Resources, Energy and Global Production Landscapes

Introduction

International business is conducted across a materially unequal world. Agricultural land, freshwater, fossil fuels, metallic ores, forests, industrial capacity and technological capabilities are unevenly distributed, while consumption is increasingly concentrated in urban and industrial economies. These spatial differences shape comparative advantage, trade routes, investment decisions, geopolitical bargaining and the vulnerability of firms and states to disruption.

A resource is not simply a physical object found in nature. It becomes economically significant when it is accessible, technically usable, legally governable and valuable relative to its costs. A mineral deposit may be geologically abundant but commercially irrelevant if extraction is too expensive, infrastructure is absent, regulations prohibit development or processing technology is unavailable. Similarly, energy security is not equivalent to domestic production: a country may produce large quantities of oil yet remain vulnerable if its refineries, electricity grid or export revenues are highly concentrated.

This chapter examines the geography of agriculture, water, minerals, energy and manufacturing. It then connects these distributions to resource security, commodity dependence, energy transition and the circular economy. The central argument is that global production landscapes are systems rather than isolated locations. They connect ecosystems, mines, farms, factories, ports, financial markets, technologies, institutions and communities.

Learning Objectives

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

1. Explain why major resources and production activities are spatially uneven.
2. Distinguish resource availability, accessibility, affordability and security.
3. Analyse the geography and strategic importance of agricultural commodities, water, minerals, energy and manufacturing.
4. Evaluate commodity dependence and supply-chain concentration using appropriate indicators.
5. Assess how energy transition technologies alter global demand for materials and industrial capabilities.
6. Apply circular-economy principles to international business decisions.
7. Critically evaluate environmental, social, geopolitical and governance risks in resource-intensive production.

1. Resources as Spatially Embedded Economic Assets

1.1 The resource-production-consumption chain

Resource systems can be analysed through five linked stages:

1. Endowment: the physical presence of land, water, biomass, minerals or energy sources.
2. Extraction or cultivation: the removal or biological production of materials.
3. Transformation: refining, processing, manufacturing or power generation.
4. Distribution: movement through roads, railways, pipelines, ports, grids and logistics networks.
5. Consumption and disposal: use, reuse, recycling, waste treatment or environmental release.

The location of one stage does not determine the location of the others. Iron ore may be mined in Australia, processed in East Asia and incorporated into machinery sold worldwide. Cotton may be grown in one country, spun and woven in another, made into garments elsewhere and marketed through a multinational retailer. This spatial separation creates value but also creates exposure to transport disruption, trade restrictions, exchange-rate changes and political conflict.

1.2 The geographical conditions of production

Resource landscapes reflect the interaction of physical and human geography. Climate, soils, topography, geology and hydrology influence what can be produced. Institutions, infrastructure, property rights, labour skills, finance, technology and market access influence what is actually produced.

A useful distinction is between absolute advantage and constructed advantage. Absolute advantage derives from favourable natural conditions or lower direct production costs. Constructed advantage arises from infrastructure, knowledge, institutions, supplier networks and cumulative investment. Singapore, for example, has limited natural resources but developed a major production and logistics platform through ports, institutions, finance and skilled labour. Conversely, a resource-rich economy may remain weakly industrialised if governance, infrastructure and human capital are insufficient.

1.3 Resource stocks, flows and carrying capacity

A stock is a quantity existing at a point in time, such as proven copper reserves or groundwater stored in an aquifer. A flow is the rate at which a resource is produced, replenished, consumed or discharged. Renewable resources can become effectively non-renewable when extraction exceeds regeneration. Fisheries, forests and groundwater illustrate this distinction.

For a renewable resource, a simplified stock balance is:

where S_t is the stock at time t, R_t is natural replenishment during the period, and E_t is extraction or use. The expression assumes that measurement boundaries are defined consistently and that other changes, such as pollution or migration, are either negligible or included in R_t and E_t. If E_t persistently exceeds R_t, the stock declines.

