Global Distribution Network Configuration

Introduction

Global distribution network configuration is the strategic design of facilities, flows, ownership arrangements, and control mechanisms through which products move across national borders. It determines where goods are sourced, manufactured, postponed, stored, customs-cleared, consolidated, and delivered to customers. Unlike a domestic network, an international network must simultaneously manage logistics cost, service responsiveness, customs law, duties and tariffs, taxation, currency movements, geopolitical risk, infrastructure quality, and uncertainty in transit time.

The central managerial challenge is not to minimize freight cost alone. A network that appears inexpensive on a transport-cost basis may be uneconomic after duties, inventory carrying costs, delays, compliance failures, and tax consequences are included. Conversely, a more expensive regional distribution centre may create value by reducing lead-time variability, enabling postponement, improving customer service, and protecting the firm against border disruption.

Global network configuration is therefore a long-term, cross-functional decision involving supply-chain, finance, tax, legal, procurement, operations, sales, information technology, and risk-management specialists.

Learning Objectives

After completing this chapter, the reader should be able to:

1. Explain the strategic characteristics of global distribution networks.
2. Compare centralized, regional, local, direct, and hybrid configurations.
3. Evaluate sourcing geography, customs, duties, tariffs, transfer pricing, and free-trade zones.
4. Incorporate infrastructure, exchange rates, lead-time variability, and geopolitical exposure into network decisions.
5. Apply total-landed-cost and risk-adjusted analysis to international network design.
6. Recommend governance, compliance, technology, and resilience practices for global networks.

1. The Strategic Logic of Global Networks

A distribution network consists of nodes and links. Nodes include suppliers, plants, ports, airports, distribution centres, customs facilities, fulfilment centres, and customers. Links include ocean, air, rail, road, inland waterway, digital information, and financial flows. Configuration specifies the location, capacity, ownership, and role of each node and the allocation of product flows among them.

Four strategic dimensions are especially important:

• Efficiency: procurement scale, facility utilization, transport consolidation, and inventory pooling.
• Responsiveness: delivery speed, proximity to customers, postponement, and flexibility.
• Control: visibility, compliance, quality assurance, intellectual-property protection, and control over customer experience.
• Resilience: the ability to anticipate, absorb, recover from, and adapt to disruption.

These dimensions frequently conflict. Centralization can reduce safety stock through risk pooling but increase distance and border dependence. Local inventory can improve service but increase working capital. Low-cost-country sourcing can reduce unit cost but expose the firm to longer lead times, currency volatility, and political risk.

A useful design principle is fit: the network should reflect product characteristics, demand uncertainty, customer-service promises, regulatory conditions, and the firm’s competitive strategy. Functional products with stable demand may support centralized replenishment, whereas fashion, medical, emergency, or highly customized products may justify regional or local inventory.

2. Major Global Network Configurations

2.1 Centralized global distribution

A central distribution centre serves multiple markets, often after products are sourced from a small number of manufacturing locations. The configuration offers inventory pooling, high facility utilization, standardized processes, and purchasing leverage. Its weaknesses include longer average delivery distances, dependence on international transport lanes, and exposure to border or port disruption.

2.2 Regional distribution

Regional distribution centres serve geographic clusters such as Europe, North America, or Southeast Asia. Regionalization generally balances economies of scale with service responsiveness. It can also align inventory with regional customs territories, trade agreements, and market requirements. However, it may duplicate stock and facilities and can create complex inter-regional replenishment rules.

2.3 Local or country distribution

Country-level facilities are appropriate when customers require rapid delivery, products are subject to national regulation, demand is large and stable, or import procedures make cross-border delivery unattractive. The disadvantages are duplication, lower scale economies, and potentially greater exposure to local operating costs.

2.4 Direct shipment and drop-shipping

In a direct model, goods move from supplier or factory to the customer, bypassing a distribution centre. This reduces handling and may be effective for large, slow-moving, or customized products. It is less suitable when shipments are small, customer orders are fragmented, or returns are significant.

2.5 Hybrid and postponement networks

A hybrid network combines central, regional, local, and direct flows. Postponement delays final configuration, packaging, labelling, or localization until demand and destination are known. For example, generic products may be shipped in bulk to a regional facility, where country-specific labels and documentation are applied. Postponement reduces finished-goods variety and can mitigate forecast error, but it requires process capability, compliant labelling, and reliable information systems.

