1. Introduction
Artificial intelligence has rapidly evolved from a niche technological capability into a central strategic resource shaping how firms compete, innovate, and sustain performance across industries. In contemporary business environments characterized by volatility, uncertainty, and intense competitive pressure, organizations increasingly view artificial intelligence not merely as a tool for automation but as a transformative force capable of redefining value creation, decision-making, and competitive positioning. The growing strategic relevance of artificial intelligence is deeply intertwined with advances in data availability, computational power, and algorithmic sophistication, which together enable firms to extract insights, predict outcomes, and optimize processes at unprecedented speed and scale. As a result, artificial intelligence is now widely recognized as a foundational element of digital transformation strategies aimed at achieving superior efficiency, differentiation, and long-term competitive advantage (Brynjolfsson & McAfee, 2017; Russell & Norvig, 2021). The strategic importance of artificial intelligence becomes particularly evident when examined through the lens of competitive advantage. Traditional sources of competitive advantage, such as economies of scale, access to capital, or geographic positioning, are increasingly insufficient in isolation, as technological diffusion and globalization have lowered entry barriers and intensified rivalry. In this context, artificial intelligence offers firms the ability to reconfigure resources, enhance dynamic capabilities, and respond more effectively to market changes. By embedding intelligence into products, services, and internal processes, organizations can improve accuracy, speed, and consistency in decision-making while simultaneously enabling personalization and innovation at scale (Porter & Heppelmann, 2014; Davenport & Ronanki, 2018; Emon, 2025). Consequently, artificial intelligence is not only reshaping how firms operate but also how they compete, collaborate, and capture value in digital ecosystems. Recent scholarship emphasizes that early and strategic adoption of artificial intelligence can significantly influence market dominance and competitive positioning. Firms that integrate artificial intelligence into their core strategies at an early stage often gain learning advantages, accumulate proprietary data, and develop organizational routines that are difficult for competitors to replicate. Such first-mover advantages can translate into superior market performance and sustained dominance, particularly in data-intensive and technology-driven sectors (Biradar et al., 2025; Gans, 2022; Emon, 2025). Early adopters are also better positioned to shape industry standards, influence customer expectations, and leverage network effects, thereby reinforcing their competitive edge over time. However, the benefits of early adoption are not automatic; they depend on how effectively artificial intelligence is aligned with organizational goals, capabilities, and competitive strategies. Beyond timing, the mechanisms through which artificial intelligence contributes to competitive advantage are multifaceted and extend across organizational functions. One critical mechanism involves knowledge creation and management. Artificial intelligence systems enable firms to collect, analyze, and transform vast amounts of structured and unstructured data into actionable knowledge, thereby enhancing organizational learning and strategic insight. Empirical evidence suggests that the impact of artificial intelligence on competitive advantage is often mediated by knowledge management capabilities, highlighting the importance of integrating technological investments with processes that support knowledge sharing, interpretation, and application (Yuan et al., 2025; Emon, 2025). In this sense, artificial intelligence acts not only as a technological asset but also as a catalyst for organizational intelligence, enabling firms to sense opportunities, seize them effectively, and reconfigure resources in response to environmental changes. At the firm level, artificial intelligence adoption influences competitive advantage by reshaping decision-making processes and managerial cognition. Advanced analytics, machine learning, and predictive models support managers in evaluating alternatives, anticipating outcomes, and reducing uncertainty in complex environments. This shift toward data-driven decision-making enhances both the speed and quality of strategic choices, allowing firms to respond more proactively to competitive threats and market opportunities (Górka et al., 2025; Shrestha et al., 2019). Importantly, artificial intelligence does not replace human judgment but rather complements it, fostering a form of human–AI symbiosis in which managerial expertise and algorithmic intelligence jointly contribute to superior outcomes (Jarrahi, 2018; Emon, 2025). Such hybrid decision-making structures are increasingly viewed as a source of competitive advantage, particularly in dynamic and knowledge-intensive contexts. The role of artificial intelligence in shaping competitive advantage is also closely linked to business model innovation. By enabling new ways of creating and capturing value, artificial intelligence allows firms to redesign revenue models, customer interactions, and value propositions. Organizations leveraging artificial intelligence can move beyond traditional product-centric models toward data-driven and service-oriented offerings, thereby enhancing differentiation and customer loyalty (Zukarnain et al., 2024). Artificial intelligence-driven business model innovation is especially evident in platform-based and ecosystem-oriented strategies, where data, algorithms, and network effects jointly reinforce competitive positions (Zhang & Tao, 2023). These developments underscore that competitive advantage derived