International Management / Chapter 13

The global value chain

International competitiveness emerges from the coordination of production, sourcing, logistics, information and services across borders.

ProductionSourcingLogisticsServices

1. Global value creation as an integrated management system

International competitiveness depends not only on a company’s technological capabilities or the quality of its products, but also on its ability to organize and coordinate value creation across national boundaries. Production, procurement, logistics, information management, and customer services must operate as an integrated system, even when activities are distributed among different countries and organizations.

International Production Management (IPM) concerns the strategic planning, organization, and control of cross-border production and value creation. Its purpose is to combine global efficiency with the ability to respond to different market requirements while maintaining consistent quality and operational reliability.

Supply Chain Management (SCM) extends this perspective to the coordinated management of interconnected value creation activities, including suppliers, internal production, material flows, and distribution. Individual decisions concerning production, sourcing, location, and transportation affect the performance of the entire chain.

The central managerial challenge is interdependence. A sourcing decision changes the company’s cost structure and exposure to supply interruptions. A location decision affects transportation requirements and the speed of coordination. A production strategy influences the resources available for maintenance and customer support. What appears efficient in one activity can create substantial costs or risks elsewhere.

Managing the global value chain therefore requires a system-oriented perspective rather than the isolated optimization of individual operations.

2. The strategic dilemma: Global efficiency versus local adaptation

The fundamental strategic tension in international production is between standardization and individualization, or local adaptation.

Standardization seeks to achieve efficiency through globally uniform products, technologies, production processes, and quality requirements. By reducing variation, companies simplify production planning, coordination, and quality assurance. Larger production volumes also make it possible to realize economies of scale, meaning that average costs decline as output increases and fixed costs are distributed across more units.

Local adaptation responds to differences among markets, including regulatory requirements, climatic conditions, customer expectations, and cultural preferences. A product or production process that performs efficiently in one environment may be unsuitable in another. Consequently, uniformity cannot be treated as an objective independent of market requirements.

Strategic dimensionGlobal standardizationLocal adaptation
Primary objectiveEfficiency, consistency, cost reductionMarket relevance, suitability, responsiveness
Product designUniform specificationsAdjustments to local requirements
Production processesCommon methods and proceduresFlexibility in local execution
Quality managementGlobally consistent requirementsApplication under different local conditions
Economic advantageEconomies of scale and simplified coordinationGreater suitability for customers and markets
Principal riskExcessive rigidity and inadequate market fitHigher costs and coordination complexity

Neither approach is sufficient on its own. Excessive standardization may reduce costs while making products unsuitable for particular markets. Excessive adaptation can multiply engineering effort, complicate quality assurance, and eliminate economies of scale.

The managerial task is to determine which elements must remain common and which require differentiation.

2.1 Productivity, technology, quality, and information

Four closely connected considerations determine how the balance is implemented.

Productivity concerns the efficient use of resources in production. Standardized processes and larger production volumes can improve productivity, but these benefits must be weighed against the costs of serving markets with different requirements.

Technology provides the capabilities underlying products and production systems. Management must determine how technological competencies can be applied consistently across markets without preventing necessary adaptations.

Quality management ensures that products and processes meet defined requirements across locations. Total Quality Management (TQM) treats quality as an integral responsibility of the entire organization and its processes, rather than as a separate inspection activity at the end of production. International operations consequently require coordinated quality practices even when production activities are geographically dispersed.

Information management connects decisions and processes across the value chain. Production planning, procurement, quality assurance, and logistics depend on reliable information flows. Geographic distribution increases the importance of coordination because decisions at one location can immediately affect activities elsewhere.

The implication is that global efficiency and local adaptation must be reconciled through the combined management of production technology, quality, productivity, and information rather than through product design alone.

3. Production depth and the make-or-buy decision

A fundamental decision in international production concerns which activities should be performed internally and which should be entrusted to external suppliers.

This is the make-or-buy decision, closely associated with vertical integration.

Vertical integration describes the extent to which a company performs successive stages of value creation within its own organization. A high degree of integration means that more activities remain under internal control. A lower degree means greater reliance on external suppliers.

3.1 Internal production: The make alternative

Internal production is particularly relevant when an activity involves core competencies, strategically important technologies, or requirements that justify direct operational control.

Its principal advantages are:

Direct control over production processes, technology, and quality.

Retention of strategically important competencies within the organization.

Reduced dependence on external suppliers for critical activities.

