
Despite extensive research across supply chain management, ecology, and psychology, relatively little attention has been paid to integrating the distinct definitions of resilience that have emerged from each field. In supply chains, resilience is measured as a firm’s ability to return to normal performance after disruption. In ecology, C.S. Holling distinguished resilience (the magnitude of disturbance a system can absorb) from stability (speed of return to equilibrium). In psychology, resilience ranges from a personal trait to a dynamic recovery process. Common capabilities — flexibility, visibility, agility, redundancy, and collaboration — appear across all three traditions. While individual resilience improvements may seem incremental, cumulative effects across global supply chains amount to billions of dollars in avoided losses annually.
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The general framework of resilience
Resilience is the capability of a system to return to its original (or desired) state after being disrupted (Christopher & Peck, 2004). (Acocella, Caplice, & Sheffi, 2024; Sheffi & Rice Jr, 2005, 2006) relates resilience to the firm’s ability to bounce back, returning to their normal performance level, including production, services and fill rate, after disruption (s). Fiksel (2006) focuses on the capabilities, categorising them into three processes as follows: to survive, to adapt, and to grow in the face of turbulent change. (Priya Datta, Christopher, & Allen, 2007) enhanced Fiksel’s (2006) definition by identifying resilience as not only the ability to maintain control over performance variability at the time of disturbances but also as an indigenous capability of an adaptive system to respond to unexpected and significant shifts. Thus, the dominant literature within supply chain studies has identified resilience as a constructive attitude towards the consequences of unforeseen challenges (El Baz & Ruel, 2021; Gebhardt, Spieske, Kopyto, & Birkel, 2022; Shen & Sun, 2023), to recover the performance (Hosseini, Ivanov, & Dolgui, 2019; Spiegler, Naim, & Wikner, 2012). Overall, various dimensions for resilience are listed, such as collaboration, visibility, velocity, flexibility, agility, redundancy, and social capital and relational competences (Carvalho, Azevedo, & Cruz-Machado, 2012; Christopher & Peck, 2004; Johnson, Elliott, & Drake, 2013; Sheffi & Rice Jr, 2005, 2006; Wieland & Wallenburg, 2013).
It is driven by a disruption
Within Supply Chain Resilience (SCRES) studies, the majority of supply chain management researchers have perceived resilience as the ability of SC, as a system, to cope with the consequences of unforeseen incidents, aiming to return to its original or desired state (Blackhurst, Dunn, & Craighead, 2011; Cabral, Grilo, & Cruz- Machado, 2012; Carvalho et al., 2012; Jüttner & Maklan, 2011; Zsidisin & Wagner, 2010). The overall perception regarding SCRES can, as a consequence, be explained as dynamic abilities of the SC (1) being prepared for probable unforeseen incidents, (2) being ready to respond to disruptions in an effective way, and (3) preparedness for recovery by progressing the operations with remaining authority on structures and functions (Ponomarov & Holcomb, 2009). Ponomarov and Holcomb’s (2009) utterances assert the findings of Christopher and Peck (2004), considering (1) resilience as a set of organisational capabilities which could be developed at the pre-disruption stage, and (2) requires a high inter and intra-organisational collaboration. The processes necessitated (3) the agility dimension, reacting in time to the unexpected incidents, as well as (4) having a cultural environment for detecting and managing the probable risks. Therefore, the SCRES mainstream can be summarised into: the ability of firms to absorb consequences of shocks received by extreme incidents, as well as an adaptive ability to adjust to new situations (Johnson et al., 2013). Also, the resilience has historically been garnished by unforeseen incidents, being disruption-driven, i.e., (Asbjornslett, 1999; Christopher & Peck, 2004; Ponomarov & Holcomb, 2009; Sheffi & Rice Jr, 2005; Wagner & Bode, 2006; Wagner & Neshat, 2010). The disruption or unforeseen incidents are explained as single, discrete, unique events, are happening; have happened; or are expected to happen, with consequences, usually in a negative format, forcing firms to become resilient.
