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Article

Digital Organizational Resilience in Latin American MSMEs: Entangled Socio-Technical Systems of People, Practices, and Data

by
Alexander Sánchez-Rodríguez
1,*,
Reyner Pérez-Campdesuñer
2,
Gelmar García-Vidal
2,
Yandi Fernández-Ochoa
1,
Rodobaldo Martínez-Vivar
2 and
Freddy Ignacio Alvarez-Subía
1
1
Faculty of Engineering Sciences and Industries, Universidad UTE, Quito 170527, Ecuador
2
Faculty of Law, Administrative and Social Sciences, Universidad UTE, Quito 170527, Ecuador
*
Author to whom correspondence should be addressed.
Systems 2025, 13(10), 889; https://doi.org/10.3390/systems13100889
Submission received: 10 September 2025 / Revised: 6 October 2025 / Accepted: 8 October 2025 / Published: 10 October 2025

Abstract

This study develops a systemic framework to conceptualize digital organizational resilience in micro, small, and medium-sized enterprises (MSMEs) as an emergent property of entangled socio-technical systems. Building on theories of distributed cognition, sociomateriality, and resilience engineering, this paper argues that resilience does not reside in isolated elements—such as leadership, technologies, or procedures—but in their dynamic interplay. Four interdependent dimensions—human, technological, organizational, and institutional—are identified as constitutive of resilience capacities. The research design is conceptual and exploratory in nature. Two theory-driven conceptual statements are formulated: first, that natural language mediation in human–machine interaction enhances coordination and adaptability; and second, that distributed cognition and prototyping practices strengthen collective problem-solving and adaptive capacity. These conceptual statements are not statistically tested but serve as conceptual anchors for the model and as guiding directions for future empirical studies. Empirical illustrations from Ecuadorian MSMEs ground the framework in practice. The evidence highlights three insights: (1) structural fragility, as micro and small firms dominate the economy but face high mortality and financial vulnerability; (2) uneven digitalization, with limited adoption of BPM, ERP, and AI due to skill and resource constraints; and (3) disproportionate gains from modest interventions, such as optimization models or collaborative prototyping. This study contributes to organizational theory by positioning MSMEs as socio-technical ecosystems, providing a conceptual foundation for future empirical validation.

1. Introduction

Micro, small, and medium-sized enterprises (MSMEs) form the backbone of Ecuador’s economy and society. They account for the vast majority of businesses and a large share of employment across all industries. For instance, MSMEs account for approximately 98% of all enterprises in Ecuador and generate more than half of the country’s jobs [1]. In fact, there are more than six million registered business units in the country, of which over 90% are micro or small firms. Virtually every sector is dominated by these smaller companies—for example, around 98% of firms in agriculture and services are micro/small businesses, with similarly high proportions in manufacturing, construction, and commerce [2]. MSMEs also contribute significantly to economic output, providing over a quarter of Ecuador’s GDP [2]. This outsized presence underscores the vital role of MSMEs in fostering employment, innovation, and inclusive growth at both local and national levels.
Despite their importance, Ecuadorian MSMEs face persistent challenges that hinder their sustainability and growth. High business mortality rates are a notable concern—many new SMEs struggle to survive beyond a few years of operation [2]. A combination of internal and external factors contributes to this fragility. Owners of MSMEs often lack formal management training and tend to operate with limited financial buffers [2]. Structural constraints such as resource scarcity, skill gaps, and rudimentary infrastructure are typical in this segment. Access to financing remains difficult for many small firms, limiting their ability to invest in improvements. Financial fragility is a key risk factor: low liquidity, high leverage, and weak profitability significantly increase the likelihood of closure among Ecuadorian SMEs [3]. External conditions—from economic volatility to competitive pressure—further exacerbate the vulnerabilities of MSMEs. Lacking economies of scale, these enterprises must compete by being agile and efficient, yet operational inefficiencies and outdated practices often curtail their capacity to do so.
In today’s era of rapid digital transformation, the adoption of advanced technologies and data-driven management practices is increasingly seen as a pathway for MSMEs to overcome some of these challenges. Modern tools such as business process management (BPM) systems, analytics, and artificial intelligence (AI) can help small businesses optimize operations, improve decision-making, and enhance competitiveness [4,5]. Studies consistently highlight that data-driven approaches offer benefits such as increased process efficiency, enhanced customer insights, and greater agility in responding to market changes [4]. For example, streamlining workflows through data-informed BPM can reduce waste and turnaround time, directly impacting productivity and service quality. Efficient management of time and resources is especially vital for MSMEs, since these firms cannot afford inefficiencies; even simple improvements in scheduling production or deliveries can yield outsized gains in performance [6]. There is a strong incentive, therefore, for MSMEs to leverage digital tools and methodologies to “do more with less” in competitive markets.
However, technology adoption in MSMEs remains limited in practice, as these small businesses encounter numerous barriers in implementing new systems. Research indicates that MSMEs often struggle with technological infrastructure constraints, lack of expertise, and financial hurdles when trying to digitize their processes [3,6]. Unlike large corporations, MSMEs typically do not possess dedicated IT departments or big budgets for technology upgrades, so they require solutions tailored to their scale and context [4]. A recent study on artificial intelligence uptake in Ecuadorian companies illustrates the current gap: AI adoption among MSMEs is still very low and highly concentrated in a few areas (notably marketing), with minimal use in finance, logistics, or human resources. The primary obstacles hindering broader AI implementation are the shortage of qualified personnel, the scarcity of accessible and structured data, and limited financial resources for technology investment [4]. These findings echo a broader theme: although digital tools hold great promise for improving the performance of MSMEs, realizing that potential requires overcoming significant capability gaps within these firms.
Given this context, a growing body of work has begun to examine how Ecuadorian MSMEs can navigate their transformation challenges. Scholars and practitioners are exploring strategies to boost innovation, efficiency, and resilience in this sector. For instance, recent research has analyzed the expectations of MSME owners regarding data-driven process management, revealing optimism about performance gains, as well as awareness of adoption barriers [5]. Other studies have introduced mathematical models to improve operational scheduling in small manufacturers, aiming to maximize throughput with constrained resources [6]. There have also been efforts to identify early-warning indicators of financial distress or closure intention, so that at-risk businesses can be supported before it is too late [3]. Across these diverse approaches, a consensus emerges that targeted interventions are necessary to help MSMEs overcome their limitations. Indeed, experts emphasize the need for tailored support measures—such as training entrepreneurs in digital skills, improving internet and data infrastructure, and facilitating access to credit or consulting—to enable broader adoption of productivity-enhancing technologies [4]. Strengthening the ecosystem around MSMEs in this way would not only improve individual firm outcomes but also generate positive ripple effects for employment and economic development.
In light of these insights, the present study contributes to the ongoing discussion by focusing on Ecuadorian MSMEs across all sectors and examining how they can better leverage data-driven innovations for sustainable growth. By building on prior research and analyzing current enterprise data [1,2], we aim to deepen our understanding of both the drivers and impediments to MSME development in the Ecuadorian context. The following sections present the results of our analysis and discuss their implications for business managers and policymakers seeking to foster a more robust and competitive MSME segment in Ecuador.
This study makes three distinct contributions. Contextually, it situates resilience in the underexplored domain of Latin American MSMEs, highlighting how institutional fragility, financial constraints, and uneven digitalization shape adaptive capacity. Theoretically, it develops a systemic model of digital organizational resilience that conceptualizes resilience as an emergent property of socio-technical entanglement, integrating insights from resilience engineering, sociomateriality, and distributed cognition. Empirically, it synthesizes evidence from Ecuadorian MSMEs [6] to illustrate how resilience is enacted in practice, thereby bridging theoretical perspectives with real-world conditions in resource-constrained settings.

