This course offers a detailed technical explanation with design considerations of the EV powertrain components, how they work together, and how they compare to the internal combustion engine in value.
At this point, it is difficult to reliably estimate the total job creation potential of electric vehicles. More electric vehicles, however, would also likely lead to some job losses in the oil industry. With that said, there is good reason to expect that electrification of personal transportation can drive job creation in a host of industries. More efficient automobiles require more technology, which is designed and produced by adding workers to the auto industry. Many of these jobs would be created in industrial sectors closely tied to auto manufacturing, advanced batteries, and research and development.
Moreover, electric vehicles are much cheaper to operate than conventional vehicles. Drivers who switch to electric vehicles will have more disposable income to spend in other sectors of the economy, such as housing and services. Spending in these sectors keeps more wealth moving within local economies and will drive job creation in sectors not immediately connected to producing electric vehicles.
The program tends to equip students and professionals with multidisciplinary expertise and increase the practical exposure with the tools and functioning of the Electric vehicle. This program follows the practical approach of learning (PLA model) to educate and offer cutting edge training to prepare engineers for the future industry workforce demand.
DIYguru presents a certificate program on Electric Vehicle Powertrain Design Engineering (Advance). This program provides you with the most flexible learning environment possible. This program is offered as a self-paced program often referred to as an asynchronous online program which is time-independent, meaning that it can be accessed 24X7 within the tenure of 90 days. This program can be accessed from multiple devices which makes it easy to learn on the go. Lectures that are pre-recorded or slide presentation with voice-over commentary, interactive discussion boxes that foster student to student interaction, Email communication with the instructor are part of this process. Downloadable educational tools such as e-books, research papers, and government reports are made available at just one click.
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- To develop learn and apply new theories, concepts, and methods.
- To critically evaluate, model and test the operation of electrical systems and components for automotive applications.
- Demonstrate a thorough understanding of electrical power conversion and power flow.
- To analyze the degradation mechanisms and ageing process of the automotive electrical and electronics systems.
- Awareness of current standards and specifications of the onboard electronics and networking system. To design and assess systems and components.
- Conduct rigorous and ethical research / formal inquiry into related issues that require familiarity with a range of research sources and appropriate methodologies.
- To demonstrate awareness and ability to critically evaluate risks, including health and safety when conducting design and tests.
- Learn without a career break with online classes available 24*7.
- One can access the course at their own pace, but with the investment of 3-5 hours/week, it can be finished within a month.
- This program is designed at an advanced level that can be understood only after the completion of the Electric Vehicle Fundamental course.
- The program uses a Continuous Evaluation System that assesses the learners over convenient and regular intervals. Such a system provides timely and frequent feedback and helps busy working professionals stay on course with the program.
- The education delivery method is a blend of classroom and experiential learning.
With Project-based 1-month Internship Learning!
Stepwise procedure for the course enrollment with a 4-week internship project
- Step 1: Apply for the internship-based learning-based course and fill the application form.
- Step 2: Pay the necessary fee to enroll in the program.
- Step 3: The technical team of DIYuru will check your entered data, and will share the confirmation of acceptance as you will be shortlisted in the next 24 hours.
- Step 4: Once you are enrolled in the course, start working on the course videos, and given assignments, and complete the course at your own learning pace! With this, you shall receive the ‘course completion’ certificate.
Project-based Internship process
- Step 5: If you have applied for the ‘internship-based learning’, then the team DIYguru Support shall connect with you to share the date of the ‘live course certification examination!’. This examination will enable you to understand your current expertise and will allow us to define the best possible project for you! Students will get a minimum of 4 weeks for the examination preparation.
- Step 6: Once you clear the examination, the DIYguru technical mentors will contact you to enroll you in the ‘live project’. Since students will work on a live project, students will get enough time to prepare themselves before the internship project begins.
- Step 7:
Since it is an ‘internship’ based project, the students will be encouraged to work through the assigned project in teams and will be allowed to achieve the results on their own, with mentorship support from DIYguru! Allowing you to gain the actual skills as an ‘intern’! Enrolled students will get a minimum of 4-6 weeks to work and submit their project reports.
- DIYguru shall also allow you to work in groups or as an individual. However, at the end of the internship, each student shall submit a project report with all the results achieved, for evaluation by the DIYguru technical team.
- Every candidate after successful completion of the internship project shall also submit a pitch presentation video, explaining his/her project-oriented achievements and results, so that the participants can work on their communication and presentational skills simultaneously. With this, you shall receive the ‘Project-based internship’ certificate (along with evaluation score), and an ‘achievement badge’ to validate that you have successfully cleared the ‘certification examination’ (shareable on LinkedIn and other platforms).
The program is designed for students or professionals who are:
- Having a Diploma, BE / B.Tech or equivalent in domains such as Automotive, Mechanical, EEE, ECE, Instrumentation, Mechatronics.
- Designing enthusiasts (No academic qualification mandatory)
- Working in industries such as Automotive, Auto component, Design, Manufacturing, etc.