3. Sourcing Geography and Facility Location

Sourcing decisions should not be based solely on purchase price. A supplier’s effective economic contribution depends on product cost, transport, customs, duties, inventory, quality, compliance, and risk. Sourcing geography also influences the location of distribution centres: a port-oriented network may be appropriate for consolidated imports, while a customer-oriented network may be more suitable for rapid fulfilment.

Important geographic variables include:

• supplier concentration and alternative-source availability;
• distance to ports, airports, rail terminals, and inland hubs;
• road quality, congestion, power reliability, and telecommunications;
• availability and cost of labour and logistics services;
• proximity to customers and after-sales facilities;
• customs competence and border-processing quality;
• political stability, sanctions exposure, and security conditions;
• climate hazards, water stress, earthquakes, floods, and extreme weather;
• local content, import licensing, and foreign-ownership requirements.

A robust location study evaluates scenarios rather than relying on a single forecast. Typical scenarios include a normal operating case, demand growth, port closure, tariff change, currency depreciation, supplier failure, and a severe geopolitical disruption.

4. Total Landed Cost and Network Economics

The relevant comparison is total landed cost rather than factory price or freight cost. A general annual landed-cost expression is:

where:

• P = purchase or production cost;
• F = international and inland freight plus insurance;
• I = inventory carrying cost caused by pipeline and cycle stock;
• D = duties and tariffs;
• C = customs brokerage, clearance, and documentation cost;
• H = handling, warehousing, and distribution cost;
• Q = quality, compliance, and inspection cost;
• R = expected cost of disruption, delay, claims, and loss.

All terms must be measured on the same basis, such as cost per unit delivered to a specified destination, and within the same time period. Taxes that are recoverable or merely collected on behalf of a government should not automatically be treated as economic cost. Non-recoverable taxes, however, may belong in the comparison.

For annual demand Q_d, average unit landed cost is:

This calculation is useful for screening alternatives, but it can conceal service differences. A network with lower average cost may have unacceptable stockout risk or delivery variability. Therefore, cost should be evaluated jointly with service, resilience, and strategic constraints.

Worked example: comparing two regional designs

An organization imports 100,000 units annually. Design A uses one central distribution centre; Design B uses two regional centres. The estimated annual costs are as follows:

Design A has a lower expected annual cost: $3,120,000. Its average cost is $31.20 per unit, compared with $32.75 for Design B. Nevertheless, Design B may be preferable if its higher resilience and shorter delivery time generate additional contribution exceeding $155,000 per year, or if management assigns a high value to continuity that is not fully captured in the disruption estimate. The example illustrates why network decisions require explicit assumptions about risk and service, not just arithmetic ranking.

5. Customs, Duties, Tariffs, and Trade Compliance

5.1 Customs fundamentals

Customs authorities regulate the movement of goods across borders and determine admissibility, classification, valuation, origin, documentation, and payment obligations. Core data elements commonly include the product description, tariff classification, customs value, country of origin, importer of record, exporter, consignee, licences, certificates, and transport information.

The Harmonized System provides an internationally used structure for classifying goods. National tariff schedules extend this structure and determine the applicable duty rate. Classification must be based on the product’s characteristics and the relevant legal interpretation; it should not be selected merely to obtain a lower rate.

5.2 Duty calculation

For an ad valorem duty, the duty amount is:

where D is duty payable, V_c is customs value in the prescribed currency, and r_d is the duty rate expressed as a decimal. If customs value is $50,000 and the duty rate is 6%, duty is $3,000. Specific duties, compound duties, quotas, anti-dumping duties, excise taxes, and safeguard measures may require different calculations.

The customs value is not always identical to the invoice price. Authorities may require adjustments for assists, royalties, commissions, packing, or related-party transactions, depending on the applicable valuation rules. Professional practice requires country-specific legal review rather than assumptions based on commercial invoices alone.

5.3 Rules of origin and free-trade agreements

Preferential tariff treatment under a free-trade agreement generally depends on meeting the agreement’s origin rules and maintaining required evidence. Origin may depend on wholly obtained status, substantial transformation, tariff-shift rules, regional value content, or product-specific requirements. A shipment merely routed through a member country does not necessarily acquire preferential origin.

Free-trade zones can defer, reduce, or alter customs obligations, but their treatment differs by jurisdiction. Benefits may include duty deferral while goods remain in the zone, re-export without payment of domestic import duty, processing advantages, and consolidation efficiency. They do not automatically eliminate tariffs, taxes, export controls, sanctions obligations, product standards, or recordkeeping duties.