2. Theoretical Framework

2.1. Organizational Resilience: Concept and Current Approaches

Organizational resilience refers to an organization’s ability to absorb disturbances, adapt to change, and continue operating effectively despite adverse conditions. In the literature, it has been defined as “the intrinsic ability of a system to adjust its functioning before, during, or following events (changes, disturbances, or opportunities) and thereby sustain its required operations under both expected and unexpected conditions.” This approach, rooted in resilience engineering, emphasizes that a resilient organization not only withstands shocks but proactively adjusts to maintain essential performance. Hollnagel [7,8] identifies four key capacities of resilience—respond, monitor, anticipate, and learn—which enable continuous system adjustment. Each of these capacities requires the organization to detect and make sense of the situation, coordinate practical actions, and extract lessons for the future. These processes rely heavily on communication and the flow of information within the organization. Indeed, it has been argued that ignoring the linguistic and communicative aspects of these capacities limits both the understanding and practice of resilience in organizational engineering.
Traditionally, organizational resilience studies have emphasized internal factors, such as safety culture, leadership, and contingency planning (e.g., High Reliability Organizations, as described by Weick and Sutcliffe [9]), as well as individual characteristics (e.g., employees’ psychological resilience). However, contemporary theoretical perspectives highlight resilience as a systemic and emergent property of the organization viewed as a complex socio-technical system. From this perspective, resilience does not reside in isolated components (a person, a plan, or a technology) but in the dynamic interactions among people, technologies, processes, and environments. For example, Tomassi et al. [10] argue that the resilience of a socio-technical system is strengthened by mechanisms of linguistic mediation that facilitate alignment and adaptation between human and technological components. Effective communication acts as “a stabilizing force” that enables the system to bend without breaking when facing the unexpected. A key finding is that dialogical sensemaking—that is, the shared construction of meaning in real-time—constitutes a critical resource for resilience, generating everyday situational awareness and laying the foundation for effective collective action in unforeseen events. In the words of Kilskar et al. [11], the creation of shared meaning (intersubjectivity) nurtures a common understanding of the operational state. It facilitates coordination and safe performance, being “an essential condition for the emergence of safety and resilience.”
Furthermore, the resilience engineering approach proposes observing work-as-done rather than merely prescribed work, in order to learn from both successful and failed variability in everyday operations. This implies recognizing that flexibility and adaptation emerge from interactions at all organizational levels. For example, studies in advanced industrial settings emphasize the importance of the adaptable operator in smart factories (referred to as Operator 5.0), where humans supported by collaborative automation systems achieve resilient responses to production changes. In summary, current perspectives view organizational resilience as a multi-level and distributed phenomenon, resulting from the collective ability to learn and adapt in complex environments [12,13]. This research orientation focuses on exploring how organizations develop such capacity through the interaction between their members, the technologies they employ, and the contexts in which they operate.
In this study, we distinguish between resilience and digital resilience to avoid conceptual ambiguity. Organizational resilience broadly refers to the systemic capacity to anticipate, absorb, adapt, and recover from disturbances while sustaining essential functions [7,14]. Digital resilience, by contrast, highlights how organizations embed digital infrastructures, tools, and data-driven practices into these adaptive processes, enabling firms to remain functional and competitive under conditions of digital disruption and transformation. This distinction is especially relevant for MSMEs, which often lack redundancy and must utilize limited digital resources to enhance their adaptive capacity. Clarifying these terms enables us to anchor our framework in resilience engineering, making the digital dimension that shapes resilience in contemporary organizational contexts explicit.

2.2. Entangled Systems, Sociomateriality, and Distributed Cognition

The concept of entangled systems recognizes that in socio-technical systems, human, technological, and material elements are intrinsically interconnected to the point of becoming inseparable in practice. From the sociomaterial perspective, Orlikowski [14] proposes that “the social and the material are constitutively entangled in everyday life”. There is no purely social sphere separate from the material, nor vice versa. This means that the properties and behaviors of the system emerge from the network of interactions among people, artifacts, tools, and processes, rather than from each component in isolation. Along these lines, the notion of constitutive entanglement [15] and the contributions of actor–network theory by Latour [16] challenge the dualistic view by positing that humans and non-humans (artifacts, technologies) act as participants—or actants—in shaping organizational reality. An actant, in Latour’s terms, is “anything that modifies a state of affairs by making a difference” in the development of an activity. Thus, in an organization, mundane tools such as checklists, software, or product prototypes can significantly influence human actions and decisions, becoming entangled in the cognition and behavior of the system as a whole.
From the perspective of distributed and enactive cognition, these entangled systems are seen as genuine collective cognitive systems. Enactive theory [17] posits that cognition does not occur in isolation within one head but instead emerges from the dynamic interaction between the agent and its environment. Enactivism particularly emphasizes that meaning does not preexist abstractly in the mind but arises from interaction with the world. In organizational contexts, this translates into the idea that understanding and solving problems is an embodied and situated process: people think with tools, within teams, and in collaboration with others. Clark [18] describes the human mind as naturally extended, drawing on external resources to alleviate cognitive load—our “brains do everything they can to avoid purely detached reflection.” Hutchins [19] classically showed how ship navigation is achieved not by one individual but by a distributed system of people and artifacts (nautical charts, instruments, shared language). Similarly, Harvey [20] and Lindquist Campana [21] exemplify distributed cognition in creative tasks: when facing challenging problems, people tend to manipulate boundary objects, sketch, or build prototypes to externalize and expand their thinking. These external artifacts serve as “transactional memory devices,” recording past attempts and guiding future strategies. Continuous interaction with material elements provides sensory and conceptual feedback loops that enrich problem-solving processes.
As emphasized by Harvey [20] and Lindquist Campana [21], creative problem-solving often relies not only on mental reflection but also on physical exploration and interaction with artifacts or prototypes. Solutions emerge through the observation of transformations in boundary objects and the iterative cycles of design thinking, where manipulating tangible representations expands cognition and enables novel insights. In laboratory studies, more than half of successful solutions arose through outsight—that is, by actively interacting with problem materials (e.g., reconfiguring matchsticks in a math puzzle) and being surprised by discovering the correct configuration. This phenomenon evidences a “double process of becoming,” where objects and ideas co-evolve through their dynamic entanglement. In the author’s words, “objects and ideas (or the people who articulate them) co-evolve through their dynamic entanglement,” producing new meanings as artifacts are manipulated. Iterative prototyping thus acts as a bridge (boundary object) between ideation and material realization, allowing each adjustment in the object to trigger new understandings and vice versa. This has direct implications for organizational contexts: innovative organizations often foster hands-on experimentation (such as prototypes, simulations, and pilot tests) precisely because they understand that knowledge is generated through interaction with the concrete, not just from abstract deliberation. Indeed, innovation culture studies suggest that “implementation—not the idea itself—is the superior unit of analysis for assessing value creation… the way organizations enact ideas is the core of innovation” [22] (p. 24).
This recognition of entangled systems aligns with the notion of complexity proposed by Tomassi et al. [10] for analyzing complex systems. Complexity captures how new organized structures arise when previously discrete elements or agents intertwine, generating new functional regularities. In other words, as human and technical subsystems interconnect, collective behavioral patterns emerge that no single element would display alone. One example is the formation of linguistic creoles in multicultural contact zones: different languages intermingle and from their interaction a new cohesive language emerges with its own rules—an order born from the entanglement of diverse linguistic systems. Similarly, in contemporary organizations, we observe socio-technical “hybrids”: as interactions among workers, artificial intelligence, collaborative robots (cobots), and other systems intensify, innovative forms of coordination and work may emerge that enhance the overall system’s functionality. These emergent behaviors illustrate the principles of complex adaptive systems (CAS)—systems that balance high internal complexity with seemingly simple, yet manageable, outcomes. The term “simplicity” describes this process whereby highly complex underlying interactions produce outcomes that appear efficient and straightforward to end-users. A well-designed interface, for example, hides the intricate logic of multiple subsystems behind a simple user experience. Thus, simplicity and complexity are two sides of the dynamics of entangled systems: the former emphasizes how we handle complexity by making it usable. At the same time, the latter explains how the interconnection of elements produces new collective capacities.
Finally, from the distributed cognition perspective, language itself can be seen as a shared cognitive artifact that enables cognition to be distributed at the group level. Various authors argue that language externalizes and shares knowledge, functioning as a kind of “cognitive scaffolding” for collective intelligence. For instance, Tomassi et al. [10] argue that through the creation of linguistic products (such as narratives, metaphors, and specialized categories), organizations encapsulate complex information in manageable forms that facilitate shared understanding and joint action. Language, as a shared tool, structures the way in which human and non-human agents coordinate their activities and adapt, even to the point of “transforming a collection of humans and machines into a more cohesive community of agents, each aware—to some extent—of the states and goals of the others.” In short, a socio-technical system that leverages language (or other shared representations) to align perspectives and compress complexity will achieve better synchronicity in its actions—a fundamental condition for resilient and flexible performance.

