Engineer Electricity study plan

Derive and apply mesh and nodal analysis to two-source DC networks, solving at least ten problems by hand without referring to worked solutions

Compute Thevenin and Norton equivalents for networks containing dependent sources and verify each result by two independent methods

Solve first-order RL and RC transient problems including time constants, initial and final conditions, and switching at t = 0

Set up phasor solutions for series and parallel RLC circuits and calculate impedance, current, and phase angle in polar and rectangular form

Apply the superposition theorem, source transformation, and maximum power transfer to at least eight mixed-source networks

Calculate power factor, real, reactive, and apparent power in three-phase star and delta loads, including unbalanced neutral current

State and apply Maxwell's equations in integral form to compute electric field of line, sheet, and spherical charge distributions using Gauss's law

Compute magnetic flux density and inductance for straight wire, solenoid, and toroidal geometries using Ampere's law

Calculate characteristic impedance, propagation velocity, reflection coefficient, and VSWR for a lossless transmission line with a mismatched load

Draw and explain the equivalent circuit of a transformer and compute regulation, efficiency, and core and copper losses from open-circuit and short-circuit test data

Predict the performance of a three-phase induction motor using the per-phase equivalent circuit, including slip, torque, starting current, and efficiency

Compare DC machine types and calculate generated EMF, torque, and speed regulation for shunt and series machines

Explain synchronous machine operation on infinite bus, including excitation effects on power factor and the meaning of the V-curve

Build the per-unit model of a two-bus generation-transmission system and compute fault-level current and voltage profile

Calculate line parameters (resistance, inductance, capacitance) for single-circuit and bundled overhead lines and compute voltage regulation and line losses

Explain the operating principles of thermal, hydro, and nuclear generation and the role of load-frequency control and spinning reserve

Compare radial, ring, and interconnected distribution configurations and compute voltage drop and cable sizing for a low-voltage feeder

Explain the effect of series and shunt compensation and transformer tap changers on voltage control

Calculate symmetrical three-phase fault current and apply symmetrical components to solve a single line-to-ground fault on a simple network

Select and justify protection schemes for a transformer, feeder, and generator, and explain coordination and discrimination principles

Compare the arc-quenching and interrupting behavior of air, oil, vacuum, and SF6 circuit breakers and state where each is used

Analyze single-phase and three-phase controlled rectifiers and compute average output voltage, ripple, and thyristor ratings

Explain the operation of DC-DC buck, boost, and buck-boost converters including continuous and discontinuous conduction modes, and describe V/f control of induction motor drives

Derive transfer functions for electrical and electromechanical systems and construct block diagrams, reducing them to canonical form

Determine stability using Routh-Hurwitz and Bode plots, and compute gain margin, phase margin, and steady-state error for type 0, 1, and 2 systems

Design a lead or lag compensator and a PID controller for a given plant specification using root-locus or frequency-response reasoning

Explain PLC scan cycle, ladder logic, and SCADA architecture, and translate a simple process description into ladder logic

Select instruments and compute measurement error, loading effect, and uncertainty for voltmeter, ammeter, wattmeter, and instrument transformer connections

Size cables, protective devices, and earthing conductors for a given load schedule in accordance with standard installation practice, and verify disconnection times and voltage drop limits

Explain earthing systems (TN-S, TN-C-S, TT, IT) and the role of RCDs, MCBs, and fuses in fault protection

Apply the hierarchy of risk control and identify safety requirements for isolation, lock-out/tag-out, and live working

Compute present worth, annual cost, payback period, and internal rate of return for two competing equipment options

Apply a professional code of ethics to a conflict-of-interest and public-safety scenario and state the correct course of action with justification

Complete two full-length timed mock exams under exam conditions and score them against a domain-weighted marking scheme

Re-solve every missed question from weeks 1 through 7 and classify each error as concept, calculation, or misreading

Re-derive the ten highest-yield formulas from memory (per-unit conversion, fault current, transformer regulation, induction motor torque, converter output voltage, Routh array, cable voltage drop, NPV)

Build a final one-page quick-reference card covering all ten domains and rehearse it under a five-minute recall drill