from artificial intelligence is not limited to operational efficiency but extends to strategic renewal and market reconfiguration. From an industry perspective, the impact of artificial intelligence on competitive advantage varies across sectors but remains consistently significant. In manufacturing, artificial intelligence supports smart production systems, predictive maintenance, quality control, and supply chain optimization, leading to cost reductions, flexibility, and improved responsiveness (Lee et al., 2020; Emon, 2025). In service industries, artificial intelligence enhances customer experience through personalization, automation, and intelligent service agents, thereby strengthening relational advantages and service quality (Huang & Rust, 2021). Across both contexts, artificial intelligence enables firms to leverage big data analytics capabilities that enhance visibility, coordination, and performance across value chains (Wang et al., 2018; Chen et al., 2012). Despite its transformative potential, artificial intelligence adoption is not without challenges, and these challenges have important implications for competitive advantage. Data quality, integration, and governance remain persistent obstacles, particularly in organizations with legacy systems and fragmented information architectures (Sivarajah et al., 2017; Mariscal et al., 2017; Emon, 2025). Moreover, concerns related to transparency, explainability, and ethical use of artificial intelligence can affect stakeholder trust and regulatory compliance, potentially constraining competitive gains (Rai, 2020). Firms that fail to address these issues risk undermining the strategic value of artificial intelligence investments, highlighting the importance of responsible and transparent implementation practices. Human capital considerations further complicate the relationship between artificial intelligence and competitive advantage. While artificial intelligence can augment productivity and enable new forms of work, it also alters skill requirements and workforce structures. Evidence suggests that successful artificial intelligence adoption depends heavily on managerial and employee capabilities, as well as on leadership commitment to change and learning (Bessen, 2019; Brynjolfsson et al., 2018). Executive demographics and leadership characteristics play a critical role in shaping artificial intelligence investment decisions and performance outcomes, as leaders’ experience, openness to innovation, and risk preferences influence both adoption and utilization (Kikuchi, 2025; Emon, 2025). These findings underscore that competitive advantage from artificial intelligence is as much a managerial and organizational challenge as it is a technological one. Small and medium-sized enterprises face distinct opportunities and constraints in adopting artificial intelligence for competitive advantage. While resource limitations may hinder large-scale investments, strategic and focused adoption can enable SMEs to enhance efficiency, innovation, and market reach. Prescriptive frameworks emphasize the importance of aligning artificial intelligence initiatives with strategic priorities, leveraging external partnerships, and adopting scalable solutions tailored to organizational capabilities (Hussain & Rizwan, 2024). In emerging and resource-constrained contexts, such strategic alignment is particularly crucial for translating artificial intelligence adoption into sustainable competitive advantage. Theoretical perspectives further illuminate why artificial intelligence has become a strategic imperative in contemporary competition. Economic analyses highlight that artificial intelligence reduces the cost of prediction, thereby reshaping organizational structures, coordination mechanisms, and market dynamics (Agrawal et al., 2018; Emon, 2025). From a strategy perspective, artificial intelligence can be understood as a situated capability whose value depends on contextual factors such as industry characteristics, organizational routines, and competitive interactions (Kemp, 2024). These perspectives suggest that artificial intelligence does not confer competitive advantage in a uniform or deterministic manner; rather, its strategic value emerges through complex interactions between technology, organization, and environment. Taken together, existing literature strongly indicates that artificial intelligence has the potential to serve as a powerful source of competitive advantage, yet the realization of this potential is contingent upon how organizations adopt, integrate, and govern these technologies. While prior research has offered valuable insights into the performance effects, economic implications, and strategic mechanisms associated with artificial intelligence, much of this work remains quantitative or conceptual in nature. There is a growing need for in-depth qualitative insights that capture the lived experiences, interpretations, and strategic reasoning of industry practitioners who are directly involved in artificial intelligence adoption and implementation. Understanding how practitioners perceive opportunities, navigate challenges, and make sense of artificial intelligence in competitive contexts is essential for advancing both theory and practice. Against this backdrop, the present qualitative research is motivated by the need to explore artificial intelligence adoption for competitive advantage from the perspective of industry practitioners. By foregrounding practitioner insights, this study seeks to deepen understanding of the strategic, organizational, and contextual factors that shape artificial intelligence-driven competitive advantage in real-world settings. Such an approach not only complements existing empirical findings but also contributes to a more nuanced and practice-informed understanding of artificial intelligence as a strategic resource in contemporary competition (Wan & Zhao, 2025; Emon, 2025).
