadh’s repositioning as a global financial centre.
Each case was analysed using a descriptive–interpretive approach. Descriptive analysis focused on physical and material characteristics of the built environment, including spatial organisation, construction methods, building materials, and architectural proportions. This was complemented by interpretive analysis addressing the symbolic, social, and functional meanings embedded in each project’s architectural character. The case studies were visually documented using original field photographs taken by the authors in 2026, supporting the analytical reading of each project.
Each case was additionally assessed against the resilience indicator set established in Section 2.4. For every project, four questions were addressed systematically: which specific architectural strategies were deployed in pursuit of resilience; which measurable indicators evidence transformation; which limitations, unresolved trade-offs or conflicting outcomes are observable; and which lessons may have relevance for application and further testing beyond Riyadh.
Evidence was drawn from field documentation, published project and certification documentation, and the scholarly literature on each site. To support spatial reading, each case is accompanied by a location map situating the project within the metropolitan structure of Riyadh, and by a site plan indicating spatial extent, scale, principal circulation and the relationship to the surrounding urban fabric.

3.3. Survey Method

The survey method was used to assess perceptions of Vision 2030’s architectural impact across the four analytical dimensions and to examine whether these perceptions vary according to respondents’ demographic characteristics.

3.3.1. Population and Sample

The survey population consisted of Riyadh residents and professionals in architecture and urban planning who were familiar with Vision 2030 projects and their built forms. A sample size of 384 respondents was determined using the finite population sampling formula at a 95% confidence level [36] consistent with standard survey research practice in built environment [37].
A stratified random sampling technique was applied to ensure representation across six demographic variables: gender, age, nationality, educational level, architectural specialisation, and length of residence in Riyadh. Table 1 presents the frequency and percentage distribution of the sample.

3.3.2. Survey Instrument

The questionnaire consisted of 19 closed-ended statements aligned with the four dimensions of the study framework: Design (4 items); Implementation (5 items); Functional performance (5 items); and Cultural and social dimension (5 items). Responses were measured using a five-point Likert scale ranging from Strongly Disagree (1) to Strongly Agree (5). The questionnaire also included two open-ended questions designed to capture respondents’ views on current challenges and future recommendations related to Vision 2030 architectural projects. Content validity was established through expert review. Internal consistency reliability was assessed using Cronbach’s alpha, yielding coefficients of 0.561 for the design dimension, 0.714 for implementation, 0.719 for functional performance and 0.680 for socio-cultural integration, with a mean subscale reliability of 0.669 as shown in Table 2. These values are acceptable for built environment research, with the exception of the design dimension, which falls below the conventional 0.70 threshold and is therefore interpreted with explicit caution throughout.

3.3.3. Data Analysis

Quantitative data from the closed-ended items were analysed using descriptive statistics (means and standard deviations). Mean scores were interpreted using standard five-point Likert scale thresholds: very low (1.00–1.80), low (1.81–2.60), medium (2.61–3.40), high (3.41–4.20), and very high (4.21–5.00) [38]. To identify differences across demographic groups, independent-samples t-tests were applied to dichotomous variables (gender, nationality, and architectural specialisation), while one-way ANOVA was used for multi-category variables (age, education level, and length of residence). Scheffé and Tukey post-hoc tests were employed where significant differences were detected. Qualitative responses from the open-ended questions were examined through systematic content analysis. The resulting themes were cross-tabulated against demographic variables, and chi-square tests were used to assess the statistical independence of response distributions [39].
The statistical protocol was extended in three respects in response to the requirement that a study claiming a multidimensional framework should report correspondingly stronger evidence. First, all inferential tests are now accompanied by effect sizes. Partial eta-squared was obtained for every item and every sociodemographic variable through the general linear model procedure in IBM SPSS Statistics 25, which provides a single common metric for the dichotomous and the multi-category comparisons alike, and values are interpreted against conventional thresholds of 0.01, 0.06 and 0.14 for small, medium and large effects, respectively [40]. This addresses the tendency of large samples to return statistical significance for differences of limited practical magnitude. Second, the measurement properties of the instrument were examined directly: sampling adequacy was assessed through the Kaiser–Meyer–Olkin measure and Bartlett’s test of sphericity, the factor structure was examined by principal axis factoring with promax rotation, and the correspondence between items and their intended dimensions was assessed through corrected item-total correlations and inter-scale correlations [41,42]. Third, multiple regression was used to model the socio-cultural dimension as a function of the design, implementation and functional dimensions at composite level, in order to examine the structural relationships that the conceptual framework implies rather than only to compare group means.

4. Case Studies

The three case studies presented in this section represent distinct yet complementary expressions of Vision 2030’s strategic directions, collectively illustrating how architecture and urban planning function as instruments of economic, social, and cultural transformation in the Saudi capital [14,16]. The architectural character of each project is documented through original photography from the authors’ field visits conducted in 2026.

4.1. The Historic Diriyah Project

The Historic Diriyah Development Project is one of the most symbolic projects of Saudi Vision 2030—a unique and ambitious blending of the Kingdom’s historic roots with modern visions of economic and cultural development. Overseen by the Public Investment Fund (PIF), the project aims to convert Historic Diriyah, the cradle of the First Saudi State, as well as Al-Turaif, a UNESCO World Heritage site, into a world-leading cultural, entertainment and tourism destination. This is a significant investment—with estimated expenditures of over SAR 236 billion (equivalent to USD 63 billion) across a 14 km2 development site located northwest of Riyadh, and targets of 27 million visitors annually and 55,000 direct and indirect jobs [43]. Figure 3 shows the location and master plan of Historic Diriyah. Figure 4 offers a general overview of the original Najdi heritage implemented in the project.
The project exemplifies the genuine expression of Najdi architecture—one of the most recognisable and unique expressions of cultural heritage in central Saudi Arabia. Rather than stylistically evoking this tradition as an ersatz representation, the project reinvigorates traditional Najdi vocabulary through the faithful restoration of historic building technologies and materials: mud bricks and adobe are the principal media of construction; in combination with thick load-bearing walls and small window openings, they provide thermal insulation against the desert heat. The architectural language of Najdi architectural forms is presented with careful attention to its basic elements: subtle geometric arrangements, warm copper-coloured foundations and decorative elements with profound historic and spiritual meanings, most notably the triangular cornice elements at the top of walls and towers that are locally known as the “Brides of the Sky” [44,45,46]). Figure 5 shows the Diriyah Art Futures Centre, which demonstrates how purpose-built contemporary cultural buildings have been inserted into the historic environment, without compromising its spatial and material integrity.
The Diriyah Gate Development Authority’s design guidelines retain the heritage elements while incorporating modern technologies in support of preservation. Building Information Modelling enables accuracy in restoration; passive cooling, smart building technologies and contemporary utilities are integrated throughout; each nuanced to optimise performance without compromising the symbolic references that are an integral part of the project’s identity ([47,48]). Bab Samhan Hotel (see Figure 6) is an example, translating Najdi massing and decorative elements into a modern hotel.
Najdi architectural tradition is not limited to institutional buildings in the project but also extends to the retail environment. Figure 7 showcases shopfronts in Bujairi Terrace, which consistently establish a point-of-sale identity on the human scale through geometric patterning and ornamentation. Figure 8 shows how this architectural language extends into interiors—shurafat patterns, pilasters, and palm-trunk ceilings work together to create a spatial atmosphere in hospitality and retail interiors, maintaining architectural continuity from the urban scale to the micro experience.
In its architecture, Diriyah advances multiple priorities of Vision 2030: it reinvigorates the traditional Najdi style as a means to preserve national identity and belonging; it promotes cultural tourism as a means to diversify the economy (the project is expected to boost tourism’s contribution to GDP by over 10%); and it embeds environmental sustainability through climatically responsive urban massing and resource-efficient infrastructure [7,49,50]). This is a paradigmatic urban project, which adeptly balances traditional and contemporary modes of urbanism, enhancing Saudi Arabia’s heritage image in the region and beyond.

