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: History, OP AMP Construction/design, OP Amp
Application Circuits, Effect of Input offset voltage, Effect of Slew Rate and
Packaging.
Author(s): Cheng Zhang, Nan Xia, Alexander Gollin,
Kenneth Young and Patrick Powers
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: Circuits and Analyses Using The
Ideal Operational Amplifier, Characteristics Of Practical Operational
Amplifiers, Frequency Dependent Properties, Bode Plots and Basic Practical
Circuitry, Voltage Detectors and Comparators, The Voltage Follower, Voltage and
Current References, The Non-inverting Amplifier, Inverting Amplifier,
Integrators, Practical Integrators, The Differential (balanced) Output Amplifier
and Dc Amplifiers.
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.
This note
explains the following topics: Amplifier Basics, Ideal Op Amp Mode,
Non-Inverting Amplifier, Inverting Amplifier, Simplified Op Amp Circuit Diagram
and Op Amp Specifications.