2. Literature Review
The idea of competitive advantage has always been central to understanding why some firms consistently outperform others, and the literature has long argued that this advantage emerges from the ability to create value in ways that competitors cannot easily imitate. Early strategic thinking framed competitive advantage as the outcome of deliberate positioning, cost leadership, or differentiation strategies that allow firms to sustain superior performance over time (Porter, 1985). However, as markets have become more dynamic and technology-driven, scholars have increasingly recognized that traditional sources of advantage are fragile and often short-lived. This realization has led to growing attention on digital technologies, particularly artificial intelligence, as critical enablers of new forms of advantage rooted in speed, learning, adaptability, and data-driven insight. Research on information technology and firm performance initially produced mixed findings, with early studies questioning whether investments in technology truly translated into competitive gains. Over time, however, scholars demonstrated that technology alone does not create value; rather, value emerges when technological resources are combined with organizational capabilities, managerial skills, and strategic intent (Barua et al., 1995; Bharadwaj, 2000; Emon, 2025). From this perspective, artificial intelligence represents a continuation and intensification of this logic. AI systems are powerful, but their strategic value depends heavily on how firms embed them into everyday practices, decision-making routines, and broader organizational systems. This view aligns closely with the resource-based theory, which argues that sustainable competitive advantage arises from resources that are valuable, rare, difficult to imitate, and embedded within firm-specific contexts (Grant, 1991; Emon & Chowdhury, 2025). Building on the resource-based view, the dynamic capabilities framework offers a particularly useful lens for understanding artificial intelligence adoption. Dynamic capabilities emphasize a firm’s ability to sense emerging opportunities and threats, seize those opportunities through timely investments, and continuously reconfigure resources to remain competitive in changing environments (Teece et al., 1997; Teece, 2007; Emon et al., 2025). Artificial intelligence strengthens each of these processes. Through advanced analytics and machine learning, firms can better sense market trends, customer behaviors, and operational inefficiencies. AI-supported tools help managers seize opportunities by improving forecasting, optimizing resource allocation, and supporting faster decision-making. At the same time, AI enables organizations to reconfigure processes and structures more fluidly, supporting ongoing adaptation rather than one-time transformation. The growing literature on digital transformation further reinforces the strategic importance of artificial intelligence. Digital transformation is widely understood as a deep and ongoing process through which organizations use digital technologies to reshape how they operate, create value, and compete (Verhoef et al., 2021; Emon, 2025). Within this broader transformation journey, artificial intelligence is often positioned as a key driver due to its ability to automate complex tasks, generate predictive insights, and support innovation across organizational boundaries. Empirical studies suggest that firms adopting AI as part of a coherent digital transformation strategy are more likely to experience improvements in efficiency, innovation outcomes, and overall firm performance (Kumar & Gupta, 2021; Wamba-Taguimdje et al., 2020). Importantly, these benefits are not immediate or automatic; they tend to emerge over time as organizations learn how to align AI capabilities with strategic goals and operational realities. Another important stream of literature highlights the role of information management and analytics capabilities in shaping competitive outcomes. Research consistently shows that firms with strong data management, analytics, and digital infrastructure capabilities are better positioned to extract value from emerging technologies (Mithas et al., 2011; Mikalef et al., 2019; Emon et al., 2025). Artificial intelligence builds on these foundations by enabling deeper analysis, real-time insights, and automated learning. Studies on big data analytics demonstrate that firms leveraging advanced analytical tools can improve supply chain coordination, enhance customer understanding, and support more informed strategic decisions (Rai et al., 2006; Gholami et al., 2018; Emon et al., 2025). AI intensifies these advantages by allowing organizations to move beyond descriptive insights toward predictive and prescriptive intelligence. Organizational agility emerges as a recurring theme in discussions of technology-enabled competitive advantage. Agility refers to the capacity of firms to respond quickly and effectively to changes in markets, technologies, and customer expectations. Prior research shows that digital technologies enhance agility by creating digital options and enabling rapid experimentation (Sambamurthy et al., 2003; Overby et al., 2006; Emon et al., 2025). Artificial intelligence further strengthens this capability by continuously monitoring environments, identifying patterns, and supporting adaptive responses. In fast-moving and uncertain environments, such AI-enabled agility can make the difference between firms that lead and those that lag behind. The literature also makes clear that technology adoption is deeply shaped by organizational culture and structure. Studies consistently find that cultures characterized by openness, learning, and collaboration are more likely to realize the strategic benefits of advanced technologies (Bock et al., 2012; Zhang & Tansuhaj, 2007). Artificial intelligence adoption, in particular, requires a willingness to experiment, trust data-driven insights, and rethink traditional roles and decision-making hierarchies. When organizations resist change or rely excessively on rigid structures, AI initiatives often fail to deliver meaningful competitive benefits, regardless of technical sophistication. Strategic alignment and governance play equally critical roles in determining AI outcomes. Research on information systems strategy highlights that firms perform better when technological initiatives are closely aligned with business objectives and supported by appropriate governance mechanisms (Chen & Shang, 2017; Chen et al., 2010; Emon et al., 2025). Artificial intelligence initiatives typically cut across functional boundaries and involve ethical, legal, and operational considerations, making governance especially important. Clear decision rights, accountability structures, and alignment between strategy and technology help firms reduce risks and increase the likelihood that AI investments contribute to sustained competitive advantage. Innovation-focused studies further emphasize artificial intelligence as a powerful catalyst for change. Digital innovation research argues that emerging technologies enable new combinations of resources that give rise to novel products, services, and business models (Fichman et al., 2014; Emon et al., 2025). Artificial