QCAA Engineering EA study materials
QCAA Engineering EA study resources

QCAA Engineering EA study plan

QCAA Engineering EA · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Engineering fundamentals and the engineering process & Statics, forces and structural analysis

  • Define each stage of the engineering design process and map a real product failure to those stages

  • Construct free-body diagrams for five simple systems (beam, truss joint, inclined block, pulley, cantilever) from scratch without notes

  • Resolve forces into components and compute resultants for at least ten two-dimensional vector problems

  • Set up equilibrium equations (sum of forces and moments) and solve for unknown reactions on simply supported beams

Your checkpoint

A worked problem set of 12 statics problems with free-body diagrams, full solutions, and a one-page design-process flowchart

Week 2

Statics, forces and structural analysis & Engineering materials and their properties

  • Analyse method-of-joints and method-of-sections solutions for three trusses and verify each by checking a second joint

  • Calculate centroids and second moments of area for standard cross-sections (rectangle, I-section, T-section, circle)

  • Relate stress, strain and Young's modulus and compute axial stress in members under load

  • Match five material families (metals, polymers, ceramics, composites, timber) to their characteristic properties and typical applications

Your checkpoint

A truss analysis portfolio of three fully solved trusses plus a material-selection comparison table for one structural component

Week 3

Engineering materials and their properties & Statics, forces and structural analysis

  • Interpret stress-strain curves to identify yield strength, ultimate strength, ductility and toughness for three materials

  • Apply a factor of safety to allowable-stress design and justify the chosen factor for two scenarios

  • Evaluate bending stress using the flexure formula for at least four beam cross-sections

  • Compare material property trade-offs (strength-to-weight, corrosion resistance, cost) in a written justification of 150 words

Your checkpoint

A beam design report selecting a material and cross-section for a specified load with factor-of-safety calculations and a written justification

Week 4

Mechanics, motion and energy & Engineering fundamentals and the engineering process

  • Solve kinematics problems for constant and non-constant acceleration using equations of motion and graphs

  • Apply Newton's second law to systems with friction, inclines and connected masses

  • Compute work, kinetic energy, potential energy and power in mechanical systems and apply conservation of energy

  • Explain how engineering-process iteration would change a design based on measured motion data

Your checkpoint

A timed 45-minute mechanics practice test (10 problems) scored and error-analysed by topic

Week 5

Engineering graphics, CAD and technical communication & Mechanics, motion and energy

  • Produce third-angle orthographic projections (plan, elevation, end view) of a simple machined part to AS 1100 conventions

  • Apply dimensioning rules correctly, including tolerances, limits and fits, on two drawings

  • Create a 3D CAD model of a bracket and generate an associated drawing with a section view

  • Calculate mechanical efficiency and energy losses in a simple machine or drive system

Your checkpoint

A dimensioned drawing set (orthographic plus section view) exported from CAD with a short note explaining projection and dimensioning choices

Week 6

Design, manufacture and project management & Engineering graphics, CAD and technical communication

  • Select and justify a manufacturing process for three different part geometries, comparing cost, finish and volume

  • Build a work breakdown structure and Gantt chart for a 6-week design-and-build project

  • Identify critical-path tasks and describe two risk-mitigation actions in a project plan

  • Write a technical report section (250 words) that communicates a design decision to a non-specialist stakeholder

Your checkpoint

A one-page project plan with WBS, Gantt chart, critical path and risk register for a small engineered product

Week 7

Engineering in society: sustainability, ethics and safety & Engineering materials and their properties

  • Conduct a life-cycle assessment comparison of two material choices for the same product and quantify the trade-offs

  • Apply an engineering code of ethics to three realistic dilemma scenarios and justify a course of action

  • Identify WHS hazards in a workshop scenario and specify controls using the hierarchy of control

  • Evaluate sustainability indicators (embodied energy, recyclability, durability) when selecting materials

Your checkpoint

A 400-word sustainability and ethics case study on one product, including a life-cycle comparison and a reasoned ethical recommendation

Week 8

Engineering fundamentals and the engineering process & Statics, forces and structural analysis & Mechanics, motion and energy

  • Synthesise all domains by completing two full-length timed practice exams under exam conditions

  • Diagnose weak areas from practice-exam errors and rework every incorrect item to full marks

  • Summarise each domain onto a single A4 reference sheet of formulas, conventions and key definitions

  • Rehearse written-response structure for extended-answer questions using a claim-evidence-justification pattern

Your checkpoint

Two completed practice exams with a scored error log and eight condensed A4 domain summary sheets

Milestones

Week 2: Solve an unseen two-dimensional truss and a beam reaction problem unaided in under 25 minutes with correct free-body diagrams

Week 4: Score at least 70% on the timed mechanics practice test and show corrected working for every missed item

Week 6: Produce a CAD drawing set and project plan that a peer can follow without verbal explanation

Week 8: Achieve at least 75% on both full-length practice exams with no domain scoring below 60%