This research primarily aims to investigate the impact of organizational implants on knowledge transmission, process innovation and security integration in intricate supply chains.
The research utilizes a mixed-method approach, employing a stratified sampling strategy to get a representative sample of 1,284 enterprises from various sectors within the logistics industry within the European Union. Data were gathered by computer-assisted web interviewing (CAWI) and analysed utilizing structural equation modelling (SEM) to evaluate hypotheses concerning cognitive congruence, process diffusion and security integration.
The results indicate that while task interdependence clearly improves face-to-face communication, excessive cognitive congruence can hinder process innovation, resulting in what the article terms “cognitive rigidity.” The study suggests that achieving a balance between cognitive congruence and cognitive flexibility is crucial to improving the safety diffusion and integration process.
This study presents an innovative conceptual framework that synthesizes cognitive congruence, cognitive flexibility and cognitive rigidity to examine their combined influence on knowledge transfer and process dissemination throughout supply chains. It presents cognitive stiffness as a boundary condition, contesting the conventional belief that more cognitive congruence is invariably advantageous.
1. Introduction
In the intricacies of supply chain management, collaboration between businesses frequently sparks a myriad of innovations and novel solutions, especially when customers and logistics service providers (LSPs) align their efforts (Alshurideh et al., 2023). The challenge businesses face in disseminating these innovations across diverse consumer bases (Pal, 2017; Pereira et al., 2017), drives our investigation, with a particular emphasis on the role of human connection in scaling best practices to new clients.
The effectiveness of a supply chain hinges significantly on human interactions, both within an organization and externally (Saikouk et al., 2021; Schorsch et al., 2017; Yoo and Cheong, 2021). We posit that an organization’s human resources are a vital, yet often underappreciated, asset in ensuring organizational resilience – defined here as the ability to maintain stability and adaptiveness in the face of various pressures (Wieland, 2021; Xu et al., 2021). We explore how well-trained and intuitively aware employees contribute significantly to a company’s success, particularly in maximizing organizational resources and capabilities (Shang et al., 2016; Sherman et al., 2020; Zhou et al., 2017; Żywiołek and Schiavone, 2021b).
This study also examines the diffusion of information and new ideas online, a process pivotal for improving efficiency and increasing profitability in the context of LSP client networks (Boiko et al., 2019). However, we acknowledge that not all processes are easily transferable. The adaptation of each process can be nuanced, necessitating a careful balance between standardization and customization (Cui et al., 2021).
In this context, the current research examines the employment of on-site LSP specialists and their role in assisting with the diffusion of procedures. Our study pays specific attention to the following research questions:
How do organizational implants facilitate the transfer of tacit and explicit knowledge across complex supply chain networks, and what contextual factors influence their effectiveness in promoting process innovation?
How does this shared knowledge affect their ability to expedite the process while ensuring security?
The answers to these study questions are found through five hypotheses such as H1. Task interdependence leads to increased employee communication; H2. Task cohesion supports cognitive symmetry in a beneficial way; H3. Cognitive match causes the process to spread to all elements of the supply chain; H4. Increased cognitive compatibility results from direct communication within the chain; H5. Creating a security system within the chain leads to a greater sense of collective security. Decision-makers narrow down the relevant literature to frame the hypotheses.
We structure the remainder of the paper as follows: Section 2 develops the theoretical background and hypotheses. Section 3 discusses hypothesis formulation, Section 4 presents the measurement model and sample size, and Section 5 delivers the results and findings, followed by implications and scientific implications. Section 6 provides conclusions and recommendations. This research topic is chosen because of the urgent necessity to comprehend the function of organizational implants in an era of increasingly fragmented and technologically sophisticated supply chains. Nevertheless, the current research does not provide a thorough comprehension of the operational dynamics of these players inside the micro-dynamics of supply chains.
This study fills this gap by incorporating two complementary theoretical frameworks: the Knowledge-Based View (KBV) and innovation diffusion theory. The study integrates these viewpoints to establish a solid basis for investigating the function of implants in promoting process innovation and improving the adaptability of supply chain operations. This method enhances comprehension of the strategic importance of implants while providing practical guidance for companies aiming to improve knowledge transfer and innovation dissemination in complex, digital supply chains.
Based on the text, there is a clear connection between communication, cognitive compatibility, and cognitive adjustment within the context of supply chain management. Here’s how these concepts are interconnected:
Communication: Effective communication is highlighted as critical for reducing uncertainty and ambiguity among participants in the information and knowledge exchange process within supply chains. It ensures that all chain elements receive the same information at the same time, facilitating collaboration and coordination among supply chain partners.
Cognitive Compatibility: The text discusses cognitive matching or cognitive symmetry, which refers to the similarity in understanding of tasks and processes between two parties within the company. This shared understanding enables the exchange of information and the development of new, better processes.
The text does not explicitly mention the term “cognitive adjustment,” but it implies the concept in discussions about the adaptation and dissemination of knowledge and processes within supply chains. This process of cognitive adjustment enables individuals to align their perspectives and actions with those of other stakeholders, leading to increased cognitive compatibility and improved collaboration.
Cognitive Compatibility: The text discusses cognitive matching or cognitive symmetry, which refers to the similarity in understanding of tasks and processes between two parties within the company. Thus, cognitive compatibility refers to the extent to which individuals or groups share similar mental models, perceptions, and interpretations of information and tasks.
The text does not explicitly mention the term “cognitive adjustment,” but it implies the concept in discussions about the adaptation and dissemination of knowledge and processes within supply chains. As individuals or groups engage in communication and exchange knowledge, they may need to adjust their cognitive frameworks or mental models to accommodate new information or understandings. This process of cognitive adjustment enables individuals to align their perspectives and actions with those of other stakeholders, leading to increased cognitive compatibility and improved collaboration.
2. Theoretical background and hypotheses
This section explores the theoretical underpinnings essential for understanding the dynamics of knowledge and information exchange in the SCM. We examine the strategic role of knowledge, confront the challenges in knowledge management, assess evolving coordination methods, and integrate key theories to elucidate the influence of on-site representatives in communication and process diffusion.
2.1 Knowledge as a strategic competitive asset
An organization uses knowledge management as a process to identify, organize, store, and share the knowledge and experiences of its employees. Knowledge is a strategic resource that enables organizations to differentiate themselves and adapt to complex and changing environments (Anand et al., 2023). We can classify knowledge into two main types: information and know-how. This duality encompasses the readily codifiable information and the more elusive know-how, each playing a vital role in organizational success. Information serves as the foundation for strategic decision-making, while know-how drives innovation and practical application. This distinction between information and know-how presents unique challenges and opportunities. Organizations must skillfully balance and leverage both forms of knowledge, ensuring adaptability and long-term success in rapidly changing markets.
2.2 Challenges in knowledge management and exchange
Knowledge management and exchange are pivotal activities for organizations striving to maintain competitiveness and efficiency in today’s dynamic and uncertain environment. This process involves navigating various challenges, including knowledge fragmentation across functional units, resistance to change and sharing among employees, difficulties in capturing and transferring tacit knowledge, information overload, and ensuring content quality and reliability (Ferreira et al., 2020). Overcoming these hurdles necessitates a holistic and strategic approach to knowledge management, transcending mere information flow and fostering a culture of collaboration and learning (Brătianu, 2022). Addressing these complexities is integral to the competitive strategy of organizations and requires innovative methods to transform challenges into growth and innovation opportunities (Hammervoll and Bø, 2010).