Critical Assessment: Resilience Performance, Trade-Offs and Transferable Lessons from Diriyah Project

Read against the resilience indicators, Diriyah is primarily a persistence and cultural-continuity strategy. The specific architectural strategies that carry this are the retention of the compact, shaded, narrow-alley urban grain rather than the reproduction of individual façades; the reinstatement of load-bearing mud-brick construction with its associated thermal mass and diurnal lag; the maintenance of courtyard-based spatial organisation; and the disciplined restriction of building height to preserve the silhouette of At-Turaif. Measurable indicators of transformation include the extent of fabric conserved as against reconstructed, the proportion of construction using traditional materials and techniques, the number of craftspeople trained in earthen construction, visitor volumes and the change in resident and non-resident recognition of the site as a national symbol.
The limitations and conflicting outcomes are, however, substantive and are reported here rather than subordinated to the positive survey findings. First, the balance between conservation and reconstruction raises a question of material authenticity: where fabric is rebuilt rather than conserved, authenticity migrates from material to form and process, a shift that the Nara Document accommodates but that cannot be claimed without being argued [51]. Second, the project’s positioning within luxury cultural tourism generates a tension between heritage as national patrimony and heritage as a curated commercial product; existing scholarship on Diriyah has characterised this as heritagisation, and the risk is that cultural continuity is achieved for visitors rather than for inhabitants. Third, the earthen-construction skills base required for long-term maintenance is scarce, so the durability of the intervention depends on an institutional training pipeline rather than on the buildings themselves; this is an adaptability constraint, not a design one. Fourth, the integration of contemporary mechanical services, fire safety and accessibility into thick-walled earthen fabric imposes compromises that are rarely made explicit in project documentation.
A potential lesson emerging from the Diriyah project is that vernacular revival at the district scale may be a skills-and-maintenance challenge as much as a design challenge. However, the transferability of this observation and of the associated craft pipeline and conservation-management framework beyond the Riyadh case studies remains a proposition requiring empirical testing in other contexts.

4.2. The Riyadh Sports Track Project

The Riyadh Sports Track is one of the largest urban infrastructure projects in Riyadh. The 135 km long track, which runs along Prince Mohammed bin Salman bin Abdulaziz Road and links Wadi Hanifa in the west to Wadi Al-Sulai in the east, is the world’s largest linear park as shown in Figure 9.
What originally started out as a recreational project connecting two natural valleys with a continuous cycleway has transformed into a multifunctional urban development project, which combines sports, cultural, art and environmental programs in a unified spatial project ([15,52]). Figure 10 shows a typical section, with shady walkways and strategically placed vegetation shaping the distinctive landscape.
The project is based on a connected linear concept that connects several destinations through an integrated network of safe and shaded pedestrian paths that traverse the city. Its signature feature is a close integration with the surrounding landscape—large green areas and water bodies are integrated throughout, while the program integrates a mix of both functional and commercial activities for sports, recreation, culture, and commerce [5,16]. The project’s iconic bridges and elevated pedestrian pathways take this vision further; their folded metal roofs and bold cantilever structures are not only critical urban infrastructure, but also distinctive architectural icons. Figure 11 and Figure 12 show two of these elements and exemplify the project’s modernist architecture.
The Sports Track directly supports Vision 2030’s quality-of-life initiative and its targets: to increase participation in sports from 13% to 40% of the population by 2030 as part of the Quality of Life Programme; expand the amount of green cover in the city to more than 4.4 million m2 by planting over 170,000 trees; and provide more than 220 km of cycling paths and 135 km of safe and shaded walking tracks [2]. The significance of the project was acknowledged when it was the first development globally to be certified by the World Health Organization as an Active Score Platinum Communities project—a recognition of the Kingdom’s ability to implement international best practices in health-promoting urban design in practice [15].

Critical Assessment: Resilience Performance, Trade-Offs and Transferable Lessons from the Sport Track Project

The Sports Track is principally an adaptability strategy operating in the functional and socio-cultural registers. Its distinctive architectural strategies are linearity, which allows a single intervention to serve multiple districts and to be extended incrementally; the layering of shade through planting and built canopies as a climate-adaptation device; the provision of a continuous non-vehicular route in a city whose form is otherwise arterial; and programmatic redundancy, whereby the same corridor accommodates recreation, mobility and social encounters. Measurable indicators include corridor length and continuity, canopy cover and the percentage of route shaded at peak solar angles, the number and distribution of access points, seasonal and diurnal usage counts, and any measurable modal shift toward walking and cycling.
Three limitations qualify this reading. First, seasonality: for four to five months of the year, ambient temperatures in Riyadh make sustained outdoor use of an unconditioned corridor impracticable for much of the day, so the asset’s effective capacity is a fraction of its nominal capacity, and its resilience contribution is concentrated in the cooler months. Second, water: a continuously planted linear corridor in a hyper-arid setting carries an irrigation demand whose resilience implications depend entirely on whether it is met from treated wastewater or from desalinated or groundwater sources; this is the single most consequential undisclosed variable in evaluating the project, and it should be reported. Third, connectivity: a linear corridor delivers network value only where it is crossed safely and frequently, so its performance is determined less by its own design than by the arterial roads it intersects, which lie outside the project boundary. A conflicting outcome also warrants note: interventions of this kind reliably raise adjacent land values, so an amenity introduced to broaden access may narrow it over time unless coupled with housing policy.
A potentially transferable lesson, subject to empirical testing in other urban, climatic, and cultural contexts, is that green infrastructure in hyper-arid cities should be evaluated on shaded-hours-per-square-metre and water source rather than planted area, and that linear projects may inherit their weakest performance from the networks they cross.

4.3. King Abdullah Financial District (KAFD)

The King Abdullah Financial District (KAFD) in Riyadh’s Al-Aqiq district to the north of the city was designed to establish a world-class financial capital in the Saudi capital; Figure 13 shows the location and master plan of KAFD. The 1.6 million m2 district is home to about 95 towers designed by 25 of the world’s most renowned architectural practices and constitutes the Kingdom’s biggest high-rise density. It was originally developed by the Public Pension Agency, and now through the KAFD Development and Management Company—a 100% subsidiary of the Public Investment Fund [53]. Figure 14 shows a typical view of the district’s skyline.
The district’s guiding design principle is the vertical city—high-density urban development with a high quality of life and environmental sustainability. The mix of office, residential, retail, hotel and entertainment uses are combined into vertical and horizontal layers to reduce horizontal travel and promote a vertical city. The architectural style is clearly modern: dynamic geometric forms, “smart” glass facades and high-quality steel evidences global aspirations, while construction technology allows for towers over 300 m [14,53]. Sensitivity to climate is achieved with passive cooling and smart shading. Figure 15 illustrates KAFD’s diagrid and faceted façade systems, which minimise solar gain while communicating structural systems.
KAFD is the first financial district in the world to be certified LEED Platinum at the district level, with multiple buildings—such as the Public Investment Fund Tower, District Administration Headquarters, and fire station—receiving their own LEED certification. Figure 13’s smart-glass façade controls daylight and solar gain, as well as projecting images in a range of tower forms. Figure 16 shows how the towers’ adventurous forms and spaces are reflected in the public space (plazas, sculptural canopies, and public spaces), creating a continuity between the built form and urban life. KAFD has a bold geometric architectural forms and public realm as shown in Figure 17.
The city is based on the “10-Minute City” model, where everything is within a 10 min walk, with an electric monorail without a driver and direct access to the Riyadh Metro. The integration of digital infrastructure, AI-powered analytics, smart lighting, and traffic and waste management systems make KAFD a regional smart urbanism leader [15,53]. This project, therefore, effectively supports Vision 2030’s economic diversification, sustainability, and quality of life objectives, further cementing Riyadh’s status as a world economic capital.

Critical Assessment: Resilience Performance, Trade-Offs and Transferable Lessons Form KAFD Project

KAFD is the clearest instance of transformability in the sample: it introduces a building type, a density, a mobility system and an economic function without local precedent. The architectural strategies carrying this are district-scale vertical mixed use, an elevated pedestrian network that separates movement from the vehicular ground plane, an internal transit spine, and district-scale environmental infrastructure and certification. Measurable indicators include district and building certification levels, achieved occupancy and tenancy over time, the ratio of leasable area to delivered area, energy use intensity per square metre benchmarked against comparable districts, waste diversion rates, and the proportion of daily trips made without a private vehicle.
The limitations are correspondingly significant. First, an extended delivery timeline, with the district conceived in the mid-2000s and reaching substantial occupancy considerably later, is itself a finding about the implementation dimension: transformability at this scale carries a temporal cost that shorter project cycles do not reveal. Second, a genuine tension exists between environmental certification and climatic appropriateness. Certification rewards documented systems performance, but extensive glazed envelopes in a desert climate impose cooling loads that a vernacular, mass-and-aperture strategy would avoid; a district may therefore be simultaneously highly certified and climatically counter-intuitive. This tension should be named rather than resolved rhetorically, and it is the sharpest instance in this study of a conflict between two resilience properties, adaptability and transformability. Third, on cultural continuity, KAFD deploys local reference largely at the level of pattern, massing rhythm and material tone rather than of spatial organisation, which raises the question, posed in Section 2.5, of whether identity is being translated architecturally or applied representationally. Fourth, the elevated pedestrian network delivers internal walkability while remaining weakly connected to the surrounding urban fabric, producing an enclave condition familiar from comparable flagship districts internationally [54].
A lesson that may be applicable beyond the Riyadh context is that certification can serve as a governance instrument rather than solely a climate strategy, and that districts of this type should be assessed not only on internal performance indicators but also on measured energy use intensity and external connectivity. The broader transferability of this observation requires further empirical validation.

