Global Supply Chain Risk and Resilience Management

Chapter 10
Disruption Response, Business Continuity and Recovery

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Global Supply Chain Risk and Resilience Management   •   Post Graduate

10. Disruption Response, Business Continuity and Recovery

Introduction and Context

Supply-chain risk management is incomplete if it concentrates only on prevention. Even well-designed networks experience port closures, cyberattacks, supplier failures, industrial disputes, extreme weather, geopolitical restrictions, product contamination, infrastructure breakdowns and sudden demand shocks. The decisive question is therefore not whether disruption can be eliminated, but whether the organisation can detect it early, coordinate an effective response, protect critical commitments and recover without creating a second crisis.

Disruption response, business continuity and recovery are related but distinct activities. Disruption response concerns immediate actions that stabilise an incident and protect people, assets, information and essential flows. Business continuity is the capability to maintain or restore critical operations at an acceptable level during a disruption. Recovery is the structured return to normal, redesigned or strategically improved operations after immediate danger has passed. Resilience connects all three by describing the ability of a supply chain to absorb disturbance, adapt and continue creating value.

For logistics managers, this topic has a particularly operational character. Decisions must often be made with incomplete information, conflicting priorities and severe time pressure. A response that protects one node may damage another; expediting scarce inventory may preserve a key customer relationship but deprive hospitals or smaller customers; transparent communication may expose uncertainty but preserve trust, whereas silence may allow rumours to determine behaviour. Effective crisis management therefore combines process discipline with judgement, leadership and ethical reasoning.

Learning Objectives

By the end of this chapter, students should be able to:

1. Distinguish incident response, crisis management, business continuity, disaster recovery and supply-chain recovery.

2. Design an incident-management structure and escalation protocol for logistics disruptions.

3. Identify critical processes, dependencies, recovery priorities and acceptable service levels.

4. Develop continuity strategies involving inventory, capacity, suppliers, transport, information and facilities.

5. Evaluate communication requirements for internal, customer, supplier, regulator and public audiences.

6. Apply recovery sequencing, decision criteria and performance measures to a disruption scenario.

7. Design exercises and simulations that test plans rather than merely validate documentation.

8. Recognise ethical, governance, technological and organisational risks in crisis decision-making.

The Logic of Response, Continuity and Recovery

A disruption passes through several overlapping phases. In the preparedness phase, the organisation identifies threats, maps dependencies, establishes roles, develops contingencies and trains personnel. In the response phase, it confirms the event, protects life and assets, establishes control and limits escalation. In the continuity phase, it operates critical activities through temporary or alternative arrangements. In the recovery phase, it restores capability, removes temporary workarounds, repairs relationships and incorporates lessons. These phases are not strictly linear: an organisation may recover one facility while responding to a new incident elsewhere.

A useful distinction is between an incident, an emergency and a crisis. An incident is an event that interrupts or threatens an activity but can usually be managed within normal authority. An emergency requires rapid cross-functional coordination and may threaten safety, service or legal compliance. A crisis exceeds routine management capacity, creates significant uncertainty and may endanger the organisation’s legitimacy, financial viability or stakeholder trust. The same event can occupy different categories for different firms. A two-day delay may be an incident for a diversified retailer but a crisis for a firm supplying temperature-sensitive vaccines.

Response objectives should be ordered rather than treated as a flat list. A broadly defensible priority sequence is:

  • protect human life, health and safety;
  • prevent further physical, environmental, cyber or operational harm;
  • establish reliable information and command;
  • preserve legally, ethically and strategically critical services;
  • stabilise cash, inventory, capacity and customer commitments;
  • restore and improve normal operations.

Cost remains important, but a lowest-cost response may be unacceptable if it creates safety violations, discriminatory allocation, environmental damage or long-term reputational loss.

Incident Command and Crisis Governance

A crisis structure must be clear before an event occurs. A common design is an incident-management team led by an incident commander or crisis director, supported by functional leads for operations, logistics, procurement, information technology, finance, legal and compliance, human resources, security, communications and customer management. The structure may be centralised for a global crisis or decentralised when local conditions require rapid action.

The incident commander coordinates priorities and removes conflicts; the role should not become a bottleneck for every operational decision. Functional leaders retain defined authority within approved limits. A responsibility matrix identifies who is responsible for performing an action, accountable for its outcome, consulted before the action and informed afterward. A delegation-of-authority schedule specifies spending limits, emergency procurement rights, contract deviations, customer allocation rules and communication approval thresholds.