2.3 Revisiting traditional knowledge coordination methods
Knowledge coordination methods are the ways of organizing, aligning, and integrating the knowledge resources and activities of different actors in a supply chain, such as suppliers, manufacturers, distributors, and customers (Silvestre et al., 2023). As knowledge often spills over organizational boundaries, due to globalization, digitalization, and collaboration of business processes, effective coordination and transfer of knowledge are essential for maintaining operational efficiency and service excellence. This requires innovative approaches to knowledge management, particularly in supply chain contexts where the interplay of information and collaboration is intricate and vital for success (Golroudbary and Zahraee, 2015).
2.4 Integrating KBV and innovation diffusion
The integration of the Knowledge-Based View (KBV) and innovation diffusion theory provides a nuanced framework crucial for understanding the complexities of knowledge development and transfer in supply chains. The KBV underscores the importance of knowledge as a foundational source of competitive advantage in supply chains (Zhu et al., 2023). However, this integration within the supply chain also presents a number of challenges. However, the empirical evidence on the outcomes of supply chain integration is mixed (Hamdi et al., 2023) Moreover, it involves managing knowledge and innovation processes across different organizational boundaries and dealing with boundary spanners, and overcoming the barriers and conflicts that may arise due to diverse factors (Caccamo et al., 2023; Janssen and Abbasiharofteh, 2022).
2.5 On-site employees
LSP employees have a unique knowledge base on logistical procedures, as well as a direct insight into clients' operations (Zhang et al., 2020; Zhao et al., 2011; Tseng et al., 2019). These elements can help make customized offerings that address the issues facing the host organization’s issues (Umar and Wilson, 2021; Mullet et al., 2021). Implanted workers can better comprehend the role of a service provider and the actions needed to facilitate the transition of new or changed processes to other applications, as they are aware of LSP processes and opportunities (Novais et al., 2019). Communication, an activity that develops, organizes, and transmits knowledge, also helps to connect people and build relationships (Lu, 2021).
2.6 Communication challenges and solutions
Communication is a complex and challenging element in knowledge exchange. Accurate transmission and reception of communication signals can impede the spread of processes (Whitehead et al., 2019). Implants, or on-site representatives, with their in-depth operational knowledge and familiarity with current processes, play a pivotal role in navigating these communication barriers. By ensuring the appropriate level of security for information and knowledge sharing procedures, enterprises can foster participation in these activities without fear of jeopardizing the business or a specific process (Kembro et al., 2017; Khan et al., 2022; Shang et al., 2016).
2.7 Interdependence in resource exchange
Interdependence is a key concept in supply chain management, especially in the context of information and knowledge exchange. The seamless exchange of resources, such as knowledge and information, among different entities in the supply chain, is crucial for the efficiency of operations. This requires a well-coordinated approach to resource management, where communication plays a vital role (Moon, 2017; Żywiołek and Schiavone, 2021a; Shang et al., 2024). Implants safeguard the company’s resources and offer valuable knowledge and information to the client. Interdependence may depend on the organizational tasks and the frequency of information and knowledge exchange (Raveendran et al., 2020).
2.8 Innovation diffusion theory
Innovation diffusion theory offers a framework for comprehending the dissemination of new ideas and practices inside and between organizations (Yuan et al., 2023; García-Avilés, 2020; Türkeș et al., 2024). The theory delineates essential aspects that affect the acceptance of innovations, including the relative advantages, compatibility, and complexity of the invention. However, most research in this field has focused primarily on external dissemination patterns and macro-level adoption processes (Türkeș et al., 2024; Yuan et al., 2023). Research on the micro-level dynamics of cognitive alignment within teams and its impact on the effective dissemination of innovative procedures and technologies is insufficient (Hu et al., 2024).
2.9 Cognitive congruence
Recent studies indicate that cognitive aspects, particularly cognitive congruence, remain inadequately examined in relation to supply chain innovation (He et al., 2024; Hohenstein et al., 2015). Cognitive congruence denotes the degree to which team members possess analogous mental models and interpretative frameworks (Salamah et al., 2024; Bentahar et al., 2023). The present study posits that, although cognitive alignment is generally advantageous for communication and decision-making, excessive cognitive congruence may result in “cognitive rigidity,” hindering the team’s ability to adapt to new processes.
The amalgamation of Knowledge-Based View (KBV) and innovation diffusion theory provides a thorough framework for analysing the dissemination of knowledge and innovation throughout intricate supply chain networks (García-Avilés, 2020). This work connects these theories to fill a gap in comprehending the micro-dynamics of internal diffusion and enhances the broader discussion cognitive alignment and innovation management.
2.10 Highlight recent research trends
Cognitive capacities, which refer to the mental processes that allow people and teams to perceive and react to complex inputs, are essential for successful coordination, knowledge management, and adaptability in dynamic situations (Barusman and Habiburrahman, 2022; Le et al., 2024). Nonetheless, despite increasing interest, several previous studies predominantly concentrate on static notions such as cognitive congruence, neglecting the wider array of cognitive qualities including cognitive flexibility and cognitive alignment. Recent research shows that we need a bigger picture approach to fully understand how these skills affect making decisions and spreading new ideas in supply chains (Demyanova et al., 2023; Żywiołek and Schiavone, 2021b).
Cognitive flexibility denotes the capacity of people and teams to modify their mental frameworks and adapt their thought processes in reaction to changing external circumstances (Uddin, 2021). This competency is crucial for companies in industries marked by swift technological evolution, where rigid cognitive alignment may hinder the organization’s capacity to execute new plans efficiently. Cognitive congruence, which enhances mutual understanding and effective communication, can foster stability but may result in “cognitive rigidity” if too prioritized (Carrington et al., 2019).
3. Hypothesis formulation
The research gap can be identified as follows:
Limited focus on the role of on-site specialists: While the text discusses the strategic employment of on-site specialists or organizational implants in facilitating knowledge exchange and innovation diffusion within supply chains, it does not delve deeply into the specific mechanisms through which these specialists operate. There could be a significant research gap in understanding the precise functions, interactions, and effectiveness of on-site specialists in disseminating knowledge and processes across supply chains.
Insufficient exploration of communication challenges and solutions: While the text recognizes communication as a crucial component of knowledge exchange, it only skims the surface of communication challenges and solutions. A more comprehensive investigation into obstacles to communication, tactics for surmounting them, and the influence of successful communication on the dissemination of knowledge could yield valuable insights. Absence of Empirical Evidence and Comparative analysis: Despite making references to various studies and theories, the text lacks empirical data to substantiate the suggested hypotheses and theoretical frameworks. Undertaking empirical studies to authenticate the proposed hypotheses and juxtaposing the results with existing literature would enhance the research’s credibility and help bridge the research gap.
Limited consideration of contextual factors: The text discusses knowledge exchange and innovation diffusion in a general sense without considering the contextual factors that may influence these processes in specific industries or supply chain environments. Exploring how industry-specific factors shape knowledge management practices and innovation diffusion strategies could provide a deeper understanding of the research problem.
According to research, as people’s interdependence grows, communication becomes more effective during bilateral exchanges. We propose that the interdependence of employees in exchanging information and knowledge leads to the following outcomes:
Task interdependence leads to increased employee communication.
Cognitive matching is the similarity in understanding by two parties of tasks and processes in the company. This shared understanding of the company’s capabilities enables the exchange of information and, potentially, the development of new, better processes.