intelligence plays a central role in data-driven business model innovation, allowing firms to personalize offerings, optimize pricing, and create new value propositions based on insights derived from data (Sorescu, 2017; Li & Wang, 2022; Emon et al., 2025). These innovations often generate differentiation advantages that are difficult for competitors to replicate, particularly when they are supported by proprietary data and continuous learning processes. Industry-level research illustrates how AI-driven competitive advantage manifests differently across contexts. In manufacturing, artificial intelligence supports Industry 4.0 initiatives by improving productivity, flexibility, and quality, thereby strengthening both cost and responsiveness advantages (Frank et al., 2019; Emon & Chowdhury, 2025). In healthcare, AI enhances diagnostic accuracy and operational efficiency, contributing to both competitive performance and societal value (Kshetri, 2018). In the public sector, AI adoption improves service delivery and decision-making, although the notion of competitive advantage takes a different form compared to private firms (Wirtz et al., 2020; Emon, 2025). These sectoral differences highlight that the value of artificial intelligence is highly contextual and shaped by institutional, regulatory, and market conditions. International business research adds further nuance by showing how digital and AI capabilities support global competitiveness. Firms with advanced digital infrastructures are better able to coordinate activities across borders, adapt to local market conditions, and leverage global knowledge networks (Azar & Ciabuschi, 2017; Rugman & Collinson, 2005; Emon et al., 2025). Artificial intelligence enhances these capabilities by enabling real-time data integration and analytics across geographically dispersed operations, supporting more informed and timely strategic decisions in complex international environments. Despite the growing body of research linking artificial intelligence to competitive advantage, scholars increasingly acknowledge that many questions remain unanswered. Much of the existing literature relies on quantitative methods that capture outcomes but offer limited insight into the processes, interpretations, and organizational dynamics underlying AI adoption. As digital transformation research suggests, firms progress through different levels of maturity, and the benefits of artificial intelligence tend to increase as organizations develop more sophisticated digital architectures and capabilities (Sousa & Rocha, 2019). This implies that AI-driven competitive advantage is not simply a function of adoption, but of learning, adaptation, and strategic integration over time. Overall, the literature paints a nuanced picture of artificial intelligence as a powerful yet complex driver of competitive advantage. AI does not automatically create superior performance; rather, its value emerges through the interaction of technology, strategy, culture, and capability development. While existing studies provide strong theoretical foundations and empirical evidence, they also point to the need for deeper, practice-oriented insights into how organizations actually experience and make sense of AI adoption. By focusing on human interpretations, organizational realities, and contextual factors, qualitative research can enrich current understanding and bridge the gap between abstract theory and lived managerial practice.
3. Research Methodology
This study adopted a qualitative research approach to explore how industry practitioners perceived and experienced the adoption of artificial intelligence as a source of competitive advantage. A qualitative design was considered appropriate because the research sought to capture rich, contextualized insights into practitioners’ interpretations, strategic reasoning, and lived experiences rather than to test predetermined hypotheses or measure relationships among variables. The study was guided by an interpretivist perspective, which assumed that meanings associated with artificial intelligence adoption were socially constructed and shaped by organizational contexts, managerial roles, and industry conditions. This approach enabled an in-depth understanding of how artificial intelligence was understood, implemented, and leveraged within real organizational settings. Data were collected through semi-structured, in-depth interviews with industry practitioners who had direct involvement in artificial intelligence-related initiatives within their organizations. Participants were selected using purposive sampling to ensure that they possessed relevant knowledge and practical experience related to AI adoption and strategic decision-making. The sample included managers, senior executives, technology leads, and strategy professionals from diverse industries such as manufacturing, services, retail, logistics, and technology-intensive sectors. This diversity was intentionally sought to capture a broad range of perspectives and to enhance the transferability of the findings across different organizational and industry contexts. Snowball sampling was also used to identify additional participants based on recommendations from initial interviewees, which helped to access knowledgeable practitioners who might otherwise have been difficult to reach. The interviews were conducted over a period of several months and were carried out either face-to-face or through online communication platforms, depending on participants’ availability and geographic location. An interview guide was used to ensure consistency across interviews while allowing sufficient flexibility for participants to elaborate on issues they considered most relevant. The questions focused on participants’ experiences with artificial intelligence adoption, perceived strategic motivations, organizational enablers and barriers, decision-making processes, and perceived impacts on competitive advantage and performance. Probing questions were used to clarify responses, explore underlying assumptions, and encourage participants to provide concrete examples from their organizational experiences. All interviews were conducted in a professional and conversational manner to build rapport and facilitate open and honest discussion. With participants’ informed consent, the interviews were audio-recorded and later transcribed verbatim to ensure accuracy and completeness of the data. Ethical considerations were carefully addressed throughout the research process. Participants were informed about the purpose of the study, their voluntary participation, and their right to withdraw at any stage without consequence. Anonymity and confidentiality were assured by removing identifying information from the transcripts and by using pseudonyms or general descriptors when reporting the findings. Data were stored securely and accessed only by the researchers to protect participants’ privacy. The data analysis followed a thematic analysis approach, which was conducted systematically and iteratively. The researchers first familiarized themselves with the data by reading and re-reading the transcripts to gain an overall understanding of participants’ narratives. Initial codes were then generated to capture meaningful segments of text related to artificial