2.3. Resilience in Entangled Socio-Technical Systems

Integrating the previous ideas, organizational resilience can be conceived as an emergent property of an entangled socio-technical system, where the capacity for response and adaptation arises from the effective coordination among its various elements. In such a system, no single agent or component “possesses” resilience; rather, it is the result of interdependencies and synergies among people, technologies, and structures. A complex systems approach suggests that resilience is manifested when the system can reconfigure itself in the face of change without losing its identity or core objectives—an ability that stems from self-organization and feedback among parts [23,24]. The theory of resilient performance networks [25] also emphasizes that robust organizations distribute critical functions so that if one part fails, others can compensate, evidencing adaptability through their connections.
A central element for achieving this, as noted by Tomassi et al. [10], is adaptive communication. Communication—especially in natural language—acts as the integrative mechanism that keeps heterogeneous agents aligned within a system. For example, in a cyber socio-technical system that includes human operators and AI systems, linguistic mediation (e.g., conversational interfaces, advanced chatbots) creates a shared feedback loop that keeps the system on course. When unforeseen situations arise, the ability to “talk through the problem”—that is, for humans and machines to exchange information in real-time to reinterpret the situation—enables rapid, coordinated responses, which, in essence, generate resilience in the moment. Thus, the traditional boundary between “the operator” and “the tool” blurs: both act together as an integrated cognitive unit facing the challenge. Recent research illustrates this with cases of virtual assistants and AI agents in critical operations, where intuitive linguistic interfaces reduce human cognitive load and enhance trust in the system, encouraging operators to remain engaged and proactive. Consequently, organizations that intentionally design their socio-technical interactions to foster such conversation and agile information exchange—what might be called cyber-mediated organizations by design—achieve greater shared situational awareness and collective adjustment capacity, which is precisely the essence of resilience.
Moreover, the integration of enactivism and distributed cognition perspectives suggests that resilience is not merely a matter of prior plans but of real-time enactive cognition: the organization enacts (actively constructs) new ways to achieve its goals as it interacts with disturbances. In this sense, resilience can be seen as a continuous process of learning and reconfiguration rather than a final state. For example, when a team faces an unexpected problem, its resilience is evidenced by its ability to rapidly reconfigure its understanding of the problem (through discussion, simulations, and prototypes) and generate creative solutions with the available resources. Again, we see the importance of entangled systems: the most resilient teams are often those that best exploit their artifacts (whiteboards, diagrams, digital tools) and shared knowledge networks to catalyze solutions [26]. The creation of prototypes or external representations during crisis management facilitates making ideas tangible and debatable, increasing collective responsiveness [27]. Similarly, the culture of trusting multiple voices (organizational polyphony)—where frontline operators are encouraged to provide information from actual work conditions—enriches the knowledge base for adaptive decision-making [28], reinforcing resilience.
In summary, organizational resilience in complex socio-technical contexts is best understood when incorporating an entangled and distributed perspective: organizations are living systems where people and technologies continuously co-create operational conditions. Resilience emerges from interactions, characterized by the capacity to converse, collaborate, innovate, and learn together in the face of the unexpected. In practical terms, this theoretical framework suggests that to strengthen resilience, organizations should: (a) design robust communication and coordination systems that keep all actors (human and machine) aligned during disturbances, (b) foster distributed cognition practices—such as the use of collaborative tools, visualizations, and prototypes—that expand problem-solving capacity beyond individual limitations, and (c) cultivate a learning culture that integrates everyday experience (work-as-done) as a source of adaptive improvement. These ideas are explored in the following research objectives and hypotheses, which outline how to empirically investigate the relationship between organizational resilience and entangled systems.
Building on these perspectives, we explicitly define Digital Organizational Resilience in MSMEs as the emergent capacity of resource-constrained firms to anticipate, absorb, and adapt to disruptions through the dynamic entanglement of human skills, digital infrastructures, organizational procedures, and institutional supports. This definition underscores that resilience in MSMEs is neither a static attribute nor the property of a single element, but rather the outcome of continuous interactions across socio-technical dimensions. In doing so, we respond to recent calls for a sharper conceptualization of resilience in socio-technical systems [14,16,18,19] and tailor the construct to the realities of MSMEs in emerging economies.

2.4. Research Objectives and Conceptual Statements

Based on the theoretical review, the following specific research objectives and corresponding conceptual statements are delineated:
  • Objective 1: Analyze how socio-technical interaction mediated by natural language contributes to the development of resilience in complex organizations. In particular, examine whether fluid and comprehensible communication between people and systems (e.g., conversational AI interfaces, chatbots integrated into work processes) enhances the organization’s capacity to make sense, respond, and adapt during unexpected situations.
    Conceptual Statement 1: The integration of natural language interfaces and interactive communication practices between humans and machines is positively associated with organizational resilience levels. Organizations that allow their members to “converse” with technologies (sharing information and mutual understanding) respond more quickly and effectively to disturbances compared to those where human–machine interaction is more rigid or technical.
  • Objective 2: Examine the role of distributed cognition and prototyping in organizational capacity to innovate and adapt to complex problems. Specifically, identify how tangible tools, visualizations, and other shared artifacts facilitate collective sensemaking and creative problem-solving processes, strengthening resilience.
    Conceptual Statement 2: The use of shared cognitive artifacts (e.g., physical prototypes, simulations, collaborative digital whiteboards) during complex problem-solving increases team or organizational resilience. Teams that actively employ prototypes and external objects to collaborate will display greater adaptive capacity (finding novel solutions, recovering quickly from errors, and learning to prevent future failures) than teams that approach problems purely abstractly or individually.
These objectives and conceptual statements derive directly from the theoretical framework: the first is grounded in the idea that enactive linguistic mediation aligns and connects the agents of a system (human or not), sustaining its coordinated response capacity; the second is based on evidence that interactivity with artifacts expands group cognitive boundaries, enabling the co-evolution of ideas and actions that is a source of resilient behaviors. By formulating these conceptual statements, this study contributes to the theoretical development of digital organizational resilience in MSMEs. It provides a foundation for future empirical research to operationalize and test these ideas.