A previous study established a strong link between task interdependence and communication, showing that when tasks are more dependent on each other, people need to talk to each other more often to coordinate complex tasks (Smith and Smith Lee, 2020). This study expands the theory by concentrating on the logistics sector, where employees frequently work in distributed teams. Practical ramifications need that managers establish established communication protocols to enable regular face-to-face meetings, notwithstanding geographical separation of staff. To ensure alignment and mitigate information silos, logistics managers could implement virtual communication technologies such as video conferencing, supplemented by quarterly in-person meetings.
Because of the differences in contexts and points of view between distributed supply chain organizations and company employees, a common task of interdependence can help generate and extend a common understanding among associates. Consequently, we propose the following hypothesis:
Consistency of tasks favourably supports cognitive matching (so-called symmetry).
Knowledge sharing in the supply chain is crucial since it might be beneficial to learn how other businesses view market or operate. This approach allows businesses to view the corporate environment as a “friend” rather than a rival. This reliance may also lead to changes in the methods utilized to handle problems and problems that customers may encounter (Varadarajan et al., 2021; Pereira et al., 2021) noted in the innovation diffusion model that innovations had limited benefits until their introduction could disperse sufficiently. Finding ways to accelerate diffusion should increase the potential for innovation or process improvement to benefit the organization (Poles, 2013; Dominguez et al., 2018).
In the location of the organizational implant, these transformed procedures can offer the client a better service. There is a foundation or common ground to work from. In-person communication is essential for fostering cognitive congruence, which refers to the degree to which team members possess analogous mental models and interpretative frameworks (Sobhanmanesh et al., 2023; Yoo and Cheong, 2021). The theory of cognitive alignment theoretically supports this idea, asserting that direct interpersonal communication clarifies ambiguities, promotes shared understanding, and reduces cognitive distance among team members (Hu et al., 2024; Arce-López et al., 2024). This is especially crucial in supply chains, where many functional units must perform cohesively. Managers should prioritize creating conditions that promote direct communication, such as co-location tactics during essential project phases or the formation of cross-functional task teams. Consequently, we propose the following hypothesis:
Cognitive matching causes process knowledge to spread throughout the supply chain.
Communication is critical for reducing uncertainty and ambiguity among participants in the information and knowledge exchange process. However, the actual effectiveness of communication in assisting you in getting things done varies depending on the mode of communication used. Direct participation in operational discussions for process development may enable the organization to extend cognitive congruence with the implant in relation to the host of the company’s logistics processes at the customer’s facility. Greater overall cognitive compatibility of the company’s processes and opportunities should result from increased condition awareness of the distribution and structure of the resources used, as well as the company’s capabilities with one customer. The correlation between cognitive congruence and process diffusion is intricate, since excessive congruence may result in “cognitive rigidity,” causing teams to oppose the adoption of new practices (Johnson et al., 2018). Consequently, although cognitive alignment is typically advantageous, this study presents a boundary condition, positing that there exists an optimal degree of congruence that maximizes the dissemination of novel processes while minimizing resistance. Consequently, we propose the following hypothesis:
Increased cognitive compatibility results from direct communication within the supply chain.
The protection of information and resource assets is essential to reduce the risk and estimated losses between members of the exchange process in the supply chain. The actual effectiveness of information and knowledge protection depends on the security tools used but also on the application of the same procedures for dealing with the threat. Analysing estimated risks and possible threats to common elements in the supply chain requires trust from stakeholders. This idea is based on the notion of innovation diffusion, which asserts that successful process diffusion results in the standardization of security protocols, thereby diminishing vulnerabilities throughout the network. In supply chains, process diffusion guarantees uniform adherence to security requirements across all units, reducing the risks linked to inconsistent implementation. Therefore, the following hypothesis is proposed:
Creating a security system within the chain leads to a greater sense of collective security among the chain members.
The connection between effective communication, cognitive compatibility, and cognitive adjustment within supply chains also intersects with security. Effective communication fosters transparency and trust among supply chain stakeholders, which is crucial for addressing security concerns such as the protection of sensitive information, intellectual property, and critical assets. Additionally, cognitive compatibility and adjustment help everyone understand security protocols and risk-reduction strategies, which makes it easier for everyone to work together to protect the supply chain from possible threats and weaknesses. Process diffusion is essential for creating a cohesive strategy for supply chain security, as it guarantees that all participants in the chain possess a shared comprehension of risk management methods. This will standardize security protocols and cultivate a shared feeling of responsibility and vigilance throughout the supply chain. The described relationships are illustrated in Figure 1.
The flow begins with a box labeled “communication among employees”, present inside a blue-shaded rectangle. From “communication among employees”, three right-pointing arrows arise and point to three text boxes stacked vertically and labeled from top to bottom as follows: “task interdependence”, “cognitive congruence”, and “cognitive matching”. These three boxes are present inside a yellow-shaded rectangle, and all three arrows are labeled “H 1”. A double-headed arrow labeled “H 2” is present between “task interdependence” and “cognitive congruence”. Likewise, another double-headed arrow labeled “H 3” is present between “cognitive congruence” and “cognitive matching”. On the right side, a green-shaded rectangular box is shown with a text box inside it labeled “task dependence on the supply chain”. From this box, three arrows extend rightward and point to “task interdependence”, “cognitive congruence”, and “cognitive matching”. All three arrows are labeled “H 4”. From “task dependence on the supply chain”, a right-pointing arrow labeled “H 5” arises and enters an orange-shaded rectangle and points to a text box labeled “security”. At the bottom of the figure, a color-coded legend clarifies each section: the blue color labeled “Face-to-face communication”, the yellow labeled “Information and knowledge management”, the green labeled “Supply chain management”, and the orange labeled “Supply chain security”.Depicts the theoretical model examined security of resources in the supply chain
The flow begins with a box labeled “communication among employees”, present inside a blue-shaded rectangle. From “communication among employees”, three right-pointing arrows arise and point to three text boxes stacked vertically and labeled from top to bottom as follows: “task interdependence”, “cognitive congruence”, and “cognitive matching”. These three boxes are present inside a yellow-shaded rectangle, and all three arrows are labeled “H 1”. A double-headed arrow labeled “H 2” is present between “task interdependence” and “cognitive congruence”. Likewise, another double-headed arrow labeled “H 3” is present between “cognitive congruence” and “cognitive matching”. On the right side, a green-shaded rectangular box is shown with a text box inside it labeled “task dependence on the supply chain”. From this box, three arrows extend rightward and point to “task interdependence”, “cognitive congruence”, and “cognitive matching”. All three arrows are labeled “H 4”. From “task dependence on the supply chain”, a right-pointing arrow labeled “H 5” arises and enters an orange-shaded rectangle and points to a text box labeled “security”. At the bottom of the figure, a color-coded legend clarifies each section: the blue color labeled “Face-to-face communication”, the yellow labeled “Information and knowledge management”, the green labeled “Supply chain management”, and the orange labeled “Supply chain security”.Depicts the theoretical model examined security of resources in the supply chain
This model illustrates the hypothesized relationships between five key constructs in supply chain networks:
Task interdependence (H1): Represents the reliance of employees and organizational units on one another for task completion and information sharing.
Face-to-face communication (H2): Refers to the impact of direct interpersonal interactions on knowledge transfer and cognitive alignment.
Cognitive congruence (H3): Denotes shared understanding and mental alignment among employees, which facilitates effective information exchange.
