Keywords = Meta-Synthesis
Number of Articles: 2
A Conceptual Model of Cognitive Warfare in the Context of Modern Warfare: A Meta-Synthesis Approach

A Conceptual Model of Cognitive Warfare in the Context of Modern Warfare: A Meta-Synthesis Approach

Volume 28, Issue 3, Winter 2026, Pages 79-170

https://doi.org/10.22034/ssq.2025.469702.4183

saeid madadi, norullah norani

Abstract Introduction
Historical analysis indicates that confrontation between opposing forces has been a persistent and enduring feature of human societies. Over time, warfare has evolved from rudimentary tactics into increasingly complex and multidimensional systems. First- through fourth-generation wars, each characterized by distinct features, have collectively shaped the evolution of warfare. Since the early 1990s, however, human beings and social systems have emerged as central elements of conflict, giving rise to a novel cognitive dimension within the traditional domains of war.
Cognitive warfare fundamentally constitutes a battlefield of minds, where the primary goal is to manipulate and transform individuals’ perceptual frameworks, beliefs, values, and decision-making processes. In this arena, humans function not only as targets but also as instruments of strategic influence. By leveraging modern media, social engineering, cyber operations, and advanced technologies, cognitive warfare enables actors to impose their will on adversaries without direct physical confrontation.
Despite the increasing significance of cognitive warfare in military, political, and societal contexts, the literature remains fragmented, often addressing narrow aspects of the phenomenon. To date, no comprehensive conceptual framework has been established to systematically define its key characteristics. Accordingly, the present study employs a meta-synthesis approach to integrate and interpret existing research, aiming to develop a comprehensive conceptual model that elucidates the core dimensions of cognitive warfare and provides a clear operational understanding within the sphere of modern warfare.
Methodology
To provide a holistic interpretation of cognitive warfare’s conceptual dimensions, this study adopts a meta-synthesis methodology based on the Mark W. Lipsey and David B. Wilson framework. The research process included the following stages:

Formulation of research questions
Systematic literature review
Identification and screening of relevant studies
Data extraction from selected studies
Qualitative analysis and synthesis of findings
Assessment of reliability and validity (quality control)
Presentation of results (utilizing Shannon entropy)

During the systematic review, scholarly articles published between 2017 and 2023 were retrieved from reputable national and international databases. Of 92 studies, 31 were ultimately selected as the primary data sources for the meta-synthesis.
Data from these studies were coded and categorized as either domestic or international. Extracted codes were then integrated using a comparative approach and organized into conceptual categories. In the analytical phase, Shannon entropy was employed to evaluate the relative importance of each code and the extent of support it received within the literature.
The study’s validity was ensured through both quantitative and qualitative measures. Quantitatively, the Kappa coefficient was calculated at 0.684, indicating substantial inter-coder agreement. Qualitatively, an independent expert conducted a secondary review. Additional criteria, including procedural transparency and the quality of the selected studies, were considered to strengthen the trustworthiness of the findings.
Findings and Discussion
The meta-synthesis yielded 12 core categories, 35 secondary codes, and 144 primary codes, forming the basis of the proposed conceptual model of cognitive warfare. The model addresses twelve defining dimensions: characteristics, objectives, tools, operational levels, methods and strategies, indicators of implementation, consequences, countermeasures, target audiences, domains of conflict, related concepts, and national approaches to cognitive warfare.
Shannon entropy analysis revealed that certain components—such as “management and transformation of societal perception,” “influence on the general public,” “use of social media,” and “societal polarization”—exhibit the highest significance in the literature. These were identified as key conceptual elements of cognitive warfare.
Integrating the findings of the 31 studies, the following definition of cognitive warfare is proposed:
Cognitive warfare is a coordinated set of covert, virtual, fluid, and software-mediated actions that leverage “information as content” and “modern media as tools” to intentionally control and modify human cognitive capacities (mind, emotions, and subconscious). Its objectives include erasing historical memory, altering behavioral patterns, and ultimately imposing will upon the political and social systems of the target society.
Conclusion
The evolution of warfare demonstrates a persistent inclination toward imposing will upon adversaries without direct confrontation, a trend that has shifted from physical domains to informational and cognitive arenas. Cognitive warfare, as the advanced manifestation of this trend, utilizes information, modern media, and sophisticated technologies to deliberately influence perception, decision-making, and behavior within target societies, undermining social capital and public trust.
The conceptual model developed in this study provides a clear and practical framework for understanding cognitive warfare and lays the groundwork for further research on related concepts, countermeasures, and threat assessment. The findings indicate that cognitive warfare has become a strategic priority for major powers, playing a pivotal role in shaping political, social, and cultural systems.
Theoretically, this study represents a significant contribution to the literature by systematically conceptualizing the multidimensional nature of cognitive warfare within a structured, multi-level model using a meta-synthesis approach. Effective understanding and counteraction of this phenomenon require moving beyond a solely security-focused perspective and recognizing cognitive warfare as inherently interdisciplinary, integrating insights from cognitive science, social psychology, communication studies, technology, and political science.
From a practical perspective, the findings highlight the need to foster cognitive literacy at societal and governance levels. Key strategies include developing resilient networks against information manipulation, strengthening social trust, enhancing critical thinking education, and establishing ethical frameworks for the application of cognitive technologies.
Ultimately, the proposed conceptual model provides a validated framework to guide future research and serves as a foundation for national policy formulation in cognitive security, complementing existing cyber and psychological security strategies.