4.4. Comparing the Three Projects

While each project has specific strategic goals—heritage preservation for Diriyah, the development of social and health infrastructure for the Sports Track, and economic diversification for KAFD—together, they capture Vision 2030’s holistic and balanced approach to city building. Diriyah embraces the traditional Najdi urban fabric and mud-brick architecture; the Sports Track employs a new linear, nature-integrated, and inclusive model; KAFD offers a vertical, high-tech, mixed-use urban model. This built form diversity is indicative of Vision 2030’s ability to preserve heritage and identity, while adopting modernity, innovation, and global standards in the same national vision [14]. Table 3 summarises this.

4.5. Critical Cross-Case Synthesis: Resilience Performance and Trade-Offs

Table 3 above describes the three projects; the analytical question is what their juxtaposition demonstrates. Assessed against the resilience indicators of Section 2.4, the three do not represent three degrees of the same achievement but three structurally different and partially incompatible resilience strategies. Diriyah maximises persistence and cultural continuity while accepting constrained adaptability, since earthen fabric and a conserved grain limit programmatic change. KAFD maximises transformability while accepting the weakest cultural continuity of the three. The Sports Track occupies the intermediate position, maximising adaptability and social inclusivity while contributing least to transformability. No project scores highly on all four properties, and there is no evident reason why one could.
This is the study’s central analytical finding, and it qualifies the interpretation offered by the survey data. The high and uniform survey means across all four dimensions describe an aggregate perception of the Vision programme; they do not describe the performance of individual projects, which the case evidence shows to be uneven and internally traded off. Read together, the two streams suggest that transformative resilience on a city scale is achieved through a portfolio in which projects compensate for one another’s deficits, rather than through any single exemplary project. The corollary is a governance requirement: portfolio-level resilience presumes an authority capable of assessing the portfolio as a whole, and its absence would allow a city to accumulate individually certified projects while losing resilience in aggregate.
Three cross-cutting tensions emerge from the comparison. The first is between certification and climatic appropriateness, most visible at KAFD. The second is between conservation and access, most visible at Diriyah, where the fabric best conserved is also the most tightly curated. The third is between amenity provision and affordability, latent in both the Sports Track and Diriyah, where quality-of-life investment exerts upward pressure on adjacent land values. These are not implementation failures but structural trade-offs inherent in vision-led transformation and identifying them is a more useful contribution than confirming that a national programme has produced improvement.
Table 4 shows the assessment matrix of the three case studies projects, showcasing the evidence basis of the assessment scores.

5. Survey Results

This section presents the descriptive and inferential results of the questionnaire administered to the 384-respondent sample, organised by the four conceptual dimensions and by demographic comparisons. Consistent with the epistemological position set out in Section 3.1, all results in this section describe perceived impact. They are evidence of how Vision 2030’s architectural outcomes are evaluated by residents and professionals, and are not offered as measurements of architectural, environmental or heritage-conservation performance.

5.1. Descriptive Results Across the Four Dimensions

Across all four axes, mean scores fell in the high to very-high range, indicating broadly positive evaluations of Vision 2030 projects’ impact on local architecture in Riyadh. Table 5 summarises the axis-level means.
The results showed a high level of agreement about the impact of Vision 2030 across all axes, with mean scores between 4.07 (design axis) and 4.13 (functional and socio-cultural axes) and a maximum individual item score of 4.23 for the enhancement of a sense of place; inferential testing confirmed statistically significant differences across all the demographic variables, with age being the most differentiating factor at 52.6% of items, followed by specialisation and duration of residency at 31.6% each, then nationality and education at 26.3% each, and gender at 15.8%, while the qualitative answers highlighted architectural identity and heritage preservation as the most significant challenge and design diversification as the top proposal. The findings suggest a regulatory mechanism is required to embed architectural identity in new projects, in parallel with capacity-building among communities and a strong institutional commitment to culturally sensitive and sustainable design practice.
The design dimension (mean = 4.07) was led by the respondents’ perception that new projects honour the proportions and architectural ratios of Najdi architecture (mean = 4.15), suggesting that a key tenet of Vision 2030’s historicist approach has been well received. The execution dimension (mean = 4.10) was topped by respondents’ perceptions of the quality of construction and technical specifications (mean = 4.16), with environmental sustainability at a close 4.12, however, implying that “quality” seems to be a sincere rather than mere rhetorical ambition. The functional dimension had the other joint-highest axis mean of 4.13, with the highest rated item being inclusive design for all community groups, including the elderly and people with disabilities (mean = 4.17). The cultural and social dimension recorded the same axis mean, with the questionnaire’s highest rated statement: satisfaction with the ongoing urban development in Riyadh as part of the Vision 2030 plan scored a mean of 4.23, placing it in the extremely high category.

5.2. Age and Gender Differences

Inferential analysis showed that all six demographic variables had significant differences across items, with varying proportions of items being significant. Age had the strongest impact with 52.6% of items favouring older age groups according to Tukey and Scheffé tests. Specialisation and residence time each had 31.6%; nationality and educational qualification each 26.3%. Gender was the least influential (15.8%). The relative pattern is presented in Table 6.

5.3. Open-Ended: Challenges and Suggestions

The challenges open-ended question was answered by 50 respondents; content analysis identified eight categories of responses, with the leading ones being identity and authenticity (32%), spaces and infrastructure (20%) and balance and development (18%). The proposals question was answered by 43 respondents where the main category was design and diversification (44.2%), followed by integration of modernity and heritage (25.6%) and infrastructure (14%). Both distributions are shown in Table 7.
Cross-tabulations between the categories of challenges and proposals and each of the demographic variables, followed by chi-square tests, were not statistically significant at α = 0.05. The challenges of architectural heritage and identity, infrastructure, and design diversity, therefore, span gender, age, specialisation and education. This is important from a methodological standpoint: it confirms that the responses to the qualitative questions reflect the concerns of the public rather than any one group.

5.4. Effect Sizes and Measurement Adequacy

All inferential comparisons reported in Section 5.2 and Section 5.3 are restated here with effect sizes (Table 8). The proportions of items returning significant differences are unchanged, but their magnitudes qualify the interpretation. Every effect is small by conventional benchmarks. Age, the most influential variable, produces a median partial eta-squared of 0.028 across the nineteen items, with a maximum of 0.078; only two items reach the medium threshold and none reach large. For the remaining five variables the median values range from 0.003 to 0.015, and no item reaches a medium effect. In a sample of 384, statistical significance is attainable for differences of modest practical consequence, so the demographic differences discussed in Section 6.2 are best read as real but limited variation within a broadly shared evaluation rather than as a division of opinion.
Effect sizes were obtained through the general linear model procedure and are interpreted against conventional benchmarks, with 0.01, 0.06 and 0.14 denoting small, medium and large effects, respectively [40].
The measurement properties of the instrument were examined directly rather than assumed. The item correlation matrix is well suited to factor analysis (Kaiser–Meyer–Olkin = 0.899; Bartlett’s test of sphericity χ2(171) = 2133.2, p < 0.001). Principal axis factoring returned four factors with eigenvalues above unity (6.26, 1.30, 1.19, 1.08), consistent with the four-dimensional design of the instrument and accounting cumulatively for 51.8% of the initial variance, although the first factor is substantially the largest and accounts for 32.9% of total variance on its own. Item-scale coherence was assessed through corrected item-total correlations, which are positive and acceptable for every item and highest for the implementation and functional dimensions. Table 9 summarises these properties by dimension.
Two qualifications follow and are carried into the limitations. The design dimension falls below the conventional reliability threshold, which is consistent with its being the most heterogeneous of the four in content, spanning traditional elements, visual identity, proportional systems and the balance of authenticity with modernity. More significantly, the four dimensions are strongly inter-correlated, with composite correlations of 0.44 to 0.73, and the rotated four-factor solution does not resolve into a clean simple structure, with most items loading appreciably on more than one factor. They are therefore best understood as closely related facets of an overall evaluation of Vision 2030’s architectural impact rather than as independent constructs, and they are used in this study as analytical categories that organise the framework, the case-study protocol and the discussion, not as orthogonal measurement scales. This is a further reason, alongside the argument of Section 3.1, for treating the survey as evidence of perception rather than of performance.
Finally, the structural relationships implied by the conceptual framework were examined by regressing the socio-cultural composite on the other three dimensions. The model accounts for a substantial share of variance (R2 = 0.576, adjusted R2 = 0.573; F(3, 380) = 171.97, p < 0.001; all variance inflation factors ≤ 2.63). Functional performance is the strongest predictor (β = 0.414, t = 8.46, p < 0.001), followed by design (β = 0.244, t = 5.94, p < 0.001) and implementation (β = 0.229, t = 4.24, p < 0.001). Interpreted cautiously in light of the shared variance noted above, this indicates that socio-cultural attachment to new urban environments is predicted more strongly by how projects perform in daily use than by how they appear, which is consistent with the case-study evidence in Section 4.5 and carries a direct implication for design policy.

