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A Level H2 Geography Practice Paper 1

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TuitionGoWhere Practice Paper - Geography H2 A-Level

TuitionGoWhere Exam Practice (AI)

Subject: Geography H2 (9173) Level: A-Level Paper: Practice Paper 1 (Thematic Studies) Duration: 1 hour 30 minutes Total Marks: 60 Type: PRACTICE Version: 1 of 5

Name: _________________________ Class: _________________________ Date: _________________________

Instructions to Candidates

This paper consists of three sections: Section A, Section B, and Section C.
Answer all questions in Section A and Section B.
In Section C, answer one question.
Write your answers in the spaces provided.
The use of an approved calculator is permitted where appropriate.
You are reminded of the need for good English and clear presentation in your answers.
The number of marks is given in brackets [ ] at the end of each question or part question.
You are advised to spend approximately 45 minutes on Section A, 25 minutes on Section B, and 20 minutes on Section C.

Section A: Source-Based Questions (Resources & Sustainability)

Answer ALL questions in this section. [Total: 30 marks]

Resources 1A–1C are provided for Questions 1–5.

Resource 1A: Waste Composition in Selected Southeast Asian Cities (2023)

City	Organic Waste (%)	Plastic (%)	Paper/Cardboard (%)	Metal/Glass (%)	Other (%)
Bangkok	48	22	15	8	7
Jakarta	55	18	12	6	9
Manila	52	20	14	5	9
Ho Chi Minh City	60	16	10	5	9
Singapore	22	28	25	15	10

Resource 1B: Infographic – Plastic Waste Management in Southeast Asia (2023)

Southeast Asia generates approximately 31 million tonnes of plastic waste annually.
Only 9% of plastic waste is recycled in the region.
35% is disposed of in open dumpsites.
25% is inadequately managed, entering waterways and oceans.
The remaining 31% is landfilled or incinerated.
Key challenges: limited recycling infrastructure, high contamination rates, informal waste sector dominance.

Resource 1C: Photograph – Street Scene in a Southeast Asian City

[A photograph showing a narrow urban street with mixed residential and commercial buildings. Visible features include: scattered plastic waste along a drainage canal, overflowing communal waste bins, and informal waste collectors sorting through discarded materials. In the background, modern high-rise buildings are visible.]

Question 1

Compare the waste composition profiles of Singapore and Ho Chi Minh City as shown in Resource 1A. [5]

Question 2

Using Resource 1B, describe the key challenges facing plastic waste management in Southeast Asia. [4]

Question 3

With reference to Resource 1C, explain how the street scene illustrates two waste management challenges common in rapidly urbanising Southeast Asian cities. [6]

Question 4

"Differences in waste composition between cities reflect their level of economic development." Using evidence from Resource 1A, assess the validity of this statement. [8]

Question 5

Suggest and justify two strategies that could improve waste management sustainability in a city with a waste composition profile similar to Jakarta, as shown in Resource 1A. Refer to Resources 1A, 1B, and 1C in your answer. [7]

Section B: Structured Questions (Resources & Sustainability)

Answer ALL questions in this section. [Total: 15 marks]

Question 6

Explain how the concept of the "resource curse" can affect countries at low levels of development that possess abundant natural resources. [7]

Question 7

Describe two ways in which climate change may threaten the sustainability of tropical forest resources. [4]

Question 8

Explain why integrated waste management approaches are often more effective than single-strategy solutions in achieving urban sustainability. [4]

Section C: Essay Question (Resources & Sustainability)

Answer ONE question from this section. [Total: 15 marks]

EITHER

Question 9

"Sustainable resource management in cities at low levels of development cannot be achieved without significant international cooperation and foreign assistance." How far do you agree with this statement? Support your answer with relevant examples. [15]

Question 10

Assess the view that technological innovation is the most important factor in achieving resource sustainability in urban areas. Support your answer with relevant examples. [15]

END OF PAPER

Answers

TuitionGoWhere Practice Paper - Geography H2 A-Level

Answer Key and Marking Scheme

Version: 1 of 5

Section A: Source-Based Questions (Resources & Sustainability)

Question 1: Waste Composition Comparison [5 marks]

Answer Framework:

Candidates should provide a systematic comparison using data from Resource 1A.

