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A Level H2 Geography Practice Paper 2
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Questions
TuitionGoWhere Practice Paper - Geography H2 A-Level
TuitionGoWhere Exam Practice (AI)
Subject: Geography H2 (9173) Level: A-Level Paper: Practice Paper 2 (Resources & Sustainability) Duration: 1 hour 30 minutes Total Marks: 50 Name: _________________________ Class: _________________________ Date: _________________________
PRACTICE PAPER – Version 2 of 5
Instructions to Candidates
- This paper consists of three sections (A, B, and C).
- Answer all questions.
- Write your answers in the spaces provided.
- The number of marks is given in brackets [ ] at the end of each question or part question.
- You are advised to spend time in proportion to the marks allocated.
- Where appropriate, support your answers with specific examples and evidence from the resources provided.
Section A: Resource-Based Questions (20 marks)
Answer all questions in this section. Study Resources 1–4 carefully before answering.
Resource 1: Sustainability Index Scores for Selected Southeast Asian Cities (2024)
| City | Environmental Quality | Social Wellbeing | Economic Vitality | Overall Sustainability Score |
|---|---|---|---|---|
| Singapore | 82 | 78 | 88 | 83 |
| Kuala Lumpur | 65 | 62 | 74 | 67 |
| Bangkok | 58 | 55 | 72 | 62 |
| Jakarta | 48 | 45 | 68 | 54 |
| Manila | 42 | 40 | 60 | 47 |
| Phnom Penh | 35 | 32 | 52 | 40 |
Source: Adapted from Southeast Asian Urban Sustainability Report, 2024
Resource 2: Waste Composition in Phnom Penh, Cambodia (2023)
| Waste Type | Percentage (%) |
|---|---|
| Organic waste | 55 |
| Plastics | 20 |
| Paper/cardboard | 10 |
| Glass | 5 |
| Metals | 4 |
| Others | 6 |
Source: Phnom Penh Municipal Waste Management Report, 2023
Resource 3: Infographic – Plastic Pollution in Southeast Asia
Key Facts:
- Southeast Asia accounts for 60% of global marine plastic pollution
- Only 9% of plastic waste is recycled in the region
- Average plastic consumption per capita: 45 kg/year
- Projected increase in plastic waste by 2030: 40%
- Major sources: single-use packaging (65%), fishing gear (15%), consumer goods (20%)
Source: Adapted from UNEP Regional Assessment, 2024
Resource 4: Climograph for Singapore (1991–2020)
| Month | Jan | Feb | Mar | Apr | May | Jun | Jul | Aug | Sep | Oct | Nov | Dec |
|---|---|---|---|---|---|---|---|---|---|---|---|---|
| Temperature (°C) | 26.5 | 27.0 | 27.5 | 27.9 | 28.0 | 27.8 | 27.5 | 27.3 | 27.2 | 27.0 | 26.7 | 26.5 |
| Rainfall (mm) | 238 | 165 | 185 | 175 | 170 | 162 | 158 | 175 | 170 | 195 | 252 | 280 |
Source: Meteorological Service Singapore
1. Compare the sustainability scores for the six Southeast Asian cities shown in Resource 1. [5]
2. Using Resource 4, identify the climatic zone of Singapore according to the Köppen-Geiger climate classification system. Support your answer with data from the resource. [4]
3. Describe the waste composition in Phnom Penh as shown in Resource 2. [3]
4. With reference to Resources 2 and 3, explain two environmental challenges associated with waste management in Southeast Asian cities. [4]
5. Using Resources 1, 2, and 3, suggest why cities with lower sustainability scores may face greater difficulty in addressing waste management challenges. [4]
Section B: Structured Response Questions (15 marks)
Answer all questions in this section.
6. (a) Explain the processes that contribute to the formation of karst landscapes in tropical environments. [7]
(b) With reference to a specific case study, evaluate the extent to which karst landscapes present both opportunities and challenges for sustainable development. [8]
Section C: Extended Response Question (15 marks)
Answer the following question.
7. "An abundance of natural resources is more of a curse than a blessing for countries at low levels of development." How far do you agree with this statement? Support your answer with specific examples. [15]
END OF PAPER
This practice paper was generated by TuitionGoWhere Exam Practice (AI). It is designed to simulate A-Level Geography H2 examination conditions and question patterns based on real exam-derived templates.