2. Agriculture and Food Production Landscapes

2.1 Major agricultural regions

Agricultural geography reflects climate, soil, water availability, terrain, land tenure, technology and access to markets. Broad production landscapes include:

• Temperate grain belts, including parts of North America, Europe, the Black Sea region, Argentina and Australia, where mechanised production of wheat, maize, barley and oilseeds is important.
• Tropical plantation zones, where coffee, cocoa, bananas, rubber, sugar and palm oil are produced, often for export.
• Monsoon and irrigated rice regions, especially in South, Southeast and East Asia.
• Pastoral and mixed farming systems, found across drylands and temperate grasslands.
• Mediterranean and subtropical systems, associated with fruit, vegetables, wine, olives and high-value horticulture.

The geography of agriculture is changing. Irrigation, improved seeds, controlled environments, cold chains and digital agriculture extend production possibilities, while climate change alters growing seasons, water demand, pest distributions and the viability of particular crops.

2.2 Agricultural commodities and value chains

Agricultural commodities vary in their degree of processing and market concentration. Wheat, maize and rice are central food staples, whereas coffee, cocoa, cotton and palm oil connect smallholder production to highly concentrated processors, traders and retailers. The distribution of value is therefore not equivalent to the distribution of production. Farmers may bear climate and price risks while downstream firms control branding, standards, finance and market access.

Food security has four interconnected dimensions: availability, access, utilisation and stability. A country can produce sufficient food nationally while some households lack purchasing power. International trade can improve resilience by diversifying supply, but dependence on imports exposes consumers to shipping disruptions, export restrictions and exchange-rate volatility.

2.3 Agricultural risk and sustainability

Agricultural production creates land-use change, biodiversity loss, soil degradation, water stress, methane and nitrous oxide emissions. Firms increasingly face requirements concerning deforestation, traceability, labour rights and carbon disclosure. Certification can improve transparency, but it may also impose costs that exclude small producers unless technical and financial support is available.

A strategic approach includes supplier diversification, long-term contracts, climate-resilient varieties, water stewardship, soil conservation and investment in local processing. Businesses should distinguish between genuine resilience and merely shifting environmental risks to another region.

3. Water: Local Basins and Global Economic Connections

Water is physically local but economically global. Rivers and aquifers are bounded by watersheds, while agricultural products, manufactured goods and electricity embody water used elsewhere. This creates virtual water trade: an importing country may effectively import water by purchasing water-intensive commodities.

Water availability is not determined only by rainfall. It depends on seasonal patterns, storage, infrastructure, pollution, competing users and institutional capacity. A country may have high average water availability but experience severe scarcity in industrial or urban centres. Water stress is therefore often a problem of timing, location, governance and quality rather than absolute global shortage.

Industrial firms should assess water risk at basin level rather than rely only on national averages. A factory may be located in a water-stressed basin even when the country appears water abundant. Relevant questions include:

• Who holds legal rights to withdraw water?
• Are rights secure during drought?
• What quality is required for production?
• How are farmers, households and ecosystems affected?
• Can wastewater be treated and reused?
• Could local conflict or regulation interrupt operations?

Water governance raises ethical issues because industrial use can compete with basic human needs and ecological flows. International investors should apply the principle of meaningful stakeholder engagement and avoid treating water solely as a low-cost input.

4. Minerals and Strategic Materials

4.1 Geological concentration and industrial concentration

Mineral deposits are geologically uneven. Copper, iron ore, bauxite, nickel, cobalt, lithium, phosphate rock and rare earth elements occur in different geological settings and are extracted under different technical and political conditions. However, mining concentration is only one form of dependence. Processing and refining may be more geographically concentrated than extraction.

This distinction is strategically important. A country may import ore from several locations but depend on one jurisdiction for refining, chemical conversion or component manufacturing. Supply risk therefore must be assessed across the entire value chain.

4.2 Critical minerals

A mineral becomes “critical” when its economic or strategic importance is high and its supply is vulnerable. Criticality is context-specific: it depends on industrial structure, substitution possibilities, recycling rates, trade exposure, political relations and the time required to develop new mines or processing capacity.