Capability-oriented
The second trait is about attaining resilience, which requires recognising a set of capabilities (es) of substance (s). Regarding the capability-oriented perspective, SCRES is a set of organisational capabilities including response capability, visibility, warning capability, recovery, agility, flexibility, robustness and redundancy that assist firms to react to the consequences of disruptions and mitigate the future risks of recurrence (Ambulkar, Blackhurst, & Grawe, 2015; Brandon‐Jones, Squire, Autry, & Petersen, 2014; Faruquee, Paulraj, & Irawan, 2021; Ponis & Koronis, 2012; Tukamuhabwa, Stevenson, Busby, & Zorzini, 2015).
The results of an extensive literature review conducted by Pettit, Fiksel, and Croxton (2010) demonstrate determinants, differently labelled, for SCRES consisting of vulnerability and capability dimensions, i.e., the vulnerability factors include turbulence, deliberate threats, external pressures, resource limits, sensitivity, connectivity, supplier/customer disruptions. And capability sub-categories are flexibility in sourcing, flexibility in order fulfilment, capacity, efficiency, visibility, adaptability, anticipation, recovery, dispersion, collaboration, organisation, market position, security, and financial strength. Pettit et al. (2010) discussed that the desired level of resilience, to an optimal threshold, can be achieved by making balance between vulnerabilities and capabilities.
To understand the SCRES procedures, Kamalahmadi and Parast’s (2016) study aimed to obtain the principles of SCRES, particularly for small and medium-sized enterprises. In this study, three phases of SCRES are proposed: (1) anticipating the occurrence of disruptions and preparedness (anticipation); (2) the ability to survive and continue the functionality (resistance); and (3) the capability to mitigate the negative effects of disruptions (recovery and responses). Furthermore, four main principles as such are introduced, including SC re-engineering (flexibility and redundancy), collaboration (trust and information sharing), agility (visibility and velocity), and supply chain risk management culture (leadership and innovation).
Reactive VS. Proactive Stance
Two perceptions towards resilience are evident within the SCM literature: Considering resilience as a reactive process OR resilience as a proactive procedure (A. Ali, Mahfouz, & Arisha, 2017; I. Ali, Nagalingam, & Gurd, 2017; Dabhilkar, Birkie, & Kaulio, 2016; Faruquee, Paulraj, & Irawan, 2024; Tukamuhabwa et al., 2015). As argued by Sheffi (2001; Sheffi & Rice Jr, 2005), supply chain risk management is tightened to redundancies and safety buffers, equipping the SC to minimise the risk of significant damage. This perspective is extended to the SCRES as the ability of SC to take actions after risk has happened (Grötsch, Blome, & Schleper, 2013). Therefore, based on this perspective, the preparation ought to take place in advance, including having action plans to soften an agile response to the disruptions (Knemeyer, Zinn, & Eroglu, 2009). Resilience, therefore, in these studies, is considered as a reactive process to minimise the consequences of disruptions, mainly considered as a set of risks to be mitigated.
Proactive resilience, on the other hand, refers to the ability of firms to avoid the consequences of future disruption at large if not all (Wang, Dou, Muddada, & Zhang, 2018). Proactive resilience guides firms to anticipate and constantly monitor disruptions and their consequences, as well as the probable changes in the business ecosystems to establish deterrent measures (A. Ali et al., 2017; Dabhilkar et al., 2016; Faruquee et al., 2024; Tukamuhabwa et al., 2015). The process includes the determination of catastrophic risk factors, their potential implications on SC and the relevant plan of action to prevent or mitigate the consequences (Knemeyer et al., 2009). Overall, the reactive and proactive stances are embedded by different perceptions of resilience from different fields of study, including engineering, ecology, and psychology.
