Engineer Electric Work study plan
Engineer Electric Work · Give each week a clear focus.
8 weeks · About 7 hours per week
Electrical Theory and Fundamentals & Power Generation, Transmission, and Distribution
Derive and apply Ohm's law, Kirchhoff's current and voltage laws, and series/parallel reduction to solve at least 20 mixed DC resistive networks by hand
Compute real, reactive, and apparent power and power factor for single-phase and balanced three-phase loads, including delta-wye conversions
Explain per-unit representation and convert impedance, voltage, and power quantities between actual and per-unit values on a chosen base
Describe the generation-to-load chain (generation, step-up, transmission, distribution, utilization) and state typical voltage levels and loss reasons at each stage
Your checkpoint
A handwritten or typed problem set of 25 solved circuit and per-unit problems with a one-page summary sheet of formulas and typical system voltage levels
Power Generation, Transmission, and Distribution & Electrical Machinery and Apparatus
Calculate line voltage drop and percentage regulation for given feeder lengths, conductor sizes, and load currents in single-phase and three-phase circuits
Compare radial, ring, and interconnected distribution configurations by reliability, cost, and fault current behavior
Explain transformer operation, turns ratio, impedance voltage, and vector groups, and compute secondary voltage and current for a loaded transformer
Sketch the equivalent circuit of an induction motor and identify how slip, torque, and starting current relate
Your checkpoint
A voltage-drop and transformer sizing calculation report covering five worked cases with assumptions, results, and a short recommendation for each
Electrical Machinery and Apparatus & Power System Protection and Control
Classify DC and AC generators and motors and match each type to a typical industrial application with justification
Compute motor full-load current, starting current, and protection settings from nameplate data
Explain the operating principles of fuses, molded-case circuit breakers, and protective relays and select coordination for a simple two-level system
Interpret a time-current characteristic curve and check discrimination between upstream and downstream devices
Your checkpoint
A motor and protection schedule for a small plant with at least six motors, including full-load current, starter type, and protective device rating with a discrimination check
Power System Protection and Control & Electrical Installation and Wiring Design
Perform short-circuit current calculations for a simple network using impedance methods and state the effect of transformer and source impedance
Describe earthing and bonding systems (TN, TT, IT) and explain how each affects fault clearance and touch voltage
Size conductors and protective devices for a given load schedule considering current-carrying capacity, voltage drop, and derating factors
Select cable types and installation methods for indoor, outdoor, and hazardous areas with stated reasons
Your checkpoint
A complete design calculation package for a small installation: load schedule, cable sizing, protective device selection, and earthing arrangement, with all assumptions listed
Electrical Installation and Wiring Design & Electrical Codes, Standards, and Regulations
Produce a single-line diagram and a layout drawing for the week 4 installation showing circuits, protective devices, and earthing
Locate and apply the clauses governing conductor sizing, protection against overload and short circuit, and disconnection in the applicable national electrical code or standard
Distinguish mandatory requirements from guidance and identify which standard applies to a given installation type
List the inspection and testing steps required before energizing a new installation and the acceptance criteria for each
Your checkpoint
A compliance checklist mapping each design decision from week 4 to a specific code clause, plus a completed inspection and test record template
Electrical Codes, Standards, and Regulations & Safety, Environmental, and Energy Management
Explain the hierarchy of standards and regulations from international to national to local level and where each binds the engineer
Apply lockout/tagout, isolation, and verification-of-dead procedures to a described maintenance scenario and identify every step where a hazard could recur
Identify arc flash, electric shock, and step/touch voltage hazards and state the controls for each in order of effectiveness
Evaluate energy-efficiency measures for motors, transformers, and lighting and estimate the annual energy and cost saving for one measure
Your checkpoint
A safety and energy assessment of one real or realistic facility: hazard register with controls and a quantified efficiency recommendation with payback period
Safety, Environmental, and Energy Management & Project Management and Engineering Ethics
Describe environmental obligations relevant to electrical work, including handling of insulating oils, batteries, and electronic waste, and the disposal route for each
Apply a simple project lifecycle (scope, schedule, cost, risk, handover) to an electrical installation project and identify the critical path
Analyze at least three engineering ethics scenarios involving safety compromises, conflicts of interest, and competence limits, and state the correct course of action with reference to a published code of ethics
Explain the engineer's duty to report unsafe conditions and the limits of signing off work outside one's competence
Your checkpoint
A written ethics and project case study of 800 to 1000 words covering one project scenario and three ethics dilemmas with reasoned decisions
Electrical Theory and Fundamentals & Power Generation, Transmission, and Distribution & Electrical Machinery and Apparatus & Power System Protection and Control & Electrical Installation and Wiring Design & Electrical Codes, Standards, and Regulations & Safety, Environmental, and Energy Management & Project Management and Engineering Ethics
Complete two full-length timed mock exams under exam conditions and record the score by domain
Review every missed question from the mock exams and write the underlying principle, not just the correct answer
Revisit the two weakest domains and solve ten targeted problems in each
Consolidate a single formula and reference sheet covering all eight domains for final review
Your checkpoint
A mock exam score report by domain, an error log of at least 40 reviewed items, and a finalized one-page formula and reference sheet
Milestones
Week 2: Score at least 70 percent on a self-made 20-question quiz covering domains 1 and 2, and correctly solve five voltage-drop cases without notes
Week 4: Complete the design calculation package with no unresolved assumptions, and correctly identify discrimination between two protective devices on a time-current curve
Week 6: Pass a self-administered 30-question mixed quiz on domains 4, 5, and 6 with at least 75 percent, and correctly map ten design decisions to code clauses
Week 8: Achieve at least 75 percent overall on both timed mock exams with no domain below 60 percent, and have a complete error log and formula sheet ready