5.4 Trade-compliance governance

A mature compliance system includes product classification controls, origin determination, denied-party and sanctions screening, export-control review, broker governance, record retention, internal audits, training, transaction testing, and corrective-action procedures. Responsibility should be assigned through a documented control matrix. The importer of record and exporter remain accountable even when customs brokers or freight forwarders perform operational tasks.

Common failures include vague product descriptions, inconsistent master data, unsupported preferential-origin claims, incorrect valuation, unauthorised broker changes, and failure to update classifications after product redesign. Compliance is therefore a data-governance issue as much as a legal issue.

6. Transfer Pricing and Organizational Design

Transfer pricing concerns the price charged in transactions between related entities, such as a manufacturing subsidiary and a distribution subsidiary. It affects the allocation of taxable profit among jurisdictions, customs valuation, management performance measurement, and cash flows. A transfer price is not simply a logistics cost; it must comply with applicable tax rules, the arm’s-length principle, intercompany agreements, and documentation requirements.

Supply-chain leaders should distinguish three different values:

1. Commercial price: the price used in an external market transaction.
2. Customs value: the value accepted for import-duty purposes under customs law.
3. Tax transfer price: the related-party price tested under applicable tax rules.

These values may interact but are not interchangeable. A change in legal entity, incoterm, ownership of inventory, or risk allocation can change responsibilities and tax consequences. Finance, tax, legal, and logistics teams should jointly model the effect of alternative operating structures. Attempts to optimize tax or duty in isolation can create double taxation, customs challenges, penalties, or reputational damage.

7. Infrastructure and Lead-Time Variability

International lead time is a random variable rather than a fixed number. It may include production, booking, origin handling, export clearance, main carriage, transshipment, import clearance, inland transport, and final delivery. Congestion, weather, labour action, documentation errors, and inspections cause variability.

For a replenishment system with uncertain demand and lead time, safety stock is commonly represented as:

where SS is safety stock in units, z is the standard-normal service-factor corresponding to the target cycle-service level, and σ_LT is the standard deviation of demand during lead time. This simple form assumes that demand during lead time is approximately normally distributed and that the lead-time demand variability has already been estimated.

If daily demand and lead time are independent, with mean demand μ_d, standard deviation σ_d, mean lead time μ_L, and standard deviation σ_L, the variance of lead-time demand is often approximated by:

This expression assumes independent demand and lead time and uses consistent time units. If demand and lead time are correlated, an additional covariance term is required:

The formula is an approximation based on the variance of a random product. It should not be applied mechanically when demand is intermittent, distributions are highly skewed, lead times are censored, or the service measure is fill rate rather than cycle service. Simulation or empirical quantiles may be more appropriate.

Infrastructure analysis should include port dwell time, customs-release time, inland transit reliability, warehouse throughput, cold-chain capability, power quality, digital connectivity, and alternative routes. A country with low transport rates but unreliable infrastructure may produce higher total cost and more inventory.

8. Exchange Rates and Financial Exposure

Exchange-rate movements affect purchase cost, freight, duties, inventory value, transfer prices, and local revenue. Exposure can be classified as:

• Transaction exposure: risk on contracted foreign-currency cash flows.
• Translation exposure: accounting effect of converting foreign subsidiaries’ results.
• Economic exposure: long-term effect on competitiveness and sourcing economics.

If a foreign purchase costs F units of foreign currency and the exchange rate is S domestic currency units per foreign currency unit, domestic cost is:

For example, a €100,000 purchase at $1.10 per euro costs $110,000. At $1.20 per euro, it costs $120,000 before other changes. The calculation assumes the quoted exchange-rate convention remains clear and no hedging effect is included.

Managers may use currency matching, natural hedges, forward contracts, options, or currency clauses. Hedging should be linked to documented exposures and risk appetite. It should not be used to conceal an economically uncompetitive sourcing decision. Scenario analysis should examine exchange-rate ranges, not only a single forecast.

9. Geopolitical Exposure and Resilience

Geopolitical exposure includes war, sanctions, diplomatic conflict, export restrictions, political instability, expropriation, civil disorder, regulatory change, cyber conflict, and strategic competition affecting critical technologies. Exposure is shaped not only by the country of operation but also by supplier ownership, shipping routes, payment systems, data location, and dependence on scarce materials.

