This note describes the following topics: Feedback basic
concepts, Macromodeling, Op Amp with resistive components, Measurement and
simulation, High Sensitivity Transconductance Converter, Op Amp static and
dynamic properties, Integrator modeling via Simulink, Op Amp non-idealities,
System Level Closed Loop Amplifiers, Biquad Filters using integrators, Active-RC
Inverting based ,Filter Software, Sinusoidal Oscillators, Signal Generators,
voltage regulators and Stability Considerations.
This note describes the following topics: Feedback basic
concepts, Macromodeling, Op Amp with resistive components, Measurement and
simulation, High Sensitivity Transconductance Converter, Op Amp static and
dynamic properties, Integrator modeling via Simulink, Op Amp non-idealities,
System Level Closed Loop Amplifiers, Biquad Filters using integrators, Active-RC
Inverting based ,Filter Software, Sinusoidal Oscillators, Signal Generators,
voltage regulators and Stability Considerations.
This note discusses the following topics:Op Amp:
equivalent circuit, Op Amp circuits, Op Amp circuits (linear region), Op Amp
circuits: inverting amplifier , Non-inverting amplifier , Loading effects and Op
Amp buffer.
This note explains the following
topics: Common-mode and differential-mode voltages , Common-Mode Rejection Ratio
, Difference amplifier , Improved difference amplifier , Instrumentation
amplifier , Current-to-voltage conversion , Op Amp circuits (linear region) ,
Offset voltage , Effect of VOS.
This note explains the design of following
amplifiers: Ideal op-Amp circuits, summing amplifiers, differential
amplifiers,Op-Amp difrentiators, Op-Amp integrators, Low pass amplifiers, High
pass amplifiers and Characteristics of Physical Op-Amps, effects of Finite Gain
and Bandwidth, effects of Finite Input Resistance, effects of Non-Zero Output
Resistance, output Waveform Distortion, output Waveform Distortion, DC Offsets
and Linear Op-Amp Macromodels.
This note discusses and compares the existing compensation methods for
operational amplifiers. It explores a method to stabilize the op amps without
sacrificing bandwidth to the same degree that commonly used methods do.
This note covers the
following topics related to operational amplifier: Properites and Modeling of
Feedback Systems, Linear System Response, Stability, Compensation, Nonlinear
Systems, Direct-Coupled Amplifiers, Operational-Amplifier Design Techniques,
Integrated-Circuit Operational Amplifiers, Basic and Advanced Applications.
Author(s): James K. Roberge and Kent
H. Lundberg, Massachusetts Institute of Technology
This note covers
the following topics: Ideal Op-amp in an open loop configuration, Operational
Amplifier Circuits as Computational Devices, Summing Amplifier, Difference
Amplifier, Instrumentation Amplifier, Voltage to Current converter, The
Differentiator: Active High Pass Filter, Active Band Reject Filter, Diodes and
transistors in op-amp circuits.
Author(s): Prof.
David Cory, Prof. Ian Hutchinson and Prof. Manos Chaniotakis
This note explains the following topics: Inverting Amplifier,
Noninverting Amplifier, Single Op-Amp Bandpass Filter, 2nd Order Opamp Filters
and Low Power Op-Amp - Audio Amp.
The approach to electronics taken in this course note will be a mixture
of physical concepts and design principles. This note explains the following
topics: Direct Current Circuits, Alternating Current Circuits, Filter Circuits,
Diode Circuits, Transistor Circuits, Digital Circuits, Operational Amplifiers,
Data Acquisition and Process Control.