Hazards and ecosystems

A mixed GCSE exercise using different maps and data. The resources are separate fictional examples.

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Review these resources before classroom use. They are original practice with their own marks and assumptions.

Hazards and ecosystems

AQA GCSE Geography45 minutes40 marksPractice context: 2027Version 2026.10.08.2

Original practice assessment with editable questions and worked guidance.

Contours and relief

Each line joins locations at the same height. No spot height is supplied for P.

Scroll the diagram sideways to see the full resource.

Fictional hill contoursFour contours rise from 80 m to 140 m at intervals of 20 m. P is between the two highest contours.80 m100 m120 m140 mPP lies between the third and fourth contour.
Fictional hill contours. Original fictional resource; not an official map or real dataset.
Resource description

Four contours rise from 80 m to 140 m at intervals of 20 m. P is between the two highest contours.

1 mark1. What is the contour interval in metres?

1 mark2. Which statement about P is supported?

  • Exactly 140 m
  • Between 120 and 140 m
  • Above 140 m

Scatter plots

Six locations were observed once. Several unmeasured factors could influence the number of trees.

Scroll the diagram sideways to see the full resource.

Fictional settlement transect1 km: 28 trees; 2 km: 24 trees; 3 km: 20 trees; 4 km: 19 trees; 5 km: 14 trees; 6 km: 13 trees05101520253035123456Trees within 50 mDistance from town centre (km)
Distance (km)Trees within 50 m
128
224
320
419
514
613
Fictional settlement transect. Original fictional resource; not an official map or real dataset.
Resource description

1 km: 28 trees; 2 km: 24 trees; 3 km: 20 trees; 4 km: 19 trees; 5 km: 14 trees; 6 km: 13 trees

1 mark1. Which description best fits the pattern?

  • Positive association
  • Negative association
  • Curved association
  • No association

1 mark2. Which interpretation follows from the paired observations?

  • Changing distance would produce the recorded difference in tree counts.
  • Distance explains more variation than the unmeasured factors.
  • The same relationship applies beyond the recorded distance range.
  • Distance and tree count vary together in these six observations.

Coastal change rates

Both surveys use the same defined cliff-top line and coordinate system. Movement is a net landward change over the whole period.

RecordValue
Initial survey year2000
Final survey year2019
Landward movement of the same cliff-top line (m)95
Fictional repeated cliff-top surveys All values are synthetic.
Resource description

Fictional repeated cliff-top surveys

1 mark1. What is the mean annual retreat rate in m/year?

1 mark2. What evidence would test whether retreat was steady within the period?

  • The total length of coast in the same endpoint surveys.
  • A conversion of the endpoint rate into centimetres per year.
  • Comparable surveys taken at intervening dates.
  • A more precise calculation using the same two endpoints.

Coastal change rates

Both surveys use the same defined cliff-top line and coordinate system. Movement is a net landward change over the whole period.

RecordValue
Initial survey year2000
Final survey year2012
Landward movement of the same cliff-top line (m)60
Fictional repeated cliff-top surveys All values are synthetic.
Resource description

Fictional repeated cliff-top surveys

1 mark1. What is the mean annual retreat rate in m/year?

1 mark2. What evidence would test whether retreat was steady within the period?

  • Comparable surveys taken at intervening dates.
  • A more precise calculation using the same two endpoints.
  • The total length of coast in the same endpoint surveys.
  • A conversion of the endpoint rate into centimetres per year.

River hydrographs

Blue bars show rainfall in the hour ending at each labelled time. The green line shows discharge at that time. Peak lag is the difference between the hours of maximum rainfall and maximum discharge.

Scroll the diagram sideways to see the full resource.

