ISRO electrical entrance exam syllabus

Here I am looking for the ISRO electrical entrance exam syllabus, will you please provide me the same???????

[Quick Sam]

As per your request here I am sharing the ISRO electrical entrance exam syllabus:

(1) Physical Electronics, Electron Devices and ICs:
Electrons and holes in semi-conductors, Carner Statistics, Mechanism of current flow in a
semi-conductor, Hall effect; Junction theory; Different types of diodes and their
characteristics; Bipolar Junction transistor; Field effect transistors; Power switching devices
like SCRs, GTOs, power MOSFETs; Basics of ICs-bipolar, MOS and CMOS types; basic
and Opto Electronics.
(2) Signals and Systems:
Classification of signals and systems; System modeling in terms of differential and difference
equations; State variable representation; Fourier series; Fourier transforms and their
application to system analysis; Laplace transforms and their application to system analysis;
Convolution and superposition integrals and their applications; Z-transforms and their
applications to the analysis and characterization of discrete time systems; Random signals
and probability; Correlation functions; Spectral density; Response of linear system to random
inputs.
ISRO electrical entrance exam syllabus
(1) Physical Electronics, Electron Devices and ICs:
Electrons and holes in semi-conductors, Carner Statistics, Mechanism of current flow in a
semi-conductor, Hall effect; Junction theory; Different types of diodes and their
characteristics; Bipolar Junction transistor; Field effect transistors; Power switching devices
like SCRs, GTOs, power MOSFETs; Basics of ICs-bipolar, MOS and CMOS types; basic
and Opto Electronics.
(2) Signals and Systems:
Classification of signals and systems; System modeling in terms of differential and difference
equations; State variable representation; Fourier series; Fourier transforms and their
application to system analysis; Laplace transforms and their application to system analysis;
Convolution and superposition integrals and their applications; Z-transforms and their
applications to the analysis and characterization of discrete time systems; Random signals
and probability; Correlation functions; Spectral density; Response of linear system to random
inputs.
(3) Network Theory:
Network analysis techniques; Network theorems, transient response, steady state sinusoidal
response; Network graphs and their applications in network analysis; Tellegen’s theorem.
Two port networks; Z, Y, h and transmission parameters. Combination of two ports, analysis
of common two ports. Network functions: parts of network functions, obtaining a network
function from a given part. Transmission criteria: delay and rise time, Elmore’s and other
definitions effect of cascading. Elements of network synthesis.
(4) Electromagnetic Theory:
Analysis of electrostatic and magneto-static fields; Laplace’s and Poisson’s equations;
Boundary value problems and their solutions; Maxwell’s equations; application to wave
propagation in bounded and unbounded media; Transmission lines: basic theory, standing
waves, matching applications, microstrip lines; Basics of wave guides and resonators;
Elements of antenna theory.
(5) Analog Electronic Circuits:
Transistor biasing and stabilization. Small signal analysis. Power amplifiers. Frequency.
response. Wide banding techniques. Feedback amplifiers. Tuned amplifiers. Oscillators,
Rectifiers and power supplies. Op Amp, PLL, other linear integrated circuits and
applications. Pulse shaping circuits and waveform generators.
(6) Digital Electronic Circuits:
Transistor as a switching element; Boolean algebra, simplification of Boolean function
Karnaugh map and applications; IC Logic gates and their characteristics; IC logic families:
DTL, TTL, ECL, NMOS, PMOS and CMOS gates and their comparison; Combinational
logic circuits; Half adder, Full adder; Digital comparator; Multiplexer De-multiplexer; ROM
and their applications. Flip-flops. R-S, J-K, D and T flip-tops; Different types of counters and
registers. Waveform generators. A/D and D/A converters. Semi-conductor memories.
(7) Control Systems:
Transient and steady state response of control systems; Effect of feedback on stability and
sensitivity; Root locus techniques; Frequency response analysis. Concepts of gain and phase
margins; Constant-M and Constant-N Nichol’s Chart; Approximation of transient response
from Constant-N Nichol’s Chart; Approximation of transient response from closed loop
frequency response; Design of Control Systems; Compensators; Industrial controllers.
(8) Communication Systems:
Basic information theory; Modulation and detection in analogue and digital systems;
Sampling and data reconstructions; Quantization and coding; Time division and frequency
division multiplexing; Equalization; Optical Communication: in free space and fiber optic;
Propagation of signals at HF, VHF, UHF and microwave frequency; Satellite
Communication.
(9) Microwave Engineering:
Microwave Tubes and solid state devices, Microwave generation and amplifiers, Wave
guides and other Microwave Components and Circuits, Microstrip circuits, Microwave
Antennas, Microwave Measurements, Masers, Lasers; Micro-wave propagation. Microwave
Communication Systems-terrestrial and satellite based.
(10) Computer Engineering:
Number Systems. Data representation; Programming; Elements of a high level programming
language PASCAL/C; Use of basic data structures; Fundamentals of computer architecture;
Processor design; Control unit design; Memory organization, I/o System Organization.
Microprocessors: Architecture and instruction set of Microprocessor’s 8085 and 8086,
Assembly language Programming. Microprocessor Based system design: typical examples.
Personal computers and their typical uses.