
Design and simulate a single phase half-wave controlled rectifier in MATLAB/Simulink, using blocks for switches, a pulse generator, measurement blocks, and an oscilloscope to analyze firing angle effects on waveforms.
Design and simulate a single-phase full-wave controlled rectifier in MATLAB/Simulink by inserting and wiring bridge blocks, renaming components, and setting firing angles; validate with scope measurements at the specified frequency.
Design and simulate a single-phase semi-converter symmetrical configuration in matlab/simulink, setting a 50 Hz source and a 2-degree firing angle, and measure average currents with a scope.
Design and simulate a single-phase semi-converter with an asymmetrical configuration in MATLAB/Simulink. Set delays and phase angles, build the model, and analyze scope outputs to understand asymmetrical converter behavior.
Explore a three-phase half-controlled rectifier with a common cathode configuration in Simulink, detailing firing angles, phase delays, and 50 Hz operation using programmable sources and measurement blocks.
Explore designing a three-phase half-controlled rectifier with a common anode configuration in Simulink, including firing angle alpha values, switch timing, and scope-based validation.
Design and simulate a three-phase full-wave controlled bridge rectifier in MATLAB/Simulink using a universal bridge block, gate pulses, and PLL synchronization, analyzing six pulses per cycle at 0°–90°.
Design and simulate a single-phase ac voltage regulator in MATLAB/Simulink, using anti-parallel switches, firing angles, and phase delays to control a resistive-inductive load.
Design and simulate a three-phase, three-wire ac voltage regulator in MATLAB/Simulink, mastering gating angles, switching sequences, and three-phase measurement for a regulated output.
Design a single-phase to single-phase step-down cycloconverter in MATLAB/Simulink by wiring bridges and ideal switches, implementing firing angles from 0 to 60 degrees and observing the output with a scope.
Design and simulate a single-phase step-up cycloconverter in MATLAB/Simulink, using timed delays, pulse-width control, and output voltage/frequency analysis.
Design and simulate a buck step-down dc-dc regulator in MATLAB/Simulink. Use MOSFET switch, inductor, and duty cycle control to achieve stable output at chosen switching frequencies.
Design a boost / step-up DC-DC regulator in MATLAB/Simulink by selecting inductance, capacitance, and resistance, and validating performance through duty cycle and switching frequency adjustments in simulation.
Explore buck-boost dc-dc regulators in MATLAB/Simulink, showcasing design and simulation of step-up and step-down operations with switches, diodes, inductors, and capacitors.
Explore designing a single-phase half-bridge dc–ac converter in MATLAB/Simulink, using bidirectional mosfets, anti-parallel diodes, and a 50% duty cycle to generate a 50 Hz output for a ~2.4 ohm load.
design a single phase full-bridge dc-ac converter in MATLAB/Simulink using four switches and a single supply, verify output with a scope at 50 hertz.
Design and simulate a three-phase voltage source inverter with 180-degree conduction in MATLAB/Simulink, configuring six switches for a dc-ac conversion and validating phase relationships with scope measurements.
Design and simulate a three-phase VSI with 120-degree conduction in MATLAB/Simulink, configuring switch delays and PWM pulses, and validating output with scope measurements and phase relationships.
By enrolling into this course one can design and simulate these models on their own MATLAB/Simulink models for:
AC-DC CONVERTERS : Rectifiers --> Both Single Phase & Three Phase
AC-AC CONVERTERS : Controllers,Regulators, and Cycloconverters --> Both Single Phase & Three Phase
DC-DC CONVERTERS : Rectifiers --> Buck/Step-down,Boost/Step-Up and Buck-Boost/Step-Up & Step-Down
DC-AC CONVERTERS : Rectifiers --> Both Single Phase & Three Phase
After Completion of Course One can design their own creative power electronic circuit and can be helpful for research and further studies.