Fictional storm hydrographHour 0: 0 mm rainfall, 5 m³/s discharge; Hour 1: 4 mm rainfall, 5 m³/s discharge; Hour 2: 11 mm rainfall, 5 m³/s discharge; Hour 3: 6 mm rainfall, 9 m³/s discharge; Hour 4: 0 mm rainfall, 15 m³/s discharge; Hour 5: 0 mm rainfall, 21 m³/s discharge; Hour 6: 0 mm rainfall, 27 m³/s discharge; Hour 7: 0 mm rainfall, 21 m³/s discharge; Hour 8: 0 mm rainfall, 15 m³/s discharge; Hour 9: 0 mm rainfall, 9 m³/s discharge; Hour 10: 0 mm rainfall, 5 m³/s discharge; Hour 11: 0 mm rainfall, 5 m³/s discharge; Hour 12: 0 mm rainfall, 5 m³/s discharge010203040051015200123456789101112Discharge (m³/s)Rainfall (mm)Hour since record began
HourRainfall in preceding hour (mm)Discharge (m³/s)
005
145
2115
369
4015
5021
6027
7021
8015
909
1005
1105
1205
Fictional storm hydrograph. Original fictional resource; not an official map or real dataset.
Resource description

Hour 0: 0 mm rainfall, 5 m³/s discharge; Hour 1: 4 mm rainfall, 5 m³/s discharge; Hour 2: 11 mm rainfall, 5 m³/s discharge; Hour 3: 6 mm rainfall, 9 m³/s discharge; Hour 4: 0 mm rainfall, 15 m³/s discharge; Hour 5: 0 mm rainfall, 21 m³/s discharge; Hour 6: 0 mm rainfall, 27 m³/s discharge; Hour 7: 0 mm rainfall, 21 m³/s discharge; Hour 8: 0 mm rainfall, 15 m³/s discharge; Hour 9: 0 mm rainfall, 9 m³/s discharge; Hour 10: 0 mm rainfall, 5 m³/s discharge; Hour 11: 0 mm rainfall, 5 m³/s discharge; Hour 12: 0 mm rainfall, 5 m³/s discharge

1 mark1. What is peak discharge in m³/s?

1 mark2. Calculate peak lag using the labelled hours of maximum rainfall and maximum discharge. Give your answer in hours.

1 mark3. Which explanation is consistent with, but not uniquely established by, this storm record?

  • The discharge peak identifies the basin’s infiltration capacity.
  • Storage and travel time can delay the discharge response.
  • Peak discharge measures the total rain falling on the basin.
  • Lag time measures the duration of flooding on the floodplain.

Latitude and longitude

Read latitude and longitude separately. Give a signed number: north and east are positive, south and west negative. The grid is for coordinates, not for measuring distances.

Scroll the diagram sideways to see the full resource.

Coordinate training gridLongitude runs from -20° to 30°. Latitude runs from -30° to 20°. P is at longitude -10°, latitude -20°. Grid interval is 10°. This diagram is not a distance-preserving map projection.-20°-30°-10°-20°0°-10°10°0°20°10°30°20°PLongitude: west is negative; east is positiveLatitude: south is negative; north is positive
PointLatitude (signed degrees)Longitude (signed degrees)
P-20-10
Coordinate training grid. Original fictional resource; not an official map or real dataset.
Resource description

Longitude runs from -20° to 30°. Latitude runs from -30° to 20°. P is at longitude -10°, latitude -20°. Grid interval is 10°. This diagram is not a distance-preserving map projection.

1 mark1. What is P’s latitude in degrees?

1 mark2. What is P’s longitude in degrees?

1 mark3. Where does P lie?

  • Northern hemisphere
  • Southern hemisphere
  • On the equator

Scatter plots

Six locations were observed once. Several unmeasured factors could influence the number of trees.

Scroll the diagram sideways to see the full resource.

Fictional settlement transect1 km: 27 trees; 2 km: 14 trees; 3 km: 5 trees; 4 km: 5 trees; 5 km: 14 trees; 6 km: 27 trees05101520253035123456Trees within 50 mDistance from town centre (km)
Distance (km)Trees within 50 m
127
214
35
45
514
627
Fictional settlement transect. Original fictional resource; not an official map or real dataset.
Resource description

1 km: 27 trees; 2 km: 14 trees; 3 km: 5 trees; 4 km: 5 trees; 5 km: 14 trees; 6 km: 27 trees

1 mark1. Which description best fits the pattern?

  • Positive association
  • Negative association
  • Curved association
  • No association

1 mark2. Which interpretation follows from the paired observations?

  • Distance and tree count vary together in these six observations.
  • Changing distance would produce the recorded difference in tree counts.
  • Distance explains more variation than the unmeasured factors.
  • The same relationship applies beyond the recorded distance range.