6. Discussion

The results show that Vision 2030 has a complex positive influence on Riyadh’s local architecture but also highlight significant challenges that need academic attention. This section discusses these findings considering the literature and the three case studies.

6.1. The Elements of Vision 2030’s Impact

On the design dimension, the mean result of 4.07 and the items that relate to traditional Najdi proportions are in line with [1]’s analysis that Vision 2030 projects positively affect the quality of architecture through the integration of heritage and contemporary design. The finding also resonates with [10]’s critique of the King Salman Charter for Architecture and Urban Planning, which pointed to inconsistencies in the respect for identity in several types of projects. On the execution dimension (mean = 4.10), the prominence of construction quality and sustainability benchmarks aligns with the integrated assessment framework proposed by [16] to assess urban projects’ sustainability.
On the functional dimension (mean = 4.13), the high evaluation of inclusivity, green space provision and integration echoes with Ahmed et al.’s [30]’s elderly-friendly architectural design and [2]’s walkability model for Riyadh, which prioritise the role of built environments in meeting the needs of diverse populations. The cultural and social dimension yielded the highest mean of the questionnaire, 4.23, and an intense sense of place identity, which has important heritage implications. This provide empirical evidence for [47]’s claim that humanitarian architecture at Diriyah actively enhances urban authenticity; for [5]’s argument that culturally sensitive sustainable design engenders a sense of place; and for [48]’s account of Diriyah’s astounding turnaround from physical decay to a coherent and globally celebrated cultural hub.

6.2. Age Differences and Their Significance

The most significant demographic variable is age, which generated significant differences in 52.6% of items—more than any other variable. That proportion describes how often differences reach significance, not how large they are. As Section 5.4 reports, age accounts for a median of 2.8% of item variance and a maximum of 7.8%, with only two items reaching a medium effect. The gradient described below is therefore a real but modest variation, and the broader finding across all six demographic variables is the extent of agreement rather than the differences within it. The older respondents, who witnessed the transformation of Riyadh in the 1970s–1980s, and the subsequent (slow) loss of traditional architecture, are more likely to identify the current attempt to reassert architectural identity. This echoes [55]’s explanation of Riyadh’s shift from institutional to identity-based architecture, and [49]’s analysis of Diriyah as a city that tells the story of the First Saudi State’s history. Residence duration (31.6%) confirms this: those who have lived longer in Riyadh have a stronger visual memory of the pre-Vision city and thus a greater ability to contextualise the transformations [56].
Occupation (31.6%) indicates architects and urban planners are more positive towards technical and design aspects, as expected in [32,57]. International students were more positive about urban changes than Saudis (26.3%), in line with [7]’s position that Riyadh is an emerging global city. Those with postgraduate degrees also had more positive evaluations (26.3%) in line with [8]. Gender had the least influence (15.8%). Overall, this confirms that experience and professional knowledge trumps gender and age as a predictor of architectural evaluation [58].

6.3. Threats and Proposed Solutions to Architectural Identity

Our qualitative analysis pinpoints identity and heritage preservation (32%) as the major challenge (echoed in [59]’s investigation of preserving heritage in rapidly urbanising areas; [23]’s analysis of the impact of globalisation on architectural identity; and [60]’s description of the identity quest in current Saudi Arabian architecture. Regarding the proposed responses, design diversity (44.2%) was the most popular, as respondents are seeking more creative and diverse designs—consistent with [61]’s argument for sustainable criteria for Arab urban aesthetics. Heritage and modernity integration (25.6%) affirms the general call for synthesis, in line with [4,62].

6.4. Heritage and Sustainable Development

Heritage conservation needs to be more than the mere conservation of buildings; it should include the developmental aspects of community life [63]. Diriyah shows that vernacular values can be translated into an urban context; KAFD shows these references can be reconciled with global modernity; and the Sports Track shows that infrastructure for quality of life takes on cultural significance through public spaces. Natural cooling, climate-adaptive massing, and daylighting are examples of sustainable techniques that have value today for architects in the Kingdom, in agreement with [4].

6.5. Implications for Transformative Resilience and Future Urban Visions

Beyond the immediate findings, this study provides important insights into the capacity of large-scale strategic visions, such as Saudi Vision 2030, to support what may be termed transformative resilience in urban and architectural development. Transformative resilience, in this context, extends beyond the ability of cities to absorb change, encompassing their capacity to adapt, evolve, and maintain cultural continuity under conditions of rapid transformation.
The case of Riyadh demonstrates that Vision 2030 has been perceived as effective in delivering high-quality, functional, and sustainable built environments, as reflected in consistently high stakeholder evaluation scores. These perceptions complement, but do not substitute for, objective assessments of sustainability, construction quality, and resilience, as evidenced by the consistently high evaluation scores across all dimensions. However, the qualitative findings reveal that concerns related to identity and authenticity remain central across all demographic groups. This suggests that resilience in rapidly transforming cities is not solely dependent on infrastructure or environmental performance, but also on the preservation and meaningful reinterpretation of local architectural identity.
The three case studies illustrate different dimensions of this relationship. Diriyah reflects a strong identity-based resilience grounded in heritage continuity; the Sports Track represents social and environmental adaptability through an inclusive public space; while KAFD demonstrates economic and technological resilience aligned with global urban competitiveness. Together, they indicate that transformative resilience is achieved not through a single model, but through a diversified architectural and urban strategy that integrates heritage, innovation, and functionality.
At a broader level, the findings suggest that the long-term success of strategic visions depends on their ability to incorporate continuous societal feedback and adapt to evolving cultural expectations. The strong emphasis placed by respondents on identity and design diversity highlights the importance of integrating participatory mechanisms—whether direct or indirect—into future planning processes. Such mechanisms can enhance alignment between policy intentions and lived urban experience, thereby strengthening both social acceptance and adaptive capacity.
In this regard, local architectural identity should not be viewed as a constraint on modernisation, but rather as a critical resource for achieving resilient and context-responsive urban development. Embedding identity within regulatory frameworks and design practices can help ensure that future urban transformation remains both globally competitive and locally grounded.

6.6. Critical Reflections: Tensions, Unintended Consequences and Governance

The consistently positive survey results should not be read as a validation of Vision 2030’s architectural programme, and this section deliberately examines the findings against the grain. Three considerations temper the quantitative picture. First, the narrow range of axis means, from 4.07 to 4.13 on a five-point scale, with correspondingly modest standard deviations, is itself informative: instruments concerning nationally salient programmes commonly elicit uniformly favourable and low-variance responses, and such patterns are consistent with acquiescence and social desirability effects as well as with genuine consensus [34]. Second, the survey population comprised respondents already familiar with Vision 2030 projects, which selects for exposure and plausibly for interest. Third, and most consequentially, the divergence between the quantitative and qualitative streams is the more revealing result: the same respondents who evaluated all four dimensions highly identified identity and authenticity as the leading concern. Aggregate approval and specific unease coexist, and the qualitative stream is the better guide to where the programme is contested.
The measurement evidence in Section 5.4 supports this reading. The four dimensions are strongly inter-correlated, which indicates that respondents evaluate Vision 2030’s architectural impact largely as a single overall judgement rather than as four independently assessed aspects. This is a familiar property of perception data concerning a nationally salient programme, and it has two consequences here. It reinforces the argument of Section 3.1 that the survey establishes legitimacy and acceptance rather than architectural performance. And it gives the qualitative stream additional analytical weight, since concerns that respondents volunteer in their own words are less subject to the generalised favourability that structured agreement scales attract.
The tension between globalisation and identity is the central unresolved issue and is visible across the case evidence. Diriyah translates identity through material, spatial grain and construction technique; KAFD deploys it through pattern, proportion and material tone applied to a globally standardised type. Both are legible as Saudi, but only the first embeds identity in spatial organisation. The programme therefore operates two distinct models of architectural identity simultaneously, one substantive and one representational, and the absence of an explicit position on their relationship is a governance gap rather than an aesthetic preference. This connects directly to the question raised in Section 2.5 as to whether strategic visions generate genuinely context-responsive architecture or stylistic reinterpretation; the evidence assembled here indicates that both are occurring, in different projects, under a single policy framework.
Unintended consequences and governance challenges follow from this. Amenity-led and heritage-led investment exerts upward pressure on adjacent land values, so interventions intended to widen access may narrow it absent a coupled housing policy. Delivery at this pace and scale concentrates decision-making in project-level entities, which secures execution but reduces the scope for iterative public feedback that adaptive capacity requires. Certification frameworks imported from temperate contexts risk becoming compliance instruments rather than climate strategies. And a mud-brick conservation programme creates a long-term maintenance liability whose viability depends on a craft-skills pipeline that market mechanisms alone will not sustain. None of these observations diminish the scale of what has been achieved; each identifies a condition on which its durability depends.
Differences among stakeholder groups warrant a more critical reading than group-mean comparison affords. That specialists evaluate technical and design dimensions more favourably than non-specialists is consistent with professional familiarity, but it is equally consistent with professional proximity to the programme, and the two interpretations cannot be separated with the present data. That non-Saudi respondents evaluate urban change more favourably than Saudi respondents is the most analytically interesting divergence in the dataset: for non-nationals the primary referent is global comparison, whereas for nationals it additionally includes cultural continuity and personal memory of the pre-Vision city. The gap between these two groups is, in effect, a measure of the distance between a city’s international legibility and its internal recognisability, and it is precisely the distance that a transformative resilience framework exists to monitor.