The energy transition increases demand for several materials used in batteries, electric motors, power grids, solar technologies and wind turbines. Yet the transition does not eliminate resource dependence; it changes its composition. Fossil-fuel systems rely heavily on continuous fuel flows, whereas low-carbon technologies often require larger upfront material inputs and specialised manufacturing capabilities.

4.3 Resource curse and extractive development

The resource curse refers to the possibility that resource abundance is associated with weak institutions, corruption, conflict, inequality, exchange-rate appreciation and insufficient economic diversification. Resource abundance is not inevitably harmful. Outcomes depend on governance, fiscal rules, transparency, local participation, investment in human capital and the management of revenue volatility.

Extractive projects can produce employment, infrastructure and public revenue, but may also displace communities, damage ecosystems or create hazardous working conditions. Responsible investment requires due diligence on land rights, indigenous peoples, labour standards, tailings management, corruption risks and mine closure obligations.

5. Energy Geography and Security

5.1 Fossil-fuel landscapes

Coal, oil and natural gas have distinct geographies. Oil production is concentrated in several major basins and exporters, while refining and shipping networks determine access to final fuels. Natural gas depends increasingly on liquefied natural gas infrastructure, pipelines and regasification capacity. Coal is widely distributed but heavily shaped by transport costs, power-station location and environmental regulation.

Energy security has at least four dimensions:

1. Availability: sufficient physical supply.
2. Accessibility: the ability to obtain supply through infrastructure and trade.
3. Affordability: prices that households and firms can bear.
4. Acceptability: compatibility with environmental and social objectives.

A system can perform well on one dimension and poorly on another. Domestic coal may be available and affordable but environmentally unacceptable. Imported gas may be relatively clean at the point of combustion but vulnerable to geopolitical disruption and price volatility.

5.2 Energy systems and transition

Energy transitions involve changes in fuels, technologies, infrastructures, institutions and patterns of consumption. Renewable electricity, storage, electric mobility, energy efficiency, hydrogen and carbon-management technologies are reshaping production landscapes. The transition is not a single global sequence: countries follow different pathways according to resource endowments, income, technology, policy and political economy.

Energy intensity is a useful indicator of the relationship between economic activity and energy use:

where EI is energy intensity, E is energy consumed during a specified period, and Y is economic output measured in consistent monetary or physical units. The units might be megajoules per dollar of real GDP. The indicator is meaningful only when the output measure, price basis, time period and system boundary are clearly specified. A decline in energy intensity may result from efficiency improvements, structural change, outsourcing or measurement effects; it does not necessarily mean that total energy use has declined.

5.3 The rebound effect and transition trade-offs

Efficiency improvements can reduce the energy required per unit of output, but lower operating costs may stimulate additional consumption. This is the rebound effect. At the system level, decarbonisation also raises questions about mineral demand, land use, grid expansion, affordability and employment in fossil-fuel regions.

A credible transition strategy therefore combines technological substitution with demand management, grid reliability, worker retraining, regional development and protection for vulnerable households. It should evaluate lifecycle emissions and material requirements rather than compare technologies only at the point of operation.

6. Manufacturing Landscapes and Global Value Chains

Manufacturing location is shaped by labour cost, skills, energy, materials, infrastructure, market access, taxation, regulation, agglomeration economies and geopolitical risk. Traditional low-cost production models have increasingly been supplemented by concerns about resilience, proximity to customers, automation and strategic autonomy.

6.1 Agglomeration and fragmentation

Agglomeration economies arise when firms benefit from locating near suppliers, skilled labour, research institutions, logistics services and competitors. Clusters can accelerate innovation and reduce transaction costs. They can also generate congestion, pollution, high wages and exposure to common shocks.

Global value chains fragment production across borders. The same product may involve design, component manufacturing, assembly, software, logistics, marketing and after-sales services in different places. Value-chain governance determines who controls standards, technology, intellectual property and access to customers. Lead firms may shift production rapidly, but suppliers with specialised equipment or certification can be difficult to replace.