Mark	Descriptor
1	Identifies key difference: Singapore has much lower organic waste (22%) compared to Ho Chi Minh City (60%)
2	Identifies second difference: Singapore has higher plastic (28% vs 16%), paper (25% vs 10%), and metal/glass (15% vs 5%)
3	Uses comparative language effectively ("whereas," "in contrast," "significantly higher/lower")
4	Provides specific data points for both cities across multiple categories
5	Synthesises into overall comparison (e.g., "Singapore's waste profile reflects a more consumption-oriented, processed-goods economy, while Ho Chi Minh City's profile indicates a diet- and agriculture-based waste stream")

Sample High-Scoring Response: "Singapore's waste composition differs markedly from Ho Chi Minh City's. Singapore generates only 22% organic waste, whereas Ho Chi Minh City's organic waste constitutes 60% of its total—nearly three times higher. Conversely, Singapore produces substantially more plastic waste (28% compared to 16%), paper/cardboard (25% compared to 10%), and metal/glass (15% compared to 5%). These differences suggest that Singapore's waste profile reflects higher consumption of packaged and manufactured goods typical of a high-income economy, while Ho Chi Minh City's profile indicates a greater proportion of food and organic waste characteristic of a developing urban economy with different dietary and consumption patterns."

Question 2: Plastic Waste Management Challenges [4 marks]

Answer Framework:

Mark	Descriptor
1	Identifies low recycling rate (only 9% recycled)
2	Identifies high proportion of open dumping (35%) and inadequate management (25% entering waterways)
3	Identifies infrastructure challenges (limited recycling infrastructure, high contamination rates)
4	Identifies systemic challenge (dominance of informal waste sector) OR synthesises challenges

Sample Response: "Southeast Asia faces severe plastic waste management challenges. Only 9% of the 31 million tonnes of plastic waste generated annually is recycled, indicating critically inadequate recycling capacity. A further 35% is disposed of in open dumpsites, while 25% is inadequately managed and enters waterways and oceans, causing significant environmental pollution. Key underlying challenges include limited formal recycling infrastructure, high contamination rates that reduce recyclability, and the dominance of the informal waste sector, which lacks the capacity and technology for systematic waste processing."

Question 3: Waste Management Challenges in Urbanising Cities [6 marks]

Answer Framework:

Award up to 3 marks per well-explained challenge (2 challenges × 3 marks each).

Challenge 1 (3 marks): Inadequate waste collection infrastructure

Evidence from Resource 1C: overflowing communal waste bins, scattered plastic waste along drainage canal
Explanation: Rapid urbanisation outpaces municipal capacity; informal settlements lack formal collection services; limited financial resources for comprehensive coverage
Link to sustainability: Uncollected waste leads to environmental degradation, health hazards, water pollution

Challenge 2 (3 marks): Informal waste sector reliance and limitations

Evidence from Resource 1C: informal waste collectors sorting through discarded materials
Explanation: Informal sector fills service gaps but operates without regulation, safety standards, or environmental controls; workers face health risks; recovery rates are low
Link to sustainability: Informal sector cannot achieve systematic resource recovery needed for sustainable waste management

Sample High-Scoring Response: "Resource 1C illustrates two significant waste management challenges. First, the overflowing communal bins and scattered plastic waste along the drainage canal demonstrate inadequate formal waste collection infrastructure. Rapid urbanisation in Southeast Asian cities often outpaces municipal capacity to provide comprehensive collection services, particularly in lower-income and informal settlement areas. This results in uncollected waste accumulating in public spaces and waterways, causing environmental pollution, blocking drainage systems, and creating health hazards from vermin and waterborne diseases.

Second, the presence of informal waste collectors sorting through discarded materials highlights the reliance on the informal sector for waste recovery. While these workers provide a valuable service by diverting some recyclable materials from disposal, they operate without proper protective equipment, regulated working conditions, or systematic recovery methods. The informal sector alone cannot achieve the high recovery rates and environmental standards needed for sustainable urban waste management, yet formal alternatives remain underdeveloped in many rapidly urbanising cities."

Question 4: Waste Composition and Economic Development [8 marks]

Answer Framework:

This is an "assess the validity" question requiring balanced evaluation.