A practical risk assessment scores each disruption by probability and consequence, but qualitative scores should be supported by evidence. A simple expected-loss model is:

where p_i is the probability of disruption scenario i and c_i is its financial consequence. Expected loss is useful for comparison but can understate catastrophic, correlated, or irreversible risks. It should therefore be supplemented by stress testing and management judgement.

Resilience options include dual sourcing, geographic diversification, strategic inventory, alternative ports, flexible contracts, postponement, local production, supplier development, and pre-approved emergency transport. However, resilience has a cost. A sound design compares the cost of redundancy with the value of avoided disruption and the organization’s risk tolerance.

10. A Structured Network-Design Method

A postgraduate-level network study should proceed through the following stages:

Stage 1: Define the strategic problem

Specify products, markets, service promises, planning horizon, ownership boundaries, regulatory constraints, and decision rights. Clarify whether the objective is cost reduction, growth, resilience, market entry, tax restructuring, decarbonization, or a combination.

Stage 2: Build a reliable data model

Collect demand by product and country, supplier capacities, production costs, freight rates, customs data, duty rates, lead-time distributions, inventory policies, facility costs, tax assumptions, exchange rates, and risk events. Establish data ownership and version control.

Stage 3: Generate feasible configurations

Develop alternatives rather than optimizing a predetermined answer. Include central, regional, local, direct, free-zone, postponement, and multi-sourcing options where relevant. Eliminate options that violate capacity, legal, technical, or service constraints.

Stage 4: Model total cost and service

Use optimization, simulation, or scenario analysis as appropriate. A generic mixed-integer network model may minimize fixed facility cost, variable logistics cost, inventory cost, duties, and expected disruption cost subject to capacity and service constraints. Binary variables are used for facility opening decisions, while continuous variables represent shipment quantities. The model is only as good as its data and assumptions.

Stage 5: Stress test

Test tariff changes, demand growth, exchange-rate movements, port closures, supplier failures, sanctions, fuel-price increases, and extreme weather. Examine not only expected cost but also worst-case service, recovery time, and cash requirements.

Stage 6: Validate and implement

Review results with operations, customs, tax, finance, legal, procurement, sales, and local experts. Conduct site validation, pilot flows, customs rulings where available, and readiness audits. Define transition inventory and contingency plans.

Stage 7: Govern and refresh

Monitor landed cost, customs accuracy, on-time delivery, lead-time variability, inventory turns, disruption exposure, carbon emissions, and compliance exceptions. Reconfigure when structural conditions change rather than waiting for service failure.

11. Illustrative Case: Orion Medical Devices

Background. Orion Medical Devices, a fictional multinational, sells diagnostic cartridges in 18 countries. Production currently occurs in East Asia, and one European distribution centre serves Europe, the Middle East, and Africa. Products are temperature-sensitive, require country-specific labels, and must meet strict documentation requirements.

Problem. Demand is growing, but the network experiences variable ocean transit, periodic customs holds, and shortages in smaller markets. A proposed tariff change may increase the cost of finished-product imports. Management is considering a second regional centre and final labelling closer to customers.

Analysis. The team identifies five relevant cost and risk drivers: freight, inventory in transit, customs delay, temperature excursions, and service penalties. It discovers that the proposed second facility would increase fixed cost but permit generic cartridges to be shipped in consolidated loads and labelled after regional demand is known. The team also finds that one supplier provides 82% of a critical component, creating a correlated supply risk.

Three alternatives are evaluated:

• retain the current centralized model;
• establish a regional postponement centre in a free-trade zone;
• establish two regional centres and qualify a second component supplier.

The free-trade-zone option reduces duty deferral costs while goods remain in the zone, but it does not remove product-registration or labelling obligations. Tax and customs specialists verify that the planned processing is permitted and that origin claims remain accurate. Finance models currency exposure, while operations estimates the impact of shorter and less variable final-delivery lead times.

Approach and solution. Orion selects the regional postponement centre and qualifies a second component supplier. It keeps manufacturing centralized, holds generic inventory regionally, applies destination-specific labels after allocation, and maintains a limited emergency stock in two high-priority markets. A broker-control program, electronic document repository, temperature-monitoring sensors, and weekly exception reviews are implemented.

Outcome. In the illustrative scenario, average delivery time falls, customs-related stockouts decline, and product variety held as finished stock decreases. Total expected cost is slightly higher than the original network, but the investment meets the company’s service target and reduces dependence on a single route and supplier. The result depends on validated regulatory assumptions; it should not be generalized to other countries without local analysis.