6.2 Resilience versus efficiency

The pursuit of minimum cost often produces concentrated supply chains. Resilience requires the capacity to anticipate, absorb and recover from disruption. Strategies include multiple suppliers, strategic inventories, dual sourcing, regional production, modular product design, supplier mapping and scenario planning. Each strategy has costs; resilience is not free redundancy.

A simple concentration measure is the Herfindahl–Hirschman Index:

where s_i is supplier i’s market share expressed as a proportion between 0 and 1, and n is the number of suppliers. The index ranges from near zero for many equally sized suppliers to 1 when one supplier provides all supply. If shares are expressed as percentages, the index ranges approximately from 0 to 10,000 instead. The measure captures concentration, not political reliability, substitutability, inventory cover or transport risk; it should therefore not be used as a complete risk assessment.

For example, if three suppliers provide 50%, 30% and 20% of a critical input, then HHI = 0.50² + 0.30² + 0.20² = 0.38, or 3,800 when percentage shares are used. A lower index after diversification does not guarantee security if all suppliers depend on the same port, mineral-processing country or technology.

7. Commodity Dependence and Resource Security

Commodity dependence occurs when exports, fiscal revenue, employment or foreign exchange rely heavily on a small number of primary commodities. It can expose economies to price cycles, demand shocks, climate events, technological substitution and bargaining asymmetry.

An export concentration ratio can be expressed as:

where x_i is the share of total merchandise exports represented by commodity i, and k is the selected number of commodities. A high CR_k indicates dependence on a narrow export basket. It does not by itself show whether a country has diversified destinations, strong fiscal institutions or domestic value addition.

Resource security should be analysed at multiple scales:

A mature security strategy combines diversification, substitution, recycling, stockpiles, transparent markets, international cooperation and demand reduction. Protectionist measures may improve short-term security for one country while worsening global efficiency or provoking retaliation. Policy should therefore distinguish emergency preparedness from permanent restrictions.

8. Circular Economy and Industrial Transformation

The linear model—extract, produce, use and discard—creates material losses and environmental externalities. A circular economy aims to maintain products and materials at their highest useful value through reduction, reuse, repair, remanufacturing, refurbishment and recycling.

Circularity is not synonymous with recycling. Recycling usually recovers material after a product has lost its original function, whereas repair and remanufacturing may preserve more embedded energy, labour and design value. Circular strategies can also reduce exposure to imported materials, although they cannot eliminate primary extraction because material stocks are still growing and losses occur during use and processing.

Business models include product-as-a-service, take-back systems, industrial symbiosis, modular design and secondary-material marketplaces. Effective implementation requires product standards, traceability, reverse logistics, compatible materials, producer responsibility and reliable quality specifications.

The environmental benefits of circularity must be assessed across the lifecycle. A recycling process that consumes large amounts of energy or produces hazardous waste may not be preferable in every context. Similarly, shipping used products across long distances may be justified if the recovered value substantially exceeds transport and processing impacts.

9. Governance, Ethics and Technology

Resource landscapes are governed by states, firms, communities, international organisations and civil society. Key instruments include licensing, royalties, environmental impact assessment, emissions standards, trade rules, sanctions, public procurement, disclosure requirements and extended producer responsibility.

Ethical governance requires attention to distribution. Benefits may accrue to investors and urban consumers while costs fall on rural communities, workers, indigenous peoples or future generations. Consultation should occur before irreversible decisions are made, and consent, compensation and grievance mechanisms should be meaningful rather than procedural.

Digital technologies can improve satellite monitoring, mineral traceability, predictive maintenance, demand forecasting and energy management. Artificial intelligence can identify patterns in logistics, weather and equipment failure. However, technology does not remove political or ecological limits. Algorithms may reproduce biased data, obscure accountability or encourage excessive extraction if the objective function rewards output without incorporating social and environmental constraints.

10. Applied Case: Battery Manufacturing and the Search for Resilient Supply

Background

The following is an illustrative case. A multinational automobile manufacturer plans to expand electric-vehicle production across three regions. Its battery cells depend on lithium compounds, nickel-based cathode materials, graphite-based anodes, chemical processing and specialised manufacturing equipment. Demand forecasts are strong, but the firm has experienced delays caused by shipping disruption, changing export rules and fluctuations in mineral prices.