Answers
TuitionGoWhere Practice Paper - Geography H2 A-Level
Answer Key and Marking Scheme
Paper: Practice Paper 2 (Resources & Sustainability) Version: 2 of 5 Total Marks: 50
Section A: Resource-Based Questions (20 marks)
Question 1: Sustainability Score Comparison [5 marks]
Marking Scheme:
- Award 1 mark for each valid comparative point, up to 5 marks.
- Responses must use comparative language and reference specific data from Resource 1.
- Credit should be given for identifying patterns, outliers, and synthesizing observations.
Model Answer:
Singapore achieved the highest overall sustainability score of 83, significantly exceeding all other cities. Kuala Lumpur scored 67, which is notably lower than Singapore but higher than the remaining four cities. Bangkok and Jakarta scored 62 and 54 respectively, placing them in the middle range, while Manila (47) and Phnom Penh (40) recorded the lowest scores.
Across all three dimensions, Singapore consistently outperformed other cities, scoring 82 in Environmental Quality, 78 in Social Wellbeing, and 88 in Economic Vitality. In contrast, Phnom Penh scored lowest in all categories: 35 in Environmental Quality, 32 in Social Wellbeing, and 52 in Economic Vitality.
A clear pattern emerges where cities with higher economic vitality scores (Singapore 88, Kuala Lumpur 74) also tend to have higher environmental and social scores, suggesting a relationship between economic development and overall sustainability performance. The gap between the highest-scoring city (Singapore, 83) and the lowest-scoring city (Phnom Penh, 40) is 43 points, indicating substantial variation in sustainability outcomes across the region.
Question 2: Köppen-Geiger Climate Classification [4 marks]
Marking Scheme:
- Award 1 mark for correctly identifying the climate zone (Af – Tropical Rainforest).
- Award up to 3 marks for supporting evidence using data from Resource 4.
- Responses must reference both temperature and precipitation criteria.
Model Answer:
Singapore's climate is classified as Af (Tropical Rainforest) according to the Köppen-Geiger system.
Supporting evidence:
-
Temperature criterion: All months have mean temperatures above 18°C, satisfying the tropical climate (A) requirement. Singapore's temperatures range from 26.5°C (January, December) to 28.0°C (May), consistently exceeding the 18°C threshold.
-
Precipitation criterion: The Af classification requires no dry season, with all months receiving at least 60 mm of rainfall. Singapore's driest month is July with 158 mm, well above the 60 mm threshold. Annual precipitation is substantial, with monthly rainfall ranging from 158 mm to 280 mm.
-
Seasonal pattern: There is no distinct dry season; rainfall is distributed throughout the year, with a slight increase during the Northeast Monsoon period (November to January), confirming the Af rather than Am (monsoon) or Aw (savanna) classification.
Question 3: Waste Composition Description [3 marks]
Marking Scheme:
- Award 1 mark for each valid descriptive point, up to 3 marks.
- Responses must reference specific data from Resource 2.
- Credit for identifying the dominant waste type and providing comparative observations.
Model Answer:
Organic waste constitutes the largest proportion of Phnom Penh's waste composition at 55%, representing more than half of all waste generated. Plastics form the second-largest category at 20%, followed by paper and cardboard at 10%. The remaining 15% is distributed among glass (5%), metals (4%), and other materials (6%). The data indicates that biodegradable organic waste and plastics together account for 75% of the city's total waste stream, highlighting the dominance of these two categories.
Question 4: Environmental Challenges from Waste Management [4 marks]
Marking Scheme:
- Award 2 marks for each well-explained challenge (2 challenges × 2 marks = 4 marks).
- Responses must reference both Resources 2 and 3.
- Credit for linking waste composition data to specific environmental impacts.
Model Answer:
Challenge 1: Plastic pollution of marine environments (2 marks)
Resource 2 shows that plastics constitute 20% of Phnom Penh's waste, while Resource 3 indicates that Southeast Asia accounts for 60% of global marine plastic pollution. The low recycling rate of only 9% in the region means that a significant proportion of plastic waste enters waterways and ultimately the ocean. This causes severe ecological damage, including harm to marine life through ingestion and entanglement, and contributes to microplastic contamination of food chains.
Challenge 2: Organic waste decomposition and greenhouse gas emissions (2 marks)
Resource 2 reveals that organic waste makes up 55% of Phnom Penh's waste composition. When organic waste decomposes in poorly managed landfills without proper aeration, it produces methane, a potent greenhouse gas with a global warming potential 25 times greater than carbon dioxide. Resource 3's projection of a 40% increase in waste by 2030 suggests that without improved waste management infrastructure, greenhouse gas emissions from waste decomposition will rise substantially, exacerbating climate change impacts in the region.
