Get updates on Eligibility, Admission, Placements Fees Structure
Quick Facts
| Medium Of Instructions | Mode Of Learning | Mode Of Delivery |
|---|---|---|
| English | Self Study | Video and Text Based |
Course Overview
Electric Engineering is one of the best course studies to be a part of and it is one that has a definite position in both present and future, offering stable career opportunities for a long time to come. A certificate of this course from a university as prestigious as the University of Colorado Boulder and the University of Colorado System is guaranteed to make many doors and windows open through.
The Equivalent Circuit Cell Model Modulation programme by Coursera has been brought to the candidates with excellent content materials and real world based projects for an intermediate level. It teaches the values, properties, and simulation of each of the components of a lithium Ion cell and hones these skills to perfection.
Not only that, the experience gained here along with the course studied in such great detail will put the candidates at the top bar for Electronic Engineers and give them an early and the very important head start in the competition of today.
The Highlights
- Offered by the University of Colorado Boulder and University of Colorado System
- Online Programme
- 27 hours programme duration
- E-certification is provided
- Certification by Coursera
Programme Offerings
- Graded Assignments
- Graded Quizzes
- Graded Assessments
- Practice Exercises
- Readings
- Capstone Projects.
Courses and Certificate Fees
| Certificate Availability | Certificate Providing Authority |
|---|---|
| yes | CU BoulderCoursera |
There are three ways to go with this programme each with a different fee cost aspect.
- Candidates who chose the audited version will not have to pay for the programme, but they will also not be eligible to earn a Certificate at the end
- Candidates who applied and were selected in the Financial Aid scheme will access all the content material and programme in all its glory without having to pay anything.
Equivalent Circuit Cell Model Simulation Fees Structure -
Duration | Fees in INR |
1 month | Rs. 6,634 |
3 months | Rs. 13,268 |
6 months | Rs. 19,903 |
What you will learn
- Candidates will be able to tell the specifics of any equivalent circuit model blindfolded.
- They would learn all about lab tests and how they can determine values from simple lab results.
- They would become able to compute a cell's Coulombic Efficiency with lab data.
- They will be able to simulate battery packs for cases of cell variation to predict their actions.
- They will learn to use Octave/Matlab script to calculate values for Dynamic Parameters as well as the relationship of an Open Circuit Voltage
Who it is for
Application Details
The candidates who are interested in the course have to go through the following steps in order to retain admission into the programme
Step 1: Visit the course page. https://www.coursera.org/learn/equivalent-circuit-cell-model-simulation
Step 2: After that, they will be required to register themselves on the website.
Step 3: Once they are registered, candidates will be asked some details about their education and experiences. They can also choose to skip it.
Step 4: After that, they will have the option to choose whether they want the full course with the ability to earn a certificate or just the content materials for free.
Step 5: If the candidates chose to pay, they will be directed to a bank details page but they will not be charged for a week first as candidates would be on their free trial.
Step 6: If the candidates chose the audited version, they will have to fill in another form and wait up to two days to see whether they were selected for this version or not.
The Syllabus
Videos
- Welcome to the course!
- How do we model open-circuit voltage (OCV) and state-of-charge (SOC)?
- How do we model voltage polarization?
- What is a "Warburg impedance" and how is it implemented?
- How do I convert a continuous-time model to a discrete-time model?
- What is a quick way to get approximate parameter values?
- What is hysteresis in a lithium-ion cell and how can I model it?
- Summarizing an equivalent-circuit model of a lithium-ion cell
- Summary of "Defining an ECM of a Li-ion cell" and next steps
Readings
- Notes for lesson 2.1.1
- Frequently asked questions
- Course resources
- How to use discussion forums
- Get help and meet other learners in this course. Join your discussion forums!
- Earn a course certificate
- Are you interested in earning an MSEE degree?
- Notes for lesson 2.1.2
- Notes for lesson 2.1.3
- Notes for lesson 2.1.4
- Notes for lesson 2.1.5
- Notes for lesson 2.1.6
- Notes for lesson 2.1.7
- Notes for lesson 2.1.8
- Notes for lesson 2.1.9
Assignments
- Quiz for week 1
- Notes for lesson 2.1.2
- Notes for lesson 2.1.3
- Notes for lesson 2.1.4
- Notes for lesson 2.1.5
- Notes for lesson 2.1.6
- Notes for lesson 2.1.7
- Notes for lesson 2.1.8
Videos
- Lab equipment for cell characterization
- What cell tests are needed to determine open-circuit voltage?
- How to determine a cell's coulombic efficiency and total capacity
- How do I determine a cell's temperature-dependent OCV?
