QCAA Engineering EA study plan
QCAA Engineering EA · Give each week a clear focus.
8 weeks · About 7 hours per week
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
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
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
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
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
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
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
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%