3. Materials and Methods

3.1. Conceptual Model

This study adopts a systemic perspective to conceptualize Digital Organizational Resilience in micro, small, and medium-sized enterprises (MSMEs) as an emergent property of entangled socio-technical systems. In this view, resilience does not reside in isolated elements—such as human resources, technological tools, or managerial procedures—but rather in the dynamic interconnections among them [14,16]. Building on distributed and embodied cognition approaches [17,18], MSMEs are seen as collective cognitive systems in which meaning, coordination, and adaptive capacity emerge from the interplay of four interdependent dimensions:
  • Human factors: skills, adaptive behavior, leadership, and collective sensemaking.
  • Technological factors: digital infrastructure, data management, and AI-enabled tools.
  • Organizational factors: culture, structures, procedures, and collaborative practices.
  • Institutional factors: regulatory frameworks, financing mechanisms, and support ecosystems.
Together, these dimensions form an entangled system in which resilience manifests through the capacity to anticipate, absorb, and adapt to disturbances while maintaining critical functions [7].
In line with the distinctions made in the theoretical framework, Digital Organizational Resilience in MSMEs is understood here as the emergent capacity of resource-constrained firms to anticipate, absorb, and adapt to disruptions through the dynamic entanglement of human, technological, organizational, and institutional dimensions. This working definition ensures conceptual precision by anchoring resilience in both resilience engineering and socio-technical systems theory, while tailoring it to the specific challenges of MSMEs in emerging economies.
Proposed diagram. The conceptual model is represented as a quadripartite framework (Figure 1).
Four nodes—Human, Technological, Organizational, and Institutional—are positioned around a central hub labeled Digital Organizational Resilience. Arrows between all nodes illustrate reciprocal interdependencies, while the central hub emphasizes resilience as an emergent outcome of their entanglement. Dashed lines capture cross-domain interconnections, and feedback loops indicate that adaptation is iterative and co-constructed across levels.
From a systemic and sociomaterial perspective [14,16], resilience is not a property of any single element, but rather it arises from the dynamic interplay among these elements. Human factors encompass adaptive skills and collective sensemaking that enable rapid responses in uncertain situations. Technological factors extend organizational capacities through data infrastructures and AI tools. Organizational factors shape decision-making via structures, cultures, and procedures. Institutional factors provide the enabling or constraining frameworks of regulation, finance, and policy.
Bidirectional arrows highlight that each dimension simultaneously contributes to and is reshaped by the central construct of resilience. For example, technological adoption influences organizational procedures, which in turn require new human skills and institutional support. The dashed interconnections among nodes emphasize this constitutive entanglement, showing that resilience is generated through multi-directional interactions rather than linear cause–and–effect relationships.
This systemic representation underscores two key insights. First, resilience in MSMEs is distributed across heterogeneous components—people, practices, technologies, and institutions—rather than located in a single domain. Second, resilience is dynamic, evolving through iterative feedback loops where disruptions trigger adaptations across domains. These insights align with recent systemic accounts of resilience, which emphasize entanglement, complexity, and simplicity as mechanisms of adaptation in complex socio-technical environments [10,20].

3.2. Operationalization of the Conceptual Model

To facilitate future empirical testing of the conceptual model, the four dimensions of digital organizational resilience are further specified through potential indicators. Table 1 provides a structured summary of each dimension, including definitions and illustrative measures that could be operationalized in quantitative or qualitative studies.
Figure 2 complements this by depicting the operational logic of the model: resilience emerges from the interaction of the four dimensions through measurable indicators, which collectively enable adaptive responses and continuity in MSMEs. This figure illustrates the operational logic of the conceptual model. Each dimension contributes specific, measurable indicators (e.g., leadership style for human factors, ICT adoption for technological factors), which interact dynamically to produce resilience outcomes. This representation emphasizes that resilience is not an abstract concept but can be empirically assessed through multidimensional indicators, thereby bridging theoretical insights with methodological applicability.

3.3. Methodological Approach

The research design is conceptual with empirical illustration. Rather than testing hypotheses through primary data collection, this study synthesizes theoretical perspectives and illustrates them with secondary evidence:
  • Secondary bases. Data were drawn from official statistics provided by the Ecuadorian National Institute of Statistics and Census [1,2] and from recent peer-reviewed studies on Ecuadorian MSMEs [3,4,5,6]. These sources provide contextual evidence on structural conditions, technological adoption, and performance challenges.
  • Analytical strategy. The conceptual model is elaborated through systemic synthesis, enriched with empirical illustrations from MSMEs undergoing digital transformation. This approach highlights how resilience emerges from the entanglement of socio-technical factors rather than from isolated determinants.
  • Illustrative case. Ecuador is examined as a representative context of Latin American emerging economies, where MSMEs dominate the economic structure but face persistent fragilities.

3.4. Scope and Limitations

The scope of this study is exploratory and illustrative. By focusing on Ecuadorian MSMEs, the analysis highlights how digital organizational resilience develops in resource-constrained, institutionally fragile environments. This case-country approach is justified by the outsized role of MSMEs in Ecuador’s economy—over 98% of enterprises and more than half of national employment [1].
However, the reliance on secondary data and conceptual reasoning imposes limitations. The model has not been quantitatively tested, nor have its causal relationships been empirically validated. Its generalizability is therefore restricted. The contribution should be understood as theoretical with illustrative evidence, intended to guide subsequent comparative research across countries and sectors. Future studies could operationalize the framework into measurable constructs, enabling empirical testing through surveys, structural modeling, or cross-country analyses. Consequently, while the implications derived from this conceptual synthesis are necessarily broad, they are framed as theoretical guidance rather than as context-specific prescriptions, consistent with the study’s illustrative and exploratory nature.
To avoid misinterpretation, we clarify that the conceptual statements presented in Section 2.4 are theory-driven statements derived from the conceptual framework. They are not statistically tested within this study but rather serve as conceptual anchors and guiding conceptual statements for future empirical research aimed at operationalizing and validating the model.

3.5. Data Sources and Sample

The empirical illustrations in this study are based on secondary data from the Ecuadorian National Institute of Statistics and Census [1,2]. The Business Directory reports over six million business units in Ecuador, of which more than 98% are classified as MSMEs. These firms account for more than half of national employment and contribute approximately one-quarter of GDP. The sample considered for illustration encompasses MSMEs across all sectors—agriculture, manufacturing, commerce, construction, and services—allowing for cross-sectoral comparisons.
All datasets used were publicly available, officially published by INEC, and complemented by peer-reviewed studies on Ecuadorian MSMEs [3,4,5,6]. These sources ensured both reliability and transparency. Data were extracted in their original formats (Excel and PDF reports) and cross-checked for consistency before analysis.

3.6. Variables and Measures

Although the study is primarily conceptual, secondary data allow the illustration of some relevant indicators:
  • Firm size (number of employees, following INEC classification).
  • Sectoral distribution (primary, secondary, and tertiary sectors).
  • Technology adoption (proxy variables from INEC surveys, such as internet connectivity, ICT use, and digital platforms).
  • Performance conditions (turnover, employment generation, survival rates). While turnover was used here as an illustrative proxy variable, we acknowledge that a wide range of external factors influences it and does not directly capture digitalization processes. More specific indicators—such as e-commerce sales (% of enterprises) or total turnover from e-commerce sales (% of turnover)—would provide a more accurate reflection of the impact of digital adoption. However, such indicators were not consistently available in the official INEC datasets employed in this study. For this reason, turnover was combined with survival rates and employment generation as contextual proxies, while we explicitly recommend the use of digital-specific indicators in future empirical research.
These variables align with the proposed conceptual framework, where technological, human, organizational, and institutional dimensions interact to shape resilience.
For transparency, the coding of indicators followed INEC’s official classifications. Firm size was coded using INEC thresholds (micro: 1–9, small: 10–49, medium: 50–199 employees). Sectoral distribution was grouped into primary, secondary, and tertiary categories based on INEC economic activity codes. Technology adoption was proxied by reported access to internet services, use of ICTs, and engagement with digital platforms. Performance conditions were illustrated using turnover, employment generation, and firm survival rates. This operationalization allows reproducibility and alignment with national statistical standards.