Question 5: Sustainability Scores and Waste Management Challenges [4 marks]
Marking Scheme:
- Award 1 mark for each valid point linking sustainability scores to waste management capacity, up to 4 marks.
- Responses must integrate evidence from all three resources.
- Credit for explaining causal relationships and synthesizing information.
Model Answer:
Cities with lower sustainability scores face greater waste management challenges for several interconnected reasons. Resource 1 shows that Phnom Penh (overall score 40) has low scores across all dimensions, particularly Economic Vitality (52) and Environmental Quality (35). Limited economic resources constrain investment in waste management infrastructure such as recycling facilities, sanitary landfills, and collection systems.
Resource 2 demonstrates that Phnom Penh's waste is dominated by organic waste (55%) and plastics (20%), which require different treatment approaches. Without adequate financial and technical capacity, cities struggle to implement source separation, composting programmes, and plastic recycling initiatives. Resource 3 highlights that Southeast Asia already faces severe plastic pollution with only 9% recycling rates, and lower-scoring cities are likely to have even lower recycling capacity.
Furthermore, lower Social Wellbeing scores (Phnom Penh 32) may indicate limited public awareness, weaker institutional capacity for enforcement, and greater prevalence of informal waste picking, all of which complicate formal waste management efforts. The combination of rapid waste generation growth (40% projected increase by 2030, Resource 3) and limited sustainability capacity creates a widening gap between waste management needs and available resources.
Section B: Structured Response Questions (15 marks)
Question 6(a): Karst Landscape Formation Processes [7 marks]
Marking Scheme:
| Level | Marks | Descriptor |
|---|---|---|
| Level 3 | 6–7 | Comprehensive explanation of multiple processes with clear sequencing and technical accuracy. Links surface and subsurface processes. Demonstrates understanding of chemical and physical mechanisms. |
| Level 2 | 3–5 | Explains some processes with reasonable accuracy. May focus primarily on one type of process or lack full sequencing. Some technical terminology used. |
| Level 1 | 1–2 | Basic description of one or two processes. Limited technical detail or accuracy. May confuse weathering and erosion. |
Model Answer:
Karst landscapes in tropical environments form through a combination of chemical weathering, physical weathering, and erosion processes operating over extended timescales.
Chemical Weathering (Carbonation): The primary process is carbonation, where rainwater absorbs atmospheric carbon dioxide to form weak carbonic acid (H₂O + CO₂ → H₂CO₃). In tropical environments, high temperatures accelerate this chemical reaction, while abundant rainfall provides continuous water supply. The carbonic acid reacts with calcium carbonate (CaCO₃) in limestone to form soluble calcium bicarbonate [Ca(HCO₃)₂], which is removed in solution. This process is enhanced in tropical conditions due to higher CO₂ concentrations from dense vegetation and soil respiration.
Role of Joints and Bedding Planes: Limestone is permeable due to joints (vertical fractures) and bedding planes (horizontal layers). Water infiltrates along these lines of weakness, and carbonation occurs preferentially along these pathways, widening them over time. This creates distinctive surface features including limestone pavements (clints and grikes) and swallow holes where surface streams disappear underground.
Subsurface Processes: As water percolates through the limestone, it dissolves rock along joints and bedding planes, creating underground drainage systems including caves, caverns, and tunnels. In tropical environments, high water tables and abundant groundwater flow accelerate subsurface dissolution. Stalactites and stalagmites form through reprecipitation of calcium carbonate when water evaporates or loses CO₂ in cave environments.
Surface Features: Continued subsurface erosion can lead to roof collapse, forming sinkholes (dolines) and creating the characteristic irregular, pitted surface of karst topography. In tropical karst landscapes, rapid chemical weathering produces distinctive tower karst or cone karst formations, where residual limestone hills rise steeply from surrounding plains. The combination of high rainfall, warm temperatures, and dense vegetation in tropical environments accelerates all these processes, producing more dramatic karst features than in temperate regions.