Engineering, Ecological, and Psychological
Three different perceptions around resilience are foreseeable. The dominant SCRES literature focuses on an engineering perspective, which is a combination of stability and resilience in ecological determinants, examining the ability of systems (firms or networks) to handle the consequences of disruptions to bounce back to the equilibrium state. According to C. S. Holling (1996), engineering resilience concentrates on stability near an equilibrium steady state, where resistance to disturbance and speed of return to the equilibrium are used to measure the property. The ecological resilience, however, refers to the conditions far from any equilibrium steady state, where instabilities can flip a system into another regime of behaviour—that is, to another stability domain (Crawford S Holling, 1973). In this case, the measurement of resilience is the magnitude of disturbance that can be absorbed before the system changes its structure by changing the variables and processes that control behaviour (C. S. Holling, 1996).
Crawford S Holling (1973) elaborates the ecological standpoint regarding resilience, asserting that “resilience” and “stability” are two distinct properties. The resilience is therefore a property of dynamic systems (Adobor & McMullen, 2018; Crawford S Holling, 1973; C. S. Holling, 1996), which makes examining the characteristics and dynamics of the supply chain as a system as such sensible (Walker, Holling, Carpenter, & Kinzig, 2004). (Ivanov, 2021; Ivanov & Dolgui, 2020; Ruel, El Baz, Ivanov, & Das, 2024) extended this perspective to SCRES. Based on this ecological perspective, resilience consists of relationships within a system that measure the system’s ability to absorb changes of state variables, driving variables, and parameters, and can survive. Subsequently, resilience is the property of the system and persistence, or probability of extinction, is the result. Stability, on the other hand, is the ability of a system to return to an equilibrium state after a temporary disturbance. The more rapidly it returns, and with the least fluctuation, the more stable it is. Thereon, stability is another system’s property (Crawford S Holling, 1973; C. S. Holling, 1996).
The third perspective is about the field of psychology, considering resilience as the ability of individuals to bounce back from negative emotional conditions and being able to adapt to the evolving needs of stressful events (Bajaj & Pande, 2016; Chmitorz et al., 2018; Oshio, Taku, Hirano, & Saeed, 2018). The psychological perception of resilience has three orientations (Hu, Zhang, & Wang, 2015), including: trait, outcome, and process. The trait perspective represents that resilience is a personal attribute which guides individuals to cope with misfortunes, adapt, and continue development (Hu et al., 2015). This perspective isolated the individuals against the negative implications of adversities (Connor & Davidson, 2003; Ong, Bergeman, Bisconti, & Wallace, 2006). Simply put, resilience rather than being disruptive-driven is considered capability- oriented and as an indigenous characteristic of individuals. Resilience is therefore the property of the system. The outcome-oriented approach, on the other hand, considers resilience as a behavioural outcome that assists individuals to overcome the consequences of adversities and recovery (Harvey & Delfabbro, 2004; Masten, 2001). This perception represents another fundamental point of view that resilience, rather than being a set of abilities, is the output of certain capabilities. Finally, resilience is considered neither the capability nor the output but a dynamic process based on which individuals can actively adapt and recover constantly from the consequences of super adversaries (Fergus & Zimmerman, 2005; Luthar, Cicchetti, & Becker, 2000).
Read more below.
What is resilience? A multi‑dimensional framework
Disruptions happen. From unexpected supply chain breakdowns to sudden market shifts, organizations and systems are constantly tested. Resilience is not just about surviving; it is about bouncing back, adapting, and sometimes even thriving when circumstances change. Scholars have explored resilience across multiple dimensions: the capabilities to absorb shocks, the agility to respond quickly, and the flexibility to adjust operations on the fly. Whether in business, ecology, or human behavior, resilience is what allows systems to maintain performance, navigate uncertainty, and prepare for the next inevitable challenge.