- Working in Functional areas such as R&D, Analysis, Maintenance, Projects, component design, etc.
- Interested in pursuing further studies on the part-time or full-time basis in Automotive, Electrical, Electronics, and Mechanics sector.
The program to give its best will need the following requirements:
- Computer/ Laptop will provide you with the best experience, but this program is quite compatible with smartphones to make it feasible for students worldwide.
- High-speed internet for crystal clear experience, but this program can also run without buffering with below-average connectivity for reaching out to students from suburban and rural areas.
- A student should make their notes for future reference.
- A student should have basic knowledge about high-school physics and chemistry, even though the pre-requisite of this program will brush up one's basic concepts.
DIYguru will feel proud to awards the certificate of competency in "Electric Vehicle Powertrain Design Engineering (Advance)" to only those aspirants who have 100% completed their online module.
DIYguru proficiency Certificate is highly valuable by industry giants namely Robert Bosch; Maruti Suzuki; Hyundai Motors, are the name of few, which is why DIYguru earned certificates are secured with a unique certificate ID. To check the validation of the certificate, check out the footer section of the home page.
Certificate provided to you is an online certificate, which means there is no need to download, after completion of the course, aspirants are requested to check their profile to view their earned certificate. In case the certificate is not issued feel free to write us a email@example.com, our team will help you out.
- Ehsan, M., Gao, Y., & Gay, S. (2003). Characterization of electric motor drives for traction applications. in Proc. Industrial Electronics Society, IECON’03, 891-896.
- Dynamic modelling and control of hybrid electric vehicle powertrain systems. Published in: IEEE Control Systems Magazine ( Volume: 18 , Issue: 5 , Oct. 1998 )
- A comprehensive overview of hybrid electric vehicle: Powertrain configurations, powertrain control techniques and electronic control units, KÇ Bayindir, MA Gözüküçük, A Teke - Energy conversion and …, 2011 - Elsevier
- Hybrid electric powertrain including a two-mode electrically variable transmission, AG Holmes, MR Schmidt - US Patent 6,478,705
- The electric and hybrid-electric powertrain for motor vehicles. B Roethler, M Berhan - US Patent 7,238,139, 2007
- Electric continuously variable transmission. TC Bowen - US Patent 6,371,878, 2002
- Torque fill-in for an automated shift manual transmission in a parallel hybrid electric vehicle. RC Baraszu, SR Cikanek - Proceedings of the 2002
- Design and Assessment of Battery Electric Vehicle Powertrain, with Respect to Performance, Energy Consumption, and Electric Motor Thermal Capability
- Introduction to Electric Vehicle Powertrain Part: 1 FREE 00:08:00
- Introduction to Electric Vehicle Powertrain Part: 2 FREE 00:13:00
- Typical Power Ratings of EV Chargers 00:07:00
- Motor Power and Torque Calculation 00:08:00
- Weight Distribution 00:04:00
- Thermal Management in EV: Active & Passive Air Cooling 00:07:00
- Thermal Management in EV: Liquid Cooling 00:05:00
- Thermal Management in EV: Heating 00:04:00
- Voltage Conversion 00:03:00
- Voltage Regulator Topologies 00:03:00
- Modelling of Motor Shaft 00:11:00
- Analysis of Motor Shaft FREE 00:13:00
- Modelling of Left Motor Mounting 00:13:00
- Modelling of Right Motor Mounting 00:10:00
- Analysis of Motor Mounting 00:16:00
- Modelling of Bearing Adaptor 00:10:00
- Analysis of Bearing Adaptor 00:10:00
- Modelling of Driving Sproket 00:45:00
- Optimization of Driven Sprocket 00:26:00
- Analysis of Driving Sprocket 00:10:00
- Analysis of Driven Sprocket 00:11:00
- Modelling of Left Eccentric FREE 00:13:00
- Analysis of Left Eccentric 00:08:00
- Modelling of Right Eccentric 00:11:00
- Analysis of Right Eccentric 00:09:00
- Modelling of Tripod Housing 00:14:00
- Analysis of Tripod Housing 00:29:00
- Modelling of Axle 00:12:00
- Analysis of Axle 00:15:00
- Modelling of Differential Mounting 00:25:00
- Analysis of Differential Mounting 00:09:00
- Modelling of Differential Assembley 00:18:00
- How to Build and Simulate a Simple Simulink Model 00:09:00
- How to Add a Controller and Plant to the Simulink Model 00:06:00
- How to View Simulation Results 00:06:00
- How to Tune a PID Controller 00:03:00
- How to Compare and Save Simulation Data 00:05:00
- How to Manage Your Simulink Model 00:05:00
- How to Add Components to Your Simulink Model 00:07:00
- How to Model Continuous and Discrete Systems in One Model 00:05:00
- How to Use Templates and Examples 00:07:00
- Cell Modelling and Simulation 00:50:00
- BMS Modelling and Simulation 00:39:00
- Powertrain Modelling and Simulation 01:00:00
- Electric Vehicle Modelling and Simulation 00:46:00
- Files Part-1 00:30:00