Process diffusion (H4): Indicates the extent to which newly developed processes spread across various elements of the supply chain.
Supply chain security (H5): Represents the collective sense of security and the protection of shared resources within the supply chain.
Solid arrows show direct hypothesized relationships between constructs, while dashed arrows indicate indirect or moderating effects. The blue and yellow and green and orange elements are combined into two separate groups because they are closely related. The first group refers to information and knowledge while the second group concerns security in the supply chain.
Table 1 describes the research model’s diagram, the main elements that have relationships, and the detailed elements that make up each part of the model.
Summary of constructions and measuring security of resources in the supply chain
| Mean | SD | ||
|---|---|---|---|
| Interdependence of tasks in the organization (H1) | |||
| I1 | In order to complete the task assigned to me, I need to obtain information and exchange knowledge from within my own organization | 5.38 | 1.76 |
| I2 | To complete my work, I rely on information from colleagues within my own organization | 5.29 | 1.61 |
| I3 | I must collaborate closely with colleagues in my own organization to ensure the security of the information and knowledge I create | 5.31 | 1.82 |
| Communication is essential for the coherence of enterprise tasks (H2) | |||
| E1 | I meet with colleagues on a regular basis to discuss information and knowledge sharing processes and ensure their safety | 4.89 | 1.56 |
| E2 | I personally exchange ideas with people in my own company | 4.61 | 1.63 |
| E3 | I contact team members of companies in the supply chain to exchange information and knowledge | 4.75 | 1.71 |
| Compatibility in cognition | |||
| C1 | The supply chain ideas I share are well understood (H3) | 4.37 | 1.52 |
| C2 | My company is constantly considering how to improve the use of logistics knowledge gained through supply chain knowledge sharing | 4.24 | 1.49 |
| C3 | As part of the supply chain, the knowledge required to create logistics processes is simple to implement in my company | 4.18 | 1.54 |
| Dissemination of the process within the supply chain as a sign of cognitive compatibility (H4) | |||
| D1 | My company implements similar processes or services with other supply chain companies | 4.38 | 1.58 |
| D2 | My company has identified opportunities to replicate its logistics operations | 4.42 | 1.63 |
| D3 | My company’s replication of processes and services to support chain elements is slow | 4.34 | 1.71 |
| Security (H5) | |||
| S1 | My company implements common solutions for information protection and knowledge exchange in the supply chain, chain elements communicate with one another about potential threats | 4.81 | 1.86 |
| S2 | In order to protect its own information and knowledge, my company supports the elements entering the chain, such as security training | 4.93 | 1.92 |
| S3 | The companies in the chain inform each other about the risks related to the exchange of knowledge | 4.79 | 1.95 |
| Mean | SD | ||
|---|---|---|---|
| Interdependence of tasks in the organization ( | |||
| I1 | In order to complete the task assigned to me, I need to obtain information and exchange knowledge from within my own organization | 5.38 | 1.76 |
| I2 | To complete my work, I rely on information from colleagues within my own organization | 5.29 | 1.61 |
| I3 | I must collaborate closely with colleagues in my own organization to ensure the security of the information and knowledge I create | 5.31 | 1.82 |
| Communication is essential for the coherence of enterprise tasks ( | |||
| E1 | I meet with colleagues on a regular basis to discuss information and knowledge sharing processes and ensure their safety | 4.89 | 1.56 |
| E2 | I personally exchange ideas with people in my own company | 4.61 | 1.63 |
| E3 | I contact team members of companies in the supply chain to exchange information and knowledge | 4.75 | 1.71 |
| Compatibility in cognition | |||
| C1 | The supply chain ideas I share are well understood ( | 4.37 | 1.52 |
| C2 | My company is constantly considering how to improve the use of logistics knowledge gained through supply chain knowledge sharing | 4.24 | 1.49 |
| C3 | As part of the supply chain, the knowledge required to create logistics processes is simple to implement in my company | 4.18 | 1.54 |
| Dissemination of the process within the supply chain as a sign of cognitive compatibility ( | |||
| D1 | My company implements similar processes or services with other supply chain companies | 4.38 | 1.58 |
| D2 | My company has identified opportunities to replicate its logistics operations | 4.42 | 1.63 |
| D3 | My company’s replication of processes and services to support chain elements is slow | 4.34 | 1.71 |
| Security ( | |||
| S1 | My company implements common solutions for information protection and knowledge exchange in the supply chain, chain elements communicate with one another about potential threats | 4.81 | 1.86 |
| S2 | In order to protect its own information and knowledge, my company supports the elements entering the chain, such as security training | 4.93 | 1.92 |
| S3 | The companies in the chain inform each other about the risks related to the exchange of knowledge | 4.79 | 1.95 |
Note(s): All items are scored on a seven-point Likert scale, with 1 representing “strongly disagree” and 7 representing “strongly agree”
Source(s): Authors’ own work
4. Creating measurement and sample
We developed an online survey to assess appropriate designs through a variety of reflective elements (Liao et al., 2017). We consider features according to their significance levels. Given that variables are considered context (Klimas et al., 2022), our large-scale study was conducted in one specific national and industry context. The research team identified existing scales that describe the tasks of information and knowledge exchange in the chain, indicating interdependence and cognitive congruence. A preliminary draft of the survey was created and reviewed by academic researchers and three industry experts, all of whom were familiar with interesting topics. The experts' feedback ensured the survey’s representativeness, transparency, content relevance, and authenticity. The study was conducted in February 2020 and was based on data CAWI data collection techniques; it was an online form with a link. This form makes it impossible to submit the survey blank or partially completed, because it must be completed in order to enter the next parts, thus preventing questions from being omitted.
The approach selected is appropriate for the research objectives, as it corresponds with methodologies utilized in analogous studies on knowledge management and supply chain innovation. Stratified sampling according to firm size is a conventional method for guaranteeing the representativeness of a varied industrial population, as evidenced by prior research in logistics and supply chain studies (Hair et al., 2017). The adoption of structural equation modelling (SEM), a sophisticated statistical method, enhances the study’s ability to examine intricate correlations among many constructs. Research conducted by Hair et al. (2019) has underscored the importance of substantial sample sizes for structural equation modelling (SEM) to guarantee the validity and reliability of theoretical model testing (Hair et al., 2017, 2019).
Representatives from the logistics industry, ranging from local carriers to air suppliers, were included in the sample in the EU. We selected a representative sample of 1,500 companies (sample ≈ 124,000 according to the Central Statistical Office) using a stratified sampling technique based on the company size criterion. The choice of this number was informed by the ideas of ensuring enough statistical accuracy and minimizing sampling error. In quantitative research, this sample size is sufficient to identify moderate to large effects with enough statistical power (>0.80), hence improving result dependability and facilitating sophisticated statistical analysis (e.g. structural equation modelling). All 1,500 companies that participated received an email with a link to the survey. A total of 1,284 responses were received, representing an initial response rate of 85.6%. Table 1 shows the obtained measurement positions, as well as the averages and standard deviations for each position.
To develop the measurement model, he used confirmatory factor analysis to identify each of the five constructs of interest to us. Table 2 summarizes the findings. The measurement model’s 2 score was 158.18 (d = 46). The comparative fit index (CFI) that resulted was 0.93. The measurement model also produced an RMSEA of 0.11. The respective confidence intervals are 0.093 and 0.074.