Learning points. First, postponement can address both demand uncertainty and localization requirements. Second, free-trade zones are instruments within a compliant operating design, not substitutes for customs knowledge. Third, resilience may justify a cost increase when service failures threaten patient-care customers. Finally, sourcing, tax, customs, inventory, and facility decisions must be evaluated as one system.

12. Technology, Data, and AI

Digital platforms can connect orders, shipment milestones, customs documents, inventory, tariffs, supplier data, and risk alerts. A transport-management system supports routing and carrier execution; a trade-compliance platform supports classification, screening, and audit trails; a control tower supports exception management.

AI and advanced analytics can assist with demand forecasting, estimated-time-of-arrival prediction, tariff-data matching, document extraction, and disruption sensing. Their use requires validated training data, human review, explainability proportionate to risk, cybersecurity, and controls against fabricated or outdated regulatory information. An AI-generated classification or origin suggestion must not be treated as legal advice without qualified review. Sensitive commercial, personal, and export-controlled data also require access controls and appropriate data residency.

13. Limitations, Ethics, and Governance

Network models can create false precision. Tariffs may change, risk probabilities may be uncertain, and historical lead times may not represent future disruption. Models may also omit labour conditions, environmental damage, community effects, or human-rights risks. A low-cost location is not strategically acceptable if it depends on forced labour, unsafe conditions, corruption, or systematic environmental harm.

Governance should address:

• legal compliance and accurate declarations;
• anti-bribery and ethical broker relationships;
• modern-slavery and responsible-sourcing due diligence;
• data privacy and cybersecurity;
• environmental emissions and modal choices;
• fair treatment of workers and affected communities;
• documented approval of exceptions and risk acceptance.

Decision makers should disclose assumptions, uncertainty ranges, conflicts of interest, and distributional effects. The best network is not necessarily the one with the lowest modeled cost; it is the one that creates durable value within legal, ethical, financial, and operational constraints.

Best-Practice Checklist

1. Evaluate total landed cost, not purchase price alone.
2. Maintain accurate product, tariff, origin, and supplier master data.
3. Separate customs value, tax transfer price, and commercial price.
4. Use regionalization or postponement when service and uncertainty justify it.
5. Model lead-time variability and correlated disruption.
6. Stress test tariffs, currencies, infrastructure failures, and geopolitical events.
7. Use free-trade zones only after confirming legal and operational eligibility.
8. Assign clear accountability for importer-of-record and export-control duties.
9. Combine quantitative optimization with local expert review.
10. Reassess the network when markets, regulations, routes, or risk conditions change.

Chapter Summary

Global distribution network configuration integrates facility location, sourcing, inventory, transport, customs, taxation, compliance, finance, service, and geopolitical risk. Centralized networks provide scale and pooling; regional, local, direct, and hybrid networks offer responsiveness, flexibility, or market adaptation. The correct choice depends on product and demand characteristics, infrastructure, regulation, and strategic priorities.

Total landed cost must include purchase cost, freight, inventory, duties, customs, warehousing, compliance, and expected disruption effects. Customs classification, valuation, origin, free-trade-zone treatment, and transfer pricing require specialized governance and should not be conflated. Lead-time variability and exchange rates create measurable financial and inventory consequences, while geopolitical exposure requires scenario analysis, diversification, and resilience investment.

A disciplined design process defines objectives, builds reliable data, generates feasible alternatives, models cost and service, stress tests disruption, validates legal assumptions, and establishes continuing governance. Technology and AI can improve visibility and analysis, but human accountability, compliance, ethics, and data controls remain essential.

Key Terms

Centralized distribution: A network in which one major facility serves multiple markets.

Customs value: The value accepted by customs authorities for calculating import obligations.

Duty: A government charge imposed on imported goods.

Economic exposure: The long-term effect of currency changes on competitiveness and operating economics.

Free-trade agreement: An agreement that may provide preferential treatment to qualifying goods.

Free-trade zone: A designated area with special customs treatment for eligible goods and activities.

Importer of record: The party legally responsible for import declarations and obligations.

Lead-time variability: Variation in the time required for replenishment or delivery.

Postponement: Delaying final product configuration until demand or destination is known.

Regional distribution centre: A facility serving a defined geographic market cluster.

Resilience: The ability to withstand, recover from, and adapt to disruption.

Rules of origin: Legal criteria used to determine a product’s country of origin.

Safety stock: Inventory held to protect against demand or supply uncertainty.

Tariff: A schedule or rate of duties applied to imported goods.