Problem

The company’s procurement department has optimised for unit cost and currently relies on a small number of qualified suppliers. It discovers that geographical diversification of mines has not produced true diversification because several suppliers use the same refining region and depend on one maritime corridor. At the same time, local communities near proposed mines raise concerns about water use and land rights.

Analysis

The company maps the chain from mine to battery pack rather than stopping at the first-tier supplier. It evaluates four forms of concentration: mineral extraction, chemical processing, component manufacturing and logistics. It also assesses substitution possibilities, inventory lead times, recycling potential, price exposure and social licence to operate.

Suppose the firm’s refined-material supply shares are 50%, 30% and 20%. The HHI is 0.38, indicating substantial concentration relative to an evenly distributed three-supplier structure. However, the numerical result is only a screening tool. The firm also finds that two suppliers share a processing bottleneck, so the effective concentration is higher than the simple supplier calculation suggests.

Approach and solution

The firm adopts a portfolio strategy:

• qualifies an additional processor in a different jurisdiction;
• signs long-term contracts with price-adjustment and sustainability provisions;
• maintains a strategically sized inventory for materials with long replacement lead times;
• redesigns selected battery chemistries to reduce dependence on the most constrained input;
• invests in battery collection, diagnostic testing and recycling partnerships;
• requires water-risk assessments and community grievance mechanisms;
• audits emissions, labour conditions and traceability beyond first-tier suppliers;
• establishes scenario triggers for sanctions, port closure, price spikes and regulatory change.

The firm does not attempt complete national self-sufficiency. Instead, it seeks resilient interdependence: diversified sources, transparent dependencies, substitution capacity and cooperative relationships.

Outcome

The strategy increases short-term procurement costs and requires engineering expenditure. Nevertheless, it reduces exposure to a single processing bottleneck, improves regulatory readiness and creates access to secondary materials over time. The company also learns that circularity and resilience can reinforce each other: recovered materials reduce both environmental impacts and dependence on volatile primary markets.

Learning points

1. Supply-chain geography must include processing, infrastructure and logistics, not only extraction.
2. Lowest cost is not equivalent to lowest total risk.
3. Technical substitution can be as important as supplier diversification.
4. Social and ecological legitimacy is part of long-term supply security.
5. Circular systems require early product-design and collection decisions.

11. Managerial Framework for Resource-Sensitive Decisions

Managers can use the following sequence when evaluating a resource-intensive investment:

1. Define the system boundary: identify materials, energy, water, suppliers, users and waste pathways.
2. Map geographical dependencies: record extraction sites, processing regions, ports, grids and markets.
3. Measure concentration and exposure: use supplier shares, import dependence, lead times and scenario ranges.
4. Test substitutes and circular options: examine redesign, repair, reuse, recycling and alternative suppliers.
5. Evaluate externalities and rights: assess emissions, biodiversity, water, labour and community impacts.
6. Model disruptions: test price, climate, policy, conflict and infrastructure scenarios.
7. Design governance: assign responsibility, audit data quality and establish escalation triggers.
8. Review dynamically: resource landscapes change as technology, regulation and geopolitics evolve.

This framework avoids two common errors. The first is geographical determinism—the belief that nature alone determines economic outcomes. The second is technological optimism—the belief that innovation automatically resolves scarcity and environmental conflict. Sustainable competitiveness requires physical realism, institutional capacity and ethical judgement.

Challenges and Limitations

Resource analysis faces several limitations. Data may be incomplete, politically influenced or inconsistent across countries. Reserves are not fixed natural facts; they change with prices, technology, exploration and regulation. National averages can conceal basin-level or community-level stress. Corporate disclosures may omit lower-tier suppliers and indirect emissions. Models may also underestimate abrupt political change, tipping points or cascading infrastructure failures.

