MPPSC SES Electrical study materials
MPPSC SES Electrical study resources

MPPSC SES Electrical study plan

MPPSC SES Electrical · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Electrical Machines (Transformers, DC Machines, Induction and Synchronous Machines) & Electrical Circuits and Network Analysis

  • Derive the equivalent circuit of a single-phase transformer from the open-circuit and short-circuit test data, and compute regulation at 0.8 lagging power factor

  • Solve three-phase transformer connection problems covering star-delta, delta-star and Scott connections, including harmonic suppression by delta winding

  • Apply mesh and nodal analysis with dependent sources to solve at least ten two-port and multi-source networks within a timed 20-minute set

  • Compute transient response of first-order RL and RC circuits with DC and step excitation using time-constant reasoning

Your checkpoint

A handwritten formula-and-mistake sheet of 4 pages covering transformer tests, three-phase connections and network theorems (Thevenin, Norton, superposition, reciprocity), plus 15 solved numericals with final answers boxed

Week 2

Electrical Machines (Transformers, DC Machines, Induction and Synchronous Machines) & Electrical Circuits and Network Analysis

  • Analyse DC machine armature reaction, commutation and compensating windings, and compute generated EMF from flux, poles, speed and conductors

  • Solve speed-control and braking numericals for separately excited and series DC motors, including regenerative, plugging and dynamic braking

  • Determine resonance frequency, bandwidth and Q-factor for series and parallel RLC circuits, and draw phasor diagrams for each

  • Derive torque-slip characteristics of a three-phase induction motor and locate maximum torque, starting torque and operating slip

Your checkpoint

A one-page comparison table of DC motor starting methods (starter resistance, voltage control, Ward-Leonard) with worked numericals for each, plus 10 solved RLC resonance problems

Week 3

Electrical Machines (Transformers, DC Machines, Induction and Synchronous Machines) & Power Systems (Generation, Transmission, Distribution, Protection and Switchgear)

  • Explain synchronous machine phasor diagrams for cylindrical and salient-pole rotors, and compute voltage regulation by EMF, MMF and Potier methods

  • Solve parallel operation and load-sharing problems for two alternators, including synchronising power and hunting

  • Compute transmission-line parameters (R, L, C) for single-circuit and bundled conductors, and apply short, medium and long line models

  • Calculate sag and tension for level and unequal supports, and determine corona inception voltage by Peek's formula

Your checkpoint

A solved problem set of 12 numericals spanning alternator regulation, induction motor torque-slip, line performance (efficiency and regulation) and sag-tension, with a self-graded score and error log

Week 4

Power Systems (Generation, Transmission, Distribution, Protection and Switchgear) & Power Electronics and Drives

  • Analyse symmetrical components and solve unsymmetrical fault currents for single line-to-ground, line-to-line and double line-to-ground faults on a small network

  • Design a distance and differential protection scheme for a 132 kV feeder, stating CT ratio, relay setting and reach

  • Compare thyristor, IGBT and MOSFET switching characteristics and select a device for a given drive application with justification

  • Compute output voltage of single-phase and three-phase controlled rectifiers and choppers for continuous and discontinuous conduction

Your checkpoint

A full-length 3-hour mock paper on Power Systems and Power Electronics (60 questions), scored and reviewed with every wrong answer re-derived on paper

Week 5

Power Electronics and Drives & Control Systems

  • Derive transfer functions for DC motor speed control with armature voltage and field control, and design a closed-loop speed controller with a PI block

  • Sketch Bode plots and determine gain margin, phase margin and stability for at least six open-loop transfer functions

  • Apply Routh-Hurwitz and Nyquist criteria to decide stability, including conditional stability cases

  • Explain PWM inverter modulation index, harmonic spectrum and V/f control of induction motor drives

Your checkpoint

A stability-analysis workbook: six transfer functions with hand-drawn Bode and Nyquist plots, computed margins and a written verdict on stability for each

Week 6

Measurements, Instrumentation and Sensors & Analog and Digital Electronics & Microprocessors, Microcontrollers and Embedded Systems

  • Compute errors in wattmeter, energy meter and instrument transformer measurements, including CT burden and ratio correction

  • Design a signal-conditioning chain from sensor to ADC, specifying bridge, amplifier gain and anti-aliasing filter cut-off

  • Analyse op-amp circuits (inverting, differential, instrumentation amplifier, active filter) and compute gain, offset and bandwidth

  • Write assembly-language programs for 8085/8051 covering delay loops, timers, interrupts and serial data transfer, and trace register states

Your checkpoint

A single reference sheet of 6 pages covering measurement errors, op-amp configurations, 8051 timer modes and sensor selection, plus 8 traced assembly programs with expected register and memory values

Week 7

Signals, Systems and Communication Fundamentals & Electromagnetic Fields and High Voltage Engineering & Utilization of Electrical Energy, Illumination, Traction and Electric Heating

  • Apply Fourier, Laplace and Z transforms to compute spectra and system responses, and determine sampling rate by the Nyquist criterion

  • Compare AM, FM and digital modulation schemes on bandwidth, noise immunity and power efficiency, and compute SNR for each

  • Solve electrostatic and magnetostatic boundary-value problems using Laplace's equation, Gauss's law and Ampere's law, and compute capacitance of coaxial and parallel-plate geometries

  • Explain high-voltage generation and measurement (impulse generator, Cockcroft-Walton, sphere gap, Schering bridge) and compute impulse wavefront and tail times

  • Compute traction effort, power and energy consumption for a given train schedule, and design an illumination scheme to a target lux level

Your checkpoint

A solved 20-question set on signals, EM fields, HV engineering and utilisation, with a one-page summary of traction and illumination formulae

Week 8

Engineering Aptitude, General Studies and Ethics & Power Systems (Generation, Transmission, Distribution, Protection and Switchgear) & Electrical Machines (Transformers, DC Machines, Induction and Synchronous Machines)

  • Answer 30 engineering-aptitude items on data interpretation, logical reasoning and numerical estimation under a 30-minute timer

  • Write structured responses to four ethics and public-service case prompts using a stated decision framework

  • Revise weak areas flagged in weeks 1-7 by re-solving every logged error without notes

  • Take two full-length mock tests and complete a domain-wise accuracy audit to set the final-week revision order

Your checkpoint

A final revision dossier containing the two mock score sheets, the domain-wise accuracy table, the cleaned error log and a prioritised one-week pre-exam checklist

Milestones

Week 2: Can derive the transformer equivalent circuit and DC motor EMF/torque equations from memory, and score at least 70% on a self-made 25-question test on domains 1 and 2

Week 4: Mock paper on Power Systems and Power Electronics completed in 3 hours with at least 55% accuracy, and every fault-current and rectifier numerical re-derived correctly on the second attempt

Week 6: Can sketch Bode and Nyquist plots for a given transfer function in under 10 minutes, and trace an 8051 timer program register-by-register without reference material

Week 8: Two full-length mocks completed with at least 60% overall accuracy, no domain below 40%, and every item in the error log re-solved correctly without notes