
Discover integrated system of systems simulation that connects od, 1d, and 3d core simulations for driverless vehicles, hosted by Altair and presented by Manish K.V.
Explore the virtual system level modelling connecting multiple physics to build the complex vehicle. Further, build virtual controls systems for various technologies like obstacle detection, cruise control, collision avoidance and emergency braking etc.
Utilize the flexibility by connecting with virtual reality engines like Unreal engine, Carla. Validate various scenarios in Carla which is an autonomous driving research engine.
Data analytics and machine learning are now an integral part of autonomous vehicles as self-driving cars need the human brain and eye.
Explore AI/ML starting from easily prepping the data from any source, developing models to production and process massive data generated over the tests.
Apply a wide array of engineering for antennas: from design to placement to communication.
Accurately simulate radar antenna design & integration aspects, including radome, bumper effects and a solution for ultrasonic sensors.
Explore 5G Antenna design and placement, 5G wave propagation models and ray-tracing for the next generation connectivity.
Apply a full environment including buildings, cars and street objects to get accurate representations of the radio waves impinging on the antennas and the multipath radar channels including reflections, diffractions and scattered contributions.
Allow realistic and fully reproducible evaluations of different options for the antennas and sensors including their integration and configuration.
Explore embedded system design and open vision for ADAS, focusing on image and video processing for driverless cars within a model-based development framework.
Design, analysis and algorithm development for image and video processing, and real time implementation .
Develop OpenVision applications including Lane detection / tracking, object detection, avoidance, lane keep assistance and many others.
Automatic Code generation and deployment on Microprocessors like Rasberry Pi and AMD64.
Electrical and Electromechanical device simulations using Altair Flux.
Learn virtual development using CFD for autonomous vehicle design improvement.
Advanced structural analysis and optimization.
Efficient product development with simulation driven rapid design.
Introduction to Typhoon HIL Technology
Basic Simulation
Basics of EV
Modelling of Electric Vehicle schematic using signal processing library
Modelling of Electric Vehicle SCADA panel using advanced SCADA library widgets.
Modelling & simulation of ubiquitous propulsion system for unmanned vehicles in schematic environment.
Preparation of the SCADA panel of unmanned vehicle.
ROS Basics with Python/C++.
How to construct a Autonomous Driving software stack using ROS.
Visual & Lidar Odomtery
Explore mapping and localization in autonomous driving, presented by Atmakur Sunil and Srinivasa Reddy Ravishankar of Bosch, with odometry and ADAS industry insights.
Mapping & Localization (Theory) + SLAM using 2D LiDAR
Introduces sensor fusion for autonomous driving and level four automated driving vehicles, covering fusion techniques and state estimation, with a two-day workshop including a hands-on session.
Concepts
Basic implementation using Open Source data.
Creating 3D environments for testing and validating the performance of automated driving algorithms.
Explore virtual cone detection for formula student driverless racing with Matlab, covering data labeling with bounding boxes, deep network training, and deploying the model to CPU and GPU for real-time detection.
Identifying and tracking traffic cones using computer vision techniques.
Explore path planning and trajectory control for autonomous vehicles in this Formula Driverless Workshop session hosted by MathWorks, presented by a MathWorks student program application engineer.
Developing algorithms to plan and control the paths of autonomous vehicles.
Discover how MATLAB and Simulink licenses, books, and competitions empower students to design autonomous controllers, using ROS with MATLAB/Simulink, and explore ROS and ROS 2 workflows through demos.
Explore Ada simulation using the virtual test drive tool to understand real-world environments and Hexagon’s role in enabling autonomous mobility through virtual worlds.
Overview of Vires VTD
Creation of a Real-world environment
Dynamic environment and simulation
Sensor placement and integration
VTD ADAS applications
VTD – ADAMS integration
Explore velocity estimation for autonomous racecars within the perception-slam-planning-control pipeline, including Kalman network approaches, and adaptive velocity planning with TGV/GVT diagrams to improve lap times.
Discover how Ignition Hamburg manages a 60-member driverless racing team and showcases autonomous steering actuation in the online Formula driverless vehicle workshop.
Explore how to manage an interdisciplinary, resource-constrained driverless vehicle project, aligning goals, project plans, and team structure to deliver sustainable, reliable autonomous steering actuation.
Explore the autonomous software stack for Formula Student Driverless, from perception to control, following sense-think-act on a static cone-marked track, emphasizing reliability.
Autonomous Driving
AD Levels
AD Features & Examples
What is HMI
HMI in present Cars
HMI across different car segments
Required mats and design of the HMI Units
Explore the role of vehicle integration in autonomous vehicle development, as Mercedes Benz engineers explain bridging Formula Student roles to industry and preparing students for corporate teams.
Automotive product development cycle
Role of Vehicle Integration
Major Components for Autonomous Driving
Use Cases/ Examples
Are you struggling to understand the complexities of driverless vehicle? Are you finding it challenging to design a compliant autonomous driving system? Are you finding it difficult to efficiently plan and manage your autonomous vehicle project? This course is here to eliminate those concerns.
What You'll Learn:
Advanced data analysis and AI/ML, Radar antenna design and implementation, ADAS, Advanced simulation to assist DV development.
Path Planning and trajectory control with visual cone detection, Getting started with ROS.
Real-time simulation using Typhoon HIL.
Simultaneous Localization and Mapping (SLAM) and Sensor Fusion.
Creation of Real-world environment in simulations.
Understanding modern time autonomous technology, cybersecurity, functional safety, deep learning and computer vision algorithm.
Experience of FS Teams.
Various available software for driverless.
Course Highlights:
Understanding Autonomous vehicles with the technology used in the current world.
Comprehensive coverage of Engineering used in the development of Autonomous Vehicles on software stack, including -
- Data analysis and Machine learning
- ADAS Radar sensor and Communication Antenna
- Simultaneous Localization and Mapping (SLAM)
- Real-time simulation using Typhoon HIL
- ROS and Sensor Fusion
- Modern day autonomous vehicle technology
Program Basis: The course contains sessions from industrial experts working in automobile and autonomous systems. This course does not contain any rule adaptation of the formula student driverless category
Course Outcome: By the end of this course, you will be able to develop your software stack for autonomous vehicle using various tools and software.