Good governance includes an incident log, decision register and single source of operational truth. The incident log records what happened and when. The decision register records alternatives considered, assumptions, decision owners and expected consequences. These records support coordination, legal defensibility and post-event learning. They also reduce the tendency to reinterpret decisions after the outcome is known.

Escalation and Activation

Plans should define objective activation triggers rather than rely on senior executives’ intuition. Triggers may include a projected stockout of a critical product, loss of a strategic facility, a cyber incident affecting warehouse systems, inability to meet regulatory service requirements, a confirmed safety event, or a disruption expected to exceed the organisation’s recovery time objective. Escalation should also occur when uncertainty itself becomes material—for example, when data integrity cannot be established.

A practical escalation protocol contains five steps:

1. Detect and report: receive an alert from a control tower, employee, supplier, carrier, customer or public authority.

2. Validate and classify: confirm the event, estimate scope, classify severity and identify immediate hazards.

3. Activate: appoint the incident leader, convene relevant functions and establish reporting intervals.

4. Stabilise: protect people, contain damage, preserve evidence and maintain essential flows.

5. Review status: reassess severity, revise assumptions and either de-escalate or expand the response.

Plans should specify who can activate them at night, across time zones and during communications failure. A plan that depends on one executive’s availability is not resilient.

Business Impact Analysis and Continuity Design

Business continuity begins with a business impact analysis (BIA). The BIA identifies processes, resources and outputs that are critical to customers, safety, regulation and financial survival. It examines the consequences of interruption over time rather than simply asking whether an activity is important.

Four related measures are especially useful:

  • Maximum tolerable period of disruption (MTPD): the longest period a process can remain unavailable before consequences become unacceptable.
  • Recovery time objective (RTO): the target time for restoring a process or service after disruption.
  • Recovery point objective (RPO): the maximum acceptable loss of data, expressed in time or transaction terms.
  • Minimum business continuity objective (MBCO): the minimum level of service that must be maintained during the disruption.

For example, an order-entry system may have an RTO of four hours and an RPO of fifteen minutes, while a non-critical reporting platform may have a two-day RTO. These targets should be based on impact analysis, not technical preference. They must also recognise dependencies: a warehouse cannot recover its picking operation if identity management, transport booking, power or master data remains unavailable.

The BIA should map process dependencies across suppliers, ports, carriers, utilities, people, facilities, equipment, software, data and regulatory permissions. A tier-one supplier may appear replaceable until its specialised tooling, certification or upstream sub-tier network is considered. Dependency mapping should therefore include concentration risk, geographic correlation and common infrastructure. Two suppliers located in different legal entities may still depend on the same port, cloud provider, raw-material region or transport corridor.

Continuity strategies can include:

  • alternate suppliers, qualified before the crisis;
  • dual or multi-sourcing for critical items;
  • strategic inventory, safety stock or postponement;
  • alternate warehouses, cross-docks and transport routes;
  • manual workarounds and offline documentation;
  • reciprocal capacity agreements with partners;
  • backup power, communications and information systems;
  • product substitution or controlled specification changes;
  • prioritised customer allocation and order throttling.

Each strategy has a cost and may introduce new risks. Safety stock ties up capital and can become obsolete. Dual sourcing may reduce economies of scale and complicate quality control. Alternate routes may increase emissions and expose the firm to unfamiliar regulations. Continuity planning is therefore a portfolio decision, not a search for one universally superior solution.

Response Protocols in Practice

Once a disruption is confirmed, the first operational requirement is a common operating picture. Managers need a shared view of affected locations, inventory, orders, transport capacity, supplier status, customer commitments, safety conditions and information reliability. Data should be labelled as confirmed, estimated or unverified. False precision is dangerous: a precise-looking but unsupported arrival time may cause customers to make irreversible decisions.

The response team should establish a short planning cycle. At each cycle it should ask: What has changed? What is known? What is uncertain? Which decisions are time-critical? What options protect the highest-priority outcomes? Who owns the next action? When will the situation be reviewed? Short cycles prevent the organisation from treating an outdated plan as fact.

