The SSC JE Telecom Syllabus covers Telecommunication Engineering topics for candidates applying for the Junior Engineer (Telecom) post. This technical syllabus falls under Part-G. It includes Engineering Mathematics, Network Analysis, Signals and Systems, and Electronic Devices. It also covers Analogue Circuits, Digital Circuits, Control Systems, Analogue Communications, Digital Communications, and Electromagnetics.
You should understand each of these subject areas before starting your preparation. Knowing the syllabus in detail helps you organise your study plan, decide where to focus more time, and prepare for the exam in a systematic manner.
The Telecommunication Engineering syllabus is applicable to the Junior Engineer (Telecom) post. The technical questions for Telecommunication Engineering are set at the graduation level. The syllabus is covered in both Paper-I and Paper-II, with Paper-II focusing on the technical subject.
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Particular |
Details |
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Exam |
SSC Junior Engineer Examination 2026 |
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Post |
Junior Engineer (Telecom) |
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Technical Part |
Part-G: Telecommunication Engineering |
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Level |
Graduation level |
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Paper-I |
Telecommunication Engineering |
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Paper-II |
Telecommunication Engineering |
The technical portion of Paper-I includes the following areas under Part-G:
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SSC JE Telecom Topics |
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Engineering Mathematics |
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Network Analysis |
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Signals and Systems |
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Electronic Devices |
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Analog Circuits |
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Digital Circuits |
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Control Systems |
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Analog Communications |
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Digital Communications |
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Electromagnetics |
These topics form the technical syllabus for Telecommunication Engineering in Paper-I. Candidates should cover each area included in Part-G while preparing for the technical section.
Paper-II covers the Telecommunication Engineering syllabus in greater detail. The major areas remain the same as Part-G in Paper-I. The table below lists the detailed topics under each subject, as given in the official notice.
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Subject |
Detailed Topics (as per PDF) |
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1 |
Engineering Mathematics |
Linear Algebra: vector space, basis, linear dependence/independence, matrix algebra, eigenvalues and eigenvectors, rank, null space, solution of linear equations. Calculus: mean value theorems, definite and improper integrals, partial derivatives, maxima and minima, multiple integrals, line/surface/volume integrals, Taylor series. Differential Equations: first-order (linear and nonlinear), higher-order linear equations, Cauchy's and Euler's equations, variation of parameters, partial differential equations. Vector Analysis: vector operations, gradient, divergence, curl, Gauss's, Green's and Stokes' theorems. Complex Analysis: analytic functions, Cauchy's integral theorem/formula, sequences, series, Taylor and Laurent series, residue theorem. Probability and Statistics: random variables, mean, median, mode, standard deviation, probability distributions (binomial, Poisson, uniform, exponential, normal), joint and conditional probability. |
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2 |
Network Analysis |
Circuit Analysis: node and mesh analysis, superposition, Thevenin's, Norton's and Tellegen's theorems. Sinusoidal steady-state analysis: phasors, complex power, maximum power transfer theorem. Transient time- and frequency-domain analysis of RL, RC and RLC circuits, Laplace transform. Linear 2-port network parameters: Z, Y, h and ABCD parameters, reciprocity and symmetry conditions, interconnections (cascade, series, parallel), wye-delta transformation. |
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3 |
Signals and Systems |
Continuous-time Signals: Fourier series, Fourier transform, Laplace transform, sampling theorem, convolution, inverse transforms. Discrete-time Signals: DTFT, DFT, z-transform and inverse transform, discrete-time processing of continuous-time signals. LTI Systems: causality, stability, impulse response, convolution, poles and zeroes, frequency response, group delay, phase delay, differential and difference equations. |
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4 |
Electronic Devices |
Energy bands in intrinsic and extrinsic semiconductors, equilibrium carrier concentration, direct and indirect band-gap semiconductors. Carrier Transport: diffusion and drift current, mobility, resistivity, generation and recombination, Poisson and continuity equations. P-N junction, Zener diode, BJT, MOS capacitor, MOSFET and circuit configurations, LED, photodiode and solar cell. |
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5 |
Analog Circuits |