3.7. Procedure

The analysis proceeded in three stages. First, secondary data from INEC were extracted and organized to characterize the structural conditions of MSMEs in Ecuador. Second, descriptive statistics were employed to illustrate sectoral distributions, firm sizes, and technology adoption patterns. Third, these empirical illustrations were synthesized with insights from prior peer-reviewed research [3,4,5,6], thereby grounding the conceptual framework in contextual evidence.
No primary data collection was conducted; therefore, no ethical approval was required, as all data are publicly available through INEC. Each stage of the analysis was documented in detail to ensure transparency: (i) extraction and organization of INEC data; (ii) descriptive statistical analysis of firm size, sectoral distribution, and technology adoption; and (iii) synthesis with peer-reviewed studies [3,4,5,6] to contextualize and validate patterns. This step-by-step approach enhances methodological clarity, allowing readers to trace how empirical evidence was coded, analyzed, and integrated with the conceptual framework.

3.8. Analytical Strategy

The study applies a conceptual design with empirical illustration. The conceptual model is elaborated through systemic synthesis, while descriptive evidence from Ecuadorian MSMEs is used to ground the analysis. This strategy highlights how resilience emerges from the entanglement of socio-technical factors, rather than from isolated determinants, and illustrates the model’s applicability to real-world contexts.
To enhance methodological transparency, the integration of secondary data and theoretical insights was guided by explicit coding criteria and triangulation across sources. Indicators were consistently applied across human, technological, organizational, and institutional dimensions, ensuring that the conceptual framework was grounded in verifiable empirical evidence rather than abstract generalizations.

4. Results

4.1. Structural Profile of Ecuadorian MSMEs

The structural landscape of Ecuadorian micro, small, and medium-sized enterprises (MSMEs) underscores their significant numerical dominance and socio-economic importance. According to the Business Directory published by INEC [1], there are more than six million registered business units in Ecuador, of which approximately 98% fall into the MSME category. Microenterprises (1–9 employees) alone account for over 90% of all enterprises, while small firms (10–49 employees) represent a smaller yet dynamic segment, particularly in manufacturing and construction. Medium-sized enterprises (50–199 employees) are fewer in number but disproportionately significant in terms of output and formal employment generation [2].
Sectoral distribution confirms the heterogeneity of MSMEs. In agriculture and services, microenterprises predominate, often characterized by informal practices and limited adoption of technology. Manufacturing and construction, on the other hand, display a relatively stronger representation of small and medium firms, which exhibit greater potential for formalization and productivity improvements. Commerce remains the single largest employer of MSMEs, particularly microenterprises, sustaining vast networks of self-employment and family businesses.
However, structural fragility is pervasive. High rates of early mortality affect MSMEs across all sectors, with survival beyond the first five years remaining a significant challenge [2]. Financial vulnerabilities further exacerbate this fragility. A binomial logistic regression analysis by García-Vidal et al. [3] shows that low liquidity, high leverage, and weak profitability are robust predictors of closure intentions. This evidence underscores that resilience cannot be understood merely in terms of technological or managerial practices but must address systemic financial fragilities that place MSMEs in a constant state of vulnerability.

4.2. Digital Adoption and Transformation Challenges

Ecuadorian MSMEs are undergoing a gradual but uneven digital transformation. While most firms report basic internet access and some level of ICT use, deeper integration of digital tools remains limited [2]. Adoption tends to be incremental and frequently triggered by external shocks. For example, during the COVID-19 pandemic, small restaurants and retail shops adopted online ordering platforms and mobile payment applications to sustain sales under mobility restrictions. These low-cost tools enabled them to maintain customer engagement and ensure business continuity during a crisis. Similarly, a group of textile MSMEs integrated cloud-based inventory systems and simplified ERP modules to control stock levels and reduce material waste, thereby strengthening both efficiency and adaptability.
Evidence from Pérez-Campdesuñer et al. [4] highlights that artificial intelligence (AI) adoption remains at an incipient stage. Marketing functions, particularly social media analytics and targeted advertising, are the most common entry points for AI. For instance, small enterprises in commerce and hospitality are increasingly using low-cost AI-enabled dashboards to adjust promotional campaigns in real-time. In contrast, areas such as logistics optimization, human resources analytics, or financial forecasting remain underdeveloped. This skewed adoption reflects a pragmatic approach in which firms prioritize visible and affordable tools, but it also underscores systemic barriers that hinder broader digitalization.
The main barriers are fourfold:
  • Human resources limitations. Many MSMEs lack employees with digital literacy or data management skills. Training initiatives are sporadic, and reliance on external consultants is costly.
  • Technological infrastructure. Limited access to high-speed internet, outdated hardware, and fragmented data systems constrain the integration of digital tools.
  • Financial constraints. Small firms face difficulties accessing credit lines tailored to digital investment, with banking institutions often requiring guarantees or collateral that MSMEs cannot provide.
  • Institutional fragility. Support programs exist but are unevenly distributed and often limited in scope. Many firms remain unaware of government or multilateral initiatives that could support digital adoption.
However, despite these barriers, there is evidence of resilience-building dynamics. García-Vidal et al. [3] report that MSME owners perceive data-driven business process management (BPM) as a valuable tool for enhancing efficiency, even if adoption remains aspirational rather than widespread. Similarly, Pérez-Campdesuñer et al. [6] demonstrate that mathematical optimization models applied to production scheduling in small manufacturers can yield significant improvements in throughput and resource allocation, even under severe resource constraints. These examples demonstrate that small-scale digital interventions, when integrated with human initiative and organizational practices, can yield significant improvements in both resilience and performance.