Closer coordination of technological development and production.

These advantages come at a cost. Internal production requires investment in facilities, personnel, technologies, and production capabilities. It can also reduce flexibility by committing resources to particular activities and technologies.

3.2 External sourcing: The buy alternative

External sourcing allows companies to obtain products, components, or systems from specialized suppliers instead of producing everything themselves.

Its advantages include reduced internal investment requirements, access to supplier specialization, and greater flexibility in allocating resources. It may also permit management to concentrate on activities in which the company possesses its strongest competencies.

However, outsourcing transfers part of the production process beyond direct hierarchical control. The company becomes dependent on supplier performance, delivery reliability, and contractual arrangements.

The decision therefore involves more than comparing internal manufacturing costs with purchase prices. Management must assess the strategic importance of the activity, the degree of technological control required, the financial commitment, and the risks created by external dependence.

The governing principle is that production depth should follow the company’s core competencies and the requirements of the overall value chain, not an isolated preference for ownership or outsourcing.

4. Sourcing strategies and supply chain resilience

Once management determines which activities will be externally sourced, it must decide how suppliers will be selected and organized.

Sourcing strategy directly influences procurement costs, operational flexibility, bargaining power, quality assurance, and resilience.

Resilience is the ability of the supply chain to withstand or respond to disruptions while preserving or restoring its operational capability.

4.1 Comparison of sourcing strategies

StrategyOperating mechanismPrincipal advantagePrincipal limitation
Single sourcingProcurement concentrated with one supplierVolume advantages, simpler coordination, closer relationshipsHigh dependency and concentrated interruption risk
Multiple sourcingProcurement distributed among several suppliersDiversification, redundancy, stronger bargaining positionPotentially higher costs and coordination requirements
Modular sourcingComplete modules purchased from system suppliersReduced complexity in final assemblyGreater reliance on external module suppliers
Global sourcingSuppliers selected internationallyAccess to cost advantages and international capabilitiesLonger supply chains and greater exposure to cross-border risks
Local sourcingSuppliers located near production or customer marketsShorter delivery routes, responsiveness, just-in-time capabilityPotentially higher sourcing costs or fewer supplier options

These strategies address different decisions and are not necessarily mutually exclusive. Single or multiple sourcing concerns supplier concentration, modular sourcing concerns the scope of the purchased deliverable, and global or local sourcing concerns geographic origin.

4.2 The strategic risks of single sourcing

Single sourcing can produce substantial economic advantages through the concentration of purchasing volumes. It may facilitate long-term cooperation, consistent specifications, and simplified supplier coordination.

However, dependence on a single supplier creates several interconnected risks.

Dependency and bargaining power. When alternatives are limited, the supplier gains leverage over prices, delivery terms, and commercial conditions. The purchasing company also loses flexibility in responding to unsatisfactory performance.

Supply interruption. Operational difficulties, financial problems, natural disasters, or other disruptions at the supplier can interrupt the entire downstream production process. The absence of an alternative source can turn a localized problem into a production shutdown.

Quality and innovation. If the supplier’s quality deteriorates or its technological development stagnates, the purchasing company may lack a readily available alternative. This is particularly serious when purchased components are essential to product performance and technological competitiveness.

Geopolitical exposure. Concentrating supply in a single international location can amplify exposure to trade restrictions, sanctions, political instability, and regulatory interventions.

The apparent savings from concentrated purchasing must consequently be evaluated against the potential consequences of dependency and interruption.

4.3 Mechanisms for reducing supplier risk

A resilient sourcing strategy combines diversification, cooperation, contractual governance, and inventory protection.

Supplier diversification. Developing a qualified second supplier creates an alternative source of supply, reduces dependence, and improves bargaining power. This may require accepting smaller purchasing volumes and higher procurement costs.

Strategic supplier partnerships. Long-term relationships supported by joint development, transparent production planning, coordinated quality management, and aligned interests can reduce opportunistic behavior and improve supplier performance.

Safety stocks. Maintaining additional inventories of critical components provides protection against short-term delivery interruptions. The trade-off is higher storage costs and capital tied up in inventory.

Contractual safeguards. Supplier agreements should establish prices, delivery volumes, quality requirements, consequences of delayed or defective deliveries, and clearly defined exit conditions.

These mechanisms address different dimensions of risk. Diversification limits dependency, partnerships improve cooperation, inventories absorb temporary interruptions, and contracts clarify obligations and remedies.