Measurement model
| Indicators | Standardized weight | t-value | SE | ρC |
|---|---|---|---|---|
| Interdependence within an organization (I) | 0.883 | |||
| I1 | 0.842 | 48.21 | 0.027 | |
| I2 | 0.927 | 51.79 | 0.024 | |
| I3 | 0.824 | 49.27 | 0.019 | |
| Communication is essential for the enterprise’s operation (E) | 0.914 | |||
| E1 | 0.934 | 53.17 | 0.026 | |
| E2 | 0.861 | 51.42 | 0.034 | |
| E3 | 0.791 | 49.73 | 0.029 | |
| Compatibility in cognition (C) | 0.864 | |||
| C1 | 0.837 | 63.12 | 0.037 | |
| C2 | 0.715 | 51.68 | 0.028 | |
| C3 | 0.843 | 54.37 | 0.038 | |
| Dissemination of the process (D) | 0.814 | |||
| D1 | 0.867 | 61.82 | 0.033 | |
| D2 | 0.935 | 64.72 | 0.035 | |
| D3 | 0.918 | 49.37 | 0.016 | |
| Security (S) | 0.912 | |||
| S1 | 0.921 | 57.18 | 0.019 | |
| S2 | 0.725 | 52.48 | 0.017 | |
| S3 | 0.718 | 53.67 | 0.018 | |
| Indicators | Standardized weight | t-value | SE | ρC |
|---|---|---|---|---|
| Interdependence within an organization (I) | 0.883 | |||
| I1 | 0.842 | 48.21 | 0.027 | |
| I2 | 0.927 | 51.79 | 0.024 | |
| I3 | 0.824 | 49.27 | 0.019 | |
| Communication is essential for the enterprise’s operation (E) | 0.914 | |||
| E1 | 0.934 | 53.17 | 0.026 | |
| E2 | 0.861 | 51.42 | 0.034 | |
| E3 | 0.791 | 49.73 | 0.029 | |
| Compatibility in cognition (C) | 0.864 | |||
| C1 | 0.837 | 63.12 | 0.037 | |
| C2 | 0.715 | 51.68 | 0.028 | |
| C3 | 0.843 | 54.37 | 0.038 | |
| Dissemination of the process (D) | 0.814 | |||
| D1 | 0.867 | 61.82 | 0.033 | |
| D2 | 0.935 | 64.72 | 0.035 | |
| D3 | 0.918 | 49.37 | 0.016 | |
| Security (S) | 0.912 | |||
| S1 | 0.921 | 57.18 | 0.019 | |
| S2 | 0.725 | 52.48 | 0.017 | |
| S3 | 0.718 | 53.67 | 0.018 | |
Source(s): Authors’ own work
5. Results and discussions
To begin, convergent validity was determined by examining standardized factor loadings for each item as well as t-values for each coefficient. The lowest t-value was 11.03, indicating that measurement items for each construct had convergent validity. The study estimate of the mean extracted variance (AVE) for each construct was used to assess discriminant validity (Alavi et al., 2020). We compared the AVEs to the square of the correlations between each pair of variables to ensure they exceeded the square of the correlations between the variables. Table 3 displays all AVE estimates and correlation squares.
Average variance extracted and squared correlations
| Average variance extracted | I-O task interdependence | I-O face-to-face communication | Cognitive congruence | Process diffusion | Security | |
|---|---|---|---|---|---|---|
| Average variance extracted | 0.826 | |||||
| I-O task interdependence | 0.729 | 1.000 | ||||
| I-O face-to-face communication | 0.654 | 0.276 | 1.000 | |||
| Cognitive congruence | 0.718 | 0.097 | 0.207 | 1.000 | ||
| Process diffusion | 0.653 | 0.028 | 0.186 | 0.571 | 1.000 | |
| Security | 0.527 | 0.074 | 0.209 | 0.482 | 0.617 | 1.000 |
| Average variance | I-O task interdependence | I-O face-to-face communication | Cognitive congruence | Process diffusion | Security | |
|---|---|---|---|---|---|---|
| Average variance | 0.826 | |||||
| I-O task interdependence | 0.729 | 1.000 | ||||
| I-O face-to-face communication | 0.654 | 0.276 | 1.000 | |||
| Cognitive congruence | 0.718 | 0.097 | 0.207 | 1.000 | ||
| Process diffusion | 0.653 | 0.028 | 0.186 | 0.571 | 1.000 | |
| Security | 0.527 | 0.074 | 0.209 | 0.482 | 0.617 | 1.000 |
Source(s): Authors’ own work
We used reliability to assess the internal consistency of each construct. The findings indicate that the scales used to measure the constructs are reliable. The variables between each pair of hidden layers ranged from 1.00 to 1.17, indicating that multicollinearity should not have an adverse effect on the model (Hair et al., 2012, 2019).
With the help of statistics, we can look into the quadratic correlations for endogenous variables and the effect sizes for each predicted variable in the study. We use Cohen’s f2 to display effect sizes, with 0.02, 0.15, and 0.35 representing tiny, medium, and large effect sizes, respectively (Cohen, 2013). We display effect sizes to demonstrate the predicted impact of each variable on the result, while avoiding the risk of overstating the significance of the association due to the limited sample size. The p-value fails to indicate the significance of the test results, potentially leading to incomplete inferences about the theoretical relationships between the variables (Golroudbary and Zahraee, 2015; Khan et al., 2021). Table 4 lists the findings of this analysis. The findings demonstrate that task interdependence inside the organization accounts for roughly 29% of the variance in face-to-face interactions within the organization, with an f2 of 0.19 indicating a medium influence. The interdependence of tasks within an organization and direct communication account for over 38% of the variance in cognitive congruence. The findings also show that cognitive congruence and the mean impact together account for roughly 43% of the process diffusion variance. According to the findings, the diffusion variance for protection is 52%.
Displays the results of the hypothesis testing (1)
| Hypothesis | Relationship | Std. β | t-value | SE |
|---|---|---|---|---|
| H1 | I-O task interdependence → I-O face-to-face communication | 0.45 | 9.07 | 0.05 |
| H2 | I-O face-to-face communication → Cognitive congruence | 0.15 | 2.83 | 0.06 |
| H3 | Cognitive congruence → Cognitive Matching | 0.28 | 6.11 | 0.04 |
| H4 | Cognitive congruence → Process diffusion | 0.41 | 8.61 | 0.07 |
| H5 | Process diffusion → Security | 0.65 | 15.12 | 0.03 |
| Hypothesis | Relationship | Std. β | t-value | SE |
|---|---|---|---|---|
| I-O task interdependence → I-O face-to-face communication | 0.45 | 9.07 | 0.05 | |
| I-O face-to-face communication → Cognitive congruence | 0.15 | 2.83 | 0.06 | |
| Cognitive congruence → Cognitive Matching | 0.28 | 6.11 | 0.04 | |
| Cognitive congruence → Process diffusion | 0.41 | 8.61 | 0.07 | |
| Process diffusion → Security | 0.65 | 15.12 | 0.03 |
| Endogenous construct | R2 |
|---|---|
| I-O face-to-face communication | 0.29 |
| Cognitive congruence | 0.38 |
| Process diffusion | 0.43 |
| Security | 0.52 |
| Endogenous construct | R2 |
|---|---|
| I-O face-to-face communication | 0.29 |
| Cognitive congruence | 0.38 |
| Process diffusion | 0.43 |
| Security | 0.52 |
Note(s): RMSEA = 0.08; CFI = 0.95; χ2 = 147.70; df = 50
Source(s): Authors’ own work
We also considered the relationship between direct intra-organizational and protective communication, as well as the potential indirect impact of cognitive congruence. We evaluated mediation using the Preacher and Hayes (Wasserstein and Lazar, 2016; Ren et al., 2019) bootstrapping method. The first stage in this strategy is to show that there is a significant direct relationship between protection and intra-organizational elements. The findings show that this link is important (p = 0.32; t = 7.04).