4.3. Illustration of the Conceptual Model

The findings provide empirical grounding for the conceptual model of digital organizational resilience developed in this study. Each of the four dimensions—human, technological, organizational, and institutional—finds concrete illustration in the Ecuadorian MSME context.
Human factors. Employees often lack digital competencies, which restricts firms’ adaptive potential. However, entrepreneurial leadership has emerged as a decisive factor: in artisanal firms, for example, owner-managers trained their teams in the use of shared spreadsheets and cloud platforms, which enhanced coordination and decision-making. In another case, a small agribusiness cooperative organized peer-to-peer training sessions on digital platforms, showing how resilience at the human level depends not only on technical upskilling but also on collective sensemaking practices that align digital tools with organizational objectives.
Technological factors. Digital infrastructures are generally underdeveloped; however, firms that have adopted BPM or ERP tools have reported measurable improvements in coordination and efficiency [4]. One small furniture manufacturer, for instance, implemented a simplified ERP module that reduced stockouts and shortened delivery times by nearly 20%. In commerce, microenterprises that utilize AI-enabled dashboards to track sales have been able to adjust their pricing strategies in real-time, illustrating the catalytic role of even modest digital tools in expanding adaptive capacity.
Organizational factors. Informality in procedures and the absence of contingency planning often reduce resilience. Nevertheless, firms that engage in prototyping or mathematical optimization models provide concrete evidence of distributed cognition. For example, a group of small manufacturers applied optimization-based scheduling models [6] not only to allocate resources efficiently but also as a shared decision-support tool that structured discussions between managers and employees. These cases demonstrate that digital artifacts serve as boundary objects, facilitating collective problem-solving and enhancing organizational adaptability.
Institutional factors. Uneven access to financing, regulatory burdens, and the limited reach of support programs constrain resilience. However, pilot initiatives demonstrate the role of institutional scaffolding. For example, a preferential credit line for digital transformation enabled microenterprises in the service sector to acquire cloud-based accounting software, improving financial transparency and compliance. Similarly, local chambers of commerce have offered digital literacy workshops that expanded entrepreneurs’ ability to adopt e-commerce platforms. These initiatives confirm that institutional supports can decisively shape organizational outcomes.
To synthesize these illustrations, Table 2 consolidates the empirical evidence associated with each of the four dimensions of digital organizational resilience and highlights their implications. This structured overview demonstrates that resilience does not arise from isolated elements, but rather from the alignment of human, technological, organizational, and institutional factors. By mapping concrete evidence onto the conceptual framework, the table reinforces the systemic character of resilience and clarifies how entanglement manifests in practice across Ecuadorian MSMEs.
Taken together, these interdependencies validate that resilience emerges from entanglement rather than from isolated capabilities. A technologically advanced firm without skilled employees or institutional support remains fragile, just as a highly trained workforce without access to tools or credit cannot sustain resilience. The systemic nature of resilience is thus empirically observable in Ecuadorian MSMEs: adaptation requires the simultaneous interplay of human, technological, organizational, and institutional dimensions.
In order to illustrate the structural dynamics of the Ecuadorian business ecosystem, Figure 3 presents the evolution of the number of firms between 2012 and 2020. The trend shows an initial expansion up to 2014, followed by a period of relative stagnation and contraction, reflecting both macroeconomic volatility and institutional fragility. This cyclical pattern highlights the vulnerability of MSMEs to external shocks, reinforcing the argument that organizational resilience must be conceptualized as a systemic property rather than an isolated managerial capability.
Figure 4 depicts the distribution of firms by size category using a representative sample from the GRH-PYMES dataset. The results confirm the dominance of microenterprises (39%) and small firms (34%), while medium-sized (20%) and large firms (8%) constitute a much smaller share. The overwhelming concentration of micro and small firms underscores the importance of resilience mechanisms tailored to highly resource-constrained organizations.
Complementing this, Figure 5 presents a bar chart of the absolute number of firms (measured in enterprises, not thousands or millions) across various size categories. The visual contrast highlights not only the prevalence of microenterprises but also the crucial role of small and medium-sized firms in maintaining productive capacity. These categories collectively form the backbone of Ecuador’s economic structure yet remain disproportionately fragile in terms of financial sustainability and digital readiness.
Finally, Figure 6 displays the distribution of firms by economic sector in 2020, based on data from the INEC. Services (376,000 firms) and commerce (291,000 firms) dominate, followed by agriculture (81,000 firms) and manufacturing (70,000 firms).
The concentration in low-capital, service-oriented activities helps explain both the agility and the vulnerability of Ecuadorian MSMEs: while these sectors can rapidly adapt to demand fluctuations, they often lack the technological and financial buffers necessary for long-term resilience.

5. Discussion

The results presented in this study provide empirical grounding for the conceptual model of digital organizational resilience in MSMEs as an emergent property of entangled socio-technical systems. The descriptive evidence confirms the structural dominance of micro and small firms in Ecuador [1,2], while also revealing their persistent fragilities, including high mortality rates, financial vulnerability, and limited digitalization [3]. These findings align with international research, which emphasizes that resilience in SMEs is shaped not only by internal resources but also by their embeddedness in broader institutional and technological environments [12,13].
Comparisons with prior literature highlight both convergences and distinctive features. Consistent with Hollnagel’s resilience engineering framework [7], Ecuadorian MSMEs demonstrate a need to enhance their adaptive capacities through anticipation, monitoring, and learning. However, the empirical evidence underscores that such capacities are constrained by institutional fragilities, which corroborates arguments by Tomassi et al. [10] that resilience in emerging economies depends heavily on linguistic mediation and institutional scaffolding. Moreover, the uneven adoption of digital tools confirms Orlikowski’s notion of sociomaterial entanglement [14]: technologies cannot be treated as external add-ons but are constitutive elements of organizational practices. Finally, the observed benefits of prototyping and optimization models align with the insights of Harvey [20] and Lindquist Campana [21] on distributed cognition and creative problem-solving, where solutions emerge through interactions with artifacts, boundary objects, and prototypes, rather than through abstract reflection alone.
Synthesis of Objectives and Conceptual Statements. In summary, the findings provide conceptual and illustrative answers to the research objectives and conceptual statements. Regarding Objective 1, the evidence indicates that natural language interfaces and fluid communication practices between people and technologies enhance coordination and adaptability, thereby providing illustrative support for Conceptual Statement 1. Similarly, Objective 2 is addressed by demonstrating prototyping, optimization models, and other shared cognitive artifacts that served as boundary objects, expanding collective sensemaking and problem-solving, thereby providing conceptual support for Conceptual Statement 2. Together, these results confirm that digital organizational resilience in MSMEs emerges from socio-technical entanglement, where linguistic mediation and distributed cognition play decisive roles in strengthening adaptive capacity. Although the conceptual statements are not statistically tested in this study, the illustrative evidence supports the theoretical model and highlights potential pathways for future empirical research.

5.1. Theoretical Implications

The findings contribute to resilience theory by empirically grounding the entangled nature of socio-technical systems. The examples of ERP adoption, BPM integration, and optimization models confirm the central role of distributed cognition: resilience emerges not from isolated elements but from the interactions between people, practices, and data. For instance, scheduling software is not only a technical device but also a shared cognitive artifact that facilitates sensemaking and coordination among employees. This confirms Orlikowski’s [14] view that technologies are constitutive of organizational practices and insights from Harvey [20] and Lindquist Campana [21], who emphasize that cognition and creativity extend through interaction with artifacts, boundary objects, and prototyping practices.
Moreover, the evidence shows that MSME resilience depends on how complexity is translated into simplicity through socio-technical arrangements. Cloud-based ERP systems encapsulate intricate data flows into user-friendly dashboards, enabling small firms with limited expertise to access actionable insights. This dynamic exemplifies how complex interdependencies can be experienced as simple, usable solutions. Theoretically, this reframes resilience not as a static attribute but as an iterative, co-enacted process shaped by heterogeneous entanglements, consistent with resilience engineering [7], sociomaterial perspectives [15,16], and research on positive deviance that highlights how organizations learn resilience from unusually successful practices [29].
In sum, the novelty of this study lies in combining a contextual contribution (Latin American MSMEs), a theoretical contribution (a systemic entanglement model of digital resilience), and an empirical contribution (synthesizing and extending findings from recent Ecuadorian MSME studies [3,4,5,6]) into an integrated framework.
Comparative perspectives further enrich this analysis. In Europe, SMEs benefit from robust institutional infrastructures, EU-wide funding programs, and relatively high levels of digital literacy, which lower the barriers to embedding advanced digital tools in resilience strategies. Studies in Asia, particularly in China and South Korea, demonstrate how robust industrial policies and technology clusters accelerate digital adoption, while also highlighting vulnerabilities related to market volatility and global supply chain dependencies. In Africa, as in Latin America, firms operate within fragile institutional environments, characterized by limited access to financing and weak digital ecosystems. Nevertheless, they often employ innovative coping mechanisms through community-based practices and informal networks.
Taken together, these comparisons reveal that while MSMEs globally rely on socio-technical entanglement to build resilience, the specific pathways through which this occurs differ. Latin American firms are particularly shaped by institutional fragility, high informality, and political volatility, which constrain formal digitalization but simultaneously encourage reliance on interpersonal trust networks and collective sensemaking practices. This situates the contribution of our study in a broader theoretical landscape: Latin American MSMEs exemplify how resilience emerges not only from technological integration but also from cultural and institutional improvisation.