None eliminates uncertainty entirely. Effective sourcing governance requires their deliberate combination according to the criticality of the purchased activity.

5. Global location strategy: Where value creation should take place

Production location is a long-term strategic decision because facilities, infrastructure, workforce capabilities, and supplier relationships involve substantial commitments that cannot easily be reversed.

Location affects operating costs, market access, coordination, quality, and supply chain resilience. A low-cost location does not necessarily produce the lowest overall cost or the most reliable international operation.

5.1 Four categories of location determinants

Country-specific factors include access to skilled labor, industrial infrastructure, and the resources needed for effective production. Labor costs alone are insufficient; the available workforce must possess the capabilities required by the production system.

Political factors include government incentives, free trade zones, political stability, and the institutional conditions governing investment and operations. Attractive incentives may reduce costs, but political uncertainty can undermine the long-term viability of the investment.

Product-related factors concern the physical and technological characteristics of what is being produced. Products with a low value-to-weight ratio can be particularly expensive to transport over long distances. This strengthens the economic argument for placing final assembly near the market.

Organizational factors concern the company’s strategy and its capacity to coordinate geographically distributed activities. A location must be compatible with the intended production model, the distribution of technological competencies, and the requirements of quality management.

A location decision should evaluate these factors together because their effects are interdependent.

5.2 Concentrated versus decentralized production

DimensionConcentrated productionDecentralized production
OrganizationProduction concentrated in fewer locationsProduction distributed among several locations
Economic logicEconomies of scale and consolidated resourcesMarket proximity and local responsiveness
CoordinationFewer production interfacesMore geographically dispersed interfaces
AdaptationLess immediate proximity to differing market requirementsGreater scope for local adaptation
Risk considerationConcentration of operational exposureGeographic distribution of activities, with additional coordination requirements
Strategic emphasisEfficiency and consolidated controlFlexibility, proximity, and responsiveness

Concentrated production can simplify coordination and improve scale efficiency. Decentralized production allows selected activities to operate closer to customers and may reduce long-distance transportation requirements.

The appropriate choice depends on the value of market proximity, the costs of geographic dispersion, the need for specialized capabilities, and the risks of concentrating operations.

5.3 Relocation and risk-aware production geography

Reshoring, or relocating production toward the home-market environment in the strategic discussion, reflects a reassessment of geographically dispersed production.

The underlying reasoning is that lower production costs at distant locations may be offset by long transportation routes, complex customs procedures, geopolitical exposure, and difficulties coordinating development, production, and quality assurance.

Moving production closer to established operational centers can shorten logistics chains and improve coordination. However, it may also increase operating costs or reduce proximity to important growth markets.

The decision should therefore be based on comparative strategic value rather than the assumption that either distant or nearby production is inherently superior.

5.4 Weighted location evaluation

A weighted evaluation matrix makes competing location alternatives comparable by explicitly establishing decision criteria and their relative importance.

The method follows four steps:

Select the criteria relevant to the investment, such as logistical connectivity, workforce qualifications, operating costs, and political or legal stability.

Assign weights reflecting their strategic importance. The weights must total 100%.

Rate each location against every criterion using a consistent scale, such as 1 to 10.

Calculate the weighted total by multiplying each rating by its criterion weight and summing the results.

A location’s total score is therefore:

Sⱼ = ∑ᵢ₌₁ⁿ wᵢ rᵢⱼ

where Sⱼ is the total score of location j, wᵢ is the normalized weight of criterion i, and rᵢⱼ is the rating of location j against that criterion.

A cost-focused strategy will assign different priorities from a strategy emphasizing supply chain resilience and production quality. For example, logistical proximity and skilled labor may outweigh operating-cost advantages when reliable coordination of technologically demanding production is paramount.

The matrix supports a transparent decision by making assumptions and priorities explicit. Its result remains dependent on the selected criteria, assigned weights, and quality of the underlying evaluations. Numerical precision does not eliminate managerial judgment.

6. International production networks and operational coordination

International production may distribute technological development, component manufacturing, final assembly, and related activities among different countries.

Such arrangements can combine specialized production competencies with market proximity. Technologically demanding activities may remain concentrated in locations possessing established capabilities, while other activities are positioned closer to the markets they serve.

This division can reconcile efficiency and adaptation, but it creates additional coordination requirements.

The operating system must connect geographically separated activities through common production requirements, coordinated schedules, reliable material flows, and consistent quality assurance.

