Strategic Frameworks for Organizational Readiness and Competitive Advantage in the Adoption of Quantum Computing Technologies Across Global Financial and Technology Enterprises
Quantum computing is emerging as a potentially transformative technology with the capacity to redefine computational boundaries in finance and technology-intensive industries. However, the strategic adoption of quantum computing remains uneven, constrained by technological uncertainty, organizational readiness, and significant capability gaps. This paper examines strategic frameworks for organizational readiness and competitive advantage in the adoption of quantum computing technologies across global financial and technology enterprises. Drawing on theories of dynamic capabilities, technological innovation, and strategic management, the study conceptualizes quantum adoption as a multi-dimensional process encompassing technological infrastructure, human capital, governance structures, and ecosystem integration. The paper synthesizes existing research to identify critical readiness factors and proposes a strategic framework that aligns organizational capabilities with the evolving quantum computing landscape. By emphasizing the role of strategic foresight, cross-functional integration, and adaptive governance, this research contributes to understanding how organizations can transition from experimental engagement to sustained competitive advantage through quantum-enabled innovation.
Quantum computing is emerging as a potentially transformative technology with the capacity to redefine computational boundaries in finance and technology-intensive industries. However, the strategic adoption of quantum computing remains uneven, constrained by technological uncertainty, organizational readiness, and significant capability gaps. This paper examines strategic frameworks for organizational readiness and competitive advantage in the adoption of quantum computing technologies across global financial and technology enterprises. Drawing on theories of dynamic capabilities, technological innovation, and strategic management, the study conceptualizes quantum adoption as a multi-dimensional process encompassing technological infrastructure, human capital, governance structures, and ecosystem integration. The paper synthesizes existing research to identify critical readiness factors and proposes a strategic framework that aligns organizational capabilities with the evolving quantum computing landscape. By emphasizing the role of strategic foresight, cross-functional integration, and adaptive governance, this research contributes to understanding how organizations can transition from experimental engagement to sustained competitive advantage through quantum-enabled innovation.
Purpose The financial services sector is on the brink of a substantial transformation as quantum computing (QC) promises unprecedented speeds for processing data, particularly in the areas of accounting, risk management, trading and fraud detection. Such cutting-edge technology transforms how financial institutions handle large volumes of financial data and intricate transactions by leveraging qubits to conduct complex computations exponentially faster than classical computers. However, the crucial question here is as follows: Are financial firms ready to adopt quantum technology? This study aims to examine QC adoption intention and technological readiness for QC adoption (TRQA) among accounting and auditing firms (AAFs). Design/methodology/approach This study used an online validated and reliable survey to estimate an integrated model of technology–organization–environment-technology acceptance model-resource dependence theory. It gathered responses from AAFs and analyzed them using partial least squares structural equation modeling. Findings The research revealed that QC adoption intention in the financial services sector was fostered by vendor ecosystem, competitive pressure, government support, relative advantage, top management support and perceived usefulness. In contrast, ease of use failed to report such a result. Behavioral adoption intention was found to be a positive driver for TRQA. The inclination to embrace QC in the accounting and finance sector could encourage efforts to build the necessary skills and resources, thereby improving technological preparedness and enabling organizations to fully leverage the advantages of quantum technology. Results also showed that organizational innovation climate-moderated interaction of QC adoption intention on firms’ TRQA was significant. Originality/value To the best of the authors’ knowledge, this attempt is likely among the first to empirically investigate technological readiness for the adoption of QC. It not only advances scholarly conversations on QC but also delivers actionable strategies for stakeholders to boost businesses’ readiness for this emerging revolutionary technology.
Quantum computing poses an existential threat to public-key cryptography, with Shor's algorithm capable of breaking RSA and elliptic curve systems once cryptographically relevant quantum computers (CRQCs) emerge. While post-quantum cryptography (PQC) offers algorithmic solutions, organizational readiness extends beyond technical implementation to encompass governance, interoperability, and adaptive capacity. This review synthesizes the quantum threat landscape, evaluates NIST-standardized PQC algorithms through quantitative performance analysis, and examines global standardization dynamics. We introduce a novel Quantum Readiness Maturity Model (QRMM) that enables organizations to assess and advance their preparedness across five dimensions: cryptographic infrastructure, governance frameworks, sectoral adaptation, interoperability resilience, and strategic agility. Applying this model to finance, telecommunications, and defense sectors reveals systematic gaps in migration planning and crypto-agility. Our analysis demonstrates that quantum readiness requires treating cryptographic transformation as a strategic enterprise capability rather than a purely technical upgrade. The proposed framework provides actionable pathways for practitioners while identifying critical research directions in hybrid deployment strategies, post-quantum PKI architectures, and algorithmic diversity.