Indicators such as energy intensity and HHI are useful but partial. They simplify complex systems and can create false precision. Quantitative measures should therefore be combined with qualitative analysis, stakeholder knowledge, engineering assessment and institutional evaluation. Graduate-level analysis requires attention not only to what is measured, but also to what remains invisible.

Contemporary Developments and Best Practices

Several developments are reshaping global production landscapes:

• climate-related disruption is increasing the importance of adaptation and insurance;
• industrial policy is encouraging domestic or regional capacity in strategic sectors;
• carbon pricing and product standards are extending environmental regulation across borders;
• automation and digital platforms are altering the geography of manufacturing;
• renewable-energy deployment is increasing demand for grids, storage and critical materials;
• water and biodiversity disclosure are becoming more significant in investment decisions;
• recycling and product-passport systems are improving material traceability;
• geopolitical competition is encouraging firms to balance global efficiency with strategic resilience.

Best practice is not simply to locate production in the cheapest region. It is to design portfolios that are economically viable, environmentally credible, socially legitimate and adaptable under uncertainty. Firms should maintain auditable data, engage affected communities, avoid single points of failure, use lifecycle assessment carefully and align procurement with long-term resource stewardship.

Chapter Summary

Resources and production are spatially uneven because physical endowments interact with infrastructure, institutions, technology, labour and markets. Agriculture is shaped by climate, soils, water and value-chain governance; water risk is basin-specific and connected to global trade through virtual water; minerals are vulnerable not only at the mining stage but also in refining and processing; and energy security includes availability, accessibility, affordability and acceptability.

Manufacturing landscapes reflect agglomeration, global value chains and the tension between efficiency and resilience. Commodity dependence can expose economies to price volatility and political vulnerability, while the resource curse demonstrates that resource abundance does not guarantee inclusive development. Energy transition changes, rather than eliminates, resource dependence. Circular-economy strategies can reduce primary extraction and supply risk, but require product redesign, reverse logistics, standards and responsible governance.

For international business, resource security is a multidimensional management problem. Effective decisions combine geographical mapping, concentration analysis, scenario planning, substitution, recycling, stakeholder engagement and ethical oversight. The most resilient production systems are not completely self-sufficient; they are transparently interconnected, diversified and capable of adaptation.

Key Terms

Resource endowment: The natural and human-made assets available in a location.

Resource stock: The quantity of a resource existing at a given time.

Resource flow: The rate at which a resource is produced, replenished, consumed or discharged.

Absolute advantage: The ability to produce a good using fewer resources or at lower direct cost than another producer.

Constructed advantage: Competitive advantage created through infrastructure, institutions, skills, technology and networks.

Virtual water: Water embedded in traded goods through their production processes.

Critical mineral: A mineral considered economically or strategically important and vulnerable to supply disruption.

Resource curse: The risk that resource abundance produces weak governance, conflict, volatility or poor diversification.

Energy security: The reliable provision of energy that is available, accessible, affordable and socially acceptable.

Energy intensity: Energy consumed per unit of economic output.

Agglomeration economy: Benefits obtained by firms locating near related firms, workers, infrastructure and knowledge institutions.

Global value chain: The geographically distributed activities through which a product or service is designed, produced, distributed and supported.

Commodity dependence: Reliance on a narrow range of primary commodities for exports, revenue or employment.

Herfindahl–Hirschman Index: A concentration measure calculated as the sum of squared supplier or market shares.

Circular economy: An economic system designed to reduce waste and retain products and materials at high value.

Industrial symbiosis: Exchange of materials, energy or by-products among firms so that one firm’s waste becomes another’s input.

Resilience: The capacity to anticipate, absorb, adapt to and recover from disruption.

Social licence to operate: Ongoing community acceptance of an organisation or project.

Lifecycle assessment: Evaluation of environmental impacts across a product’s stages, from resource extraction to disposal or recovery.

Review Questions

Short Answer Questions

1. Why does geographical resource abundance not automatically create economic advantage?
2. Distinguish between resource stocks and resource flows.
3. What are the four dimensions of energy security discussed in this chapter?
4. Why can processing concentration be more important than mining concentration?
5. Explain why circular economy is broader than recycling.