Resilience is the capability of a system to return to its original or desired state after being disrupted (Christopher & Peck, 2004). Acocella, Caplice, and Sheffi (2024); Sheffi and Rice (2005, 2006) relate resilience to a firm’s ability to bounce back to normal performance levels — including production, services, and fill rate — following disruptions. Fiksel (2006) categorizes resilience into three core processes: to survive, to adapt, and to grow in the face of turbulent change. Priya Datta, Christopher, and Allen (2007) extended Fiksel’s definition by identifying resilience not only as the ability to maintain control over performance variability during disturbances but also as an indigenous capability of an adaptive system to respond to unexpected and significant shifts.
The dominant literature within supply chain studies has identified resilience as a constructive attitude toward the consequences of unforeseen challenges (El Baz & Ruel, 2021; Gebhardt, Spieske, Kopyto, & Birkel, 2022; Shen & Sun, 2023), aimed at recovering performance (Hosseini, Ivanov, & Dolgui, 2019; Spiegler, Naim, & Wikner, 2012). Various dimensions of resilience are listed in the literature, including collaboration, visibility, velocity, flexibility, agility, redundancy, social capital, and relational competences (Carvalho, Azevedo, & Cruz-Machado, 2012; Christopher & Peck, 2004; Johnson, Elliott, & Drake, 2013; Sheffi & Rice, 2005, 2006; Wieland & Wallenburg, 2013).
Driven by disruption
Within supply chain resilience (SCRES) studies, the majority of researchers perceive resilience as a system’s ability to cope with the consequences of unforeseen incidents, aiming to return to its original or desired state (Blackhurst, Dunn, & Craighead, 2011; Cabral, Grilo, & Cruz-Machado, 2012; Carvalho et al., 2012; Jüttner & Maklan, 2011; Zsidisin & Wagner, 2010). Ponomarov and Holcomb (2009) explain SCRES as dynamic abilities: (1) being prepared for probable unforeseen incidents, (2) being ready to respond to disruptions effectively, and (3) preparedness for recovery by progressing operations with remaining authority on structures and functions. Resilience has historically been shaped by unforeseen incidents — it is disruption-driven (Asbjornslett, 1999; Christopher & Peck, 2004; Ponomarov & Holcomb, 2009; Sheffi & Rice, 2005; Wagner & Bode, 2006; Wagner & Neshat, 2010).
Capability‑oriented resilience
Attaining resilience requires recognizing a set of organizational capabilities. Regarding the capability-oriented perspective, SCRES is a set of organizational capabilities including response capability, visibility, warning capability, recovery, agility, flexibility, robustness, and redundancy that assist firms to react to the consequences of disruptions and mitigate the future risks of re-occurrence (Ambulkar, Blackhurst, & Grawe, 2015; Brandon-Jones, Squire, Autry, & Petersen, 2014; Faruquee, Paulraj, & Irawan, 2021; Ponis & Koronis, 2012; Tukamuhabwa, Stevenson, Busby, & Zorzini, 2015).
Pettit, Fiksel and Croxton (2010) framework
An extensive literature review by Pettit, Fiksel, and Croxton (2010) demonstrates determinants of SCRES consisting of vulnerability and capability dimensions. Vulnerability factors include turbulence, deliberate threats, external pressures, resource limits, sensitivity, connectivity, and supplier or customer disruptions. Capability sub-categories include flexibility in sourcing, flexibility in order fulfillment, capacity, efficiency, visibility, adaptability, anticipation, recovery, dispersion, collaboration, organization, market position, security, and financial strength. The desired level of resilience — an optimal threshold — can be achieved by balancing vulnerabilities and capabilities.
Kamalahmadi and Parast (2016) principles
Kamalahmadi and Parast (2016) proposed three phases of SCRES: (1) anticipating the occurrence of disruptions and preparedness (anticipation); (2) the ability to survive and continue functionality (resistance); and (3) the capability to mitigate negative effects of disruptions (recovery and response). Four main principles are introduced: supply chain re-engineering (flexibility and redundancy), collaboration (trust and information sharing), agility (visibility and velocity), and supply chain risk management culture (leadership and innovation).