Level Descriptors:

Level	Marks	Descriptor
L1	1–3	Basic description of waste composition differences; limited or no assessment
L2	4–5	Identifies relationship between development and waste composition with some evidence; begins to assess validity
L3	6–7	Clear assessment with supporting evidence; acknowledges both supporting and limiting factors
L4	8	Comprehensive assessment; evaluates multiple dimensions; reaches nuanced conclusion

Expected Content:

Supporting the statement:

Singapore (high-income): low organic waste (22%), high plastic/paper/metal/glass → reflects processed food consumption, packaged goods, durable products
Ho Chi Minh City (lower-income): high organic waste (60%), lower plastic/paper → reflects fresh food preparation, less packaging, fewer durable goods
General pattern: organic waste decreases with development; manufactured material waste increases

Challenging the statement:

Bangkok and Manila show similar profiles despite different development levels (both middle-income but similar organic waste ~48–52%)
Jakarta (55% organic) is more similar to Manila (52%) than to Singapore, despite Indonesia's different economic structure
Cultural and dietary factors may be as important as income levels
Waste management policies (e.g., Singapore's incineration) affect reported composition

Conclusion: The statement has validity but oversimplifies; economic development is one factor among several (culture, policy, urban form) that shape waste composition.

Question 5: Waste Management Sustainability Strategies [7 marks]

Answer Framework:

Two strategies required, each worth up to 3.5 marks.

Strategy 1: Organic waste composting/anaerobic digestion (3.5 marks)

Justification: Jakarta's waste is 55% organic (Resource 1A) → diverting organic waste from disposal addresses largest waste fraction
Resource 1B context: reduces open dumping (35% currently) and inadequate management
Resource 1C context: reduces volume at overflowing communal bins
Sustainability benefits: produces compost/fertiliser for urban agriculture; reduces methane from landfills; creates employment

Strategy 2: Formalising and supporting informal waste sector (3.5 marks)

Justification: Resource 1C shows existing informal collectors; Resource 1B notes informal sector dominance
Approach: integrate informal workers into formal systems with training, protective equipment, fair wages, and collection infrastructure
Benefits: improves recycling rates (currently only 9% per Resource 1B); provides dignified livelihoods; extends collection coverage to underserved areas
Sustainability: social sustainability through improved working conditions; environmental sustainability through increased resource recovery

Mark Allocation:

1 mark per strategy for clear identification
1 mark per strategy for justification linked to resource evidence
1.5 marks per strategy for explanation of sustainability benefits

Section B: Structured Questions

Question 6: Resource Curse [7 marks]

Answer Framework:

Mark	Descriptor
1–2	Defines resource curse; identifies one mechanism (e.g., economic overdependence)
3–4	Explains two or more mechanisms with some development
5–6	Detailed explanation of multiple mechanisms with clear causal links
7	Comprehensive explanation covering economic, political, and social dimensions

Expected Content:

Definition: Paradox where resource-rich countries experience slower economic growth and worse development outcomes than resource-poor countries
Economic mechanisms: Dutch disease (resource exports → currency appreciation → manufacturing decline); price volatility → unstable revenues; overdependence → neglect of other sectors
Political mechanisms: Resource revenues reduce accountability (no need to tax citizens); increase corruption and rent-seeking; fuel conflict over resource control
Social mechanisms: Inequality (capital-intensive extraction creates few jobs); displacement of communities; environmental degradation affecting livelihoods
Examples: Nigeria (oil), Democratic Republic of Congo (minerals), Sierra Leone (diamonds)

Question 7: Climate Change and Tropical Forest Resources [4 marks]

Answer Framework:

2 marks per well-explained threat.

Threat 1 (2 marks): Increased drought frequency and intensity

Explanation: Climate change alters precipitation patterns; more frequent El Niño events cause extended dry periods in tropical regions
Impact: Increased forest fire risk; tree mortality from water stress; reduced forest regeneration; loss of timber and non-timber forest resources
Example: 2015 Southeast Asian haze crisis linked to drought-exacerbated forest fires

Threat 2 (2 marks): Temperature increases exceeding species tolerance

Explanation: Tropical species adapted to narrow temperature ranges; warming may exceed physiological limits
Impact: Species migration or extinction; changes in forest composition; reduced biodiversity affecting ecosystem services; potential forest dieback
Example: Amazon rainforest approaching tipping point where warming and drying could convert forest to savanna