6.7. Scope and Limits of Generalisation

The empirical basis of this study is Riyadh, and its conclusions are stated at that scale. Because the paper occasionally refers to Vision 2030 as a national programme, the boundaries of transferability are specified here. The findings are most likely to hold in settings that share Riyadh’s three defining conditions: an existing, inhabited urban fabric undergoing insertion rather than replacement; a hyper-arid inland climate; and a resident population with continuous memory of the pre-Vision city. On this basis, findings concerning heritage-led development and identity translation are expected to transfer to AlUla, though AlUla’s rock-cut and oasis heritage, its far smaller resident population and its more explicit international-tourism positioning would likely intensify the conservation-versus-access tension identified at Diriyah. Findings concerning identity and globalisation should transfer with qualification to Jeddah, whose coastal climate, Hijazi coral-stone and rawāshīn traditions, and long history of cosmopolitan exchange constitute a different identity baseline against which change is judged.
Transfer to NEOM and Qiddiya is, by contrast, weak and should not be inferred from this study. Both are greenfield or near-greenfield developments without an incumbent resident population, so the persistence and cultural-continuity properties that this framework measures have no established referent; the socio-cultural instrument used here presupposes respondents with lived experience of a prior urban condition. Such settings raise a different question, namely how identity is constructed where none is inherited, which requires a different research design. The framework itself is expected to transfer more readily than the findings: its structure is applicable to any project-scale assessment of vision-led transformation, whereas the specific results reported here are conditioned by Riyadh’s fabric, climate and demography.

7. Conclusions

This research endeavoured to show how Saudi Arabia’s Vision 2030 has shaped local architecture in Riyadh, using three iconic case studies documented through original field images and a questionnaire survey of 384 residents and professionals, along four axes of analysis. This research shows that Vision 2030 projects have a tangible and positive impact on local architecture, with a mean ranging from 4.07 to 4.13 across axis-level means, and an extremely high 4.23 for satisfaction with urban transformations and place attachment. Historic Diriyah, Riyadh Sports Track and KAFD provide different yet complementary exemplars of the three key pillars of the Vision: a vibrant society rooted in cultural identity and quality of life, a thriving economy through financial diversification and an ambitious nation building global competitiveness.
These findings are in line with the broader practice of strategic urban development in the Gulf and provide an empirical basis for policy development. Age was the most significant demographic variable, followed by occupation and time in the city—confirming the hypothesis that age and experience and contextual knowledge of how the city is changing over time are better indicators of a positive evaluation than fixed demographic traits. However, the qualitative insights provide a key nuance: even while the overall assessment is positive, identity and authenticity remain respondents’ primary concerns, coupled with an expectation for increased design variety and a more intentional integration of old and new. These are not minor observations but meaningful voices to inform future urban policy. A mandatory regulatory framework for incorporating architectural identity into new projects and additional avenues for genuine community engagement, and the consolidation of sustainability standards, as established at KAFD and the Sports Track, in all sectors of urban development are the most urgent policy concerns suggested by this study.
The knowledge produced here is for policy makers, and urban and architectural practitioners in the Kingdom’s rapidly transforming urban landscapes. The study also opens an agenda for future research—in other cities of the Kingdom, with complementary qualitative methods, and over time as Vision 2030 projects come to fruition. To continue the upward path found here, a process of collaboration between the government, industry, academia and local communities is required. If the priorities that respondents raised for diversity, heritage integration and culturally informed design are considered and enshrined in policy, local architecture in Riyadh will continue to be a record: one that truthfully links the genuineness of the past with the promise of the future.
Future research should expand the geographical scope to include multiple cities across Saudi Arabia to enable comparative analysis. While the framework has demonstrated analytical utility in the Riyadh context, its external transferability remains a proposition that requires empirical testing across different urban, climatic, and cultural settings. Qualitative interviews with architects, planners, and decision-makers involved in Vision 2030 projects would provide deeper insight into design intentions and implementation challenges. Longitudinal studies are recommended to track evolving perceptions as projects progress from design to occupation. Given the significant effect of age identified in this study, further research should examine generational differences in architectural perception and value systems in greater depth. In addition, post-occupancy evaluations of individual projects would complement the present survey-based approach, while economic analyses—particularly of heritage conservation and cultural tourism—could strengthen the policy relevance of architectural identity preservation initiatives.
These findings emphasise the need for future strategic visions to more explicitly integrate participatory design approaches and culturally grounded frameworks as essential components of transformative resilience.
The contribution of the study is therefore twofold and is stated here in resilience terms. Empirically, it shows that the three projects examined do not represent successive degrees of a single achievement but three structurally different resilience strategies, each strong in one or two properties and constrained in others, with the implication that transformative resilience on a city scale is a portfolio outcome requiring portfolio-level governance rather than an attribute of exemplary individual projects. Theoretically, it operationalises transformative resilience for architectural assessment, converting a concept that has largely functioned descriptively in the urban literature into an instrument with indicators, evidence sources and an explicit separation between perceived and measured performance. The conclusions concerning Riyadh are not extended to greenfield developments, where the properties of persistence and cultural continuity lack an established referent, nor to coastal Saudi contexts whose identity baselines differ; the framework, however, is intended to be transferable.

Author Contributions

A.M.S.: Writing—review and editing, Visualisation, Validation, Conceptualisation, Project administration, Methodology, Investigation, Formal analysis, Funding acquisition. S.A.R.: Writing—original draft, Resources, Methodology, Investigation, Data curation, Conceptualisation. All authors have read and agreed to the published version of the manuscript.

Funding

This research work was partially financed by Kingdom University, Bahrain, from the research grant number KU-SRU-2025-2026-01.

Institutional Review Board Statement

This study is based on a voluntary survey, in which participants provided responses willingly. No personal, identifiable, or sensitive information was collected at any stage of the research and all data were recorded and analysed in an anonymous manner. Based on these considerations, the Research Committee confirms that the study poses no risk to participants and does not fall under the category of research requiring formal Institutional Review Board (IRB) approval, and an official waiver letter was provided.

Informed Consent Statement

Informed consent was obtained from all subjects involved in the study.

Data Availability Statement

The data presented in this study are available on request from the corresponding author upon reasonable request.

Conflicts of Interest

The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper.

