Glacial Landforms & Landscapes (Edexcel AS Geography): Exam Questions

Exam code: 8GE0

2 hours21 questions
1
1 mark

Name one fluvioglacial landform.

2
4 marks

Explain two landforms that are created by valley glacier erosion.

3
6 marks

Explain how distinctive landforms are created by glacial deposition.

4
6 marks

Explain how glacial deposition landforms can help reconstruct former ice extent and movement.

5
12 marks

Assess the contribution of glacial meltwater in the formation of glaciated landscapes.

6a
1 mark

Study Figure 3 below.

A group of students were preparing to collect fieldwork data about glacial landform orientation in the Scottish Highlands.

As part of their preparations they consulted previous studies about the orientations of corries.

They showed their findings on a rose diagram, shown below.

Radar chart showing corrie orientation percentages. Highest orientation towards North and North-East. Circles represent 0% to 40% increments.

Figure 3
Corrie orientation in part of Scottish Highlands

Complete the rose diagram above to show the % of corries orientated NW-N using data in the table below.

Corrie orientation

% of corries

NW-N

20%

6b
1 mark

Identify the category that is the dominant orientation of corries.

  • N-NE

  • E-SE

  • SW-W

  • W-NW

6c
1 mark

Identify the most suitable statistical technique to test if there is a significant difference between the observed and expected number of corries that are orientated in a particular direction.

  • Chi-squared

  • Lorenz curve

  • Spearman’s rank

  • T-test

6d
2 marks

Suggest a suitable hypothesis or key question that the students could investigate.

6e
4 marks

The students then planned to collect primary fieldwork about landform orientation in the surrounding area.

Explain two primary fieldwork methods that could be used to extend this investigation.

7
9 marks

You have carried out an investigation into glaciated landscapes and change.

Assess the value of secondary data at different stages of your geographical investigation.

Geographical enquiry question

8
16 marks

Study Figures 4a, 4b, 4c and 4d

Overview of the St Elias-Wrangell mountains, highlighting tectonic activity, glacial movement, seismic events, and the active volcano Mt Wrangell.

Figure 4a
Information about the St Elias-Wrangell mountain range, Alaska, USA

Map of southern Alaska showing earthquakes, plate boundaries, and movement directions. Includes 2002 Denali and 1964 Prince William Sound earthquake details.

Figure 4b
Tectonic activity in the St Elias-Wrangell mountain range

Flowchart showing glacier retreat, isostatic rebound, tectonic impacts, and glaciation effects, leading to earthquakes, landslides, and avalanches.
Map key showing three symbols: orange dashed square for tectonic influences, blue dashed square for glacial influences, and plain square for distinctive landscapes.

Figure 4c
Flow chart showing the interaction of tectonic and glacial processes
in the St Elias-Wrangell mountain range

A bright blue glacial lake sits amidst snowy mountains with text on the right about volcanic activity and geothermal heat accelerating glacial melt.
Aerial view of winding glaciers in a mountainous landscape with text explaining glacier erosion and sediment transport processes in Alaska.
Aerial view of a mountainous area with a landslide affecting steep slopes. Text highlights landslide risks and impact on glacial meltwater flow.

Figure 4d
Three landscapes from the St Elias-Wrangell mountain range

Evaluate the extent to which the distinctive landscape in the St Elias-Wrangell mountain range is caused by tectonic activity.

9
3 marks

Study Figure 2

Aerial view of a winding glacier flowing between rugged, snow-capped mountains, with distinct layers of ice and rock visible along its surface.

Figure 2
Aerial photo of Mt Barnard Glacier, in Alaska

Suggest one reason for the pattern of glacial moraine in Figure 2.

10
12 marks

Assess the extent to which the processes of deposition are more important than the processes of erosion in creating distinctive glacial landscapes.

11a
1 mark

Study Figure 6

A group of students collected fieldwork data at 15 different locations in a fluvioglacial landscape in the Swiss Alps.

Table showing evidence of water, sediment orientation, and sediment roundness across locations, with varying counts for each category.

Figure 6
Collated data collection sheets from group fieldwork in an active
fluvioglacial landscape in the Swiss Alps

The students then collated their data about water and sediments.

Calculate the % of sites where flowing water was observed.

Give your answer to one decimal place.

.............................................................. %

11b
1 mark

Identify the modal class for the sediment orientation.

12
2 marks
Table with three columns showing evidence of water, average sediment orientation, and sediment roundness, with location counts for each category.

Figure 6
Collated data collection sheets from group fieldwork in an active
fluvioglacial landscape in the Swiss Alps

The students concluded that the landscape was shaped by fluvioglacial processes.