A production network cannot be judged solely by the efficiency of its individual plants. Its performance depends on whether the activities performed at different locations can be synchronized.

Three consequences follow.

First, geographic specialization creates dependencies. The output of one location becomes an input required by another. An interruption at one stage can therefore prevent subsequent stages from operating.

Second, distances and interfaces become operational constraints. Longer transportation routes and multiple handovers increase delivery times and the number of possible disruption points.

Third, quality and information must be managed across the entire chain. Local production performance is insufficient if specifications, schedules, and material availability are not coordinated.

International production management consequently connects strategic choices about global efficiency and market adaptation with the practical reliability of the entire production network.

7. International logistics and material-flow management

International logistics transforms geographically distributed production activities into a functioning value chain. It ensures that materials and products move between locations in accordance with production and delivery requirements.

Two related areas must be distinguished.

Materials management concerns the availability and movement of materials required for production. It involves coordinating requirements, inventories, and material supply so that production can proceed.

Physical distribution concerns the actual transportation and movement of materials or products through the logistics network.

Both must function together. Adequate material availability at one location does not ensure production continuity elsewhere if transportation is interrupted.

7.1 The principal challenges of international logistics

Geographic distance increases transportation time and can make supply more vulnerable to disruption.

Multimodal transport combines several transportation modes, such as rail, sea, and road. It can make long-distance movements possible, but each transfer and transport interface introduces coordination requirements and potential delays.

Regulatory conditions influence the movement of goods across borders. Changes in customs rules or administrative requirements can delay components even when production and purchasing have otherwise proceeded as planned.

Dependency on particular routes can expose the entire chain to a disruption at a single transport interface. The longer and more interconnected the chain, the greater the need to anticipate how interruptions will affect downstream operations.

These characteristics explain why international logistics must be incorporated into sourcing and location decisions rather than treated as a separate transportation function.

7.2 Just-in-time efficiency versus protective inventories

Just-in-time supply aims to provide materials when they are needed, reducing unnecessary inventory and associated costs.

Its effectiveness depends on reliable deliveries and close coordination between suppliers, logistics providers, and production locations.

Long international supply chains can weaken these conditions. Delays arising from transportation, customs, or geopolitical disruptions may leave production without essential components.

Safety stocks provide a buffer against temporary interruptions, but require additional capital and inventory expenditure.

The appropriate inventory policy therefore balances two different costs: the financial burden of holding stock and the operational consequences of being unable to continue production.

For strategically critical components, the consequences of interruption may justify additional protective inventories.

8. Supply chain disruptions and contingency management

The vulnerability of international supply chains becomes especially important when an interruption threatens production continuity, contractual commitments, or financial performance.

A disruption can propagate through the value chain. Transport delays reduce component availability. Material shortages interrupt production. Production interruptions threaten delivery dates. Missed deadlines can lead to contractual penalties and damage customer relationships.

Effective contingency management must therefore consider both the immediate operational problem and its wider consequences.

8.1 Immediate response and decision authority

The first phase of a major supply chain disruption requires a coordinated response.

An interdisciplinary crisis team should bring together logistics, procurement, production, and sales, with sufficient authority to make rapid decisions.

Its initial responsibilities are:

Establish a reliable situation assessment: Determine the nature, geographic scope, and expected duration of the disruption.

Review inventories throughout the chain: Identify available components at production locations, in storage, and in transit.

Determine the time to shutdown: Estimate when insufficient material availability will cause production to stop.

Assess operational and contractual exposure: Identify threatened production commitments and the consequences of delayed deliveries.

Communicate proactively: Provide customers and affected operational units with timely information and coordinate potential adjustments.

Time to shutdown is a particularly important planning indicator. It links the available material buffer with the urgency of alternative supply measures.

Without this information, management may incur excessive emergency costs or act too late to prevent a shutdown.

8.2 Alternative transportation strategies

When established routes become unavailable or unreliable, management must evaluate alternative transportation modes.

AlternativeMain advantageMain limitationManagerial consideration
Air freightVery short transportation timeVery high costAppropriate for critical components when avoided disruption costs justify the expense
Alternative sea routesMaintains maritime supply when a particular route is blockedLonger transit times and higher transportation costsUseful when continuity can be maintained despite the additional delay
Rail transportationPotentially faster than sea transport over relevant long-distance corridorsHigher costs, capacity constraints, and customs complexityRequires assessment of route availability and border procedures
Road transportationSupports flexible movements and multimodal connectionsDependent on infrastructure, distance, and border conditionsImportant within alternative logistics arrangements

The choice must reflect urgency, component criticality, transportation capacity, and the consequences of delayed production.