Inventory and order allocation require explicit rules. When supply is scarce, allocation may be based on safety criticality, contractual obligations, vulnerability, customer impact, revenue, strategic importance or first-come-first-served principles. These criteria should be approved in advance where possible. A hidden preference for the loudest customer or the highest-margin order can create legal, ethical and reputational problems.

Transport response commonly involves rerouting, mode substitution, consolidation, carrier diversification, temporary storage and controlled use of premium freight. The decision should include total landed cost, lead time, customs implications, cargo security, capacity reliability and environmental impact. Emergency airfreight can restore availability quickly but may worsen cost, carbon emissions and airport congestion. A credible response evaluates these trade-offs rather than automatically choosing the fastest mode.

Communication as an Operational Capability

Communication is not an announcement made after decisions are complete; it is part of response control. Employees need instructions about safety, authority and work methods. Suppliers need forecasts, specifications, allocation decisions and payment expectations. Customers need realistic service information and alternatives. Regulators and emergency services need accurate, timely and appropriately documented information. Investors and the public may require a different level of disclosure.

Effective crisis communication is timely, factual, empathetic, consistent and update-oriented. It should distinguish confirmed facts from working assumptions and state when the next update will be issued. A message such as “orders will be delivered tomorrow” is inferior to “the main facility is unavailable; priority orders are being processed at the alternate site; delivery dates for affected orders will be confirmed by 16:00.”

Communication governance should identify authorised spokespeople, approval routes, translation needs, accessible formats, records-retention requirements and social-media monitoring. Employees should hear important information directly rather than through rumours. Suppliers should not receive contradictory instructions from procurement, operations and sales. A stakeholder map helps determine each audience’s information needs, influence and preferred channel.

Transparency does not mean releasing unverified details or confidential information. Ethical communication balances the right to know with privacy, cybersecurity, commercial confidentiality and public safety. Concealing a product safety issue or misleading customers about recovery status is unacceptable even if it temporarily protects reputation.

Recovery: From Stabilisation to Renewal

Recovery begins when immediate harm is controlled, but it is not simply a return to the previous configuration. Temporary workarounds create hidden costs, quality risks, employee fatigue and data inconsistencies. Recovery planning should therefore distinguish between stabilisation, restoration and transformation.

Stabilisation maintains the minimum acceptable service. Restoration returns facilities, systems, suppliers and processes to a reliable operating condition. Transformation redesigns the network in light of what the event revealed. For example, a firm may restore supply through an alternate warehouse and later redesign its inventory positioning, supplier qualification and order-prioritisation rules.

Recovery sequencing should consider dependency and value. Critical information systems may need to be restored before automated warehouses; utilities before production; quality assurance before customer release. Priority should also consider safety, regulatory obligations, contractual exposure, customer harm, cash generation and strategic capability. A recovery dashboard can track service level, backlog, fill rate, inventory accuracy, supplier recovery, transport reliability, employee availability, incident costs and customer complaints.

Managers should define exit criteria for emergency arrangements. Examples include a stable forecast for a specified period, validated inventory records, restored system controls, qualified suppliers, completed safety checks and approval from the incident team. Without exit criteria, expensive emergency practices can become permanent and obscure unresolved weaknesses.

Exercises, Simulations and Learning

Plans are hypotheses about how an organisation will behave under stress. Exercises test those hypotheses. A tabletop exercise uses discussion to examine roles, assumptions and decisions. A functional exercise tests a particular capability, such as transport rerouting or cyber recovery. A full-scale exercise involves physical deployment and operational coordination. Simulation can also use digital twins, scenario models or agent-based tools to explore network consequences without interrupting real operations.

A well-designed exercise has clear objectives, a scenario, assumptions, participants, injects and evaluation criteria. Injects are new pieces of information introduced during the exercise, such as a second supplier failure, misinformation, a regulatory request or loss of a communications channel. The scenario should be plausible but challenging. Exercises that merely confirm that everyone can find the plan provide little learning.

Evaluation should examine capability rather than individual blame. Useful measures include time to detect, time to activate, time to establish a common operating picture, quality of decisions, speed of stakeholder communication, adherence to authority limits, effectiveness of manual workarounds and ability to identify cascading effects. A post-exercise after-action review asks what was expected, what occurred, why the difference existed and which corrective action will be assigned, funded and verified.

Learning must enter a formal improvement cycle. Corrective actions should have owners, deadlines, resources and evidence of closure. Repeatedly recording “improve communication” without specifying the channel, owner and test is not learning; it is documentation.

