Registered Electrical Engineer (G&T) study plan

Map Domain 1 into a personal syllabus covering generation plant types, transmission line models, and transformer fundamentals, then rate each sub-topic 1-5 on confidence

Derive and apply the short-line and medium-line (nominal pi) transmission models to compute sending-end voltage, regulation, and efficiency for at least four numeric cases

Build a one-page formula sheet for per-unit conversion, three-phase power, and symmetrical components from first principles

Work 25 calculation problems on generation and transmission fundamentals and log every error with its root cause

Compute fault current contributions from generators and transformers using per-unit impedance diagrams for a five-bus example

Explain and calculate the effects of excitation, governor droop, and load sharing on parallel generator operation

Analyze transmission line voltage drop, surge impedance loading, and Ferranti effect at no load with worked numbers

Compare protection schemes for generators, transformers, and lines and justify the choice for two sample single-line diagrams

Perform load flow by hand on a three-bus system using Gauss-Seidel iterations to convergence within 0.001 per unit

Solve symmetrical and unsymmetrical fault problems using symmetrical components and sequence networks

Size cables and protective devices for two sample feeders using derating factors for temperature, grouping, and installation method

Select transformer ratings, vector groups, and tap settings for a given load profile and justify each choice

Produce a coordination study for three series protective devices and demonstrate selectivity margins graphically

Apply earthing and bonding requirements to a sample installation, computing touch and step voltages for a substation grid

Identify the governing clauses for a given installation scenario across the applicable wiring code and utility standards and cite them accurately

Assess arc flash incident energy and specify personal protective equipment boundaries for a low-voltage panel

Audit a sample installation against requirements for isolation, switching, and lockout-tagout, listing every nonconformity with its clause

Verify protection against indirect contact by calculating disconnection times for the applicable earthing system

Specify inspection and testing regimes for new and existing installations, including insulation resistance and earth continuity test values

Draft a permit-to-work and switching sequence for maintenance on a live-adjacent feeder

Explain the statutory duties of a registered electrical engineer for design sign-off, supervision, and as-built certification

Resolve three ethics scenarios involving conflicting client pressure, safety risk, and scope changes using a documented decision framework

Outline tender and contract stages from specification to handover and identify the engineer's deliverables at each stage

Draft a risk register for a substation upgrade covering technical, schedule, and safety risks with mitigations

Complete a full-length timed mock exam under exam conditions and record per-domain scores

Diagnose the three weakest sub-topics from mock results and rework 20 targeted problems in each

Rehearse written explanations of design decisions to exam-standard clarity and length within time limits

Review quality-management and record-keeping obligations for design deliverables and update your templates

Retake a second full mock and target a measurable improvement over the week 7 score in every domain

Drill formula recall and code clause locations using spaced-repetition cards until recall is immediate

Consolidate all error logs into a single final review sheet capped at four pages

Simulate exam-day logistics: timing plan, question triage order, and check-answer routine