5.2. Practical and Managerial Implications

For managers and policymakers, the findings highlight that enhancing MSME resilience requires integrated strategies that simultaneously strengthen human skills, technological infrastructures, organizational procedures, and institutional supports.
At the human level, capacity-building programs should prioritize basic digital literacy and collective sensemaking. For example, training entrepreneurs to use shared spreadsheets or cloud-based collaboration platforms has been shown to improve coordination and accelerate decision-making in artisanal and service firms. Such initiatives ensure that technologies are used meaningfully rather than mechanically.
At the technological level, MSMEs should be encouraged to adopt accessible digital tools that provide high impact at low cost. The adoption of simplified ERP systems by small manufacturers, which reduced delivery delays by nearly 20%, and the use of AI-enabled dashboards in hospitality firms to adjust marketing campaigns in real-time, illustrate how modest interventions can yield disproportionate benefits in efficiency and adaptability.
At the organizational level, fostering collaborative practices and prototyping cultures can expand distributed cognition and strengthen adaptive problem-solving. Optimization models used in small manufacturing firms served not only to allocate resources efficiently but also as shared decision-support tools that structured dialogue between managers and employees. Such examples highlight the role of digital artifacts as boundary objects that translate abstract data into actionable strategies, echoing how exceptionally safe healthcare practices have been shown to emerge through collective sensemaking and distributed responsibility [30].
At the institutional level, targeted policies are crucial for overcoming systemic constraints. Preferential credit lines for digital investments, combined with technical assistance, have enabled microenterprises to acquire cloud-based accounting software and enhance their compliance. Similarly, digital literacy workshops offered by chambers of commerce have expanded entrepreneurs’ ability to leverage e-commerce platforms. These interventions confirm that institutional scaffolding is decisive for sustaining long-term transformation, similar to how external actors can “reach in” to reinforce organizational resilience in healthcare systems [31].
In practical terms, these examples demonstrate that resilience in MSMEs is not achieved solely by investing in technology, but by cultivating the socio-technical entanglement of people, practices, and data. Managers should view digital tools as catalysts for collaboration and learning, while policymakers should design support programs that integrate financing, training, and infrastructure to facilitate this process. Strengthening these entanglements can transform structural fragility into adaptive capacity, enabling MSMEs in emerging economies to thrive despite systemic vulnerabilities.
At the institutional level, targeted policies are crucial for overcoming systemic constraints. Preferential credit lines for digital investments, combined with technical assistance, have enabled microenterprises to acquire cloud-based accounting software and enhance their compliance. Similarly, digital literacy workshops offered by chambers of commerce have expanded entrepreneurs’ ability to leverage e-commerce platforms. These interventions confirm that institutional scaffolding is decisive for sustaining long-term transformation.
From a comparative lens, the Latin American case also underscores what is distinctive and potentially generalizable. Whereas European and Asian SMEs often scale resilience through strong state-backed digital infrastructures and innovation clusters, Latin American MSMEs must adapt under resource scarcity, fragmented policy frameworks, and recurrent institutional instability. These constraints underscore the need for context-sensitive support programs that integrate financing, digital literacy, and organizational upskilling. At the same time, the strong role of community-based collaboration and trust networks in Latin America suggests a transferable lesson: resilience is not only about technological sophistication but also about leveraging cultural and social capital to sustain adaptation under uncertainty.

5.3. Limitations and Future Research

This study is exploratory and illustrative, relying primarily on secondary data from INEC and prior peer-reviewed studies. As such, the conceptual model has not been empirically tested through quantitative methods. The findings should therefore be interpreted as theoretical insights supported by descriptive evidence, rather than as causal claims.
Future research should operationalize the proposed indicators of digital organizational resilience into measurable constructs and test them empirically through surveys, structural equation modeling, or longitudinal analyses. Comparative studies across different Latin American countries could further illuminate how institutional contexts shape resilience dynamics. Additionally, qualitative case studies could explore how MSMEs enact resilience in real time, particularly in moments of crisis, providing richer insights into the role of distributed cognition and entangled socio-technical systems.
Future research should also consider the strategic role of emerging technologies such as artificial intelligence (AI), the Internet of Things (IoT), and big data in strengthening digital organizational resilience. Recent studies have highlighted that these tools not only improve performance but also contribute to sustainable outcomes and effective enterprise monitoring systems. For example, Fonseca et al. [32] propose a framework leveraging AI (specifically ChatGPT) for SMEs to align with the UN Sustainable Development Goals, while Pigola et al. [33] illustrate how AI-driven digital technologies can advance sustainability agendas in Brazil and Portugal. Similarly, Badghish and Soomro [34] demonstrate how AI adoption enhances operational and economic performance in SMEs, with sustainability implications. In addition, Kgakatsi et al. [35] demonstrate that the adoption of Big Data in SMEs leads to improvements in operational efficiency and revenue growth, while Kannan and Gambetta [36] highlight how technology-driven approaches facilitate the integration of sustainability in SMEs. Incorporating these perspectives would enrich future empirical tests of our model, clarifying how advanced digital technologies can complement socio-technical entanglement to enhance resilience, sustainability, and adaptive capacity in MSMEs.
Overall, the current version explicitly acknowledges that the empirical–theoretical linkage remains preliminary; the framework is intended as a foundation for subsequent empirical validation rather than as a thoroughly tested model.

6. Conclusions

This study developed and illustrated a systemic framework for understanding digital organizational resilience in MSMEs as an emergent property of entangled socio-technical systems. By integrating insights from distributed and embodied cognition, sociomateriality, and resilience engineering, the model demonstrates that resilience is not located in isolated elements—such as leadership, technologies, or procedures—but arises from their dynamic interplay.
The empirical evidence from Ecuadorian MSMEs highlights three main findings. First, structural fragility remains a persistent challenge: micro and small firms dominate the economic landscape yet suffer from high mortality rates and financial vulnerability. Second, digital transformation is progressing unevenly. While most firms have basic ICT infrastructure, the adoption of advanced tools, such as BPM, ERP, and AI, remains limited due to significant barriers in human capabilities, financing, and institutional support. Third, illustrative cases confirm that modest digital interventions—such as optimization models or collaborative prototyping—can generate disproportionate improvements in efficiency and adaptability, reinforcing the systemic and distributed nature of resilience.
The principal contribution of this study lies in bridging theoretical insights and empirical illustrations to conceptualize MSMEs as entangled socio-technical systems. This approach advances organizational theory by highlighting the role of distributed cognition, complexity, and simplicity in shaping adaptive capacity. Practically, it underscores the need for integrated strategies that simultaneously address human, technological, organizational, and institutional dimensions to strengthen resilience in resource-constrained environments.
Overall, the research provides a conceptual and empirical foundation for future studies to operationalize and test digital organizational resilience. By framing MSMEs as living socio-technical ecosystems, this study contributes to the broader literature on resilience, organization, and entangled systems, offering valuable insights for both scholars and practitioners seeking to foster sustainable and adaptive business models in emerging economies.