intelligence adoption, strategic intent, organizational processes, and competitive outcomes. These codes were both data-driven and informed by existing literature, allowing for the identification of emergent themes while remaining theoretically sensitive. The codes were subsequently reviewed, compared, and grouped into broader themes that reflected recurring patterns and shared meanings across participants’ accounts. Throughout the analysis, constant comparison was employed to examine similarities and differences across interviews, industries, and organizational roles. This process helped refine the themes and ensured that they were grounded in the data rather than driven by preconceived assumptions. Reflexivity was maintained during analysis, with the researchers critically reflecting on their own perspectives and potential biases to minimize their influence on data interpretation. Memos were used to document analytical decisions, emerging insights, and connections between themes, thereby enhancing the transparency and rigor of the analysis process. To enhance the trustworthiness of the study, several strategies were employed. Credibility was supported through prolonged engagement with the data and by seeking rich, detailed accounts from participants. Member checking was conducted with a subset of participants, who were invited to review summaries of the findings to confirm the accuracy and resonance of the interpretations. Transferability was addressed by providing thick descriptions of the research context, participants, and analytical process, enabling readers to assess the applicability of the findings to other settings. Dependability and confirmability were strengthened by maintaining a clear audit trail of data collection and analysis procedures and by systematically documenting methodological decisions. Overall, the qualitative methodology adopted in this study allowed for a nuanced and in-depth exploration of how industry practitioners experienced and made sense of artificial intelligence adoption for competitive advantage. By focusing on practitioners’ perspectives and organizational realities, the methodology provided a robust foundation for generating insights that are both theoretically meaningful and practically relevant.
4. Results and Findings
The results and findings of this qualitative study provide an in-depth and practice-oriented understanding of how industry practitioners experienced the adoption of artificial intelligence as a source of competitive advantage. Drawing from rich narratives shared by participants across diverse industries, the findings reveal that artificial intelligence adoption was not perceived as a single technological decision but rather as a complex, evolving journey shaped by strategic intent, organizational readiness, human judgment, and environmental pressures. Practitioners consistently described artificial intelligence as a transformative force that altered how their organizations thought, acted, and competed, while also emphasizing that the realization of competitive advantage depended heavily on how AI was embedded into everyday practices and decision-making routines.
Participants commonly began their accounts by reflecting on the motivations that initially drove their organizations to explore artificial intelligence. For many, competitive pressure served as a critical trigger, as firms faced intensifying rivalry, rising customer expectations, and shrinking margins. Artificial intelligence was seen as a means to remain relevant and resilient rather than as a purely experimental technology. Practitioners emphasized that AI adoption was often framed internally as a strategic necessity to survive and grow in increasingly data-driven markets. In several cases, organizations turned to AI after recognizing limitations in traditional decision-making approaches, particularly when dealing with complex, fast-moving environments where human intuition alone was no longer sufficient. This strategic framing shaped how resources were allocated and how AI initiatives were prioritized within the organization.
The themes presented in
Table 1 illustrate that practitioners perceived artificial intelligence as a strategic response to both external and internal pressures. Rather than adopting AI for its novelty, organizations sought clear strategic benefits such as differentiation, efficiency, and customer responsiveness. Participants highlighted that when AI initiatives were clearly linked to competitive goals, they gained stronger managerial support and organizational legitimacy. Conversely, projects that lacked strategic clarity often struggled to demonstrate value, reinforcing the importance of aligning AI adoption with overarching competitive objectives.
As AI initiatives progressed, practitioners frequently discussed the importance of organizational readiness in shaping adoption outcomes. Readiness was described as a combination of leadership commitment, cultural openness, data availability, and structural flexibility. Many participants noted that organizations underestimated the level of preparation required to successfully adopt artificial intelligence. In particular, the absence of clean, integrated data and the lack of internal analytical skills were cited as major obstacles during early stages of implementation. Practitioners emphasized that organizations that invested time in building foundational capabilities were better positioned to translate AI investments into competitive benefits.
The insights summarized in
Table 2 indicate that organizational readiness played a decisive role in determining whether artificial intelligence initiatives succeeded or stalled. Practitioners consistently described leadership commitment as a signal that AI was a strategic priority rather than a peripheral experiment. Cultural openness encouraged employees to trust data-driven insights and engage with AI tools, while structural flexibility allowed organizations to adapt workflows around new technologies. When these elements were absent, AI initiatives often remained isolated pilot projects with limited competitive impact.
Another dominant theme emerging from the findings related to the evolving role of decision-making. Participants described how artificial intelligence reshaped managerial decision processes by augmenting human judgment rather than replacing it. AI tools were frequently used to provide recommendations, forecasts, and scenario analyses, which managers then evaluated using their contextual knowledge and experience. This hybrid approach was viewed as a major source of competitive advantage, as it combined the speed and accuracy of algorithms with human intuition and strategic understanding.
The themes in
Table 3 reflect practitioners’ belief that artificial intelligence enhanced decision quality without diminishing managerial agency. Participants noted that AI-enabled insights allowed them to move faster and act with greater confidence, particularly in high-stakes or uncertain situations. At the same time, human oversight was considered essential to interpret results, question assumptions, and account for contextual factors that algorithms could not fully capture. This balance between automation and judgment was widely viewed as critical to sustaining competitive advantage.