References

  1. Osman, N.M.E.M. The impact of the Vision 2030 projects on contemporary architecture: Analytical study of Saudi architecture map. J. Eng. Sci. Inf. Technol. 2025, 9, 1–23. [Google Scholar]
  2. Jarrar, O.; Al Homoud, M. Sustainable urban development in Riyadh: A projected walkability model. Int. J. Urban Sustain. Dev. 2024, 16, 398–421. [Google Scholar] [CrossRef] [Scilit]
  3. Alharbi, H. Urban development in Riyadh: Aligning with Saudi Vision 2030 for enhanced quality of life. J. Geogr. Environ. Earth Sci. Int. 2024, 28, 53–56. [Google Scholar] [CrossRef] [Scilit]
  4. Waheeb, S.A. Environmental and cultural sustainability of the architectural elements of two historical mosques in historic Jeddah. J. Umm AL-Qura Univ. Eng. Archit. 2023, 14, 26–35. [Google Scholar] [CrossRef] [Scilit]
  5. Al-Alqam, M.S.; Rehman, A.U.; Alsultan, M. Study of Saudi Arabian Manufacturing and Service Organization Sustainability and Future Research Directions. In IOP Conference Series: Earth and Environmental Science; IOP Publishing: Bristol, UK, 2022; Volume 1026, p. 012004. [Google Scholar]
  6. Klingmann, A. Branding Saudi Arabia’s capital. Ekistics New Habitat 2022, 81, 39–51. [Google Scholar] [CrossRef] [Scilit]
  7. Klingmann, A. Re-scripting Riyadh’s historical downtown as a global destination: A sustainable model? J. Place Manag. Dev. 2022, 15, 93–111. [Google Scholar] [CrossRef] [Scilit]
  8. Grant, C.; Osanloo, A. Understanding, selecting, and integrating theoretical frameworks in dissertation research: Creating the blueprint for your house. Adm. Issues J. 2014, 4, 12–26. [Google Scholar] [CrossRef] [Scilit]
  9. Franz, J.M. A critical framework for methodological research in architecture. Des. Stud. 1994, 15, 433–447. [Google Scholar] [CrossRef] [Scilit]
  10. Alnaim, M.M.; Bay, M.A. Regionalism indicators and assessment approach of recent trends in Saudi Arabia’s architecture: The Salmaniah architectural style and the King Salman Charter initiatives as a case study. Ain Shams Eng. J. 2023, 14, 102144. [Google Scholar] [CrossRef] [Scilit]
  11. Saleh, M.A.E. The Integration of Tradition and Modernity: A Search for an Urban and Architectural Identity in Arriyadh, the Capital of Saudi Arabia. Habitat Int. 1998, 22, 571–589. [Google Scholar]
  12. Ghazzeh, T.A. The art of architectural decoration in the traditional houses of Al Alkhalaf, Saudi Arabia. J. Archit. Plan. Res. 2001, 18, 156–177. [Google Scholar]
  13. Klingmann, A. Rescripting Saudi Arabia The Curation of a National Metaverse. In Virtual interiorities: Senses of Place and Space; Carnegie Mellon ETC Press: Pittsburgh, PA, USA, 2023; pp. 159–202. [Google Scholar]
  14. Alkathiri, N.; Katar, I.; Abdelhadi, A. Integration of Culture in Contemporary Saudi Architecture: A Review and Surveying. In Proceedings of the ICSDI; Springer: Berlin/Heidelberg, Germany, 2025. [Google Scholar]
  15. Elbortokaly, A.A.; Hussein, N. Saudi Vision 2030: A New Mind-set of City future Moving from Strategic Planning to Sustainable Development based vision: The Case of AR Riyadh, KSA. Ekistics New Habitat 2022, 81, 3–9. [Google Scholar]
  16. Selim, H.S.; Abuzaid, A.; Mayhoub, M.S. Developing an Integrated Analytical Framework for Sustainability Assessment: Focusing on Selected Projects in Riyadh. Sustainability 2024, 16, 10185. [Google Scholar] [CrossRef] [Scilit]
  17. Alasiri, F.; Dąbrowski, M.; Rocco, R.; Forgaci, C. The impact of recent policies on the transformation of local participatory urban planning in Saudi Arabia. Urban Sci. 2025, 9, 69. [Google Scholar] [CrossRef] [Scilit]
  18. Al, D.; Fadli, F. An analytical review of sustainable green buildings in Qatar: Implementations in the AEC sector. In Proceedings of the International Conference on Civil Infrastructure and Construction, Doha, Qatar, 2–5 February 2020. [Google Scholar]
  19. Ghaleb, M.M.S.; Juhari, A.S. The role of architecture in shaping social and cultural landscapes in Saudi Arabia. RITA Rev. Indexada DE Textos Académicos 2024, 2024, 93–111. [Google Scholar]
  20. AL-Dabbagh, R. Dubai: The sustainable smart city. Renew. Energy Environ. Sustain. 2022, 7, 3. [Google Scholar] [CrossRef] [Scilit]
  21. Ali, J.; Moser, S. New cities for a ‘new Kuwait’: Planning for national continuity and stability. Int. Plan. Stud. 2024, 29, 252–267. [Google Scholar] [CrossRef] [Scilit]
  22. Wafi, S.R.S. Implementing Sustainable Architecture Design Strategies Impacts of Built Environment. Des. Eng. 2021, 8, 146–166. [Google Scholar]
  23. Talaq, A.A.S. The Impact of Globalization on the Architectural Identity of Bahrain: Challenges and Opportunities in Preserving Heritage. J. Int. Soc. Study Vernac. Settl. 2025, 12, 68–79. [Google Scholar] [CrossRef] [Scilit]
  24. Holling, C. Resilience and stability of ecological systems. Annu. Rev. Ecol. Evol. Syst. 1973, 4, 1–23. [Google Scholar] [CrossRef] [Scilit]
  25. Walker, B.; Holling, C. Carpenter and A. Kinzig, Resilience, adaptability and transformability in social–ecological systems. Ecol. Soc. 2004, 9, 5. [Google Scholar]
  26. Folke, C.; Carpenter, S.; Walker, B.; Scheffer, M.; Chapin, T.; Rockström, J. Resilience thinking: Integrating resilience, adaptability and transformability. Ecol. Soc. 2010, 15, 20. Available online: https://www.ecologyandsociety.org/vol15/iss4/art20/ (accessed on 3 September 2026). [CrossRef] [Scilit]
  27. McEvoy, D.; Porter, L.; Davoudi, S. Resilience: A bridging concept or a dead end? Plan. Theory Pract. 2012, 13, 299–333. [Google Scholar] [CrossRef] [Scilit]
  28. Meerow, S.; Newell, J.; Stults, M. Defining urban resilience: A review. Landsc. Urban Plan. 2016, 147, 38–49. [Google Scholar] [CrossRef] [Scilit]
  29. Elmqvist, T.; Andersson, E.; Frantzeskaki, N.; McPhearson, T.; Olsson, P.; Gaffney, O.; Takeuchi, K.; Folke, C. Sustainability and resilience for transformation in the urban century. Nat. Sustain. 2019, 2, 267–273. [Google Scholar] [CrossRef] [Scilit]
  30. Ahmed, M.N.; MHassan, N.; Morghany, E. Conceptual framework for integration of architecture and gerontology to create elderly friendly home environments in Egypt. J. Eng. Sci. 2023, 51, 468–500. [Google Scholar] [CrossRef] [Scilit]
  31. Jobran, F. Conventional and Contemporary Building Methods: The Transition of Traditional Saudi Arabian Architectural Designs. Int. J. Architecton. Spat. Environ. Des. 2022, 17, 87–96. [Google Scholar] [CrossRef] [Scilit]
  32. Tafahomi, R. Developing a Design Framework to Methodize the Architecture Thesis Projects with Emphasis on Programming and Conceptualization Processes. J. Des. Studio 2022, 4, 139–161. [Google Scholar] [CrossRef] [Scilit]
  33. Arup, T.R.F. City Resilience Index: Understanding and Measuring City Resilience; The Rockefeller Foundation: New York, NY, USA, 2016. [Google Scholar]
  34. Podsakoff, P.M.; MacKenzie, S.B.; Lee, J.Y.; Podsakoff, N.P. Common method biases in behavioral research. J. Appl. Psychol. 2003, 88, 879–903. [Google Scholar] [CrossRef] [Scilit] [PubMed]
  35. Taha, M.N.A. Balancing heritage preservation and regeneration in Riyadh. In REAL CORP 2024 Vienna: CORP—Competence Center of Urban and Regional Planning; Competence Center of Urban and Regional Planning: Vienna, Austria, 2024. [Google Scholar]
  36. Kotrlik, J.; Higgins, C. Organizational research: Determining appropriate sample size. Inf. Technol. Learn. Perform. J. 2001, 9, 43–50. [Google Scholar]
  37. Nunnally, J.C. Psychometric Theory, 2nd ed.; McGraw-Hill Series in Psychology; McGraw-Hill: New York, NY, USA, 1978. [Google Scholar]
  38. Salleh, K.M.; Sulaiman, N.L.; Gloeckner, G.; Ramli, R.; Al-Asfour, A. Analyzing Likert Scale type data and interpretation in TVET research: A guideline for the novice researcher. Archit. Image Stud. 2026, 7, 550–560. [Google Scholar] [CrossRef] [Scilit]
  39. Agresti, A. An Introduction to Categorical Data Analysis, 2nd ed.; Wiley Interscience: Hoboken, NJ, USA, 2007. [Google Scholar]
  40. Cohen, J. Statistical Power Analysis for the Behavioral Sciences, 2nd ed.; Routledge: New York, NY, USA, 1988. [Google Scholar]
  41. Fornell, C.; Larcker, D.F. Evaluating Structural Equation Models with Unobservable Variables and Measurement Error. J. Mark. Res. 1981, 18, 39–50. [Google Scholar] [CrossRef] [Scilit]
  42. Hair, J.; Black, W.; Babin, B.; Anderson, R. Multivariate Data Analysis, 8th ed.; Cengage: Andover, MA, USA, 2019. [Google Scholar]
  43. Bay, M.; Alnaim, M.; Albaqawy, G.; Noaime, E. The heritage jewel of Saudi Arabia: Heritage management in At Turaif District, Diriyah. Sustainability 2022, 14, 10718. [Google Scholar] [CrossRef] [Scilit]
  44. Abdelrahman, K.; Hazaea, S.; Almadani, S. Geological–geotechnical investigations of the historical Diriyah urban zone in Riyadh, Saudi Arabia: An integrated approach. Front. Earth Sci. 2023, 11, 1202534. [Google Scholar] [CrossRef] [Scilit]
  45. Almogren, N.B.A. Mud City: Perceptions and Misconceptions of Diriyah. Master’s Thesis, Harvard Graduate School of Design, Cambridge, MA, USA, 2022. [Google Scholar]
  46. Emrick, M.; Meinhardt, C. The reconstruction of traditional structures in the Al Turaif quarter, Diriyah. In Adobe 90: 6th International Conference on the Conservation of Earthen Architecture; The Getty Conservation Institute: Los Angeles, CA, USA, 1990. [Google Scholar]
  47. Rahmayati, Y.; AlGhunaim, J. Enhancing city authenticity through humanitarian architecture: A synergy of design and identity, case study, Al-Diriyah, Saudi Arabia. J. City Brand. Authent. 2024, 1, 73–82. [Google Scholar] [CrossRef] [Scilit]
  48. Hanif, M.; Riza, M. Heritagization of historic sites: Transformation of Al Diriyah into a branded cultural capital. ISVS E J. 2024, 11, 29–48. [Google Scholar] [CrossRef] [Scilit]
  49. Almogren, N. Diriyah Narrated by Its Built Environment: The Story of the First Saudi State (1744–1818). Ph.D. Dissertation, Massachusetts Institute of Technology, Cambridge, MA, USA, 2020. [Google Scholar]
  50. Oxford_Analytica. Saudi Arabia will manage construction capacity. In Expert Briefings; Oxford_Analytica: Oxford, UK, 2023. [Google Scholar]
  51. International Council on Monuments and Sites. The NARA Document on Authenticity; International Council on Monuments and Sites: Nara, Jaban, 1994. [Google Scholar]
  52. Mahboob, A.M. Transforming Riyadh: Urban development, quality of life, and spatial equity under Vision 2030. Int. J. Low Carbon Technol. 2025, 20, 1842–1854. [Google Scholar]
  53. Hassan, M.A.; Aljutaily, I.; Alhulaibi, M. A Blend of Magnificent Sustainable Architectural Design: An Overview of the King Abdullah Financial District; Potentials and Challenges; Riyadh Kingdom of Saudi Arabia. J. Sustain. Dev. 2022, 28–42. [Google Scholar] [CrossRef] [Scilit]
  54. Ponzini, D. Large scale development projects and star architecture in the absence of democratic politics: The case of Abu Dhabi, UAE. Cities 2011, 28, 251–259. [Google Scholar] [CrossRef] [Scilit]
  55. Al Naim, M. Riyadh: A city of “institutional” architecture. In The Evolving Arab City; Elsheshtawy, Y., Ed.; Routledge: London, UK, 2008; pp. 132–165. [Google Scholar]
  56. Hamed, R.E.-D. Harmonization between architectural identity and energy efficiency in residential sector (case of North-West coast of Egypt). Ain Shams Eng. J. 2018, 9, 2701–2708. [Google Scholar] [CrossRef] [Scilit]
  57. Piatkowski, M. Constructing Research: A Theoretical Perspective on Research and Creativity in Architecture. HERD Health Environ. Res. Des. J. 2025, 18, 291–305. [Google Scholar] [CrossRef] [Scilit] [PubMed]
  58. Guzmán, P.; Roders, A.; Colenbrander, B. Bridging the gap between urban development and cultural heritage protection. J. Cult. Herit. Manag. Sustain. Dev. 2017, 7, 208–224. [Google Scholar]
  59. Feng, Y. Architectural challenges of urban heritage conservation. J. Civ. Eng. Urban Plan. 2024, 6, 50–58. [Google Scholar] [CrossRef] [Scilit]
  60. Mahdavinejad, M.; Saadatjoo, P. Search for Identity in Contemporary Architecture of Saudi Arabia. J. Res. Islam. Archit. 2014, 2, 75–92. [Google Scholar]
  61. Abdelnaby, F. Towards sustainable criteria to regenerate the urban aesthetics in Arab cities. Eng. Res. J. 2025, 184, 378–397. [Google Scholar] [CrossRef] [Scilit]
  62. Alsheikh, S.Y.; Saffo, B.H.; Manona, N.B. Sustainable Designs between Traditional & Contemporary Architecture. Eurasian J. Sci. Eng. (EAJSE) 2020, 6, 129–152. [Google Scholar] [CrossRef] [Scilit]
  63. Getty_Conservation_Institute. Historic Urban Environment Conservation Challenges and Priorities for Action; Getty Conservation Institute: Los Angeles, CA, USA, 2010. [Google Scholar]