Strategic Decision-Making in the Age of Artificial Intelligence

Strategic Decision-Making in the Age of Artificial Intelligence

Volume 27, Issue 4, Spring 2025, Pages 177-186

https://doi.org/10.22034/srq.2024.474465.4192

Mohsen Riahi, tahmoores hashangholipoor thyasory, Ali Divandari, Abdolhosein Kalantari

Abstract Introduction
Over the past decade, artificial intelligence (AI) and big data have evolved into groundbreaking paradigms, influencing virtually every aspect of human life. Significant advancements in data processing capabilities, a dramatic drop in storage costs, and the exponential growth of data have paved the way for the development of digital tools, turning digital transformation into a reality. From 2000 to 2017, data processing power increased by a staggering 10,000-fold, while storage costs plummeted by 3,000 times. Furthermore, by 2025, the volume of generated data is projected to grow more than 90-fold. These rapid advancements have made strategic decision-making a key area of focus in management and governance.
Strategic decision-making has always been significant due to its complexity, uniqueness, and long-term, often irreversible, consequences. With the advent of big data and AI, decision-making has transitioned from intuition-based practices to data-driven processes. New tools now allow organizations to reduce biases, enhance accuracy, and manage uncertain environments more effectively. However, many organizations and governments are yet to harness the full potential of these technologies, partly because of the absence of comprehensive theoretical frameworks.
Based on this, the study aims to present an integrated framework for data-driven strategic decision-making by exploring how AI and big data influence this process. By synthesizing previous research findings, it addresses existing gaps in knowledge and provides practical guidance for managers and policymakers. This research emphasizes that data-driven decision-making is not merely a technical tool—it represents a shift in power structures and decision-making mindsets, enabling improved governance and organizational performance.
Methodology
This study uses the meta-synthesis approach, a qualitative method for integrating and interpreting findings from prior research. The method facilitates the identification of patterns, differences, and overlaps, helping to establish cohesive theoretical frameworks. The framework follows the seven-step model of Margarete Sandelowski and Juliet Barroso, which includes formulating research questions, reviewing the literature, identifying and selecting studies, extracting information, analyzing and synthesizing findings, conducting quality control, and presenting results.
Research questions focused on identifying the framework and key elements of data-driven strategic decision-making. Relevant studies were sourced from leading databases, such as Scopus, Web of Science, and Emerald, using keywords including "strategic decision-making," "artificial intelligence," "big data," and "data-driven." The study focused on English-language research from 2010 to 2024. Out of 88 initially identified studies, 36 were selected after removing duplicates and reviewing titles, abstracts, and methodologies. Data extracted from these studies underwent open coding, yielding 102 initial codes. These were categorized into 25 subcategories and four main themes: conditions, features, dimensions, and outcomes. To ensure quality, the CASP tool was used for validity checks, and reliability was measured using the Kappa index, scoring 0.69. This rigorous approach enabled the development of a robust and comprehensive framework.
Discussion and Results
The study's findings are categorized into four main themes:

Conditions: These include prerequisites for effective data-driven decision-making, such as access to high-quality data (characterized by volume, accuracy, timeliness, and variety) and advanced infrastructure (hardware and software). Organizational restructuring is essential to integrate data analytics processes, and cross-functional collaboration is necessary for data collection and interpretation. Building technical expertise to develop AI models and fostering a data-driven culture through employee training are also critical. Regulatory frameworks, including periodic evaluations and risk management, play a vital role in ensuring process quality.
Features: The core characteristics of data-driven decision-making include bias reduction through objective data, the ability to predict trends and behaviors, and the discovery of hidden patterns using AI. High-speed data processing, accuracy, and transparency contribute to reliable decision-making. Additionally, increased resolution—offering a more precise understanding of issues—is a defining feature of this approach.
Dimensions: This theme addresses the structural and contextual elements of the decision-making process. Balancing intuition with data analysis is particularly important in complex, turbulent environments. Structured data significantly enhance the quality of decisions, whereas unstructured data limit the effectiveness of technical tools. Collective intelligence, inspired by natural behaviors, enables the integration of group knowledge. Striking a balance between human creativity and AI computational power, alongside building stakeholder trust through interpretability and user-focused design, are other critical dimensions.
Outcomes: Data-driven decision-making reduces uncertainty, identifies new opportunities and threats, and offers solutions to complex challenges. It improves processes through automation, increases speed and accuracy, enhances organizational performance, and creates sustainable competitive advantages. At a national level, it has the potential to transform governance structures and improve outcomes.

Conclusion
Through the meta-synthesis approach, this research provides a comprehensive framework for data-driven strategic decision-making, organized into four key themes: conditions, features, dimensions, and outcomes. The findings highlight that implementing this approach requires robust infrastructure, high-quality data, a strong data-driven culture, and cross-departmental collaboration. Features such as bias reduction, predictability, speed, and precision differentiate this method from traditional approaches. Structural elements like the balance between human and AI involvement and the role of collective intelligence emphasize the importance of combining human judgment with computational power. The outcomes include reduced uncertainty, enhanced performance, and sustained competitive advantages.
However, the study acknowledges limitations, including its exclusive focus on strategic decision-making, the emerging nature of the topic, and potential biases in study selection. Overall, data-driven strategic decision-making is not optional—it is a necessity for governments and organizations in the digital era. Future research should explore other aspects of strategic management and consider cultural and regional influences to deepen our understanding of this phenomenon. This framework offers managers and policymakers practical tools to harness AI and big data to improve governance and decision-making.