Participants also emphasized the role of artificial intelligence in driving operational efficiency and process optimization. Across industries, AI applications were used to automate repetitive tasks, optimize resource allocation, and improve process consistency. These efficiency gains freed up human resources to focus on higher-value activities such as innovation, relationship management, and strategic planning. Practitioners highlighted that while cost reduction was an important outcome, the real advantage lay in increased organizational focus and agility.
The findings in
Table 4 suggest that operational efficiency served as a foundational benefit that supported broader competitive outcomes. Practitioners viewed efficiency gains not as an end in themselves but as an enabler of strategic flexibility and innovation. By reducing operational burdens, AI allowed organizations to respond more quickly to market changes and pursue growth opportunities more effectively.
Customer-related advantages emerged as another prominent theme. Participants described how artificial intelligence enabled deeper understanding of customer behavior, preferences, and needs. AI-driven analytics were used to personalize offerings, anticipate demand, and enhance customer engagement. These capabilities were widely perceived as critical for differentiation in markets where customers expected tailored experiences and rapid responsiveness.
The themes outlined in
Table 5 indicate that artificial intelligence strengthened competitive advantage by enabling more meaningful and personalized customer interactions. Practitioners emphasized that AI-driven personalization enhanced customer satisfaction and loyalty, which in turn contributed to long-term performance and market positioning. Organizations that effectively leveraged customer data through AI were seen as more agile and customer-centric than their competitors.
Innovation and business model evolution were also frequently discussed. Participants described how artificial intelligence opened new possibilities for product development, service delivery, and revenue generation. In some cases, AI enabled incremental improvements, while in others it supported more radical changes to how value was created and captured. Practitioners viewed innovation driven by AI as a continuous process rather than a one-time outcome.
The findings summarized in
Table 6 suggest that artificial intelligence acted as a catalyst for sustained innovation. Practitioners noted that AI encouraged experimentation and learning, allowing organizations to adapt their offerings and business models over time. This capacity for continuous innovation was widely regarded as a critical source of competitive advantage in rapidly evolving markets.
Despite the benefits, participants were candid about the challenges they faced during AI adoption. Resistance to change, skills gaps, and concerns about data quality and trust were commonly reported. Practitioners emphasized that these challenges were not purely technical but deeply organizational and human in nature. Addressing them required communication, training, and change management efforts alongside technological investments.
The themes in
Table 7 highlight that competitive advantage from AI was not guaranteed and depended on how organizations managed adoption challenges. Practitioners stressed that ignoring human and cultural issues often undermined AI initiatives, regardless of technological sophistication. Successful organizations were those that proactively addressed resistance, invested in skills development, and built trust in AI systems.
Leadership and governance emerged as critical enablers throughout the AI adoption journey. Participants emphasized that clear strategic direction, ethical oversight, and accountability structures helped guide AI initiatives and manage risks. Leaders played a key role in articulating the purpose of AI adoption and in fostering an environment where experimentation was encouraged but aligned with organizational values.
The insights in
Table 8 indicate that leadership and governance were central to sustaining competitive advantage through AI. Practitioners viewed strong leadership as essential for balancing innovation with control and for ensuring that AI adoption aligned with long-term strategic objectives rather than short-term gains.
Another important finding related to organizational learning. Participants described AI adoption as a learning journey that reshaped skills, mindsets, and routines over time. Organizations that treated AI initiatives as opportunities for learning rather than fixed projects were better able to adapt and extract value. Continuous learning was seen as essential for keeping pace with technological advances and evolving competitive conditions.
The themes in
Table 9 show that learning and capability development were foundational to long-term competitive advantage. Practitioners emphasized that AI adoption strengthened organizations not only technologically but also cognitively, enabling them to think more analytically and strategically.
Participants also discussed how the competitive impact of AI unfolded over time. Immediate gains were often operational, while more strategic advantages emerged gradually as organizations refined their use of AI and integrated it more deeply into core processes. This temporal dimension shaped expectations and influenced how success was evaluated.
The insights in
Table 10 suggest that competitive advantage from AI was cumulative rather than instantaneous. Practitioners stressed the importance of patience and persistence, noting that organizations that abandoned AI initiatives too early often failed to realize their full strategic potential.
Finally, participants reflected on how artificial intelligence reshaped their understanding of competition itself. AI adoption blurred industry boundaries, intensified rivalry, and raised the bar for performance and responsiveness. Practitioners perceived that AI not only changed what firms did, but also how they defined success and competitiveness.
The themes in
Table 11 indicate that artificial intelligence fundamentally altered competitive logic. Practitioners described a shift toward continuous adaptation, where competitive advantage was less about static positioning and more about ongoing learning and responsiveness enabled by AI.