- Introducing Octave code to determine static part of ECM
- Summary of "Identifying parameters of static model" and next steps
Readings
- Notes for lesson 2.2.1
- Notes for lesson 2.2.2
- Notes for lesson 2.2.3
- Notes for lesson 2.2.4
- Notes for lesson 2.2.5
- Introducing a new element to the course!
- Notes for lesson 2.2.6
Assignments
- Quiz for week 2
- Practice quiz for lesson 2.2.1
- Practice quiz for lesson 2.2.2
- Practice quiz for lesson 2.2.3
- Practice quiz for lesson 2.2.4
- Practice quiz for lesson 2.2.5
Ungraded Labs
- Jupyter notebook used in conjunction with practice quiz
- Jupyter notebook used in conjunction with week-2 quiz
Videos
- What cell tests are needed to determine dynamic-model parameters?
- How are cell data used to find dynamic-model parameter values?
- Introducing Octave code to determine dynamic part of an ECM
- Introducing Octave toolbox to use ECM
- Understanding Octave code to simulate an ECM
- Understanding Octave code to look up model parameter value
- Understanding Octave code to compute OCV
- Some example results from using the Octave ESC toolbox
- Summary of "Identifying parameters of dynamic model" and next steps
Readings
- Notes for lesson 2.3.1
- Notes for lesson 2.3.2
- Notes for lesson 2.3.3
- Notes for lesson 2.3.4
- Notes for lesson 2.3.5
- Notes for lesson 2.3.6
- Notes for lesson 2.3.7
- Notes for lesson 2.3.8
- Notes for lesson 2.3.9
Assignments
- Quiz for week 3
- Practice quiz for lesson 2.3.1
- Practice quiz for lesson 2.3.2
- Practice quiz for lesson 2.3.3
- Practice quiz for lesson 2.3.4
- Practice quiz for lesson 2.3.5
- Practice quiz for lesson 2.3.6
- Practice quiz for lesson 2.3.7
Ungraded Labs
- Notebook to run before attempting practice quiz
- Notebook to run before attempting practice quiz
- Notebook to run before attempting practice quiz
- Notebook to run before attempting practice quiz
Videos
- How do I use the ECM to simulate constant voltage?
- How do I use the ECM to simulate constant power?
- How do I simulate battery packs?
- Introducing Octave code to simulate PCMs
- Introducing Octave code to simulate SCMs
- Summary of "Simulating battery packs in different configurations" and next steps
Readings
- Notes for lesson 2.4.1
- Notes for lesson 2.4.2
- Notes for lesson 2.4.3
- Notes for lesson 2.4.4
- Notes for lesson 2.4.5
- Notes for lesson 2.4.6
Assignments
- Quiz for week 4
- Notes for lesson 2.4.1
- Notes for lesson 2.4.2.
- Notes for lesson 2.4.3
- Notes for lesson 2.4.4
- Notes for lesson 2.4.5
Ungraded Labs
- Notebook to run before attempting practice quiz
- Notebook to run before attempting practice quiz
- Notebook to run before attempting practice quiz
- Notebook to run before attempting practice quiz
Videos
- Introduction to the problem
- Modeling ideal vehicle dynamics
- Adding practical limits to model of vehicle dynamics
- Calculating electric-vehicle range
- Introducing Octave code to set up EV simulation
- Introducing Octave code to conduct EV simulation
- Summary of "Co-simulating battery and electric vehicle load" and next steps
Readings
- Notes for lesson 2.5.1
- Notes for lesson 2.5.2
- Notes for lesson 2.5.3
- Notes for lesson 2.5.4
- Notes for lesson 2.5.6
- Notes for lesson 2.5.7
Assignments
- Quiz for lesson 2.5.1
- Quiz for lesson 2.5.3
- Quiz for lesson 2.5.4
- Quiz for lesson 2.5.5 and 2.5.6
Quiz
- Quiz for lesson 2.5.2
Ungraded Lab
- Notebook for lessons 2.5.5 and 2.5.6
Programming Assignment
- Manually tuning an ESC cell model
Ungraded Lab
- Jupyter notebook for capstone project
Instructors
CU Boulder Frequently Asked Questions (FAQ's)
The duration of the programme has been spanned over the length of 6 weeks. It takes approximately 27 hours to complete the programme. Candidates have also been offered flexible deadlines.
Yes, the candidates can switch to the paid version during and even after they have completed the audited version by paying the fees. They will have to submit the graded assignments then.
Yes, the course Equivalent Circuit Cell Model Modulation is the second part of a five part specialisation called Algorithms for Battery Management Systems Specialisation.
Candidates first have to click on Financial Aid on the website of the course. Then a form will appear which the candidates have to fill into their highest potential. The submission approval process takes up to 15 days.
The University of Colorado Boulder and the University of Colorado System partnered with Coursera to bring this wonderful course of the candidates. It is one of the top 30 public institutions of the Association of American Universities.