This is an online, interactive lab that contains instructions, multimedia, and assessments where students can learn at their own pace. As an instructor, you can create and edit instances of this lab, assign them to students, and view student progress.
This is an online, interactive course that contains instructions, multimedia, and assessments where students can learn at their own pace. As an instructor, you can create and edit instances of this course, assign them to students, and view student progress.
by
Dr. Nicola Femia | University of Salerno, and Texas Instruments
In this lab, students analyze the influence of inductance, load current, and switching frequency on the steady-state behavior of the buck regulator, when the half-bridge uses a MOSFET and a diode.
After completing this lab, students will be able to:
Given a MOSFET operating as linear regulator, a load resistance, a DC source, a gate driver generator, and an error amplifier, calculate the magnitude of the error amplifier voltage determined by DC deviations and AC perturbations on the output voltage of the linear regulator, with specified units and decimal digits, by applying the appropriate theoretical formulae.
Given a MOSFET operating as linear regulator, a load resistance, a DC source, a gate driver generator, and an error amplifier, simulate the operation of the error amplifier to analyze the sensitivity of its voltage with respect to AC perturbations of the linear regulator output voltage, with specified units and decimal digits, to verify the consistency of theoretical predictions.
Given a real MOSFET operating as linear regulator, a DC power supply, a load resistor of given resistance, a function generator, and a real error amplifier, measure the DC and AC components of the error amplifier voltage determined by DC and AC perturbations of the linear regulator output voltage, with specified units and decimal digits, to verify the consistency of simulations and correct the model parameters.
REQUIRED SKILLS
Basic proficiency using Multisim Live
Basic proficiency using ELVIS III Instruments
Basic proficiency in circuits and analog electronics
Requirements
TI Power Electronics Board for NI ELVIS III
Application board for NI ELVIS III which provides a hands-on approach to power electronics using functional blocks and TI circuits to understand each component in a power electronics system.
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NI ELVIS III
Engineering laboratory solution for project-based learning that combines instrumentation and embedded design with a web-driven experience, delivering a greater understanding of engineering fundamentals and system design.
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