Air freight illustrates the trade-off particularly clearly. Although expensive, it may be economically justified when the absence of a critical component would cause production to stop or substantial penalties to arise.

Alternative sea routes may preserve supply but require acceptance of longer transit times. Rail connections can offer faster transportation than sea routes, while introducing their own capacity and regulatory constraints.

8.3 From emergency response to resilient network design

Contingency plans reduce the damage caused by disruptions, but they do not eliminate the underlying vulnerabilities created by sourcing and production decisions.

Long-term resilience requires management to reconsider supplier concentration, inventory policies, transport-route dependency, and geographic distribution.

A company that relies exclusively on emergency reactions remains exposed to the same vulnerabilities whenever a new interruption occurs.

The strategic objective is therefore not simply to respond effectively when a supply chain fails. It is to design a value chain in which foreseeable forms of dependency are deliberately managed before disruptions occur.

9. International services as part of global value creation

International value creation is not limited to manufacturing and distributing physical products. Maintenance, technical support, operational assistance, and related services can form an important part of the customer’s overall experience and the company’s long-term revenue generation.

However, services follow management principles that differ from those governing physical goods.

Four characteristics are particularly important: immateriality, non-storability, customer participation, and product linkage.

9.1 Immateriality: Service quality and trust

Services are immaterial in the sense that their central value consists in performance rather than ownership of a physical product.

Customers judge technical services not only by the work performed, but also by responsiveness, reliability, communication, and confidence that commitments will be fulfilled.

Trust therefore becomes an essential part of perceived service quality.

A failure in service delivery can damage the customer’s confidence even when the underlying physical product remains technically sound.

The managerial implication is that service performance includes both technical execution and the credibility of the service relationship.

9.2 Non-storability: Capacity cannot be inventoried

Unlike manufactured goods, unused service capacity cannot simply be stored for future use.

Qualified personnel, maintenance availability, and service time must be managed in relation to demand. When capacity is fully committed, an additional urgent requirement may not be satisfied immediately.

This makes service capacity planning a central managerial responsibility.

Companies must determine how much qualified capacity should be available, where personnel should be located, and how resources can be reassigned when requirements change.

The distinction between service capacity and physical resources is important. Maintenance personnel’s unused time cannot be stored, whereas spare parts can be inventoried. Reliable service delivery consequently requires coordinated planning of both available personnel and the material resources needed to perform the work.

9.3 Customer participation: The customer as co-producer

Many services depend on actions performed by the customer.

Operating equipment correctly, following technical instructions, providing accurate information, and cooperating with service personnel can all influence the final outcome.

The customer is therefore partly a co-producer of the service.

This creates a managerial responsibility extending beyond the provider’s own personnel. Effective service management must include clear communication, customer training, appropriate instructions, and coordination between provider and customer.

In international markets, cultural differences can affect how instructions are understood, how problems are communicated, and how cooperation takes place.

Intercultural competence and customer qualification are consequently operational requirements, not merely relationship-management concerns.

9.4 Product linkage: One integrated customer experience

Technical products and their associated services are often inseparable in the customer’s assessment.

A technologically sophisticated product loses practical value if it cannot be maintained reliably. Conversely, effective maintenance and support can reinforce perceptions of product quality and supplier reliability.

This creates a direct connection between manufacturing quality and service quality.

Failures in either dimension can affect the reputation of the complete offering. The company must therefore manage the physical product and the associated service as connected elements of value creation.

This is the basis of hybrid value creation, in which physical technology and service performance jointly determine customer value and can support continuing revenue relationships.

9.5 The central planning decisions in service management

The characteristics of international services imply several connected planning responsibilities.

Capacity allocation determines how qualified personnel can be deployed and reassigned to meet service requirements.

Service location planning determines how close support resources should be to customers. Local service centers can improve responsiveness and reduce the practical constraints imposed by distance.

Customer qualification supports reliable service outcomes by improving the customer’s ability to use and maintain equipment correctly.

Coordination of products and services ensures that maintenance and technical support reinforce the performance promised by the physical product.

These decisions cannot be governed by manufacturing efficiency alone. They must reflect the immediate relationship between service availability, customer participation, and perceived quality.