Illustrative Case: The Meridian Medical Distribution Disruption

Background

Meridian Medical Distribution, a fictional regional logistics provider, supplies hospitals and clinics from a central temperature-controlled distribution centre. It uses a warehouse-management system integrated with customer ordering, a small number of specialist carriers and a network of approved pharmaceutical suppliers. Several products have strict temperature and traceability requirements.

Situation

At 03:20 on a weekday, a ransomware attack disables warehouse scanners, order interfaces and parts of the transport-planning system. At the same time, a severe storm closes the road serving the distribution centre. Inventory remains physically present, but electronic availability and location records cannot be trusted. Several hospitals have less than twenty-four hours of stock for critical medicines.

Analysis

The event is both a cyber incident and a physical access disruption. Treating it as only an IT problem would ignore road access and patient consequences; treating it as only a transport problem would overlook data integrity and cyber-containment requirements. The crisis team classifies the event as a major emergency and activates its continuity plan.

The BIA identifies critical medicine fulfilment, cold-chain integrity, traceability, emergency customer communication and regulatory reporting as immediate priorities. Routine commercial reporting and non-critical replenishment are deferred. The team also recognises that restoring the warehouse-management system before validating data could release incorrect products or quantities.

Approach

The incident commander separates the work into four coordinated streams. IT isolates affected systems, preserves evidence and establishes a clean recovery environment. Operations creates a controlled manual process using pre-printed location lists, dual verification and restricted picking teams. Procurement contacts approved alternate suppliers and checks available stock. Logistics identifies a secondary facility and carriers able to approach hospitals through open routes.

A clinical-priority allocation rule is applied: emergency and life-sustaining products receive priority, followed by products with the shortest remaining supply window. The rule is communicated to customers with an explanation of how non-critical orders will be rescheduled. The communications lead issues updates every four hours, clearly distinguishing confirmed inventory from inventory awaiting physical verification.

Before system restoration, a sample of recovered records is reconciled against physical counts and supplier documentation. The company uses the secondary facility for verified stock and arranges controlled transfers. Senior management approves temporary premium transport despite its cost because the alternative would create unacceptable patient risk.

Outcome

Meridian restores priority fulfilment through manual processes and the alternate facility while the primary site remains inaccessible. No unverified stock is released. After system recovery, the organisation conducts a complete inventory reconciliation and reviews carrier and supplier dependencies. It subsequently introduces offline order procedures, stronger segmentation of warehouse technology, a second qualified cold-chain facility and a formal allocation policy.

Learning Points

The case demonstrates that continuity depends on more than backup software. Physical access, data integrity, product criticality, human authority, customer communication and regulatory evidence must be coordinated. It also shows why recovery should not be equated with immediate system restoration: a technically available system may still be operationally unsafe until data and controls are validated.

Challenges, Limitations and Common Mistakes

The first common mistake is confusing a documented plan with capability. Plans become obsolete when facilities, suppliers, systems, staff or regulations change. The second is excessive complexity. A plan containing hundreds of pages may be unusable during a crisis; critical actions, contacts and decision rules must be quickly accessible.

Other recurrent weaknesses include unclear authority, dependence on a single communication channel, failure to include sub-tier suppliers, inadequate manual procedures, untested contact lists, poor distinction between facts and assumptions, and recovery metrics that measure activity rather than service restoration. Organisations may also over-optimise for efficiency, removing spare capacity that would have absorbed disruption.

Plans have inherent limitations. No scenario library can predict every combination of events. Redundancy can be expensive, and suppliers may be unwilling to reveal their own vulnerabilities. Simulations can create artificial behaviour, while quantitative models often depend on uncertain probabilities and incomplete dependency data. These limitations do not justify inaction; they require adaptive planning, judgement and repeated testing.

Ethical, Regulatory and Professional Considerations

Crisis decisions must respect occupational safety, data protection, product liability, customs and trade controls, environmental obligations, contractual duties and sector-specific regulation. Emergency conditions do not automatically suspend legal requirements. Where temporary deviations are unavoidable, they should be documented, authorised and reviewed.

Ethical questions arise in scarce allocation, employee safety, customer prioritisation, use of temporary labour, surveillance of workers, disclosure of cyber incidents and treatment of vulnerable communities. A professional response makes criteria explicit, applies them consistently and provides a route for challenge or review. It avoids shifting unreasonable risk to suppliers, carriers or employees simply because they have less bargaining power.