Figure 1. Conceptual synthesis framework of resilience architecture in Saudi Arabia.
Figure 1. Conceptual synthesis framework of resilience architecture in Saudi Arabia.
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Figure 2. Research design and methodology diagram.
Figure 2. Research design and methodology diagram.
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Figure 3. Location and master plan of Historic Diriyah. Source: Google Map 2026 and Diriyah company website, 2026.
Figure 3. Location and master plan of Historic Diriyah. Source: Google Map 2026 and Diriyah company website, 2026.
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Figure 4. General view of the authentic Najdi heritage at Bujairi Terrace, Diriyah. Source: Photographed by the authors during field visit, 2026.
Figure 4. General view of the authentic Najdi heritage at Bujairi Terrace, Diriyah. Source: Photographed by the authors during field visit, 2026.
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Figure 5. Diriyah Art Futures Centre at Bujairi Terrace. Source: Photographed by the authors during field visit, 2026.
Figure 5. Diriyah Art Futures Centre at Bujairi Terrace. Source: Photographed by the authors during field visit, 2026.
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Figure 6. Bab Samhan Hotel, Diriyah. Source: Photographed by the authors during field visit, 2026.
Figure 6. Bab Samhan Hotel, Diriyah. Source: Photographed by the authors during field visit, 2026.
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Figure 7. Commercial frontages with Najdi geometric ornamentation at Bujairi Terrace. Source: Photographed by the authors during field visit, 2026.
Figure 7. Commercial frontages with Najdi geometric ornamentation at Bujairi Terrace. Source: Photographed by the authors during field visit, 2026.
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Figure 8. Interior treatment showing palm-trunk ceilings and Najdi spatial proportions in Diriyah. Source: Photographed by the authors during field visit, 2026.
Figure 8. Interior treatment showing palm-trunk ceilings and Najdi spatial proportions in Diriyah. Source: Photographed by the authors during field visit, 2026.
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Figure 9. Location and Master plan of Riyadh Sports Track. Source Google Map and Sports Boulevard website, 2026.
Figure 9. Location and Master plan of Riyadh Sports Track. Source Google Map and Sports Boulevard website, 2026.
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Figure 10. Linear park and shaded pedestrian path along the Riyadh Sports Track. Source: Photographed by the authors during field visit, 2026.
Figure 10. Linear park and shaded pedestrian path along the Riyadh Sports Track. Source: Photographed by the authors during field visit, 2026.
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Figure 11. Folded metal bridge surface along the Riyadh Sports Track. Source: Photographed by the authors during field visit, 2026.
Figure 11. Folded metal bridge surface along the Riyadh Sports Track. Source: Photographed by the authors during field visit, 2026.
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Figure 12. Elevated walkway and bridge structure of the Sports Track. Source: Photographed by the authors during field visit, 2026.
Figure 12. Elevated walkway and bridge structure of the Sports Track. Source: Photographed by the authors during field visit, 2026.
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Figure 13. Location and master plan of KAFD. Source: Google Map, 2026.
Figure 13. Location and master plan of KAFD. Source: Google Map, 2026.
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Figure 14. General view of King Abdullah Financial District (KAFD). Source: Photographed by the authors during field visit, 2026.
Figure 14. General view of King Abdullah Financial District (KAFD). Source: Photographed by the authors during field visit, 2026.
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Figure 15. Diagrid façade systems and faceted geometric envelopes in KAFD. Source: Photographed by the authors during field visit, 2026.
Figure 15. Diagrid façade systems and faceted geometric envelopes in KAFD. Source: Photographed by the authors during field visit, 2026.
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Figure 16. Smart-glass façades on KAFD towers. Source: Photographed by the authors during field visit, 2026.
Figure 16. Smart-glass façades on KAFD towers. Source: Photographed by the authors during field visit, 2026.
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Figure 17. Bold geometric architectural forms and public realm in KAFD. Source: Photographed by the authors during field visit, 2026.
Figure 17. Bold geometric architectural forms and public realm in KAFD. Source: Photographed by the authors during field visit, 2026.
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Table 1. Frequency and percentages of demographic variables of the sample (n = 384).
Table 1. Frequency and percentages of demographic variables of the sample (n = 384).
VariableCategoryFrequencyPercentage
GenderMale23460.9%
Female15039.1%
AgeUnder 25 years5213.5%
25–35 years14237.0%
35–45 years10828.1%
45–55 years4411.5%
55 years and above348.9%
EducationSecondary or lower4311.2%
Diploma348.9%
Bachelor’s21255.2%
Master’s6817.7%
Doctorate277.0%
NationalitySaudi34790.4%
Non-Saudi379.6%
Residence in RiyadhLess than 5 years10928.4%
5–10 years5815.1%
10–20 years8522.1%
More than 20 years13234.4%
Architectural specialisationSpecialist13334.6%
Non-specialist25165.4%
Source: Prepared by the authors based on field study data, 2026.
Table 2. Cronbach’s alpha coefficients for the study dimensions.
Table 2. Cronbach’s alpha coefficients for the study dimensions.
AxisNumber of ItemsCronbach’s AlphaEvaluation
Axis 1: Design dimension40.6Good
Axis 2: Execution dimension50.7Good
Axis 3: Functional dimension50.7Good
Axis 4: Cultural and social dimension50.7Good
Overall instrument190.7Good
Source: Prepared by the authors based on the results of the statistical analysis, 2026.
Table 3. The three Vision 2030 case studies.
Table 3. The three Vision 2030 case studies.
FeatureHistoric DiriyahRiyadh Sports TrackKAFD
Strategic objectiveHeritage preservation and revitalisation of national identityQuality of life, healthy lifestyles, and environmental sustainabilityEconomic diversification and global financial positioning
Design typeTraditional Najdi: courtyards, thick walls, mud brick, decorative shurafatModern linear design integrated with nature; multi-use sports/cultural spacesVertical mixed-use city; bold geometries; smart glass and steel
Construction materialsMud brick, adobe, palm wood, natural stoneSustainable concrete, recycled materials, smart pavingReinforced concrete, smart glass, advanced steel
Sustainability standardsClimate-responsive vernacular design; BIM-supported restorationWHO Active Score Platinum; smart irrigation; renewable energy elementsLEED Platinum at district and building scale; high-recycling waste system
Functional emphasisCultural tourism, museums, hospitality, residential heritage clustersActive mobility, sports facilities, public open space, social cohesionFinancial services, mixed offices/residential/retail, 10 min city concept
Cultural significanceFoundational national narrative; tangible authenticityInclusive public realm; civic and communal identityGlobal modernity with selected local visual references
Vision 2030 contributionVibrant Society (cultural identity); tourism diversificationVibrant Society (quality of life); environmental targetsThriving Economy (financial sector); Ambitious Nation (global standing)
Source: Prepared by the authors, 2026, based on synthesis of project documentation and field observation.
Table 4. Resilience assessment matrix.
Table 4. Resilience assessment matrix.
PropertyProjectScoreEvidence Basis
PersistenceDiriyah5Extensive retention and reinterpretation of Najdi urban morphology, earthen construction techniques, courtyard typologies, and controlled building heights preserving At-Turaif’s historic silhouette.
Sports Track1Limited relationship to historical urban forms, vernacular building traditions, or long-term cultural landscapes.
KAFD2Limited continuity with traditional spatial organisation; cultural references primarily applied through architectural motifs and material palettes.
AdaptabilityDiriyah3Earthen buildings provide thermal performance benefits, but long-term resilience depends on scarce conservation skills and institutional maintenance systems.
Sports Track5Highly flexible linear infrastructure supporting recreation, mobility and social interaction; designed for extension and programmatic evolution; climate adaptation through shading systems.
KAFD3District-scale environmental systems and certifications support adaptability, although climatically intensive glazed forms create performance tensions.
TransformabilityDiriyah2Project introduces tourism-based economic functions but largely reinforces existing cultural and spatial patterns rather than creating entirely new ones.
Sports Track3Introduces active mobility culture and alternative transport functions but does not fundamentally restructure urban form or economic systems.
KAFD5Introduces new economic functions, unprecedented density, district-scale mixed use, advanced mobility systems and entirely new urban typologies.
Cultural ContinuityDiriyah5Strong identity preservation, reinforcement of national heritage narratives, revival of traditional construction crafts, and sustained sense of place.
Sports Track3Encourages social interaction and public life, but cultural identity contribution is indirect rather than explicit.
KAFD2Identity expression remains largely symbolic and representational rather than embedded in urban morphology or social practice.
Table 5. Means and agreement levels for the four axes (n = 384).
Table 5. Means and agreement levels for the four axes (n = 384).
AxisMeanSDAgreement Level
Axis 1: Design dimension4.070.728High
Axis 2: Execution dimension4.100.727High
Axis 3: Functional dimension4.130.752High
Axis 4: Cultural and social dimension4.130.715High
Source: Prepared by the authors based on the results of the statistical analysis, 2026.
Table 6. Demographic differences in evaluation: proportion of significant items.
Table 6. Demographic differences in evaluation: proportion of significant items.
VariableTest% Significant ItemsDirection of Difference
AgeANOVA52.6%Older age groups rate higher
Specialisationt-test31.6%Specialists rate higher
Length of residenceANOVA31.6%Long-term residents rate higher
Nationalityt-test26.3%Non-Saudi respondents rate higher
Educational qualificationANOVA26.3%Postgraduate-degree holders rate higher
Gendert-test15.8%Males rate slightly higher on selected items
Source: Author’s own, based on statistical analysis results, 2016.
Table 7. Challenges and proposals categories’ distribution.
Table 7. Challenges and proposals categories’ distribution.
CategoryFrequencyPercentageRank
Challenges (n = 50)
Identity and authenticity1632%1
Spaces and infrastructure1020%2
Balance and development918%3
Designs and standardisation510%4
Culture and society48%5
Other (labour, costs, expansion)612%6
Proposals (n = 43)
Design and diversification1944.2%1
Integration of heritage and modernity1125.6%2
Infrastructure614%3
Regulations and legislation37%4
Other (green spaces, materials, awareness, Saudisation)49.2%5
Source: Prepared by the authors based on content analysis of open-ended responses, 2026.
Table 8. Demographic comparisons across the 19 items with effect sizes (n = 384).
Table 8. Demographic comparisons across the 19 items with effect sizes (n = 384).
VariableGroupsSignificant ItemsMedian Partial η2RangeReaching Medium
Age510/19 (52.6%)0.0280.003–0.0782 of 19
Architectural specialisation26/19 (31.6%)0.0080.002–0.0390 of 19
Length of residence46/19 (31.6%)0.0130.003–0.0320 of 19
Nationality25/19 (26.3%)0.0050.000–0.0320 of 19
Educational qualification55/19 (26.3%)0.0150.004–0.0440 of 19
Gender23/19 (15.8%)0.0030.000–0.0190 of 19
Table 9. Measurement properties of the four dimensions (n = 384).
Table 9. Measurement properties of the four dimensions (n = 384).
DimensionItemsMeanSDCronbach’s αCorrected Item-Total r
Design44.070.480.5610.30–0.38
Implementation54.100.500.7140.40–0.54
Functional performance54.130.520.7190.44–0.52
Socio-cultural integration54.130.480.6800.36–0.48
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MDPI and ACS Style