Diode Circuits: clipping, clamping, rectifiers. BJT and MOSFET Amplifiers: biasing, AC coupling, small-signal analysis, frequency response, current mirrors, differential amplifiers. Op-amp Circuits: amplifiers, summers, differentiators, integrators, active filters, Schmitt triggers, oscillators. |
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6 |
Digital Circuits |
Number Representations: binary, integer, floating-point. Combinatorial Circuits: Boolean algebra, Karnaugh map minimisation, logic gates, static CMOS implementations, arithmetic circuits, code converters, multiplexers, demultiplexers, decoders, encoders, adders, multipliers, comparators. Sequential Circuits: latches, flip-flops, counters, shift registers, finite state machines, propagation delay, setup/hold time. Data Converters: sample and hold, ADCs and DACs. Semiconductor Memories: ROM, SRAM, DRAM. Computer Organisation: machine instructions, addressing modes, ALU, data-path, control unit, instruction pipelining. |
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7 |
Control Systems |
Basic control system components, feedback and feedforward principle, transfer function and Laplace transform, block diagram representation and reduction, signal flow graph and Mason gain formula. Transient and steady-state analysis, static and generalized error coefficients, frequency response, Routh-Hurwitz and Nyquist stability criteria, Bode plots, gain/phase margin, root locus plots, lag/lead/lag-lead compensation, state variable model, controllability and observability. |
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8 |
Analog Communications |
Random Processes: autocorrelation, power spectral density, stationarity, ergodicity, filtering through LTI systems. Noise: white noise, thermal noise, shot noise, noise figure, noise equivalent bandwidth. Modulation: amplitude modulation/demodulation, envelope detector, angle modulation/demodulation, DSB-SC, SSB-SC, FM (NBFM/WBFM), Carson's rule, frequency discriminator, phase locked loop, noise analysis, super heterodyne receivers. |
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9 |
Digital Communications |
Information Theory: entropy, conditional entropy, mutual information, channel capacity, Huffman coding, Shannon-Fano coding, source and channel coding theorems. Digital Communications: PCM, DPCM, delta modulation, line coding, digital modulation schemes (ASK, PSK, FSK, QAM), bandwidth efficiency, inter-symbol interference, Nyquist criteria, matched filter receiver, SNR, error correction codes (Hamming codes, CRC, convolution codes). |
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10 |
Electromagnetics |
Coordinate systems and transformations. Electrostatics: electric field/potential, flux density, capacitance. Magnetostatics: magnetic induction, Faraday's law, Ampere's law, Gauss' law, magnetic vector potential. Maxwell's Equations: differential/integral forms, boundary conditions, wave equation, Poynting vector. Plane Waves: reflection, refraction, polarisation, propagation, skin depth. Transmission Lines: characteristic impedance, reflection coefficient, VSWR, impedance matching, Smith chart, waveguides, optical fibres, antennas. |
The Telecommunication Engineering syllabus is tested in both papers. Paper-I includes General Intelligence and Reasoning, General Awareness and the relevant technical subject. Paper-II is based on the technical subject selected for the post.
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Paper |
Technical Subject |
Questions |
Marks |
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Paper-I |
Part-G: Telecommunication Engineering |
100 |
100 |
|
Paper-II |
Part-G: Telecommunication Engineering |
100 |
300 |
Paper-I also includes 50 questions each from General Intelligence and Reasoning and General Awareness. Paper-II contains 100 technical questions carrying 300 marks.
Since the syllabus places Telecommunication Engineering under Part-G, candidates can organise their preparation around the scope given in the notification.
Start with the basics: Build a strong foundation in Engineering Mathematics, Network Analysis, and Signals and Systems before moving to advanced topics.
Follow the prescribed level: The technical syllabus is set at the graduation level.
Cover all Part-G areas: Do not prepare only a few subjects. The syllabus also includes Electronic Devices, Analogue and Digital Circuits, Control Systems, Analogue and Digital Communications, and Electromagnetics.
Practise objective questions: The Computer-Based Examination consists of objective-type multiple-choice questions.
Attempt Paper-I and Paper-II separately: Paper-I is qualifying in nature, while Paper-II carries 300 marks and decides the final merit.
Candidates preparing for SSC JE Telecom can use organised study resources, practice material and mock tests to strengthen their Telecommunication Engineering preparation.
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Feature |
Details |
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Course |
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Mode |
Live + Recorded Classes |
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Study Material |
Books, Notes, PDFs & Practice Questions |
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Practice |
Mock Tests & Previous Year Questions |
Preparing well for the SSC JE Telecom Syllabus can help candidates score better in the Telecommunication Engineering paper. Since Part-G covers a wide range of subjects, candidates should study each topic area carefully and practice regularly before the exam.