Suggest why the primary data in Figure 6 shows that the conclusion might be a sensible one.

13a
1 mark

Study Figure 3.

Map comparison showing Loch Brandy in Box A on the left, with terrain details. Right side: Heat map style, highlighting topographical features, 0-1 km scale.
Key for slope angle map, illustrating roads, water bodies, craggy rock areas, study area, and slope gradients from flat to extremely steep.

Figure 3
Geographic Information System (GIS) maps showing slope angle
around Glen Clova valley, Cairngorms National Park, Scotland

Identify the type of glaciated landform shown in box A (Loch Brandy).

13b
3 marks

Describe the angle of slope the students might expect to find around Loch Brandy.

14
9 marks

You have carried out primary fieldwork to investigate glacial landscapes and change.

Assess the effectiveness of the techniques you used to present and analyse your fieldwork data.

Geographical enquiry question:

15
4 marks

Explain two processes of water movement within glaciers.

16
6 marks

Explain how the characteristics of glacial and fluvioglacial deposits differ.

17a
1 mark

Study Figure 3a below.

A group of students used secondary data about cirque/corrie orientation in Snowdonia, North Wales, as part of an investigation about ice flow direction.

Table titled Figure 3a showing cirques/corries orientation. Four columns: 0°–89°, 90°–179°, 180°–269°, 270°–360° with values 24, 6, 5, 13. Compass rose included.

State one reason for studying cirque/corrie orientation.

17b
1 mark

Study Figure 3b below

The students carried out a Chi2 test to determine if there was any pattern in the distribution of corrie orientation.

The formula for Chi2 (X2) is:

X squared equals sum from blank to blank of open parentheses O minus E close parentheses squared over E

sum from blank to blank of equals sum space of

Table with orientation categories, observed and expected values, and chi-squared calculations for four directional ranges, including a compass rose.

Complete the table above by calculating the missing number in the Orientation 180° – 269° column.

17c
1 mark

Calculate the value of Chi2 (X2) from the data given.

Chi2 (X2)= ...............................

17d
2 marks

Suggest one reason for carrying out a Chi2 (X2) test on this data set.

17e
4 marks

Explain two primary fieldwork methods that might have been used to extend this investigation on ice flow direction.

18
9 marks

You have carried out primary fieldwork to investigate glacial landscapes and change.

Assess how the sampling procedures and sample size affected your results.

Geographical enquiry question:

19
1 mark

Study Figure 3

Chart showing percentage vegetation cover across a footpath. Blue represents managed areas and red represents unmanaged areas from 0 to 5 metres.

Figure 3
Kite diagrams showing footpath erosion in two areas
near Easedale Tarn, Lake District

A group of students collected data about footpath erosion near Easedale Tarn, a fragile, glaciated landscape in the Lake District.

They measured vegetation cover across a transect on:

1. a managed footpath
2. an unmanaged footpath.

They presented their findings as two kite diagrams.

Identify one qualitative method the students might use to compare these two transects.

20
9 marks

You have carried out primary fieldwork to investigate glacial landscapes and change.

Assess the accuracy and reliability of the primary data that you collected as part of your geographical investigation.

Geographical enquiry question:

21
16 marks

Study Figures 4a, 4b, 4c and 4d

Text about New Zealand's Southern Alps, detailing tectonic origins, alpine fault movement, extreme weather from Roaring Forties, and over 3,000 active glaciers.

Figure 4a
Information about the Southern Alps, New Zealand

Diagram of a glacier illustrating zones of accumulation and ablation, equilibrium line, meltwater pool, stream, tunnel, and flow trajectory arrows.

Figure 4b
A simplified cross-section from Mt. Tasman to the coast

Satellite image of New Zealand's South Island showing the Australian and Pacific tectonic plates, Mt. Tasman, Fox Glacier, Fox Valley, and wind patterns.
Diagram showing a grey background with yellow-highlighted Alpine Fault. Red arrow indicates prevailing winds; yellow arrow shows plate movement direction. Key included.

Figure 4c
Satellite image of the Southern Alps in winter

Two images: Mt. Tasman, a snow-capped, pyramidal peak; Fox Glacier, showing a flowing ice mass with rugged terrain surrounding it.
View of Lower Fox Valley glacial trough with rocky terrain and green slopes; features weathered rocks and depositional landforms. Text describes processes.

Figure 4d
Distinctive landscapes in the Southern Alps

Evaluate the importance of tectonic processes and weather conditions in creating distinctive glacial landscapes in New Zealand.