Scatter plots

Six locations were observed once. Several unmeasured factors could influence the number of trees.

Scroll the diagram sideways to see the full resource.

Fictional settlement transect1 km: 25 trees; 2 km: 13 trees; 3 km: 5 trees; 4 km: 5 trees; 5 km: 13 trees; 6 km: 25 trees05101520253035123456Trees within 50 mDistance from town centre (km)
Distance (km)Trees within 50 m
125
213
35
45
513
625
Fictional settlement transect. Original fictional resource; not an official map or real dataset.
Resource description

1 km: 25 trees; 2 km: 13 trees; 3 km: 5 trees; 4 km: 5 trees; 5 km: 13 trees; 6 km: 25 trees

1 mark1. Which description best fits the pattern?

  • Positive association
  • Negative association
  • Curved association
  • No association

1 mark2. Which interpretation follows from the paired observations?

  • The same relationship applies beyond the recorded distance range.
  • Distance and tree count vary together in these six observations.
  • Changing distance would produce the recorded difference in tree counts.
  • Distance explains more variation than the unmeasured factors.

Scatter plots

Six locations were observed once. Several unmeasured factors could influence the number of trees.

Scroll the diagram sideways to see the full resource.

Fictional settlement transect1 km: 11 trees; 2 km: 13 trees; 3 km: 18 trees; 4 km: 21 trees; 5 km: 22 trees; 6 km: 25 trees05101520253035123456Trees within 50 mDistance from town centre (km)
Distance (km)Trees within 50 m
111
213
318
421
522
625
Fictional settlement transect. Original fictional resource; not an official map or real dataset.
Resource description

1 km: 11 trees; 2 km: 13 trees; 3 km: 18 trees; 4 km: 21 trees; 5 km: 22 trees; 6 km: 25 trees

1 mark1. Which description best fits the pattern?

  • Positive association
  • Negative association
  • Curved association
  • No association

1 mark2. Which interpretation follows from the paired observations?

  • The same relationship applies beyond the recorded distance range.
  • Distance and tree count vary together in these six observations.
  • Changing distance would produce the recorded difference in tree counts.
  • Distance explains more variation than the unmeasured factors.

Climate graphs

Use the accompanying exact monthly values for calculations. Both axes begin at zero.

Scroll the diagram sideways to see the full resource.

Monthly climate graphJan: 107 mm, 3°C; Feb: 79 mm, 4°C; Mar: 111 mm, 7°C; Apr: 99 mm, 10°C; May: 102 mm, 14°C; Jun: 23 mm, 17°C; Jul: 39 mm, 19°C; Aug: 19 mm, 18°C; Sep: 32 mm, 15°C; Oct: 108 mm, 11°C; Nov: 115 mm, 7°C; Dec: 114 mm, 4°C03060901201500102030JanFebMarAprMayJunJulAugSepOctNovDecRainfall (mm)Temperature (°C)Blue bars: rainfall. Brown line: temperature.
MonthRainfall (mm)Temperature (°C)
Jan1073
Feb794
Mar1117
Apr9910
May10214
Jun2317
Jul3919
Aug1918
Sep3215
Oct10811
Nov1157
Dec1144
Monthly climate graph. Original fictional resource; not an official map or real dataset.
Resource description

Jan: 107 mm, 3°C; Feb: 79 mm, 4°C; Mar: 111 mm, 7°C; Apr: 99 mm, 10°C; May: 102 mm, 14°C; Jun: 23 mm, 17°C; Jul: 39 mm, 19°C; Aug: 19 mm, 18°C; Sep: 32 mm, 15°C; Oct: 108 mm, 11°C; Nov: 115 mm, 7°C; Dec: 114 mm, 4°C

1 mark1. What is the total annual rainfall in mm?

1 mark2. What is the annual temperature range in °C?

1 mark3. In which month is the highest mean temperature?

  • Jan
  • Apr
  • Jul
  • Oct

Calculate river discharge

Fictional training exercise. A team measures a permitted shallow reach from a safe platform. The section is simplified as a rectangle.

MeasurementValue
Width (m)4
Mean depth (m)0.3
Mean velocity (m/s)0.5
Fictional training data created by GeographyHelp

1 mark1. Calculate cross-sectional area in square metres.