10. International service delivery under difficult framework conditions

Service management becomes more demanding where political instability, weak infrastructure, and limited institutional reliability affect operations.

The distinctive characteristics of services do not disappear under such conditions. Instead, their associated risks become more difficult to control.

10.1 Trust and political uncertainty

An unstable political environment can make long-term commitments more difficult to fulfill. Uncertainty over operating conditions, personnel safety, and contractual continuity may undermine customer confidence.

Because service quality depends heavily on reliability and trust, repeated delivery problems can threaten both the service relationship and the reputation of the associated product.

10.2 Infrastructure and capacity constraints

Weak transportation infrastructure, unreliable communication networks, and unpredictable customs procedures complicate the deployment of service personnel and the delivery of spare parts.

Since service capacity cannot be stored, delays may prevent the company from responding when assistance is required.

These interruptions can create contractual exposure and increase the costs of maintaining an acceptable service level.

10.3 Customer competence and participation

Service outcomes depend partly on the capabilities of the customer’s personnel.

Where technical qualifications are insufficient for the service requirements or personnel turnover is high, operating errors and misunderstandings become more likely.

The appropriate response is sustained customer training, clear technical communication, and intensive support. These measures improve reliability but also increase the resources required to deliver the service.

10.4 Institutional and legal risks

Political and institutional conditions may create additional exposure through government intervention, security threats, uncertain contract enforcement, and corruption.

Such conditions can make service costs less predictable and complicate the management of long-term obligations.

The managerial implication is that the service model must be adapted to the operating environment. More decentralized support arrangements, qualified local capabilities, closer customer cooperation, and explicit risk management may become necessary.

A service system that performs reliably in a stable, well-connected market cannot automatically be transferred unchanged to an environment with substantially different operational and institutional conditions.

11. Transformation of the global value chain and business model

International production and service management must also respond to changes that challenge the company’s existing value creation logic.

A major change in market requirements may affect not merely what a company produces, but how value is created, delivered, and monetized.

Consider the distinction between two business-model orientations.

An asset- and project-based model emphasizes the manufacture and sale of complex physical systems, frequently accompanied by maintenance and repair contracts.

A platform- and service-based model emphasizes the continuing provision of an integrated service, supported by physical assets, software, operational data, and coordinated technological capabilities.

Moving between these orientations requires more than improving existing manufacturing processes. It changes the competencies, production arrangements, and service capabilities on which the business depends.

11.1 From project manufacturing to modular serial production

Production of large, complex systems frequently involves project-specific requirements and extensive coordination.

A business model based on smaller, standardized and modular products creates different production priorities.

Higher-volume serial production emphasizes scalability, process consistency, and the ability to respond rapidly to changes in demand.

Modular production also changes the organization of the value chain by allowing complete units or components to be combined into an integrated offering.

Agility becomes increasingly important because production must accommodate changes in technology, market demand, and product configurations.

11.2 Changing core competencies and make-or-buy decisions

When value creation becomes more dependent on autonomous and data-enabled technologies, the strategic importance of competencies changes.

Traditional mechanical engineering and physical manufacturing remain relevant to the extent required by the product, but software development, artificial intelligence, sensor technology, and system integration assume greater strategic importance.

These changes directly affect make-or-buy decisions.

Activities that previously justified internal production may become less central, while new technological capabilities may require greater internal control and investment.

The essential question remains the same: which competencies determine the company’s distinctive value and should therefore be retained or developed internally?

However, the answer must be reconsidered as the business model evolves.

11.3 More agile and decentralized production

A shift toward smaller and more flexible products may favor a network of production locations closer to target markets rather than reliance on a few large manufacturing sites.

Such a network can improve responsiveness and facilitate adjustments to local demand.

However, geographic dispersion continues to create coordination requirements. The advantages of agility must still be reconciled with production quality, technological consistency, and efficient management of the entire network.

The strategic orientation changes, but the fundamental tension between efficiency and adaptation remains.

11.4 From maintenance services to Mobility-as-a-Service

Mobility-as-a-Service (MaaS) represents a business model in which customers purchase access to mobility rather than acquiring the vehicles themselves.

Revenue can be generated through the consumption of mobility, for example according to distance traveled or time of use.

This changes the object of value creation. Instead of selling a physical product and subsequently providing maintenance, the company becomes responsible for delivering a continuing mobility service.