Reactive versus proactive resilience
Two perceptions towards resilience are evident within the supply chain management literature: considering resilience as a reactive process or resilience as a proactive procedure (A. Ali, Mahfouz, & Arisha, 2017; I. Ali, Nagalingam, & Gurd, 2017; Dabhilkar, Birkie, & Kaulio, 2016; Faruquee, Paulraj, & Irawan, 2024; Tukamuhabwa et al., 2015).
As argued by Sheffi (2001) and Sheffi and Rice (2005), supply chain risk management is often tied to redundancies and safety buffers — equipping the supply chain to minimize the risk of significant damages. This perspective extends to SCRES as the ability to take actions after a risk has materialized (Grötsch, Blome, & Schleper, 2013). Preparation takes place in advance, including action plans to enable an agile response to disruptions (Knemeyer, Zinn, & Eroglu, 2009). Resilience in these studies is considered a reactive process to minimize the consequences of disruptions, mainly viewed as a set of risks to be mitigated.
Proactive resilience refers to the ability of firms to avoid the consequences of future disruption at large, if not entirely (Wang, Dou, Muddada, & Zhang, 2018). Proactive resilience guides firms to anticipate and constantly monitor disruptions and their consequences, as well as probable changes in business ecosystems, to establish deterrent measures (A. Ali et al., 2017; Dabhilkar et al., 2016; Faruquee et al., 2024; Tukamuhabwa et al., 2015). The process includes determination of catastrophic risk factors, their potential implications on the supply chain, and the relevant action plans to prevent or mitigate consequences (Knemeyer et al., 2009).
Reactive resilience focuses on minimizing damage after a disruption occurs. Proactive resilience focuses on anticipating and preventing disruptions before they cause harm. Both stances are embedded in different perceptions of resilience drawn from engineering, ecology, and psychology — each field emphasizing different temporal orientations and system properties.
Three intellectual traditions: Engineering, ecological, and psychological
Engineering versus ecological: a foundational distinction
C. S. Holling (1973) elaborates that “resilience” and “stability” are two distinct properties of dynamic systems. Resilience is therefore a property of dynamic systems (Adobor & McMullen, 2018; C. S. Holling, 1973, 1996), which makes examining the characteristics and dynamics of supply chains as systems sensible (Walker, Holling, Carpenter, & Kinzig, 2004). Ivanov (2021), Ivanov and Dolgui (2020), and Ruel, El Baz, Ivanov, and Das (2024) extended this ecological perspective to SCRES.
Based on the ecological perspective, resilience consists of relationships within a system and measures the system’s ability to absorb changes of state variables, driving variables, and parameters — and to survive. Persistence or probability of extinction is the result. Stability, by contrast, is the ability of a system to return to an equilibrium state after a temporary disturbance. The more rapidly it returns, and with the least fluctuation, the more stable it is (C. S. Holling, 1973, 1996).
Psychological resilience: trait, outcome, and process
The psychological perception of resilience has three orientations (Hu, Zhang, & Wang, 2015): trait, outcome, and process. The trait perspective represents resilience as a personal attribute that guides individuals to cope with misfortunes, adapt, and continue development (Connor & Davidson, 2003; Ong, Bergeman, Bisconti, & Wallace, 2006). The outcome-oriented approach considers resilience as a behavioral outcome that assists individuals to overcome the consequences of adversities and recover (Harvey & Delfabbro, 2004; Masten, 2001). The process perspective considers resilience neither as a capability nor an output but as a dynamic process through which individuals actively adapt and recover constantly from the consequences of severe adversities (Fergus & Zimmerman, 2005; Luthar, Cicchetti, & Becker, 2000).
Practical implications and synthesis
Disruptions happen — from unexpected supply chain breakdowns to sudden market shifts. Organizations and systems are constantly tested. Resilience is not just about surviving; it is about bouncing back, adapting, and sometimes even thriving when circumstances change. Understanding these layers is not just academic — it is essential for anyone who wants to stay ahead in an unpredictable world.
References
This summary is for educational and commentary purposes. All findings are accurately represented from the cited sources.