Quantum computing is becoming operationally relevant, presenting latent risks and opportunities for enterprise organisations. The timetable for large-scale quantum advantage is uncertain, yet cybersecurity, compliance, systems architecture and innovation are increasingly becoming evident. Data protected under current encryption standards may become vulnerable to quantum-enabled decryption, and regulatory expectations are beginning to reflect long-term cryptographic risks. This white paper defines quantum readiness as a strategic enterprise discipline focused on assessing exposure, preparing internal capabilities, and enabling structured engagement. It defines six capability domains where investment is required: cryptographic transition, workforce development, governance alignment, compliance frameworks, innovation acceleration, and ecosystem partnerships. Each domain is a lever for managing risk and enabling future participation in quantum-related developments. A phased implementation path is proposed based on three stages: Assess, Strategise and Operationalise. This model enables organisations to initiate internal diagnostics and planning, followed by capability building, pilot activity, and integration into governance structures. The approach supports proportional investment while maintaining flexibility in response to emerging technological and regulatory signals. Rather than requiring immediate adoption of quantum technologies, quantum readiness calls for precise planning, institutional awareness, and measured progression. To be better positioned to manage disruption and capture future value as the technology matures, enterprise leaders must act early to define their posture and build foundational capability.
Quantum computing is emerging as a transformative general-purpose technology with the potential to redefine entrepreneurial innovation across data-intensive and optimization-driven industries. By exploiting quantum mechanical principles such as superposition, entanglement, and quantum parallelism, quantum computers offer new computational capabilities that may surpass classical systems in solving complex problems. This paper examines quantum computing as a catalyst for entrepreneurial innovation, focusing on the strategic opportunities, market disruptions, and ethical challenges associated with quantum-enabled business models in finance, supply chain optimization, and healthcare startups. Through a cross-sectoral analysis, the study explores how startups can leverage hybrid quantum–classical approaches to accelerate decision-making, enhance predictive accuracy, and unlock novel value propositions. At the same time, it addresses critical concerns related to technological uncertainty, unequal access, data security, and responsible innovation. The paper argues that while quantum computing presents significant disruptive potential, its sustainable integration into entrepreneurial ecosystems requires strategic foresight and ethical governance frameworks alongside technological adoption.
Quantum computing represents a paradigm shift in computational capability with profound implications for global technological supremacy, economic competitiveness, and national security. This comprehensive survey synthesizes the current state of quantum computing development across major powers and introduces the Quantum Strategic Competitiveness Index (QSCI) as a novel analytical framework for quantifying national quantum capabilities. Through systematic analysis of publicly available data from government reports, research publications, and policy documents, we assess quantum competitiveness across five dimensions: investment intensity, research quality, innovation output, human capital, and implementation readiness. Our analysis reveals that China leads in absolute public investment (approximately $15 billion as reported by multiple sources [11,13]), while the United States maintains superiority in research quality (34% of top-cited papers [12]) and private sector engagement (44% of global funding [12]). The European Union demonstrates strong public-academic collaboration with over €11 billion committed [14, 15]. We provide rigorous mathematical foundations of quantum computing principles, analyze recent experimental achievements including Google's Willow processor achieving below-threshold error correction [4], and examine cryptographic vulnerabilities requiring immediate post-quantum migration. Economic impact analysis with uncertainty quantification projects quantum computing generating $950
This article examines the transformative impact of quantum computing integration within cloud-based platforms, focusing on the architectural frameworks, security implications, and enterprise applications. Through analysis of current industry developments and technological capabilities, this article explores how quantum-classical hybrid systems are reshaping traditional cloud computing paradigms. It investigates critical aspects including post-quantum cryptography, data processing optimization, and resource virtualization while addressing implementation challenges faced by organizations adopting quantum cloud solutions. It indicates that successful quantum cloud integration requires a strategic approach encompassing infrastructure adaptation, workforce development, and security protocol enhancement. This article contributes to the emerging field of quantum cloud computing by providing a comprehensive framework for enterprise adoption and highlighting the technological prerequisites for effective implementation. It concludes by presenting strategic recommendations for organizations preparing to leverage quantum capabilities within their cloud infrastructure, emphasizing the importance of scalable and secure hybrid architectures