The findings reveal that adopting artificial intelligence for competitive advantage was a multifaceted and dynamic process shaped by strategic intent, organizational readiness, human judgment, and continuous learning. Practitioners experienced AI as a powerful enabler of efficiency, innovation, and customer-centricity, while also recognizing the challenges associated with change, skills, and trust. Competitive advantage emerged not simply from adopting AI, but from embedding it deeply into decision-making, culture, and strategy over time. The results underscore that artificial intelligence reshaped both organizational capabilities and competitive mindsets, positioning firms to compete in more adaptive, data-driven, and resilient ways.
5. Discussion
The findings of this study provide a nuanced understanding of how artificial intelligence adoption unfolds in practice and how it contributes to competitive advantage beyond purely technical or efficiency-driven explanations. The experiences shared by industry practitioners suggest that artificial intelligence is best understood as a strategic and organizational transformation rather than a discrete technological investment. Participants consistently emphasized that competitive advantage emerged when artificial intelligence was aligned with strategic intent, embedded into decision-making routines, and supported by organizational readiness. This reinforces the idea that the value of artificial intelligence lies not in the technology itself, but in how organizations learn to integrate it into their ways of thinking, working, and competing. One of the most important insights from the findings is the central role of human judgment in AI-enabled decision-making. Practitioners did not view artificial intelligence as a replacement for managerial expertise, but as a powerful complement that enhanced speed, accuracy, and confidence in decisions. The combination of algorithmic insights and human experience allowed organizations to navigate uncertainty more effectively and to make more informed strategic choices. This hybrid decision-making approach appeared to be a key source of competitive advantage, particularly in complex and fast-changing environments where purely data-driven or purely intuitive decisions were seen as insufficient. The findings suggest that organizations that actively cultivated this balance were better positioned to leverage artificial intelligence in meaningful and sustainable ways. The discussion also highlights that organizational readiness was a decisive factor shaping AI outcomes. Leadership commitment, cultural openness, and data infrastructure were repeatedly identified as enablers that determined whether artificial intelligence initiatives moved beyond experimentation to deliver tangible strategic value. Where leaders clearly articulated the purpose of AI adoption and signaled long-term commitment, employees were more willing to engage with new tools and processes. Conversely, when AI initiatives were introduced without sufficient preparation or communication, resistance and skepticism limited their impact. This underscores that competitive advantage from artificial intelligence is deeply social and organizational, emerging through shared understanding, trust, and collective learning. Another key theme emerging from the findings relates to the temporal nature of AI-driven competitive advantage. Practitioners emphasized that while some benefits, such as operational efficiency and process automation, were realized relatively quickly, more strategic advantages developed gradually over time. Enhanced decision quality, customer-centric capabilities, and innovation outcomes emerged as organizations accumulated experience and refined their use of AI. This gradual evolution shaped how success was perceived and measured, highlighting the importance of patience and persistence. Organizations that expected immediate transformative results were more likely to become discouraged, whereas those that viewed AI adoption as a long-term journey were more successful in sustaining competitive gains. The findings also suggest that artificial intelligence reshaped how organizations understood competition itself. Rather than viewing competitive advantage as a static position, practitioners described a shift toward continuous adaptation, learning, and responsiveness. Artificial intelligence raised performance expectations and accelerated competitive dynamics, making ongoing improvement a necessity rather than a choice. In this sense, AI adoption contributed to a more dynamic form of competitiveness, where advantage was continually created and renewed through data-driven insight, experimentation, and strategic agility. Challenges associated with artificial intelligence adoption further enriched the discussion by revealing the limits of purely technical solutions. Resistance to change, skills shortages, data quality concerns, and trust in AI outputs were common obstacles that shaped adoption trajectories. Practitioners emphasized that addressing these challenges required deliberate change management efforts, investment in learning, and transparent communication. Organizations that treated these challenges as integral to the adoption process, rather than as side issues, were better able to sustain momentum and extract value from AI initiatives. This highlights that competitive advantage from artificial intelligence depends as much on managing people and processes as on managing technology.
6. Conclusion
This study concludes that adopting artificial intelligence for competitive advantage is not a singular technological decision but a continuous organizational journey shaped by strategy, people, and learning. The findings demonstrate that artificial intelligence becomes a source of competitive advantage when it is purposefully aligned with organizational goals, embedded into decision-making processes, and supported by a culture that values experimentation and data-driven thinking. Rather than replacing human expertise, artificial intelligence strengthens managerial capabilities by enhancing insight, speed, and confidence in complex and uncertain environments. Competitive advantage, therefore, emerges from the effective combination of human judgment and intelligent systems. The study also highlights that the benefits of artificial intelligence unfold over time, evolving from initial operational improvements to deeper strategic and innovative outcomes. Organizations that approached AI adoption with patience and a long-term perspective were better able to translate early efficiency gains into sustained differentiation, adaptability, and customer-centric value creation. At the same time, the challenges encountered during adoption underscore that technological capability alone is insufficient. Leadership commitment, organizational readiness, skill development, and trust in AI systems were shown to be critical in shaping successful outcomes. Overall, the conclusion reinforces that artificial intelligence reshapes not only how organizations operate but also how they compete and define success. Firms that view artificial intelligence as a core strategic resource and invest in continuous learning and integration are more likely to build resilient and adaptive competitive advantages. By capturing industry practitioners’ lived experiences, this study contributes a grounded and human-centered understanding of artificial intelligence adoption, offering insights that are relevant for both theory and practice in an increasingly AI-driven competitive landscape.