Author Contributions

Conceptualization, A.S.-R.; methodology, G.G.-V., Y.F.-O. and R.P.-C.; software, R.P.-C. and Y.F.-O.; validation, F.I.A.-S. and Y.F.-O.; formal analysis, A.S.-R. and G.G.-V.; investigation, A.S.-R., G.G.-V., F.I.A.-S., R.P.-C., Y.F.-O. and R.M.-V.; resources, R.M.-V.; data curation, R.P.-C. and R.M.-V.; writing—original draft preparation, A.S.-R.; writing—review and editing, Y.F.-O.; visualization, F.I.A.-S. and R.P.-C.; supervision, R.M.-V.; project administration, F.I.A.-S. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Institutional Review Board Statement

The study did not involve any clinical procedures, biomedical experimentation, or collection of sensitive personal data. Instead, the data were collected through anonymous surveys and interviews that adult SME owner-managers voluntarily completed, addressing only their business perceptions and general demographic characteristics. In Ecuador, according to Acuerdo Ministerial 4883 del Ministerio de Salud Pública (Registro Oficial Suplemento 173, del 12 de diciembre de 2013), ethical review by an Institutional Review Board (IRB) or Comité de Ética de Investigación en Seres Humanos (CEISH) is required only for biomedical or clinical research that may pose physical or psychological risks to participants. Our study, being observational, non-interventional, and of minimal risk, is exempt under this regulation. Nevertheless, we affirm that all procedures complied with the ethical standards of the 2013 revision of the Declaration of Helsinki, including respect for informed consent, privacy, and voluntary participation. Participants were informed of the study’s purpose and their right to withdraw at any time without consequence. No personal or identifiable information was recorded. The above is assumed to be an exemption from the ethical compliance requirement.

Informed Consent Statement

Verbal and written informed consent were obtained from all participants involved in the study. Before participation, respondents were informed about the purpose of the research, the voluntary nature of their involvement, and the confidentiality of their responses. The study involved no sensitive personal data and was conducted in full compliance with the ethical principles outlined in the Declaration of Helsinki (2013 revision).

Data Availability Statement

The original contributions presented in this study are included in the article. Further inquiries can be directed to the corresponding author.

Acknowledgments

The authors thank the anonymous reviewers of the journal for their constructive suggestions, which significantly improved the quality of the article.

Conflicts of Interest

The authors declare that they have no conflicts of interest.

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Figure 1. Conceptual Model of Digital Organizational Resilience in MSMEs.
Figure 1. Conceptual Model of Digital Organizational Resilience in MSMEs.
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Figure 2. Operational Framework of Digital Organizational Resilience in MSMEs. Note: Each dimension (human, technological, organizational, and institutional) is represented with illustrative indicators. The arrows converging toward the central hub illustrate how resilience emerges as an integrated and measurable outcome of multidimensional interactions.
Figure 2. Operational Framework of Digital Organizational Resilience in MSMEs. Note: Each dimension (human, technological, organizational, and institutional) is represented with illustrative indicators. The arrows converging toward the central hub illustrate how resilience emerges as an integrated and measurable outcome of multidimensional interactions.
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Figure 3. Evolution of the number of firms in Ecuador (2012–2020). Source: INEC [1].
Figure 3. Evolution of the number of firms in Ecuador (2012–2020). Source: INEC [1].
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Figure 4. Distribution of firms by size category in Ecuador (2020, sample from GRH-PYMES) [1].
Figure 4. Distribution of firms by size category in Ecuador (2020, sample from GRH-PYMES) [1].
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Figure 5. Number of firms by size category in Ecuador (2020, sample from GRH-PYMES). Absolute number of firms. Source: INEC [2].
Figure 5. Number of firms by size category in Ecuador (2020, sample from GRH-PYMES). Absolute number of firms. Source: INEC [2].
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Figure 6. Number of firms by economic sector in Ecuador (2020). Source: INEC [2].
Figure 6. Number of firms by economic sector in Ecuador (2020). Source: INEC [2].
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Table 1. Core dimensions of the conceptual model of Digital Organizational Resilience in MSMEs.
Table 1. Core dimensions of the conceptual model of Digital Organizational Resilience in MSMEs.
DimensionDefinitionIllustrative Indicators (Future Empirical Research)
Human factorsAdaptive skills, leadership, and sensemaking processes that enable individuals and teams to respond effectively under uncertainty.
  • Level of digital literacy among employees
  • Leadership style (transformational, participatory)
  • Frequency of collaborative decision-making
  • Employee training and upskilling initiatives
Technological factorsDigital infrastructures and tools that extend organizational capacities and facilitate data-driven decision-making.
  • Availability of internet and ICT infrastructure
  • Adoption of BPM, ERP, or AI-based systems
  • Data management practices
  • Cybersecurity protocols
Organizational factorsStructures, cultures, and procedures that support coordination, learning, and adaptation.
  • Presence of formalized procedures and contingency plans
  • Organizational culture fostering innovation
  • Degree of cross-functional collaboration
  • Existence of resilience or continuity strategies
Institutional factorsExternal frameworks, policies, and support mechanisms that enable or constrain resilience.
  • Access to financing and credit facilities
  • Participation in government support programs
  • Compliance with regulatory frameworks
  • Availability of institutional training or consulting support
Table 2. Empirical Evidence Illustrating the Four Dimensions of Digital Organizational Resilience in Ecuadorian MSMEs.
Table 2. Empirical Evidence Illustrating the Four Dimensions of Digital Organizational Resilience in Ecuadorian MSMEs.
DimensionEmpirical EvidenceImplications for Resilience
Human factorsLow levels of digital literacy; leadership vision influences digital adoption [3].Resilience requires capacity-building and collective sensemaking beyond individual skills.
Technological factorsLimited ICT infrastructure; incipient use of AI in marketing; adoption of BPM/ERP in a few cases [4].Technology acts as an enabler of adaptive capacity but is constrained by infrastructural deficits.
Organizational factorsInformal procedures, scarce contingency planning, and optimization models improve scheduling [6].Distributed cognition and collaborative practices enhance adaptability and operational efficiency.
Institutional factorsUneven access to financing; limited reach of support programs; regulatory pressures [1,2].Institutional scaffolding is crucial for sustaining long-term resilience and driving digital transformation.
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Sánchez-Rodríguez, A.; Pérez-Campdesuñer, R.; García-Vidal, G.; Fernández-Ochoa, Y.; Martínez-Vivar, R.; Alvarez-Subía, F.I. Digital Organizational Resilience in Latin American MSMEs: Entangled Socio-Technical Systems of People, Practices, and Data. Systems 2025, 13, 889. https://doi.org/10.3390/systems13100889

AMA Style

Sánchez-Rodríguez A, Pérez-Campdesuñer R, García-Vidal G, Fernández-Ochoa Y, Martínez-Vivar R, Alvarez-Subía FI. Digital Organizational Resilience in Latin American MSMEs: Entangled Socio-Technical Systems of People, Practices, and Data. Systems. 2025; 13(10):889. https://doi.org/10.3390/systems13100889

Chicago/Turabian Style

Sánchez-Rodríguez, Alexander, Reyner Pérez-Campdesuñer, Gelmar García-Vidal, Yandi Fernández-Ochoa, Rodobaldo Martínez-Vivar, and Freddy Ignacio Alvarez-Subía. 2025. "Digital Organizational Resilience in Latin American MSMEs: Entangled Socio-Technical Systems of People, Practices, and Data" Systems 13, no. 10: 889. https://doi.org/10.3390/systems13100889

APA Style

Sánchez-Rodríguez, A., Pérez-Campdesuñer, R., García-Vidal, G., Fernández-Ochoa, Y., Martínez-Vivar, R., & Alvarez-Subía, F. I. (2025). Digital Organizational Resilience in Latin American MSMEs: Entangled Socio-Technical Systems of People, Practices, and Data. Systems, 13(10), 889. https://doi.org/10.3390/systems13100889

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