Its operational activities consequently expand toward:

Managing fleets of vehicles as a coordinated system.

Updating software remotely through over-the-air updates.

Analyzing movement and usage data to improve traffic flows.

Using data to anticipate maintenance requirements.

Managing ongoing interactions between users and the mobility service.

Under this model, service quality depends not merely on restoring functionality after a failure, but also on maintaining the continuous performance of the complete system.

11.5 The changing role of customer participation

Digital service models can intensify customer participation because users interact continuously with service applications and operating systems.

The customer relationship becomes an ongoing part of service delivery rather than a sequence of separate transactions.

The principle of co-production therefore acquires greater operational importance. Customer interaction, software reliability, fleet availability, and data-based coordination jointly influence service performance.

The service is no longer simply an addition to the physical product. It becomes the principal offering around which physical assets and technological capabilities are organized.

11.6 Implications for organizational transformation

Such a business-model change affects the entire organization.

Core competencies must evolve. Production locations and sourcing relationships may need to change. New service and data capabilities must be developed. Management priorities shift from maximizing the performance of individual physical products toward managing the performance of an integrated service system.

Organizational culture must also accommodate a stronger emphasis on software, data, adaptability, and continuous service delivery.

Operational optimization improves the existing value chain. Strategic transformation changes the logic according to which the value chain creates value.

Both are necessary, but they address different managerial problems.

12. The integrated logic of international value creation

The theoretical principles developed throughout the chapter form a connected sequence of managerial decisions.

Global production strategy establishes the desired balance between efficiency and market adaptation. Make-or-buy decisions determine the degree of internal control. Sourcing strategies distribute activities and dependencies among suppliers. Location decisions determine the geographic configuration of production. Logistics and information management coordinate the resulting network. Service management connects operational performance with the customer’s experience. Changes in markets and technology may require the entire configuration to be reconsidered.

Three overarching principles govern this system.

12.1 Strategic decisions create operational consequences

Decisions intended to improve one dimension of performance can create vulnerabilities elsewhere.

Global sourcing may reduce procurement costs but increase transportation exposure. Concentrated production may generate economies of scale but increase dependency on particular locations. Outsourcing may reduce investment requirements while weakening direct control over critical processes.

Management must therefore examine the causal consequences of decisions beyond the activity in which they originate.

The relevant unit of analysis is the performance of the complete value chain, not the apparent efficiency of an individual decision.

12.2 Competitiveness requires balancing efficiency, resilience, and adaptability

Efficiency, resilience, and adaptability represent different but interdependent requirements.

Efficiency concerns the productive use of resources and control of costs.

Resilience concerns the ability to preserve or restore operations despite disruptions.

Adaptability concerns the capacity to respond to differing market requirements and changes in the business environment.

Improving one dimension can impose costs on another. Supplier diversification may increase procurement expenditure. Safety stocks tie up capital. Local adaptation complicates production. Decentralization increases coordination requirements.

These costs must be compared with the value they create through reliability, responsiveness, and reduced exposure to disruption.

Effective international production management does not maximize one dimension without regard to the others. It establishes a deliberate balance consistent with the company’s strategic priorities.

12.3 Long-term performance depends on integrated physical and immaterial value creation

Manufacturing performance alone does not determine the value experienced by customers.

Product quality, delivery reliability, service availability, customer participation, and trust form interconnected elements of the overall offering.

At the same time, software, information, and data-based services can alter the relative importance of physical manufacturing and continuing service provision.

A globally competitive company must therefore manage material flows and immaterial service activities as complementary parts of value creation.

This integration also provides the foundation for adapting the business model when technological or market changes make established production arrangements insufficient.

Conclusion

The management of global value chains is a strategic discipline because production, sourcing, location, logistics, and services collectively determine international competitiveness.

Each management choice involves trade-offs. Standardization must be reconciled with adaptation. Internal control must be balanced against supplier specialization. Geographic efficiency must be assessed alongside logistics exposure. Lean material flows must be weighed against the protection offered by inventories and alternative sources. Physical product performance must be connected with the reliability of associated services.

These are not independent decisions. They form a system of causal relationships in which the consequences of one choice influence the effectiveness of others.

The essential managerial capability is to design and continually adapt this system so that efficiency, quality, resilience, and market responsiveness reinforce rather than undermine one another.

Long-term competitiveness rests on the ability to coordinate global operations reliably while developing the competencies and business models needed for future forms of value creation.

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