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Table 1.
Strategic Motivations for AI Adoption.
Table 1.
Strategic Motivations for AI Adoption.
| Theme |
Description |
| Competitive Pressure |
AI was adopted to respond to intense market competition and avoid strategic stagnation. |
| Strategic Differentiation |
Organizations pursued AI to create unique value propositions and stand out from competitors. |
| Efficiency and Cost Optimization |
AI was viewed as a tool to streamline operations and reduce inefficiencies. |
| Customer-Centric Strategy |
AI adoption was driven by the need to better understand and serve customers. |
Table 2.
Organizational Readiness Factors.
Table 2.
Organizational Readiness Factors.
| Theme |
Description |
| Leadership Commitment |
Senior management support enabled resource allocation and risk-taking. |
| Data Infrastructure |
Availability and quality of data influenced AI effectiveness. |
| Cultural Openness |
Willingness to experiment and learn supported AI adoption. |
| Structural Flexibility |
Flexible processes facilitated integration of AI solutions. |
Table 3.
AI-Enabled Decision-Making Practices.
Table 3.
AI-Enabled Decision-Making Practices.
| Theme |
Description |
| Data-Driven Insights |
AI provided evidence-based recommendations for decisions. |
| Human Judgment |
Managers retained final decision authority. |
| Speed of Decisions |
AI reduced time required for analysis and response. |
| Risk Reduction |
Predictive models supported more informed risk assessment. |
Table 4.
Operational Efficiency Outcomes.
Table 4.
Operational Efficiency Outcomes.
| Theme |
Description |
| Process Automation |
AI reduced manual and repetitive tasks. |
| Resource Optimization |
Improved allocation of time, labor, and capital. |
| Consistency and Accuracy |
Reduced errors in operational processes. |
| Time Reallocation |
Employees focused on strategic and creative work. |
Table 5.
Customer-Centric Advantages.
Table 5.
Customer-Centric Advantages.
| Theme |
Description |
| Personalization |
Customized products, services, and communications. |
| Customer Insights |
Deeper understanding of customer behavior patterns. |
| Responsiveness |
Faster responses to customer needs and feedback. |
| Relationship Strengthening |
Improved customer trust and loyalty. |
Table 6.
AI-Driven Innovation Outcomes.
Table 6.
AI-Driven Innovation Outcomes.
| Theme |
Description |
| Product Innovation |
Enhanced or new offerings supported by AI insights. |
| Service Innovation |
Improved service delivery and automation. |
| Business Model Evolution |
New ways of creating and capturing value. |
| Continuous Experimentation |
Ongoing testing and refinement of ideas. |
Table 7.
Challenges in AI Adoption.
Table 7.
Challenges in AI Adoption.
| Theme |
Description |
| Resistance to Change |
Employee skepticism and fear of job displacement. |
| Skills and Talent Gaps |
Limited internal expertise in AI and analytics. |
| Data Quality Issues |
Incomplete or unreliable data sources. |
| Trust in AI Outputs |
Concerns about transparency and reliability. |
Table 8.
Leadership and Governance Roles.
Table 8.
Leadership and Governance Roles.
| Theme |
Description |
| Strategic Vision |
Clear articulation of AI’s role in competitiveness. |
| Ethical Oversight |
Responsible and transparent use of AI. |
| Accountability |
Defined ownership of AI initiatives. |
| Change Leadership |
Guiding employees through transformation. |
Table 9.
Organizational Learning and Capability Development.
Table 9.
Organizational Learning and Capability Development.
| Theme |
Description |
| Skill Development |
Upskilling employees in data and AI literacy. |
| Learning-by-Doing |
Knowledge gained through experimentation. |
| Cross-Functional Collaboration |
Shared learning across departments. |
| Knowledge Retention |
Embedding insights into organizational routines. |
Table 10.
Time-Based Competitive Effects.
Table 10.
Time-Based Competitive Effects.
| Theme |
Description |
| Short-Term Gains |
Efficiency and process improvements. |
| Medium-Term Benefits |
Enhanced decision-making and customer value. |
| Long-Term Advantage |
Sustained differentiation and adaptability. |
| Continuous Evolution |
Ongoing refinement of AI use. |
Table 11.
Redefining Competitive Advantage through AI.
Table 11.
Redefining Competitive Advantage through AI.
| Theme |
Description |
| Elevated Performance Standards |
Higher expectations for speed and accuracy. |
| Data as a Strategic Asset |
Data-driven capabilities as a core advantage. |
| Adaptive Competition |
Continuous adjustment to market changes. |
| Strategic Mindset Shift |
Viewing AI as integral to strategy. |
|
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