1 mark2. Calculate discharge in cubic metres per second.

2 marks3. Explain a limitation of estimating the section as a rectangle.

Sample beach material fairly

Fictional training exercise. Three zones have different surface materials. The group wants to compare all zones without choosing conspicuous stones.

ZoneLength of zone (m)
Upper30
Middle50
Lower20
Fictional training data created by GeographyHelp

1 mark1. Which design represents the beach zones while reducing convenience selection?

  • Equal numbers of conspicuous pebbles beside each access path.
  • Systematic locations on one accessible part of the middle zone.
  • Random locations within each of the three zones.
  • Random locations within the longest zone only.

1 mark2. For proportional allocation of 40 samples, how many go in the middle zone?

2 marks3. How could the team make pebble size measurements comparable?

Choropleth maps

The shading represents a percentage of households, not a total. Each class includes its lower boundary and excludes its upper boundary: a value of 20 belongs in 20–30, not 10–20.

Scroll the diagram sideways to see the full resource.

Fictional district flood surveyA–D use these non-overlapping classes: 0 to less than 10%; 10 to less than 20%; 20 to less than 30%; 30 to less than 40%. A has 1,000 households and D has 100 households.A: 6%B: 11%C: 23%D: 37%Share of households reporting flood damageA: 1,000 households; D: 100 households0 to less than 10%10 to less than 20%20 to less than 30%30 to less than 40%
DistrictReported damage (%)Households
A61000
B11500
C23500
D37100
Fictional district flood survey. Original fictional resource; not an official map or real dataset.
Resource description

A–D use these non-overlapping classes: 0 to less than 10%; 10 to less than 20%; 20 to less than 30%; 30 to less than 40%. A has 1,000 households and D has 100 households.

1 mark1. Which class contains district C?

  • 10 to less than 20%
  • 20 to less than 30%
  • 30 to less than 40%

1 mark2. How many households in A reported damage?

1 mark3. What extra information is needed to compare affected-household counts?

  • The area of each district in square kilometres.
  • The colour interval used in the legend.
  • The number of districts in each colour class.
  • The household total for each district.

Map scale and distance

Use the stated printed measurement. Resizing this screen does not change the measurement in the table.

MeasurementValue
Map scale1:100,000
Measured route on a printed map9 cm
Distance along a fictional route All values are synthetic.
Resource description

Distance along a fictional route

1 mark1. What is the ground distance in kilometres?

1 mark2. How many centimetres would 2 km occupy on this printed map?

Contours and relief

Each line joins locations at the same height. No spot height is supplied for P.

Scroll the diagram sideways to see the full resource.

Fictional hill contoursFour contours rise from 30 m to 60 m at intervals of 10 m. P is between the two highest contours.30 m40 m50 m60 mPP lies between the third and fourth contour.
Fictional hill contours. Original fictional resource; not an official map or real dataset.
Resource description

Four contours rise from 30 m to 60 m at intervals of 10 m. P is between the two highest contours.

1 mark1. What is the contour interval in metres?

1 mark2. Which statement about P is supported?

  • Exactly 60 m
  • Between 50 and 60 m
  • Above 60 m

Contours and relief

Each line joins locations at the same height. No spot height is supplied for P.

Scroll the diagram sideways to see the full resource.

Fictional hill contoursFour contours rise from 60 m to 120 m at intervals of 20 m. P is between the two highest contours.60 m80 m100 m120 mPP lies between the third and fourth contour.
Fictional hill contours. Original fictional resource; not an official map or real dataset.
Resource description

Four contours rise from 60 m to 120 m at intervals of 20 m. P is between the two highest contours.

1 mark1. What is the contour interval in metres?

1 mark2. Which statement about P is supported?

  • Exactly 120 m
  • Between 100 and 120 m
  • Above 120 m

Original fictional scenarios and fieldwork resources: GeographyHelp, 2026. · Original controlled resources: GeographyHelp skills engine. · Official assessment context: https://filestore.aqa.org.uk/resources/geography/specifications/AQA-8035-SP-2016.PDF

Mark guidance

Use the taught landscape and resource options.

Original packs are not AQA examination papers. Extended reasoning needs teacher review; separate SPaG is not generated.