Soliman, A.M.; Al Rasheed, S. Strategic Visions and Transformative Resilience: Architectural Design, Implementation, and Functional and Socio-Cultural Outcomes of Saudi Vision 2030 in Riyadh, Saudi Arabia. Architecture 2026, 6, 158. https://doi.org/10.3390/architecture6030158

AMA Style

Soliman AM, Al Rasheed S. Strategic Visions and Transformative Resilience: Architectural Design, Implementation, and Functional and Socio-Cultural Outcomes of Saudi Vision 2030 in Riyadh, Saudi Arabia. Architecture. 2026; 6(3):158. https://doi.org/10.3390/architecture6030158

Chicago/Turabian Style

Soliman, Ashraf Mohamed, and Salman Al Rasheed. 2026. "Strategic Visions and Transformative Resilience: Architectural Design, Implementation, and Functional and Socio-Cultural Outcomes of Saudi Vision 2030 in Riyadh, Saudi Arabia" Architecture 6, no. 3: 158. https://doi.org/10.3390/architecture6030158

APA Style

Soliman, A. M., & Al Rasheed, S. (2026). Strategic Visions and Transformative Resilience: Architectural Design, Implementation, and Functional and Socio-Cultural Outcomes of Saudi Vision 2030 in Riyadh, Saudi Arabia. Architecture, 6(3), 158. https://doi.org/10.3390/architecture6030158

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