This 12 month program from Skill-Lync equips the student with the necessary knowledge required to perform the design and analysis of power converters used in electric and hybrid electric vehicles.
As complex systems have numerous parts interacting with each other, they are difficult to model. Mathematical models can be used to model these complex systems, and provide an understanding of how they function. By using Simscape, engineers can develop physical models, model control systems, and test performance at the system level. It is important for learners to understand complex system modeling using Simulink, and physical system modeling using Simscape.
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Simscape is used to develop models that represent physical systems in the Simulink environment. It also lets users assess system-level performance. When setting up a model for simulation on Simulink, there are specific configurations to be followed. It is important for learners to understand how to model and configure simulations using Simscape.
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Simulink and MATLAB are closely integrated as Simulink models can be developed, solved, and interacted with by using MATLAB scripts. These script files have a series of statements with commands and functions that can be carried out at runtime. Simulink models can also access the MATLAB Base Workspace and Model Workspace to identify required parameters. It is important for learners to understand how MATLAB and Simulink are interfaced.
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Stateflow is used to elaborate on how MATLAB and Simulink respond to events, time-based variables, and input signals. It is a graphical programming platform based on finite state machines that can be used by engineers to design control logic. It is important for learners to understand the use of Stateflow in engineering applications.
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The following concepts are discussed in this week:
The following concepts are discussed in this week:
The following concepts are discussed in this week:
The following concepts are discussed in this week:
In this week, the following operations are done for DC-DC converters operating in discontinuous conduction mode (DCM).
The following concepts are discussed in this week:
The following concepts are discussed in this week:
The following concepts are discussed in this week:
In this week, the following topics related to AC-DC rectifiers are discussed:
In this week the following topcis related to DC-AC inverters are discussed:
In this week, the following about inverters and rectifiers are discussed:
The following concepts are discussed in this week:
In this module, the students will learn about the basics of power electronics, different types of power converters that are used in industry, and their applications. The topics include
The successful design of Power converters requires efficient component selection. Another major part of the design is meeting the different Industry standards. In this module, the students will learn about different power electronic components and an overview of the industry standards.
The heart of every power converter is a switching device, and in this module, the students will learn which devices are used in different topologies, and why?
With the evolution of semiconductor technology, wide bandgap devices are now popular with the benefits of higher switching frequency, reducing the overall size of the power converter. In this module, the students will learn the following topics
In this module, the students will learn how to operate a DC/DC converter or DC/AC converter with different switching methods and understand their pros and cons. The topics include
Modeling a power electronics converter in real-world application requires regulation of output voltage/current. In this module, the students will learn the basics of control systems and transfer function derivation. Also, they will learn about Buck Converter Design and analyze the transfer function. The topics include
Magnetic design is crucial in any power supply, DC-DC converter applications, gate driver design. In this module, the students will investigate the different concepts of magnetic design and design a push-pull transformer. The topics include
The first step in implementing any power converter is to determine which topology suits the desired application. In this module, the students will learn different inverter topologies that are used in the industry. The topic include
Inverters are one of the most essential power conversion devices, that can be found on UPS, TV, Electric Vehicles, Substations, etc. In this module, the students will understand the basics of inverter and single-phase inverter design. The topics include
Electric vehicles and other industrial applications rely upon rotating machines, and both DC and AC machines are widely used. In this module, the students will learn about the basics of electromagnetics and the necessary background needed to understand AC machines.
In this module, the students will learn about the types of heat losses in power electronics devices, how to model them, and design an efficient cooling system. The topics include
While designing any high-frequency power converter, the major challenge that a designer faces is on suppressing the switching transients on the switching devices. Since most of the failures on switching devices are because of high voltage transients. In this last module, the students will learn about the Snubbers, their applications, and their design. The topics include
Our projects are designed by experts in the industry to reflect industry standards. By working through our projects, Learners will gain a practical understanding of what they will take on at a larger-scale in the industry. In total, there are 12 Projects that are available in this program.
In this project, a design report is prepared. The design report contains the details indicating the choices of inductance and capacitance levels in the design.
In this project, an interleaving DC/DC converter system is designed for a data center application. Its specifications are provided and the DC/DC converter system should have 85% ef…
A DC/AC H-bridge inverter switches polarity of voltage, like any other inverters, but has a different circuit. In this project, the DC/AC H-bridge inverter is designed and develope…
The students will be creating a project workspace for MIC33030. They will design a PCB using Altium ECAD software for a low-dropout voltage regulator (LDO) for 5V input, stepping d…
In this project, the students will design a project workspace for Arduino Mini. The students will be developing the project based on the guidelines provided during the course.
During this project, the students will design and simulate three-phase uncontrolled and controlled rectifier circuits based on the given input design parameters. They will design t…
During this project, the students will design and simulate closed-loop single-phase high-power factor rectifiers based on the given input parameters.
A SEPIC Converter is a DC-DC converter having a unique circuit. In this project, the students will design a SEPIC Converter based on the given specifications. SEPIC converters are …
MPPT is used to send the maximum current required by the load. In this project, the students will design an MPPT controller based on the given specifications.
Learners are required to carry out a system-level simulation of an all-terrain vehicle using Simulink, Simscape, and Simscape Driveline. At the end of the project, learners should …
Any device has power losses and the calculation of power losses helps in evaluating and improving the quality of the device. In this project, the students will perform loss calcula…
Electric vehicles are replacing the conventional IC engine vehicles, and a three-phase inverter is one of the important components of an EV. In this project, the students will desi…
Become job ready with our comprehensive industry focused curriculum for freshers & early career professionals
With the electric vehicle industry growing at 98% every year, companies manufacturing electric vehicles will need power engineering professionals, and this course equips you with such jobs.
You will gain comprehensive knowledge about DC-AC converters, modelling of power converters, and designing of power converters.
The duration of the course is three months. In addition to this, you will need to do project work.
The best online course for electrical engineering offers many high-paying positions in top companies. You will be designing electric converters for future-ready electric vehicles.
The top companies in India that need power engineers are ABB, Schneider Electric, Delta Electronics, BHEL, Tesla, and more.
You can pursue this course if you are an engineering graduate interested in power electronics engineering. This course is relevant for those seeking a career in the design, simulation, and development of power converters.
The average salary you can expect as a power engineer is between Rs. 3 lakhs to Rs. 9 lakhs per annum.
A counsellor will walk you through the syllabus, projects and fee options — and tell you honestly if another course suits you better.