Detailed Course Curriculum
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Welcome to the Course
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Softwares download
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How to use Discussions option
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Course access duration
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Piracy & infringement warning
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Aerodynamic forces modeling (3 cases)
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NEDC drive cycle
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Motor Data
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Sales
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Day 1: Intern onboarding
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Scilab Softwares download
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Day 2: Scilab introduction & Scilab Programing Part 1
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Day 2: Scilab introduction & Scilab Programing Part 2
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Day 2: Scilab introduction & Scilab Programing Part 3
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Day 3: Scilab Xcos introduction & Practice Part 1
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Day 3: Scilab Xcos introduction & Practice Part 2
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Day 3: Scilab Xcos introduction & Practice Part 3
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Day 3: Scilab Xcos introduction & Practice Part 4
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Day 4: Practice Scilab Xcos with real time problems Part 1
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Day 4: Practice Scilab Xcos with real time problems Part 2
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Day 4: Practice Scilab Xcos with real time problems Part 3
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Day 4: Practice Scilab Xcos with real time problems Part 4
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Day 5: Creating data visualization & analysis graphs in Scilab Part 1
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Day 5: Creating data visualization & analysis graphs in Scilab Part 2
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Day 5: Creating data visualization & analysis graphs in Scilab Part 3
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Day 5: Creating data visualization & analysis graphs in Scilab Part 4
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Day 5: Creating data visualization & analysis graphs in Scilab Part 5
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Day 5: Creating data visualization & analysis graphs in Scilab Part 6
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Day 5: Creating data visualization & analysis graphs in Scilab part 7 (Help video)
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Drive Cycle Data
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Program to define vehicle parameters
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Grade Data
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Model Images
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Water Tank Level Control
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Track Data
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Reference Document for report
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Comparison Documents for Vehicle Resistive Force Assignment
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Resistive Forces assignment submission
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Day 1: Modeling of Vehicle Resistive forces Part 1
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Day 1: Modeling of Vehicle Resistive forces Part 2
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Day 1: Modeling of Vehicle Resistive forces Part 3
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Day 1: Modeling of Vehicle Resistive forces Part 4
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Day 1: Modeling of Vehicle Resistive forces Part 5
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Day 2: Modeling of Vehicle Resistive forces continued Part 1
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Day 2: Modeling of Vehicle Resistive forces continued Part 2
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Day 2: Modeling of Vehicle Resistive forces continued Part 3
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Day 2: Modeling of Vehicle Resistive forces continued Part 4
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Day 2: Modeling of Vehicle Resistive forces continued Part 5
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Day 2: Modeling of Vehicle Resistive forces continued Part 6
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Day 2: Modeling of Vehicle Resistive forces continued Part 7
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Day 3: Modeling of Vehicle Resistive forces continued Part 8
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Day 3: Modeling & analysis of control system Part 1
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Day 3: Modeling & analysis of control system Part 2
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Day 3: Modeling & analysis of control system Part 3
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Day 4: Modeling & analysis on control systems Quiz
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Day 4: Modeling & analysis of control system continued Part 1
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Day 4: Modeling & analysis of control system continued Part 2
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Day 5: Problem solving with Xcos challenge Part 1
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Day 5: Problem solving with Xcos challenge Part 2
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Introduction
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Controller Systems Representations
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Controller Design and Equations
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Driver Model Derivation
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Reference Model overview, results and discussion
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Cruise Control model building in Scilab
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Drive Cycle Data for Cruise Control Modeling
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About this course
- 68 lessons
- 13.5 hours of video content
- 4.5 course rating & 980+ learners
Course Overview
Holding the foot steady on the accelerator for hours on end is uncomfortable and can lead to your speed creeping up without you realizing it. Cruise Control takes over the accelerator to maintain a steady speed and stop your leg muscles from cramping. But, building such a system in consideration of all the inputs, system control, variables such as curvature, rough or loose terrain, rainy or wet weather, and traffic conditions can be highly challenging to study to avoid the risk of an accident.
During this course, we will understand the complete system, functioning, logic, mathematics behind the system modeling, equations to create the Model-Based Design, build the model in simulation software, and analyze & tune the system to get the desirable results. 100% hands-on to build the numerical model using the Scilab-Xcos.
Course content
- Introduction
- Cruise System Design Requirements
- Equations representing the system
- Dynamics Related to vehicle
- Controller Design and Equations that governs
- P Controller
- PI Controller
- PID Controller
- Different ways of Representing the System Equations
- Differential Equations
- State Space Equations
- Transfer Functions
- Driver Model
- Equations Governing the Driver Model
- Developing the Cruise Control Model
- Cruise Control Simple Model
- Cruise Control Model with Active Systems
- Results and Analysis
- Future Scope of Work
*** Scilab software installation is mandatory. You will receive a complementary Scilab Xcos course to gain exposure before starting the Cruise control project.
*** Scilab software download and installation instructions are provided in the course.
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Cruise Control System Modeling & Simulation in Scilab
₹3,999.00
Buy Now -
Reach us for any queries - 7411019255 / [email protected]
Sample Certificate
Participants posts on LinkedIn
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Frequently Asked Questions
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Should I have any prerequisite knowledge to learn this course?
The course will be taught from fundamentals with real-world examples & hands-on sessions. It should not be a concern if you do not have prior exposure to programming/software used.
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Should I need a computer?
Yes, you will need a computer to practice.
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How the teaching will happen?
You will get full access to the course upon the completion of payment.
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What should I do, if I get a doubt?
You need to report the doubts/issues over the Discussion box available in the course. The course coordinator will clarify your doubts by replying via the discussion box. If needed, we will arrange meetings with the mentor, to clarify your doubts via Zoom.
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How will I build projects?
Projects will be guided by the mentor with the help of recorded lectures.
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How much time do I have to spend everyday?
We suggest 2 hours per day, an average of 10 hours per week.