Question 6(b): Opportunities and Challenges of Karst Landscapes [8 marks]
Marking Scheme:
| Level | Marks | Descriptor |
|---|---|---|
| Level 3 | 7–8 | Balanced evaluation with specific case study evidence. Clearly identifies both opportunities and challenges. Reaches a justified conclusion about the overall balance. |
| Level 2 | 4–6 | Identifies opportunities and challenges with some case study reference. May be imbalanced or lack evaluative conclusion. Some specific detail provided. |
| Level 1 | 1–3 | Lists opportunities or challenges without evaluation. Limited or no case study evidence. Descriptive rather than analytical. |
Model Answer (using Gunung Mulu National Park, Sarawak, Malaysia as case study):
Introduction: Karst landscapes present a complex mix of opportunities and challenges for sustainable development. The Gunung Mulu National Park in Sarawak, Malaysia, a UNESCO World Heritage Site, exemplifies these tensions between conservation, economic development, and environmental management.
Opportunities:
Tourism and economic development: Mulu's spectacular karst features, including the world's largest cave chamber (Sarawak Chamber) and extensive cave systems, attract international tourists. Tourism generates employment for local communities, supports ancillary services (accommodation, guiding, transport), and contributes to Malaysia's GDP. The park received approximately 20,000 visitors annually pre-pandemic, providing sustainable livelihoods for indigenous communities including the Berawan and Penan peoples.
Scientific and educational value: Karst landscapes provide unique opportunities for scientific research in speleology, hydrology, and ecology. Mulu's caves contain endemic species and important palaeoclimate records in speleothems. Educational tourism and research partnerships generate additional revenue while advancing scientific knowledge.
Water resources: Karst aquifers store significant groundwater resources. In Mulu, the Melinau River system provides water supply for local communities and supports aquatic ecosystems. Karst springs often provide reliable, naturally filtered water sources.
Challenges:
Environmental vulnerability: Karst ecosystems are extremely fragile. Cave environments have stable microclimates; increased visitor numbers alter temperature, humidity, and CO₂ levels, potentially damaging speleothems and disturbing cave fauna. Surface vegetation removal exposes thin karst soils to erosion, while groundwater contamination spreads rapidly through interconnected underground drainage systems.
Development constraints: Karst terrain presents significant engineering challenges for infrastructure development. Sinkhole formation threatens building foundations and roads. The irregular topography limits agricultural expansion, while groundwater vulnerability restricts industrial development. In Mulu, accessibility remains limited, with the park reachable only by air or river, constraining economic diversification.
Resource extraction conflicts: Limestone quarrying for cement production offers short-term economic benefits but permanently destroys karst landscapes and associated ecosystem services. In Southeast Asia, many karst areas face pressure from mining interests, creating conflicts between conservation and development objectives.
Evaluation: The balance between opportunities and challenges depends critically on governance frameworks and development choices. In Mulu, UNESCO designation and Malaysian federal protection have prioritised conservation and sustainable tourism over extractive development. This approach has preserved the karst landscape's ecological and aesthetic values while generating economic benefits. However, this model requires strong institutional capacity and may not be replicable in areas with weaker governance or greater resource extraction pressures. Ultimately, karst landscapes can support sustainable development when conservation values are prioritised, but this requires deliberate policy choices that may forego short-term extractive gains for long-term sustainable benefits.
Section C: Extended Response Question (15 marks)
Question 7: Natural Resources – Blessing or Curse? [15 marks]
Marking Scheme:
| Level | Marks | Descriptor |
|---|---|---|
| Level 4 | 13–15 | Sophisticated, balanced evaluation with well-developed arguments on both sides. Multiple specific, detailed case studies. Clear, justified conclusion that addresses "how far." Excellent geographical terminology and conceptual understanding. |
| Level 3 | 9–12 | Balanced discussion with reasonable arguments on both sides. At least two case studies with some specific detail. Clear conclusion attempted. Good use of geographical terminology. |
| Level 2 | 5–8 | Some balance attempted but may favour one side. One or two case studies mentioned but lacking detail. Limited evaluation or conclusion. Some geographical terminology used. |
| Level 1 | 1–4 | One-sided argument or descriptive listing. Limited or no case study evidence. Weak or absent conclusion. Basic geographical terminology. |
Model Answer:
Introduction: The relationship between natural resource abundance and development outcomes has been extensively debated in development geography. While resource endowments theoretically provide capital for investment and economic growth, empirical evidence reveals that many resource-rich countries at low levels of development have experienced slower growth, greater inequality, and more conflict than resource-poor counterparts—a phenomenon termed the "resource curse." However, the extent to which resources are a curse rather than a blessing depends critically on governance, institutional quality, and policy choices.