Long Answer Questions

1. Analyse how climate, infrastructure, institutions and markets jointly shape agricultural production landscapes.
2. Evaluate the relationship between commodity dependence and the resource curse.
3. Explain how global value chains create both efficiency and vulnerability for manufacturing firms.
4. Discuss the opportunities and trade-offs created by the energy transition for resource-exporting economies.
5. Critically assess the use of supplier concentration measures in international resource-security analysis.

Analytical / Application Questions

1. A firm obtains a critical input from suppliers with shares of 45%, 35% and 20%. Calculate the HHI using proportional shares and explain what the result does and does not reveal about supply risk.
2. Design a resource-security strategy for a manufacturer whose main production site is located in a water-stressed basin and depends on imported energy and minerals.
3. Select an international industry and map how circular-economy practices could reduce both environmental impacts and exposure to geopolitical disruption.

Multiple Choice Questions with Answers

Question 1

Which statement best explains why a resource endowment does not automatically produce economic advantage?

A. All resources have identical market values.

B. Economic value also depends on technology, infrastructure, institutions and access to markets.

C. Natural resources cannot be traded internationally.

D. Resource endowments are unrelated to production decisions.

Correct Answer: B. Economic value also depends on technology, infrastructure, institutions and access to markets.

Question 2

In the stock-balance expression S_t+1 = S_t + R_t − E_t, what does R_t represent?

A. The resource price at time t

B. The stock remaining after extraction

C. Natural replenishment during the period

D. The quantity exported during the period

Correct Answer: C. Natural replenishment during the period

Question 3

Which situation best illustrates virtual water trade?

A. A country imports a water-intensive agricultural product produced abroad.

B. A country builds a dam exclusively for flood control.

C. A factory replaces coal with solar electricity.

D. A firm stores bottled water in a warehouse.

Correct Answer: A. A country imports a water-intensive agricultural product produced abroad.

Question 4

A supply chain has three suppliers with proportional shares of 0.50, 0.30 and 0.20. What is its HHI?

A. 0.18

B. 0.30

C. 0.38

D. 0.80

Correct Answer: C. 0.38

Question 5

Which is a limitation of the Herfindahl–Hirschman Index in resource-security analysis?

A. It cannot measure supplier shares.

B. It captures concentration but not factors such as substitutability or shared infrastructure.

C. It always produces a value above 10,000.

D. It applies only to agricultural markets.

Correct Answer: B. It captures concentration but not factors such as substitutability or shared infrastructure.

Question 6

Which option is not one of the four dimensions of energy security identified in the chapter?

A. Availability

B. Accessibility

C. Affordability

D. Advertising

Correct Answer: D. Advertising

Question 7

What is a central feature of the resource curse?

A. Resource abundance always causes rapid industrial diversification.

B. Resource-rich economies may experience weak institutions, volatility or conflict.

C. Resource extraction eliminates political risk.

D. Resource exports are unrelated to public revenue.

Correct Answer: B. Resource-rich economies may experience weak institutions, volatility or conflict.

Question 8

Which circular-economy activity generally preserves more product value than material recycling?

A. Repair

B. Landfill disposal

C. Incineration without recovery

D. Primary extraction

Correct Answer: A. Repair

Question 9

Why may a decline in energy intensity fail to reduce total energy consumption?

A. Energy intensity is never related to economic output.

B. Efficiency gains may stimulate additional consumption through the rebound effect.

C. Energy intensity can only increase over time.

D. Economic output is always measured in physical units.

Correct Answer: B. Efficiency gains may stimulate additional consumption through the rebound effect.

Question 10

Which strategy best reflects resilient interdependence in a battery supply chain?

A. Relying exclusively on the cheapest single supplier

B. Seeking complete isolation from international trade

C. Combining supplier diversification, substitution, recycling and transparent due diligence

D. Ignoring processing and logistics because only mines matter

Correct Answer: C. Combining supplier diversification, substitution, recycling and transparent due diligence