No extended decision task fits the selected profile, resource choice and mark budget. Original short explanation may be included; this pack does not imitate a full essay paper.

All fictional resources are labelled. Deterministic answer keys cover resource questions; written guidance is indicative and accepts justified alternatives.

Extension may include mathematical enrichment. A generated statistical test is not a claim that the selected qualification requires that test.

Teacher review is required before use. This is not an awarding-body paper, official prediction, grade boundary tool or assessed-work assistant.

Contours and relief

1. What is the contour interval in metres? (1 mark)

20

Adjacent labelled contours differ by 20 m. For this 1-mark task, credit the accepted numerical answer in the requested units.

2. Which statement about P is supported? (1 mark)

Between 120 and 140 m

A position between contours gives a height interval, not an exact height. For this 1-mark task, credit the keyed option.

Scatter plots

1. Which description best fits the pattern? (1 mark)

Negative association

Tree counts generally fall as distance increases. For this 1-mark task, credit the keyed option.

2. Which interpretation follows from the paired observations? (1 mark)

Distance and tree count vary together in these six observations.

An observational association alone cannot establish causation or universal applicability. For this 1-mark task, credit the keyed option.

Coastal change rates

1. What is the mean annual retreat rate in m/year? (1 mark)

5

95 m ÷ 19 years. For this 1-mark task, credit the accepted numerical answer in the requested units.

2. What evidence would test whether retreat was steady within the period? (1 mark)

Comparable surveys taken at intervening dates.

Storm events may concentrate change in a few years. Two endpoints establish net change, not its timing. For this 1-mark task, credit the keyed option.

Coastal change rates

1. What is the mean annual retreat rate in m/year? (1 mark)

5

60 m ÷ 12 years. For this 1-mark task, credit the accepted numerical answer in the requested units.

2. What evidence would test whether retreat was steady within the period? (1 mark)

Comparable surveys taken at intervening dates.

Storm events may concentrate change in a few years. Two endpoints establish net change, not its timing. For this 1-mark task, credit the keyed option.

River hydrographs

1. What is peak discharge in m³/s? (1 mark)

27

Read the maximum on the discharge line and its left axis. For this 1-mark task, credit the accepted numerical answer in the requested units.

2. Calculate peak lag using the labelled hours of maximum rainfall and maximum discharge. Give your answer in hours. (1 mark)

4

Maximum rainfall is at hour 2; maximum discharge is at hour 6. Subtract 2. For this 1-mark task, credit the accepted numerical answer in the requested units.

3. Which explanation is consistent with, but not uniquely established by, this storm record? (1 mark)

Storage and travel time can delay the discharge response.

Travel time and storage can delay discharge, but one record does not identify a unique mechanism or prove a universal lag. For this 1-mark task, credit the keyed option.

Latitude and longitude

1. What is P’s latitude in degrees? (1 mark)

-20

Use the horizontal latitude line through P; preserve its sign. For this 1-mark task, credit the accepted numerical answer in the requested units.

2. What is P’s longitude in degrees? (1 mark)

-10

Use the vertical longitude line through P; preserve its sign. For this 1-mark task, credit the accepted numerical answer in the requested units.

3. Where does P lie? (1 mark)

Southern hemisphere

A latitude of zero is the equator. A positive latitude is north; a negative latitude is south. For this 1-mark task, credit the keyed option.

Scatter plots

1. Which description best fits the pattern? (1 mark)

Curved association

Tree counts fall and then rise. A curved relationship can exist even when a straight-line correlation is zero. For this 1-mark task, credit the keyed option.

2. Which interpretation follows from the paired observations? (1 mark)

Distance and tree count vary together in these six observations.

An observational association alone cannot establish causation or universal applicability. For this 1-mark task, credit the keyed option.

Scatter plots

1. Which description best fits the pattern? (1 mark)

Curved association

Tree counts fall and then rise. A curved relationship can exist even when a straight-line correlation is zero. For this 1-mark task, credit the keyed option.

2. Which interpretation follows from the paired observations? (1 mark)

Distance and tree count vary together in these six observations.

An observational association alone cannot establish causation or universal applicability. For this 1-mark task, credit the keyed option.

