Exam Tips for Physical Geography Fieldwork
Part of Physical Geography Fieldwork — GCSE Geography
This exam tips covers Exam Tips for Physical Geography Fieldwork within Physical Geography Fieldwork for GCSE Geography. Revise Physical Geography Fieldwork in Fieldwork for GCSE Geography with 0 exam-style questions and 20 flashcards. This topic shows up very often in GCSE exams, so students should be able to explain it clearly, not just recognise the term. It is section 15 of 16 in this topic. Treat this as a marking guide for what examiners are looking for, not just a fact list.
Topic position
Section 15 of 16
Practice
0 questions
Recall
20 flashcards
💡 Exam Tips for Physical Geography Fieldwork
🎯 Common Question Types and Mark Allocations:
- "Describe how you collected data" — 4–6 marks — describe method + justify choice + mention repeats + sample size
- "Evaluate your investigation" — 6 marks — identify weakness + explain why it is a problem + suggest specific improvement
- "Describe what your results showed" — 4 marks — use TACT: trend, anomaly, comparison, terminology with figures
- "Explain why one site did not match the expected pattern" — 4 marks — name a geographical cause + explain the mechanism
- "Assess the extent to which your results supported your hypothesis" — 9 marks — describe evidence that supports + describe evidence that does not + overall judgement with reasons
📝 Key Command Words and What They Require:
- Describe: state what happened; use specific data values; do not explain unless asked
- Explain: give the geographical reason why; use "because," "therefore," "this means that"
- Justify: give reasons to support a choice or decision; explain why alternatives were rejected
- Evaluate: weigh up strengths and weaknesses; come to a balanced judgement; include specific limitations and realistic improvements
- Assess the extent to which: decide how much (fully? mostly? partly? not at all?); use evidence to support both sides; make a clear final judgement
- Suggest: you do not have to be certain — offer a geographical explanation that is plausible
⚠️ Common Mistakes to Avoid:
- Do not just list equipment — always explain how it was used and why. "We used a tape measure" is worthless without "to measure channel width in metres at 5 sites, stretched horizontally at the water surface from bank to bank."
- Do not say "the results prove the Bradshaw Model" — results support or contradict a model; they do not "prove" it. Geography is probabilistic, not certain.
- Do not forget to mention anomalies — identifying and explaining anomalies demonstrates sophisticated analytical thinking. Ignoring them suggests you either did not notice or do not know how to handle them.
- Do not say "it was unfair weather" as your only limitation — this is too vague. Specific limitations score marks; vague ones do not.
- Do not confuse reliability and validity — reliability = consistency of results (repeating gets the same answer); validity = whether you are actually measuring what you intend.
- In evaluation questions, always name a specific improvement — not just "we should have done more measurements" but "we should have increased the float course from 10 m to 20 m to reduce the effect of timing inaccuracy at low velocity sites."
Quick Check: A student's results show that pebble size increases between Site 3 and Site 4 (i.e., pebbles get larger downstream at that point), which contradicts the Bradshaw Model. Suggest two geographical reasons why this anomaly might have occurred.
Any two of: (1) A tributary joins the main channel just upstream of Site 4, bringing large coarse sediment from a steeper channel into the main river, temporarily increasing mean pebble size. (2) Site 4 is located below a waterfall or rapid, which deposits large boulders that have fallen into the channel from the cliff face — these would increase mean pebble size locally. (3) Site 4 is in a section of the river with lower velocity than Site 3 (perhaps due to a meander), meaning the river can only transport smaller material at Site 3, leaving larger particles behind — when velocity suddenly increases at Site 4 it can entrain coarser material. (4) Human error: the student may have accidentally included a large pebble from the river bank (not the actual bedload) when collecting the sample at Site 4.
Quick Check: A student calculated a Spearman's rank correlation coefficient (rs) of +0.48 for velocity vs distance downstream using 14 data pairs. The critical value at 95% confidence is 0.536. What can the student conclude?
The student's r_s value of +0.48 is below the critical value of 0.536. This means the positive correlation between velocity and distance downstream is NOT statistically significant at the 95% confidence level. There is more than a 5% chance that the observed pattern occurred by random chance rather than reflecting a real relationship. The student cannot confidently conclude that velocity increases downstream in their study. They should consider: whether the sample size is large enough (more sites would increase statistical power), whether there are anomalies distorting the result, and whether the investigation was conducted in atypical conditions.