Arguments that resources are a curse:
Economic volatility and Dutch Disease: Resource-dependent economies are vulnerable to commodity price fluctuations. When resource prices fall, government revenues collapse, creating boom-bust cycles that undermine long-term planning. The "Dutch Disease" mechanism describes how resource exports appreciate the real exchange rate, making other tradable sectors (manufacturing, agriculture) uncompetitive. Nigeria exemplifies this: oil exports account for over 90% of export earnings, yet the manufacturing sector has declined from 15% of GDP in the 1980s to less than 10% today. Currency appreciation during oil booms has systematically undermined non-oil sector development.
Governance failures and corruption: Resource wealth can undermine governance through rent-seeking behaviour, where elites compete for resource revenues rather than engaging in productive economic activity. In the Democratic Republic of Congo (DRC), mineral wealth (coltan, diamonds, cobalt) has fuelled decades of conflict as armed groups compete for control of mining areas. Corruption diverts resource revenues from public investment in health, education, and infrastructure. Angola's oil wealth has historically benefited a narrow elite while most of the population remains in poverty, with the country ranking poorly on human development indicators despite substantial resource endowments.
Conflict and instability: Resource wealth can finance and motivate armed conflict. Sierra Leone's diamond deposits fuelled a brutal civil war (1991–2002), with "blood diamonds" providing revenue for rebel groups. The DRC's mineral wealth has perpetuated regional instability involving multiple neighbouring countries. Resource-fuelled conflicts disproportionately affect low-development countries with weak state capacity to control territory and regulate extraction.
Environmental degradation: Resource extraction often causes severe environmental damage. Oil extraction in the Niger Delta has caused widespread pollution, destroying agricultural land and fishing livelihoods. Deforestation for timber exports in Indonesia and Papua New Guinea has generated short-term revenues while undermining long-term ecosystem services and biodiversity. These environmental costs disproportionately affect poor communities dependent on natural resources for subsistence.
Arguments that resources can be a blessing:
Revenue for development investment: Resource revenues can finance infrastructure, education, healthcare, and social programmes when managed effectively. Botswana demonstrates this possibility: diamond revenues have been invested in infrastructure, education (achieving near-universal primary enrolment), and healthcare (including one of Africa's most comprehensive HIV/AIDS treatment programmes). Botswana's GDP per capita grew from one of the world's lowest at independence (1966) to upper-middle-income status, largely through prudent management of diamond wealth.
Economic diversification potential: Resource revenues can be strategically invested to diversify the economy. Chile's copper revenues have been managed through a stabilisation fund that saves during boom periods and supports spending during downturns, enabling counter-cyclical fiscal policy. Investments in education, innovation, and non-copper sectors (agriculture, wine, aquaculture) have reduced dependence on a single commodity. Malaysia used tin and rubber revenues in the 1970s–80s to invest in manufacturing and infrastructure, successfully transitioning to a diversified economy.
Employment and linkages: Resource extraction can create employment and stimulate linked industries. Mining operations require transport infrastructure, equipment supply, and services, creating multiplier effects in local economies. However, extractive industries are often capital-intensive with limited direct employment; the benefits depend on deliberate policies to develop backward and forward linkages.
Mediating factors explaining divergent outcomes:
The critical variable determining whether resources become a curse or blessing is institutional quality. Botswana's success reflects strong democratic institutions, rule of law, and prudent fiscal management established before significant diamond revenues began. In contrast, Nigeria's challenges reflect weak institutions, corruption, and ethnic fragmentation that predate oil wealth. Governance quality—including transparency, accountability, and inclusive political systems—determines whether resource revenues are invested productively or captured by elites.
Other mediating factors include: the type of resource (point-source resources like oil and minerals are more susceptible to capture than diffuse resources like agricultural land); the timing of resource discovery relative to institutional development; and external factors including colonial legacies and international market structures.
Conclusion: The statement that resource abundance is "more of a curse than a blessing" captures an important empirical pattern but overstates the case. Resources are neither inherently a curse nor a blessing; outcomes depend on governance, institutions, and policy choices. For countries at low levels of development with weak institutions, resource abundance does present significant risks of conflict, corruption, and economic distortion. However, Botswana demonstrates that with strong governance, resources can finance sustainable development. The extent of agreement with the statement therefore depends on context: in countries with weak institutions and poor governance, resources have indeed proven more curse than blessing; where governance is stronger, resources can be a genuine blessing. The policy implication is that international efforts should focus on improving governance and transparency (e.g., Extractive Industries Transparency Initiative) rather than assuming resource endowments inevitably lead to negative outcomes.
END OF ANSWER KEY
This marking scheme provides guidance on expected response quality and mark allocation. Actual marking should consider the specific content and quality of candidate responses within these frameworks.