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WHAT IS ANALOG ELECTRONICS ASSIGNMENT HELP?

It is a segment of electronics which basically deals with the signals that are varying continuously unlike digital electronics which deals with discrete signals. The use of analog electronics is vast starting from radio to audio equipment to applications in the sensory equipment and in A/D or D/A converters. Though the world nowadays shifting towards digital instruments but at the very core of those instrument lies the devices that are analog by nature. Hence, understanding the fundamentals of analog electronics is necessary to progress in higher technology.So, our experts in dreamassignemnt.com segmented the huge syllabus of analog electronics into several efficient small segments that are given below.
Types of signals and processing of signals
A sign which contains instruction or information transmitted in the form of electrical impulses through radio waves is called a signal. A signal can be primarily of two types, voltage or current are applied to some sort of circuitry and then the resulting signals in the same or in some other form is measured. So, the applied signal is known as the input signal and the resultant signal is known as the output signal. The circuits or the systems in which the signal are applied are of different types like.
Linear system
Evaluated by superposition, Thevenin’s, Norton’s theorem.
Nonlinear system
Evaluated by graphical or power series approximation, computer based linearization.
1. Signal types: Sinusoidal, square, saw toothed, triangle signals etc.
2. Phasor representation of signals
3. The addition of sinusoidal signals
4. Simple RLC networks
5. Sinusoidal response to R-C network
6. Sinusoidal response to R-L network
7. Calculation of decibel of signals
8. Representation of Bode plots of signals
9. Step responses of RC & RL circuits
10. Pulse responses of RC & RL circuits
11. Waveforms and frequency spectra
Frequency and time domains of Fourier transforms
1. Different measures of waveform
2. Average power
3. Root mean square
4. Peak value
5. Standard deviation and variance
Noise of random signals
1. Thermal noise ( also known as Johnson noise)
2. Shot noise
3. Flicker or excessive noise ( technically 1/f noise)
4. Galactic noise
5. Noise temperature, Noise figure & Signal to Noise ratio (S/N ratio)
Feedback and amplifiers
1. Decibels and gains
2. Frequency response
3. Input and output impedance
4. Operation amplifiers
Negative feedback and voltage follower circuit of Op-Amp
1. Input impedance
2. Output impedance
Non-inverting Op-Amp
1. Gain bandwidth product
2. Input impedance
3. Output impedance
4. Stability in negative and positive
5. Inverting op-amp
6. Offsets of an amplifier
Amplifier Noise
1. Noise factor
2. Power density spectra
3. Input noise resistance equivalence
Op-amp signal processing
1. Instrumentation amplifiers
2. Inverting summing amplifiers
3. Non- inverting summing amplifiers
4. Integrators
Step response of integrators
1. Frequency response of integrators
2. Charge amplifiers
3. Precision rectifiers
Diode circuits and transistors
1. Semiconductor diodes
2. Characteristics of diode
3. BJT parameter and characteristics
4. Simple amplifier circuit
5. Non-linear npn transistor model
6. Calculation of mutual conductance
7. The hybrid-π equivalent circuit of npn transistor
Biased circuits
1. Stability of operating point
2. Bias circuit of shunt feedback system
3. Bias circuit of potential-divider
4. Noise
5. Field effect transistor(FET)
6. Junction Field effect transistor(FET)
7. Insulated-gate field effect transistor(IGFET)
8. CMOS
Op-Amp Circuit design
1. Op-amp structure
2. Input stage differential-pair
3. The second and output stage
4. Push and pull output stages
5. Constant-current sources
6. Rail rejection and temperature compensation
7. Output resistance
8. Common mode rejection ratio (CMRR)
9. Frequency response
10. Slew rate
Op amps integrated circuit
1. Bipolar
2. FET and CMOS
3. Bipolar FET and Bipolar CMOS
Radio-frequency op amps
1. Voltage feedback Amplifiers
2. Current feedback amplifiers
3. Video amplifiers
A/D and D/A conversion
1. Quantization
2. Sampling
3. Analog comparators
4. Schmitt trigger
5. The flash converter
A/D converters using D/A conversion
1. The counter ramp A/D converter
2. A/D converter consecutive approximation
3. One slope A/D converter
4. Integrating A/D converter
Double slope A/D converter
1. Over-sampling converter or sigma-delta converters
2. Digital to analog converters
3. Design of summing current converters using scaled resistors
4. Current summing converter design using R-2R network
5. Pulse modulating D/A converters
6. Errors associated with A/D or D/A converters
Audio-frequency type power amplifier
1. Total harmonic distortion and Fourier analysis of power amplifier
2. Structure of power amplifier
3. Circuit design and frequency compensation
Stages of output: the double emitter follower
1. Biasing of diode
2. The multiplier VBE
3. Class A and Class B operation
4. Emitter resistor
5. Protection of short-circuit
6. Stability of Quiescent current
7. Distortion effect
Stages of output with compound transistor (‘super-β’ pairs)
1. Darlington pair
2. Sziklai pair
Output stages of a FET
Radio commutation techniques
1. Modulation and demodulation
2. Turned radio frequency amplifier
3. Transmitted radio frequency amplifier
Amplitude modulation
1. Full amplitude modulator circuits
2. Full amplitude signal spectrum
3. Demodulation of full amplitude: the envelope detector
4. Double-sideband suppressed-carrier AM (DSBSC)
5. Single sideband AM(SSB)
6. Vestigial sideband modulation
Frequency modulation and demodulation
1. The varactor tuned oscillator
2. The spectrum of frequency modulation
3. Carson’s rule
4. FM bandwidth calculation
5. Complex modulating signals
Demodulation of FM signals
1. The ratio detector
2. The phase locked loop
Schemes of digital modulation
1. Amplitude shift keying (ASK)
2. Frequency shift keying(FSK)
3. Phase shift keying(PSK)
4. Quadrature amplitude modulation(QAM)
5. Noise performance
Receivers
1. Tuned radio frequency receiver
2. Superhet receiver
Filters
1. A simple LCR filter
TYPES OF RESONANCE
Implementation of filter
1. Passive filters
2. Active filters
3. Surface acoustic wave filters
4. Active filter analysis
a) Infinite gain multiple feedback configuration ( high pass, low pass and band pass filter)
b) Voltage controlled voltage source implementation
c) State variable or biquad implementation of filter
Filter design
1. Frequency scaling
2. Impedance scaling
Switched capacitor filter
1. Basic switched capacitor structure
2. Switched capacitor integrated circuit
3. Double pole throw switch
Generation of signal
1. Barkhousen oscillation criterion
2. Oscillatory circuits
3. The phase locked loops
4. Frequency synthesis
Interconnections
1. Transmission line
2. Interconnections and interference
3. Optical fibres
Our experts also provide different software solutions (PSPICE, Multisim and LTspice) of the analog electronic circuits including the above topics within very short amount of time. So, if you need any help with your analog electronics assignments, don’t think twice just post your problem in our website, you’ll be provided the detailed solution well before your specified time.

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