WACE ATAR Earth & Environmental Science study plan

Diagram the four Earth spheres and annotate two energy or matter exchanges between each pair, explaining the direction and mechanism of transfer.

Explain how seismic wave behaviour (P, S, surface waves) constrains the internal structure of the Earth, including the evidence for a liquid outer core.

Compare the mechanisms of mantle convection, slab pull and ridge push, and rank their relative contributions to plate motion.

Interpret a simple geothermal gradient and explain how it varies with depth and tectonic setting.

Classify the three main plate boundary types and predict the landforms, seismicity and volcanism associated with each.

Interpret block diagrams and cross-sections to identify folds (anticline, syncline) and faults (normal, reverse, strike-slip).

Apply superposition, cross-cutting relationships and faunal succession to order geological events in a relative-age sequence.

Explain how radiometric dating works and calculate a simple age from a parent-daughter ratio and half-life.

Construct a geological timeline for a given region using provided event descriptions, justifying the order with principles of stratigraphy.

Relate the rock cycle to plate tectonic settings by matching igneous, sedimentary and metamorphic rock formation to specific boundary types.

Use mineral properties (hardness, cleavage, lustre, streak) to identify ten common rock-forming minerals from descriptions.

Classify ten rock specimens using texture and composition, and justify each classification with observable features.

Explain how metamorphic grade and foliation relate to temperature and pressure conditions in a convergent margin.

Summarise the formation of a named ore deposit type (e.g., porphyry copper) and link it to its tectonic setting.

Explain how solar radiation, latitude, albedo and greenhouse gases drive the global energy budget and atmospheric circulation.

Interpret weather maps and synoptic charts to identify fronts, pressure systems and associated weather conditions.

Distinguish between weather and climate, and explain the factors that cause climate variation at local, regional and global scales.

Analyse a climate graph (temperature and precipitation) to infer the climate type and dominant controlling factors.

Describe the formation and impacts of one extreme weather event type (e.g., tropical cyclone or heatwave) in the Australian context.

Trace the path of water through the hydrological cycle, quantifying the relative size of major stores and fluxes.

Explain the factors that control infiltration, runoff and groundwater recharge in a catchment.

Interpret a hydrograph to relate rainfall intensity and catchment characteristics to peak discharge and lag time.

Compare the causes of drought and flood in an Australian region and evaluate management responses.

Describe the formation and distribution of ocean currents and explain their influence on regional climate.

Diagram the carbon, nitrogen and phosphorus cycles, labelling key stores, fluxes and human perturbations.

Explain how soil texture, structure, pH and organic matter influence fertility and water-holding capacity.

Relate soil formation factors (parent material, climate, organisms, topography, time) to differences between two soil profiles.

Evaluate how agricultural practices alter nutrient cycling and soil health, proposing evidence-based mitigations.

Explain the role of decomposers and mycorrhizae in nutrient availability and ecosystem function.

Distinguish between natural and anthropogenic drivers of environmental change using at least three lines of evidence.

Evaluate the sustainability of a named resource extraction project against environmental, economic and social criteria.

Explain how Earth-system feedbacks (positive and negative) can amplify or dampen environmental change.

Compare two resource management strategies and judge their effectiveness using defined sustainability indicators.

Interpret data trends to assess whether a resource use is sustainable over a specified timeframe.

Synthesise connections between at least four domains by explaining how a single environmental issue (e.g., salinity) involves the geosphere, atmosphere, hydrosphere and biosphere.

Complete two timed practice papers under exam conditions and self-mark against the syllabus.

Identify and revise the three weakest syllabus points revealed by practice-paper errors.

Construct a one-page summary sheet of key diagrams, formulas and definitions for each domain.

Rehearse extended-response structure by writing two 15-mark answers under timed conditions.