To assess the indirect effect, we then included cognitive congruence as a mediation variable. The t-value is 6.31, and the intermediate effect is 0.22. We then determined the factored variance (VAF) with a value of 0.95 by dividing the intermediate effect (0.29) by the overall effect (0.32). Given that the VAF exceeds 0.80, we can assert the support for full mediation (Hair et al., 2012, 2017, 2019).
The SEM diagram (Figure 2) illustrates the relationships among various latent constructs, represented by blue circles, and their associated observed indicators, indicated by yellow rectangles. Each path is marked with a standardized coefficient that reflects the strength and direction of the relationships among the constructs. Table 5 provides an analysis of the presented model.
Construct H1 and its indicators: H1 is a latent construct characterized by three observed indicators (H1I1, H1I2 and H1I3), exhibiting path coefficients of 0.894, 0.752, and −0.521, respectively. H1I1 and H1I2 significantly enhance the definition of H1, whereas H1I3 exhibits a considerable negative impact. The negative path coefficient indicates that the relationship denoted by H1I3 may serve as an inverse predictor or a variable that is misaligned with other indicators in characterizing H1.
The relationship between H1, H2, and H3 reveals that H1 exerts a strong positive influence on H2 (β = 0.847), signifying a significant direct effect. The path coefficient between H1 and H3 is negative (β = −0.860), indicating an inverse relationship. H3 and Its Indicators: H3 is characterized by three observed indicators (H3E1, H3E2 and H3E3), which have coefficients of 0.973, −0.059, and 0.056, respectively. The minimal values for H3E2 and H3E3 indicate that these indicators have a limited role in defining H3, or there may be concerns regarding these particular items.
Construct H2 and its influence: H2 positively influences H3 (β = 0.595), suggesting that enhancements in H2 are expected to elevate the value of H3. H2 is characterized by two significant indicators (H2E1 and H2E2), exhibiting coefficients of 0.961 and 0.634, respectively. This indicates that H2E1 is the primary variable influencing H2.
Pathway from H3 to H4: The direct relationship between H3 and H4 has a negative coefficient (2 = −0.541), which means that when H3 goes up, H4 goes down. This is different from what you would expect from a similar model, where correlations are usually positive. This indicates a potential suppressor effect or a subject for additional research.
Develop H4 and its indicators: H4 is characterized by three observed indicators (H4D1, H4D2 and H4D3) exhibiting path coefficients of 0.806, 0.820, and −0.615, respectively. The negative trajectory of H4D3 indicates an inverse relationship with the underlying construct, potentially signalling misalignment or measurement concerns. H4 exerts a significant positive influence on H5 (β = 0.905), establishing it as the most important predictor in the model for H5.
Final construct H5 and associated indicators: H5, denoting the final outcome, is characterized by three indicators (H5S1, H5S2 and H5S3), which have coefficients of 0.868, 0.071, and 0.793, respectively. H5S1 and H5S3 exhibit significant contributions, whereas H5S2 is nearly negligible, indicating that this specific indicator may not adequately assess the latent construct H5.
The five latent variables are each represented by a circular blue node with the following labels: “H 1”, “H 2”, “H 3”, “H 4”, and “H 5”. “H 1” is positioned at the center left. From “H 1”, three arrows point leftward to three yellow rectangles arranged vertically and labeled from top to bottom as “H 1 I 1”, “H 1 I 2”, and “H 1 I 3”. These arrows are labeled “0.894”, “0.752”, and “negative 0.521”, respectively. From “H 1”, a right-pointing arrow labeled “0.847” extends to the node “H 2”, which is positioned at the top center and contains an inner circle value of “0.717”. “H 2” has two arrows pointing upward to two yellow rectangles arranged horizontally and labeled from left to right as “H 2 E 1” and “H 2 E 2”. These arrows are labeled “0.961” and “0.634”, respectively. A downward-pointing arrow labeled “0.595” extends from “H 2” to the node “H 3”, located below it and containing an inner circle value of “0.227”. Another downward arrow labeled “negative 0.860” extends from “H 1” to “H 3”. “H 3” has three downward-pointing arrows that connect to three yellow rectangles arranged horizontally and labeled from left to right as “H 3 E 1”, “H 3 E 2”, and “H 3 E 3”. These arrows are labeled “0.973”, “negative 0.059”, and “0.056”, respectively. A rightward-pointing arrow labeled “negative 0.541” extends from “H 3” to “H 4”. The node “H 4” is positioned toward the right and contains an inner circle value of “0.906”. From “H 2”, another arrow labeled “0.715” also points rightward to “H 4”. From “H 4”, three upward arrows extend to three horizontally aligned yellow rectangles labeled from left to right as “H 4 D 1”, “H 4 D 2”, and “H 4 D 3”. These arrows are labeled “0.806”, “0.820”, and “negative 0.615”, respectively. From “H 4”, a rightward arrow labeled “0.905” extends to “H 5”, which is located on the far right and contains an inner circle value of “0.818”. “H 5” has three arrows pointing rightward toward three vertically aligned yellow rectangles labeled from top to bottom as “H 5 S 1”, “H 5 S 2”, and “H 5 S 3”. These arrows are labeled “0.868”, “0.071”, and “0.793”, respectively.Structural equation model (SEM) depicting relationships between cognitive constructs and process outcomes in supply chain networks
The five latent variables are each represented by a circular blue node with the following labels: “H 1”, “H 2”, “H 3”, “H 4”, and “H 5”. “H 1” is positioned at the center left. From “H 1”, three arrows point leftward to three yellow rectangles arranged vertically and labeled from top to bottom as “H 1 I 1”, “H 1 I 2”, and “H 1 I 3”. These arrows are labeled “0.894”, “0.752”, and “negative 0.521”, respectively. From “H 1”, a right-pointing arrow labeled “0.847” extends to the node “H 2”, which is positioned at the top center and contains an inner circle value of “0.717”. “H 2” has two arrows pointing upward to two yellow rectangles arranged horizontally and labeled from left to right as “H 2 E 1” and “H 2 E 2”. These arrows are labeled “0.961” and “0.634”, respectively. A downward-pointing arrow labeled “0.595” extends from “H 2” to the node “H 3”, located below it and containing an inner circle value of “0.227”. Another downward arrow labeled “negative 0.860” extends from “H 1” to “H 3”. “H 3” has three downward-pointing arrows that connect to three yellow rectangles arranged horizontally and labeled from left to right as “H 3 E 1”, “H 3 E 2”, and “H 3 E 3”. These arrows are labeled “0.973”, “negative 0.059”, and “0.056”, respectively. A rightward-pointing arrow labeled “negative 0.541” extends from “H 3” to “H 4”. The node “H 4” is positioned toward the right and contains an inner circle value of “0.906”. From “H 2”, another arrow labeled “0.715” also points rightward to “H 4”. From “H 4”, three upward arrows extend to three horizontally aligned yellow rectangles labeled from left to right as “H 4 D 1”, “H 4 D 2”, and “H 4 D 3”. These arrows are labeled “0.806”, “0.820”, and “negative 0.615”, respectively. From “H 4”, a rightward arrow labeled “0.905” extends to “H 5”, which is located on the far right and contains an inner circle value of “0.818”. “H 5” has three arrows pointing rightward toward three vertically aligned yellow rectangles labeled from top to bottom as “H 5 S 1”, “H 5 S 2”, and “H 5 S 3”. These arrows are labeled “0.868”, “0.071”, and “0.793”, respectively.Structural equation model (SEM) depicting relationships between cognitive constructs and process outcomes in supply chain networks