Scatter plots

1. Which description best fits the pattern? (1 mark)

Positive association

Tree counts generally rise as distance increases. For this 1-mark task, credit the keyed option.

2. Which interpretation follows from the paired observations? (1 mark)

Distance and tree count vary together in these six observations.

An observational association alone cannot establish causation or universal applicability. For this 1-mark task, credit the keyed option.

Climate graphs

1. What is the total annual rainfall in mm? (1 mark)

948

Add the rainfall for all twelve months. For this 1-mark task, credit the accepted numerical answer in the requested units.

2. What is the annual temperature range in °C? (1 mark)

16

Subtract the lowest monthly temperature from the highest. For this 1-mark task, credit the accepted numerical answer in the requested units.

3. In which month is the highest mean temperature? (1 mark)

Jul

Identify the highest point on the temperature line. For this 1-mark task, credit the keyed option.

Calculate river discharge

1. Calculate cross-sectional area in square metres. (1 mark)

1.2

Width × mean depth = 4 × 0.3 = 1.2 m². For this 1-mark task, credit the accepted numerical answer in the requested units.

2. Calculate discharge in cubic metres per second. (1 mark)

0.6

Discharge = cross-sectional area × mean velocity = 1.2 × 0.5 = 0.6 m³/s. For this 1-mark task, credit the accepted numerical answer in the requested units.

3. Explain a limitation of estimating the section as a rectangle. (2 marks)

Depth varies across the channel. Several depth measurements and a more realistic cross-section could improve the area estimate. A surface float also may not represent mean velocity through the water column.

Depth varies across the channel. Several depth measurements and a more realistic cross-section could improve the area estimate. A surface float also may not represent mean velocity through the water column. Original credit guidance: credit relevant explained reasoning; accept accurate alternatives.

Sample beach material fairly

1. Which design represents the beach zones while reducing convenience selection? (1 mark)

Random locations within each of the three zones.

Stratified sampling includes each zone; random locations within zones reduce convenience and selection bias. For this 1-mark task, credit the keyed option.

2. For proportional allocation of 40 samples, how many go in the middle zone? (1 mark)

20

The middle zone is 50/100 of the total length: 0.5 × 40 = 20. For this 1-mark task, credit the accepted numerical answer in the requested units.

3. How could the team make pebble size measurements comparable? (2 marks)

Use the same axis, units and instrument throughout; record the rule for selecting the pebble at each location. Measure rather than classify by eye.

Use the same axis, units and instrument throughout; record the rule for selecting the pebble at each location. Measure rather than classify by eye. Original credit guidance: credit relevant explained reasoning; accept accurate alternatives.

Choropleth maps

1. Which class contains district C? (1 mark)

20 to less than 30%

23 is at least 20 and below 30. For this 1-mark task, credit the keyed option.

2. How many households in A reported damage? (1 mark)

60

6% of 1,000 = 60. For this 1-mark task, credit the accepted numerical answer in the requested units.

3. What extra information is needed to compare affected-household counts? (1 mark)

The household total for each district.

A high rate in a small population can represent fewer households than a lower rate in a large population. For this 1-mark task, credit the keyed option.

Map scale and distance

1. What is the ground distance in kilometres? (1 mark)

9

9 × 100000 cm ÷ 100,000 = 9 km. For this 1-mark task, credit the accepted numerical answer in the requested units.

2. How many centimetres would 2 km occupy on this printed map? (1 mark)

2

2 km is 200,000 cm. Divide by 100000. For this 1-mark task, credit the accepted numerical answer in the requested units.

Contours and relief

1. What is the contour interval in metres? (1 mark)

10

Adjacent labelled contours differ by 10 m. For this 1-mark task, credit the accepted numerical answer in the requested units.

2. Which statement about P is supported? (1 mark)

Between 50 and 60 m

A position between contours gives a height interval, not an exact height. For this 1-mark task, credit the keyed option.

Contours and relief

1. What is the contour interval in metres? (1 mark)

20

Adjacent labelled contours differ by 20 m. For this 1-mark task, credit the accepted numerical answer in the requested units.

2. Which statement about P is supported? (1 mark)

Between 100 and 120 m

A position between contours gives a height interval, not an exact height. For this 1-mark task, credit the keyed option.