Board oversight should address resilience investment, risk appetite, crisis authority, critical third-party exposure and lessons from major events. Internal audit and assurance functions can test whether corrective actions are genuinely implemented. Resilience is ultimately a governance responsibility, not merely an operations project.

Digital Tools and Emerging Developments

Control towers, event-monitoring platforms, GPS data, Internet of Things sensors, warehouse telemetry and supplier portals can improve detection and situational awareness. Digital twins and network models can compare rerouting, inventory and capacity scenarios. Artificial intelligence may support anomaly detection, demand sensing, ETA prediction, document analysis and prioritisation; however, AI outputs require human oversight, reliable data, explainable criteria and protection against manipulation.

Cyber resilience is increasingly inseparable from supply-chain continuity. Backup systems must be isolated sufficiently to resist simultaneous compromise, and restoration must include identity, master data, interfaces and operational technology—not only servers. Organisations should test degraded-mode operations and verify that suppliers and logistics partners maintain equivalent controls.

Emerging practice is moving toward continuous resilience management: real-time risk sensing, dynamic safety-stock positioning, multi-echelon scenario analysis and collaborative response platforms. These tools can accelerate decisions, but technology cannot resolve conflicting objectives or assign ethical priorities without governance.

Best Practices for Managers

Effective organisations tend to:

  • define critical services and measurable recovery objectives;
  • maintain current dependency maps and validated contact lists;
  • establish authority, escalation thresholds and allocation rules in advance;
  • combine prevention, redundancy, flexibility and collaboration;
  • design manual and degraded-mode procedures for essential processes;
  • communicate facts, uncertainty and update times consistently;
  • exercise plans with realistic injects and cross-organisational participants;
  • record decisions and convert lessons into funded corrective actions;
  • measure recovery by customer, safety and service outcomes, not only internal activity;
  • review resilience after network, technology, supplier or regulatory changes.

Chapter Summary

Disruption response protects people and stabilises an incident; business continuity maintains critical services; recovery restores, improves and learns from operations. Effective practice begins with preparedness, business impact analysis, dependency mapping and explicit recovery objectives. During an event, an incident-management structure, common operating picture, decision register and short planning cycles support disciplined action. Continuity strategies may involve alternate suppliers, inventory, facilities, transport modes, technology and manual procedures, but each creates trade-offs. Communication is an operational capability requiring accuracy, empathy, consistency and governance. Recovery should progress from stabilisation to restoration and, where appropriate, transformation. Exercises, simulations and after-action reviews turn plans into organisational capability. Ethical allocation, regulatory compliance, cyber resilience and accountable leadership must remain central throughout the process.

Key Terms

Incident response: Immediate coordinated action to contain an event and protect people, assets and operations.

Crisis management: Leadership and governance of an event that exceeds routine management capacity.

Business continuity: Capability to maintain or restore critical activities during disruption.

Recovery: Process of returning operations to reliable, acceptable or improved performance after disruption.

Resilience: Ability to absorb, adapt to and recover from disturbance while continuing to create value.

Business impact analysis: Structured assessment of how interruption affects processes, stakeholders and objectives.

MTPD: Maximum tolerable period for which a process can remain unavailable.

RTO: Target time for restoring a process or service.

RPO: Maximum acceptable loss of data measured in time or transactions.

MBCO: Minimum service level that must be maintained during disruption.

Common operating picture: Shared, current view of conditions, impacts, resources and uncertainties.

Incident commander: Person accountable for coordinating the overall response.

Escalation trigger: Defined condition that activates a higher level of response authority.

Continuity strategy: Planned arrangement for maintaining critical operations under disrupted conditions.

Stabilisation: Actions that control immediate harm and maintain minimum acceptable service.

After-action review: Structured examination of expected and actual performance to identify improvements.

Tabletop exercise: Discussion-based test of plans, roles and decisions.

Decision register: Record of crisis decisions, assumptions, alternatives and owners.

Degraded-mode operation: Controlled operation using reduced capability or manual workarounds.

Control tower: Integrated capability for monitoring supply-chain events, data and responses.