Displays the results of the hypothesis testing (2)
| Hypothesis | Path | Standardized coefficient (β) | t-statistic | p-value | Significance |
|---|---|---|---|---|---|
| H1 | I-O task interdependence → I-O face-to-face communication | 0.45 | 9.07 | 0.001 | Significant |
| H2 | I-O face-to-face communication → Cognitive congruence | 0.15 | 2.83 | 0.001 | Significant |
| H3 | Cognitive congruence → Cognitive Matching | 0.28 | 6.11 | 0.001 | Significant |
| H4 | Cognitive congruence → Process diffusion | 0.41 | 8.61 | 0.001 | Significant |
| H5 | Process diffusion → Security | 0.65 | 15.12 | 0.003 | Significant |
| Hypothesis | Path | Standardized coefficient (β) | t-statistic | p-value | Significance |
|---|---|---|---|---|---|
| I-O task interdependence → I-O face-to-face communication | 0.45 | 9.07 | 0.001 | Significant | |
| I-O face-to-face communication → Cognitive congruence | 0.15 | 2.83 | 0.001 | Significant | |
| Cognitive congruence → Cognitive Matching | 0.28 | 6.11 | 0.001 | Significant | |
| Cognitive congruence → Process diffusion | 0.41 | 8.61 | 0.001 | Significant | |
| Process diffusion → Security | 0.65 | 15.12 | 0.003 | Significant |
Source(s): Authors’ own work
The findings provide new insights that question and enhance current theories in supply chain management and organizational communication. The fact that H1 (Task Interdependence) and H2 (Face-to-Face Communication) are positively related supports earlier research that found interdependence to be important for encouraging direct communication (Smith and Smith Lee, 2020). The observed negative relationship between H3 (Cognitive Congruence) and H4 (Process Diffusion) goes against what most people think, which is that higher cognitive congruence leads to more process adoption (Johnson et al., 2018). This finding indicates that excessive alignment in cognitive structures may result in “cognitive rigidity,” causing teams to resist adopting new processes due to an over-reliance on established mental models.
The limited direct impact of H3 on H5 (Supply Chain Security) presents a significant nuance in the literature. This indicates that further mediators, including organizational culture or leadership dynamics, may be required to convert cognitive alignment into effective security measures. The study identifies gaps, providing a new perspective and prompting scholars to reconsider the conditions that enable cognitive congruence to enhance effective security management.
5.1 Implications
5.2.1 Scientific implications
The study’s conclusions deepen our comprehension of the KBV and innovation diffusion theoretical paradigms and encourage their use in more practical contexts. The innovation paradigm has long sought the social component of “diffusion,” or communication (Mostaghel et al., 2022). Companies, however, also questioned the manner in which the company’s whole client network used customized solutions for some individuals (Ha et al., 2017; Segura Anaya et al., 2018).
Provider service logistics congruence is necessary for the distribution of processes throughout the customer network. KBV also plays a crucial role in the identified business relationship. To explain fully why task interdependence does not always result in cognitive congruence, researchers (Yu and Yan, 2021; Macal, 2016) made a distinction between information and know-how. The analysis shows that several theories are important for understanding the dynamics of knowledge exchange, communication, and the dissemination of innovations in supply chains. One theory that is closely consistent with the concepts discussed is the knowledge-based view (KBV).
KBV emphasizes the strategic importance of knowledge as a critical resource for gaining competitive advantage. It assumes that companies can achieve excellent results by effectively using their knowledge resources. In the context of the text, the emphasis on knowledge management, sharing, and exchange within supply chains reflects the main tenets of the KBV. The text discusses how knowledge, both encoded information and tacit know-how, drives innovation, process development, and value creation in supply chains.
Furthermore, the study’s results about the restricted impact of cognitive alignment on directly affecting supply chain security indicate that existing frameworks, which frequently prioritize shared cognitive frameworks as a principal catalyst for secure activities, may be overly simplistic. This creates new study opportunities that examine additional mediators, such as organizational culture or external regulatory demands, to comprehensively understand the impact of cognitive characteristics on security results (Kache and Seuring, 2017; Żywiołek and Schiavone, 2021b).
The results underscore the necessity for managers to proactively cultivate cognitive congruence, ensuring that teams maintain a shared understanding while being receptive to novel ideas and malleable to procedural modifications. Managers should exercise caution in excessively prioritizing homogeneity in thought, as it may impede process innovation. Regular rotations of team members among various functional units may facilitate a balance between cognitive alignment and adaptability.
The significant impact of H4 (Process Diffusion) on H5 (Supply Chain Security) highlights the essential function of process standardization in establishing secure and resilient supply networks. Managers ought to prioritize investments in process integration technology, including digital twins and real-time monitoring systems, to improve process visibility and control. This connection will facilitate the advancement of more flexible and secure supply chain methodologies.
Specific methodologies and case studies can immediately implement the results in supply chain management. In a practical example involving a substantial international logistics corporation, the detrimental effect of cognitive congruence on process adoption was evident when significant alignment among regional teams resulted in opposition to a new, centralized logistics platform. The organization effectively reduced resistance by implementing cross-regional training programs and temporary task groups, resulting in a 40% increase in the adoption rate within six months.
5.2.2 Managerial implications
The study’s findings elucidate numerous critical dynamics within supply chain management that are particularly pertinent for practitioners. This part offers a systematic summary of the principal study findings and their associated managerial implications to connect theoretical insights with practical applications. The pragmatic proposals are designed to tackle the specific issues encountered by supply chain managers, including the management of significant task dependency, the optimization of knowledge transfer via organizational implants, and the facilitation of successful process diffusion across various units.
Considering that the research emphasizes both the advantages and possible disadvantages of notions like cognitive congruence and task interdependence, it is imperative for managers to apply these insights strategically. High task interdependence requires robust communication channels, whereas excessive cognitive congruence may unintentionally diminish a team’s innovative potential. This section summarizes the implications and offers specific strategies for managers to enhance performance and process integration.
The Table 6 below delineates each significant research finding, its practical ramifications, and recommended actions, providing a coherent framework for utilizing these insights to improve supply chain efficiency and innovation.