Question 8: Integrated Waste Management [4 marks]

Answer Framework:

Mark	Descriptor
1	Defines integrated waste management or identifies single-strategy limitation
2	Explains one advantage of integration
3	Explains second advantage or provides example
4	Clear explanation with example and synthesis

Expected Content:

Definition: Integrated waste management combines multiple strategies (reduction, reuse, recycling, recovery, disposal) in a coordinated system
Advantage 1: Addresses different waste fractions appropriately (e.g., organic waste → composting; recyclables → material recovery; residual → energy recovery)
Advantage 2: Creates synergies (e.g., waste separation at source enables higher recycling rates; composting reduces landfill volume and methane emissions)
Advantage 3: More resilient than single strategies; if one component underperforms, others compensate
Example: Singapore's integrated system combining waste minimisation, extensive recycling programmes, and waste-to-energy incineration

Section C: Essay Questions

Question 9: International Cooperation and Sustainable Resource Management [15 marks]

Level Descriptors:

Level	Marks	Descriptor
L1	1–4	Descriptive; limited understanding; few or no examples
L2	5–8	Some explanation; basic examples; limited evaluation
L3	9–12	Good explanation with relevant examples; balanced argument emerging
L4	13–15	Comprehensive evaluation; well-supported arguments; nuanced conclusion; specific, detailed examples

Expected Content:

Arguments supporting the statement:

Financial constraints: LDC cities lack capital for infrastructure (waste treatment plants, recycling facilities, sanitary landfills)
Technology gap: Advanced waste management technologies (waste-to-energy, advanced recycling) require foreign expertise and equipment
Capacity building: Technical training, institutional development often provided through international programmes
Transboundary issues: Waste (especially plastic) crosses borders; international coordination needed
Examples: World Bank urban development projects; UN-Habitat sustainable cities programmes; bilateral aid for waste management infrastructure

Arguments challenging the statement:

Domestic resource mobilisation: Local taxation, user fees can fund services
Appropriate technology: Low-cost, locally appropriate solutions (community composting, informal sector integration) may not require foreign assistance
Local innovation: Cities can develop context-appropriate solutions (e.g., community-based waste management in Indonesian cities)
Aid dependency risks: Foreign assistance can create dependency, impose inappropriate models, or come with problematic conditions
Examples: Community-led waste management in Indian cities; Curitiba's self-financed sustainability initiatives

Conclusion: Foreign assistance is helpful and sometimes necessary for capital-intensive infrastructure, but sustainable resource management ultimately requires local ownership, appropriate technology choices, and domestic institutional capacity. The statement is partially valid but overstates the necessity of external assistance.

Question 10: Technological Innovation and Resource Sustainability [15 marks]

Level Descriptors:

Level	Marks	Descriptor
L1	1–4	Descriptive; lists technologies without assessment
L2	5–8	Explains role of technology; limited assessment of "most important"
L3	9–12	Good assessment with examples; considers other factors
L4	13–15	Comprehensive evaluation; weighs technology against other factors; nuanced conclusion

Expected Content:

Arguments for technology as most important:

Waste-to-energy: Converts non-recyclable waste to electricity, reducing landfill dependence (e.g., Singapore's Tuas Nexus integrated facility)
Advanced recycling: Chemical recycling can process previously unrecyclable plastics
Smart systems: Sensor-based collection routing, smart bins optimise efficiency
Water recovery: Membrane technology enables wastewater recycling (e.g., NEWater in Singapore)
Renewable energy: Solar, wind reduce resource consumption and emissions

Arguments for other factors being equally or more important:

Policy and governance: Regulations (bans, mandates), pricing mechanisms (landfill taxes, deposit schemes) drive behaviour change
Behavioural change: Consumer choices, waste reduction, participation in recycling programmes
Economic incentives: Circular economy business models, extended producer responsibility
Social equity: Ensuring sustainability transitions don't disproportionately burden low-income groups
Integrated planning: Urban design that reduces resource demand (compact cities, green buildings)

Conclusion: Technology is a crucial enabler but insufficient alone. Sustainable resource management requires integration of technology with supportive policy frameworks, behaviour change, and equitable governance. The most successful examples (Singapore, Copenhagen) combine technological innovation with strong institutional and policy support.

END OF ANSWER KEY