Review Questions

Short Answer Questions

1. Distinguish an incident, an emergency and a crisis in supply-chain management.

2. What is the difference between an RTO and an RPO?

3. Why is a common operating picture important during disruption response?

4. Identify three continuity strategies and one trade-off associated with each.

5. What is the purpose of an after-action review?

Long Answer Questions

1. Explain how a business impact analysis supports continuity planning and recovery prioritisation.

2. Describe the structure, responsibilities and activation process of an effective incident-management team.

3. Discuss the role of communication in disruption response, including the needs of different stakeholder groups.

4. Explain how organisations can move from stabilisation and restoration toward post-event transformation.

5. Evaluate the benefits and limitations of simulations, tabletop exercises and digital tools in resilience management.

Analytical / Application Questions

1. A port closure is expected to last ten days, while a key customer has only four days of inventory. Develop a response protocol covering escalation, allocation, transport and communication.

2. A cyberattack leaves warehouse inventory records unreliable but the physical stock accessible. Using the Meridian case, design a safe continuity process and specify recovery criteria.

3. Two suppliers offer alternative capacity: one is faster but concentrated in a region exposed to the same hazard, while the other is slower but geographically independent. Analyse the decision using resilience, cost, service and ethical criteria.

22. Multiple Choice Questions with Answers

Question 1

Which measure identifies the longest period a process can remain unavailable before consequences become unacceptable?

A. Recovery point objective

B. Maximum tolerable period of disruption

C. Minimum business continuity objective

D. Recovery time objective

Correct Answer: B. Maximum tolerable period of disruption

Question 2

During a disruption, which action should generally receive the highest priority?

A. Protecting quarterly revenue targets

B. Restoring routine management reporting

C. Protecting human life, health and safety

D. Returning all operations to normal immediately

Correct Answer: C. Protecting human life, health and safety

Question 3

What is the principal purpose of a common operating picture?

A. To replace all managerial judgement with automation

B. To provide a shared view of conditions, impacts and uncertainties

C. To record only financial losses after an event

D. To ensure that every decision is made centrally

Correct Answer: B. To provide a shared view of conditions, impacts and uncertainties

Question 4

A warehouse system is restored after a cyberattack, but inventory records have not been reconciled with physical stock. What should the organisation do before releasing products?

A. Release all high-margin products first

B. Wait until every non-critical report is restored

C. Validate recovered data and operational controls

D. Allow each customer to select its own allocation

Correct Answer: C. Validate recovered data and operational controls

Question 5

Which statement best distinguishes recovery from stabilisation?

A. Recovery concerns only public relations, while stabilisation concerns only finance

B. Stabilisation controls immediate harm, while recovery restores or improves reliable operations

C. Recovery occurs before an incident, while stabilisation occurs after it

D. Stabilisation requires permanent infrastructure, while recovery uses temporary workarounds

Correct Answer: B. Stabilisation controls immediate harm, while recovery restores or improves reliable operations

Question 6

Why should crisis communication distinguish confirmed facts from assumptions?

A. To avoid giving stakeholders any information

B. To create false confidence in the response

C. To reduce decisions based on inaccurate or outdated information

D. To transfer communication responsibility to suppliers

Correct Answer: C. To reduce decisions based on inaccurate or outdated information

Question 7

Which exercise introduces new information, such as a second supplier failure, during the test?

A. An inject-based exercise

B. A financial audit

C. A routine inventory count

D. A static compliance review

Correct Answer: A. An inject-based exercise

Question 8

A firm selects suppliers in different countries, but both rely on the same port and raw-material region. What risk remains significant?

A. Product substitution risk only

B. Common dependency and geographic correlation risk

C. Elimination of all continuity risk

D. Reduced need for supplier monitoring

Correct Answer: B. Common dependency and geographic correlation risk

Question 9

Which is the strongest example of an ethical allocation rule during shortage?

A. Always serve the loudest customer first

B. Allocate solely according to the highest profit margin

C. Use transparent criteria based on criticality and stakeholder impact

D. Allow individual sales employees to allocate inventory privately

Correct Answer: C. Use transparent criteria based on criticality and stakeholder impact

Question 10

What makes a corrective action from an after-action review meaningful?

A. It uses broad language such as 'improve coordination'

B. It is assigned an owner, deadline, resources and evidence of closure

C. It is discussed but not documented

D. It focuses only on identifying an individual to blame

Correct Answer: B. It is assigned an owner, deadline, resources and evidence of closure

Global Supply Chain Risk and Resilience Management
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