Total landed cost: The full cost of delivering goods to the relevant destination.

Trade compliance: Controls that ensure adherence to customs, export-control, sanctions, and related rules.

Transfer pricing: Pricing of transactions between related entities.

Transaction exposure: Currency risk arising from contracted foreign-currency cash flows.

Value-added processing: Processing that may affect product characteristics or origin under applicable rules.

Geopolitical exposure: Supply-chain vulnerability arising from political, security, diplomatic, or regulatory events.

Review Questions

Short Answer Questions

1. What is meant by total landed cost?
2. Distinguish a centralized network from a regional network.
3. Why are rules of origin important in free-trade agreements?
4. What is lead-time variability?
5. Distinguish customs value from transfer price.

Long Answer Questions

1. Critically compare centralized, regional, local, and hybrid global distribution networks.
2. Explain how customs, tariffs, duties, and trade compliance influence network configuration.
3. Discuss the strategic role of postponement in international distribution.
4. Explain how exchange rates and transfer pricing affect global network decisions.
5. Develop a structured methodology for evaluating a new international distribution network.

Analytical / Application Questions

1. A company can choose a centralized network with lower operating cost or a regional network with higher cost but shorter and more reliable delivery. What data and scenarios should be used to make the decision?
2. A supplier proposes routing goods through a free-trade zone to obtain duty savings. What legal, customs, documentation, operational, and ethical questions should be investigated before approval?
3. Design a resilience response for a network dependent on one port, one critical supplier, and a volatile currency. Explain the trade-offs among redundancy, inventory, hedging, and service.

Multiple Choice Questions with Answers

Question 1

Which cost concept should normally be used to compare alternative international distribution networks?

A. Factory purchase price only

B. Total landed cost

C. Ocean freight only

D. Warehouse rent only

Correct Answer: B. Total landed cost

Question 2

What is the main strategic benefit of postponement?

A. It eliminates all customs obligations

B. It removes the need for demand forecasts

C. It delays final configuration until demand or destination is clearer

D. It guarantees lower unit production cost

Correct Answer: C. It delays final configuration until demand or destination is clearer

Question 3

If customs value is $50,000 and the ad valorem duty rate is 6%, what duty is payable?

A. $300

B. $3,000

C. $8,333

D. $56,000

Correct Answer: B. $3,000

Question 4

Which statement about a free-trade zone is correct?

A. It automatically eliminates all taxes and regulations

B. It guarantees preferential origin for every product

C. It may provide duty deferral or re-export advantages subject to local rules

D. It removes the need for customs records

Correct Answer: C. It may provide duty deferral or re-export advantages subject to local rules

Question 5

What does transaction exposure refer to?

A. The accounting conversion of a foreign subsidiary

B. The long-term effect of currency on competitiveness only

C. Risk on contracted foreign-currency cash flows

D. The risk of product damage in transit

Correct Answer: C. Risk on contracted foreign-currency cash flows

Question 6

Which activity is central to trade-compliance governance?

A. Ignoring product classification after launch

B. Maintaining accurate classification, origin, screening, and records

C. Allowing brokers to determine all legal responsibilities

D. Selecting tariff codes solely by lowest duty rate

Correct Answer: B. Maintaining accurate classification, origin, screening, and records

Question 7

Under the simplified safety-stock relationship SS = z × σ_LT, what does σ_LT represent?

A. The duty rate

B. The standard deviation of demand during lead time

C. The average purchase price

D. The number of distribution centres

Correct Answer: B. The standard deviation of demand during lead time

Question 8

Which configuration generally offers the greatest inventory pooling benefit?

A. Highly centralized distribution

B. One warehouse in every country

C. Direct shipment from every supplier

D. Uncoordinated local storage

Correct Answer: A. Highly centralized distribution

Question 9

Why should expected disruption cost be supplemented with stress testing?

A. Expected loss always produces a legally binding forecast

B. Stress testing removes all uncertainty

C. Expected loss may understate catastrophic or correlated risks

D. Stress testing measures only warehouse labour cost

Correct Answer: C. Expected loss may understate catastrophic or correlated risks

Question 10

Which statement correctly distinguishes transfer pricing from customs value?

A. They are always legally identical

B. Transfer pricing concerns related-party taxation, while customs value supports import assessment

C. Customs value applies only to domestic sales

D. Transfer pricing is determined only by freight carriers

Correct Answer: B. Transfer pricing concerns related-party taxation, while customs value supports import assessment