Research finding
| Nr | Research finding | Implication for managers | Suggested actions |
|---|---|---|---|
| 1 | High task interdependence leads to increased communication needs | Managers should ensure structured communication channels between teams to handle interdependent tasks | Implement regular meetings and use collaborative tools to facilitate task coordination |
| 2 | Encourage diversity in thought and cross-functional team rotations | Establish policies for rotating employees between teams to maintain cognitive flexibility | |
| 3 | Effective process diffusion enhances supply chain security | Focus on standardizing security protocols through training and documentation | Develop a centralized security protocol manual and provide digital training resources |
| 4 | Organizational implants play a critical role in knowledge transfer | Position implants strategically within key teams to facilitate knowledge flows | Identify knowledge gaps and place implants in teams that lack process understanding |
| 5 | Face-to-face communication fosters better team alignment | Prioritize direct communication during critical project phases to ensure shared understanding | Schedule in-person strategy sessions and use video conferencing for distributed teams |
| Nr | Research finding | Implication for managers | Suggested actions |
|---|---|---|---|
| 1 | High task interdependence leads to increased communication needs | Managers should ensure structured communication channels between teams to handle interdependent tasks | Implement regular meetings and use collaborative tools to facilitate task coordination |
| 2 | Encourage diversity in thought and cross-functional team rotations | Establish policies for rotating employees between teams to maintain cognitive flexibility | |
| 3 | Effective process diffusion enhances supply chain security | Focus on standardizing security protocols through training and documentation | Develop a centralized security protocol manual and provide digital training resources |
| 4 | Organizational implants play a critical role in knowledge transfer | Position implants strategically within key teams to facilitate knowledge flows | Identify knowledge gaps and place implants in teams that lack process understanding |
| 5 | Face-to-face communication fosters better team alignment | Prioritize direct communication during critical project phases to ensure shared understanding | Schedule in-person strategy sessions and use video conferencing for distributed teams |
Source(s): Authors’ own work
The research findings possess numerous practical implications for supply chain managers aiming to improve communication, knowledge transfer, and process innovation inside their organizations. Table 1 presents a systematic summary correlating each principal discovery with distinct managerial implications and implementable techniques.
The research indicates that elevated task dependency among logistics teams necessitates the establishment of more structured communication channels. To efficiently oversee interdependent tasks, managers ought to schedule regular meetings and utilize collaborative tools, such as digital platforms that enable real-time coordination. This will mitigate miscommunications and guarantee the efficient execution of tasks across distributed teams.
The discovery that excessive cognitive congruence can impede innovation underscores the necessity for managers to foster cognitive diversity within their teams. Although some degree of alignment is essential for good communication, excessive focus on uniformity may result in “cognitive rigidity,” diminishing the team’s capacity to adapt to novel concepts. Managers should establish policies for rotating staff around teams and incorporate varied perspectives via cross-functional workshops or external specialists.
We identified effective process dispersion as a crucial element in improving overall supply chain security. This indicates that managers ought to prioritize the standardization of security methods and guarantee uniform implementation across all divisions. Creating centralized documents and offering training programs customized for the individual requirements of on-site personnel helps enhance consistent comprehension and compliance with security protocols.
The study highlights the significance of organizational implants—employees strategically positioned within critical teams to enhance knowledge transfer. To enhance the efficacy of implants, managers must discern certain knowledge deficiencies within teams and allocate specialists accordingly. Positioning seasoned logistics coordinators in newly formed regional offices can expedite the implementation of best practices and improve process integration.
We ultimately determined that in-person communication markedly enhances team cohesion and mutual comprehension during pivotal project stages. Managers must prioritize direct communication in strategic planning sessions and utilize videoconferencing or in-person meetings for remote teams to guarantee that all members are aligned with the project’s objectives.
6. Conclusions and recommendations
This research enhances the domain of supply chain management by offering a refined comprehension of cognitive congruence and its impact on process dissemination and security results. This study presents a crucial boundary condition to prior research, which has emphasized the beneficial effects of cognitive alignment on knowledge transfer and communication: excessive cognitive congruence may induce “cognitive rigidity,” thereby diminishing receptiveness to new processes and impairing organizational flexibility. The study challenges the idea that “greater alignment is always advantageous” by identifying this turning point and adding to our theoretical understanding of cognitive alignment’s importance in dynamic supply chain settings.
Additional study is required to investigate the moderating influence of various organizational cultures, such as hierarchical compared to flat structures, on the link between cognitive congruence and process diffusion. Comprehending how these contextual elements influence cognitive processes will provide essential insights for managing innovation across various organizational environments. Furthermore, given the increasing reliance on digital platforms for communication and process management, future research should investigate how tools like AI-driven collaboration platforms or digital twins can improve cognitive alignment without promoting rigidity. These digital technologies may be essential in achieving the requisite cognitive congruence necessary for both security and innovation inside intricate supply chain networks. Incorporating these enlarged contributions and research initiatives enhances the clarity of the study’s theoretical and practical significance while establishing a definitive agenda for future research. This organized and thorough conclusion establishes the study as a crucial contribution to the literature on supply chain innovation and cognitive alignment, offering insights that are both academically relevant and practically applicable.
This study offers an in-depth examination of the function of organizational implants in improving knowledge transfer and process innovation in intricate supply chains. By combining the Knowledge-Based View (KBV) with innovation diffusion theory, the study created a new framework that shows how cognitive congruence and task interdependence affect the outcomes of a process. The results demonstrated that good communication and smart placement of organizational implants substantially influence process dissemination and security integration throughout supply chains. The study illustrates that elevated task interdependence necessitates more organized communication channels, whereas excessive cognitive congruence diminishes a team’s adaptability and receptiveness to novel processes. This nuanced perspective criticizes traditional ideas that uniformly advocate for cognitive alignment as beneficial, emphasizing the necessity for a balanced approach in information management tactics.
Notwithstanding these contributions, the study is constrained by its concentration on a singular economic sector and the application of cross-sectional data, which may limit the generalizability of the findings to other sectors and hinder the assessment of the longitudinal effects of knowledge transmission. A further issue is the dependence on self-reported data, which may add common method bias and compromise the internal validity of the findings. Future research should broaden this framework to incorporate a multi-industry viewpoint and utilize longitudinal designs to investigate the evolution of knowledge transmission pathways across time. Given how important technology is becoming in supply chain management, looking into how digital platforms help with cognitive alignment and process innovation will also reveal important insights.
The practical ramifications of these findings are substantial for managers aiming to optimize knowledge transfer and improve process security inside their organizations. Practitioners should concentrate on strategically placing organizational implants at critical nodes along the supply chain to enhance knowledge sharing and process adaptation. Utilizing structured communication protocols and digital collaboration tools will augment the efficacy of these implants, guaranteeing successful process dissemination and the integration of security measures among geographically scattered units. Moreover, managers ought to oversee cognitive congruence within teams to avert cognitive rigidity, which may obstruct the implementation of new techniques and restrict creativity.
This research provides a unique theoretical framework and practical approaches for facilitating knowledge transfer and process innovation inside supply chains. Subsequent research should expand upon these findings by examining further contextual elements, like organizational culture and technical progress, that may affect the efficacy of knowledge management frameworks in intricate supply chain settings.
This research uniquely contributes to supply chain management by merging the Knowledge-Based View (KBV) with innovation diffusion theory to investigate the impact of organizational implants on knowledge transfer and process adaptability. Although prior studies have utilized these theories separately, their integrated application within supply chains is yet insufficiently examined. This study presents a new concept—cognitive rigidity—that contests the conventional belief that increased cognitive alignment invariably enhances process diffusion. This research illustrates that excessive cognitive congruence might hinder innovation and flexibility, offering a more refined comprehension of knowledge dynamics in supply chain contexts. Furthermore, the emphasis on organizational implants as strategic enablers of information transfer enhances existing theories by underscoring their essential function in closing communication gaps and facilitating effective process integration. These contributions enhance both theoretical and practical viewpoints, providing supply chain managers with actionable insights to equilibrate cognitive alignment and flexibility for maximum performance.
