
Explore how automation transforms electric vehicles by enabling autonomous driving, smart charging, and automatic braking. See how these features boost safety, convenience, and energy efficiency for future-ready EVs.
Compare electric vehicles with traditional cars by highlighting power source, fewer moving parts, and automation features like regenerative braking and autopilot for smarter charging.
Explore the five levels of vehicle automation from driver assistance to full autonomy, with examples like adaptive cruise control, lane keeping, autopilot, and self-driving taxis.
Discover how EV automation relies on sensors, controllers, and software, using cameras, radar, ultrasonic, and LiDAR to collect data, process it with AI processors, and drive autonomous decisions.
Explore the future of ev automation by examining self-driving progress, wireless and ultra-fast charging, v2g, ai-driven safety and navigation, and sustainable, solar-powered, solid-state battery innovations.
Explore how vehicle sensors, including cameras, radar, LiDAR, ultrasonic, and IMU, enable EVs to detect objects and pedestrians, track lanes, read traffic signs, and support safe autonomous driving.
Explore how cameras enable object detection and lane tracking, while LiDAR creates 3D maps for navigation in electric vehicles. See why combining cameras and LiDAR improves safety.
Explore how radar and ultrasonic sensors measure proximity and distance in electric vehicles, with radar for long-range object detection and collision avoidance, and ultrasonic for parking and low-speed detection.
Real-time data from cameras, lidar, radar, and ultrasonic sensors fuels data collection and processing in electric vehicles, enabling object detection, speed and distance calculation, and safe decision making.
Explore common sensor issues in electric vehicle automation, including camera, LiDAR, radar, and ultrasonic failures caused by dirt and calibration issues. Learn fixes like cleaning, recalibration, and OTA software updates.
Learn how the electric vehicle control system, with multiple ECUs, collects sensor data, processes it, and executes actions like braking, accelerating, and steering to enable automation and adaptive cruise control.
Discover how electronic control units, the brain of the EV, coordinate battery, motor, and autonomous driving systems to enable automation, safety, and efficiency.
Explore how the battery management system (BMS) monitors voltage, current, and temperature, processes data, and automates charging, discharging, and cooling to safeguard EVs and extend battery life.
Explore vehicle to vehicle (V2V) and vehicle to infrastructure (V2I) communication in modern EVs. Real-time data exchange enables collision avoidance, traffic optimization, and safer autonomous driving.
Explore how software powers EV automation, with AI and machine learning improving performance, and algorithms enabling real-time driving decisions, sensor processing, and energy optimization.
Discover how advanced driver assistance systems use sensors, cameras, and artificial intelligence to boost safety and efficiency in electric vehicles with cruise control, lane keep assist, and automatic emergency braking.
Explore the five levels of vehicle automation from L1 to L5 defined by SAE, with examples like ACC and Tesla Autopilot, and how EVs move toward full automation.
See how artificial intelligence enables self-driving EVs to see, think, and act in real time using sensors, LiDAR, cameras, and radar, with machine learning improving safety.
Explore safety concerns in autonomous driving, including unpredictable human behavior, bad weather, and cybersecurity risks, while examining regulations and ai decision making, sensor reliability, and data processing speed.
Explore future trends in self-driving EVs, from level two and three toward four and five, including robotaxis, AI advances, smarter sensors, and connected roads.
Learn how automation and AI optimize EV charging with dynamic power, scheduled charging, and grid-friendly methods, including wireless and robotic charging stations.
Explore wireless inductive charging and robotic charging stations for hands-free electric vehicle charging. See how robotic arms plug in via magnetic fields, weighing convenience against slower charging and costs.
Automation for electric vehicles shows how smart battery monitoring and management extend EV battery life, using BMS, AI analytics, and smart charging to prevent overcharging, overheating, and deep discharge.
Explore how smart grids optimize EV charging, enable two-way energy flow, and leverage solar charging and energy storage to power homes, reduce costs, and protect the grid.
Explore innovations in fast charging with 800-volt systems and solid-state batteries, and the rise of wireless charging and automated robotic charging with AI.
Explore what IoT means for electric vehicles and how connected car technology enables sensors to send data to the cloud, powering remote control, predictive maintenance, and real-time navigation.
Explore telematics and remote monitoring for electric vehicles, learn how GPS tracking and real-time data improve safety, performance, route optimization, and charging efficiency.
Learn how over-the-air updates wirelessly upgrade electric vehicle software automatically via the internet, boosting battery life, navigation, autopilot, and safety features without visiting a service center.
Explore why connected electric vehicles require cybersecurity, how hackers attack EV systems, and how encryption, secure OTA updates, firewalls, and secure charging protect automated systems.
Leverage cloud computing for real-time data storage and processing in EVs to boost automation, AI insights, and remote monitoring.
Explore how automated manufacturing uses robots, AI, and machines to build electric vehicles. See how welding, painting, battery assembly, and quality inspection robots boost speed, quality, and safety.
Discover how smart factories, AI, automation, and sensors boost EV production in Industry 4.0. Learn about predictive maintenance, automated quality control, and digital twins shaping future factories.
Predictive maintenance uses AI and real-time vehicle data from battery, motor, brakes, and tires to prevent breakdowns, save costs, and extend EV life.
Digital twins model electric vehicles in real time to test automation through simulations, enabling faster, safer, and cheaper virtual testing of features and self-driving capabilities.
Boost production efficiency and cut costs in EV manufacturing through AI-driven automation and digital twins. Improve sustainability by reducing waste and energy use with smart factories and recycling efforts.
Explore how Tesla leads in EV automation with Autopilot and self-driving, over-the-air updates, and AI-powered battery management. Examine robotics and AI in Tesla's smart factories and future robotaxi plans.
Explore Waymo's autonomous ride sharing and driverless taxis, detailing how AI, LiDAR, cameras, radar, GPS, and machine learning power safe navigation and the future of robotaxi mobility.
Explore how AI and machine learning make EVs smarter and more efficient, with real-world examples of self-driving, battery management, charging, and maintenance.
Explore how EV automation, AI, and smart technologies shape electric vehicles, covering sensors, smart charging, cybersecurity, and career opportunities across software, hardware, and AI roles.
The future of mobility lies at the intersection of electrification and automation. This course is designed to give you a strong foundation in how automation technologies are transforming electric vehicles (EVs) into smart, safe, and autonomous machines.
You will start with the basics of EV systems and progress into advanced topics like driver-assistance systems (ADAS), autonomous driving levels (SAE 0–5), sensors & perception (LiDAR, radar, cameras), vehicle-to-everything (V2X) communication, and AI-based control algorithms. Along the way, you’ll explore battery management integration, real-world case studies, and industry trends shaping the next generation of mobility.
By the end of this course, you’ll have a clear understanding of the key automation technologies in EVs, how they work together, and what challenges and opportunities they create for engineers, researchers, and businesses.
Whether you are a student, engineer, researcher, or EV enthusiast, this course will equip you with the knowledge to confidently engage with the rapidly growing field of automated electric vehicles.
Practical takeaways:
Learn how EV automation works step by step.
Understand real-world applications and challenges.
Get insights into the future of autonomous EVs.
Who this course is for
Engineering students (electrical, electronics, mechanical, automotive, or mechatronics) who want to build skills in EV automation.
Professionals in the automotive or EV industry looking to upskill in autonomous driving and smart mobility technologies.
Researchers and academics interested in exploring automation integration with electric vehicle systems.
EV enthusiasts and hobbyists curious about how self-driving and automation technologies work in electric cars.
Entrepreneurs and startups aiming to understand automation opportunities in the EV market.
Anyone passionate about the future of sustainable and intelligent transportation.