Until recently, self-driving cars were just an ambitious idea, unlikely to happen. Today, it’s our reality. Of course, they are still not a common sight on the roads, but the technology is ready to use. Self-driving cars have become possible thanks to a number of AI-related technologies, primarily deep learning and computer vision. What do you need to know about AI in self-driving cars — and about AI in the automotive industry more broadly?
KEY TAKEAWAYS
First off, let’s talk about the basics. Artificial intelligence has been present in modern cars for some time now. It all started with smart driver’s assistants that monitor the vehicle’s surroundings and support the driver or alert them in case of an emergency or an accident risk. Such systems allow drivers to benefit from solutions such as:
But that’s just the beginning. We are all used to these intelligent assistants, as they’ve become common, especially in top-of-the-line cars. Today, advanced AI solutions for the automotive industry support not only autonomous driving but also vehicle safety, predictive maintenance, quality control, and data-driven manufacturing. Let’s go further because we now have the technology needed to make self-driving cars increasingly autonomous — and to bring AI into nearly every corner of the automotive industry.
According to a report by Global Market Insights Inc, the value of the automotive AI market is on a steep growth curve:
Self-driving is the most visible application of AI in cars, but it’s far from the only one. Across the wider automotive industry, AI now touches nearly every stage of a vehicle’s life — from design and manufacturing to the driving experience and after-sales service. Here are some of the most impactful AI use cases in the automotive industry:
Almost 125 million drivers in the US use voice control technology in vehicles today, letting them place hands-free calls, get directions, control in-car temperature, find parking, and operate infotainment systems without touching a button.
Facial recognition uses AI to identify a driver’s facial attributes and decide whether to grant access — car manufacturers like Porsche and Hyundai use it to unlock vehicles, while Land Rover and Jaguar use it to automatically adjust AC, lighting, and radio stations based on the driver’s detected mood.
AI-based algorithms and cloud computing let manufacturers explore many permutations of a part design at once. General Motors, for instance, used generative design to create a seat bracket that’s 40% lighter and 20% stronger than the original, while merging eight separate parts into a single 3D-printed component.
AI-driven computer vision systems can visually inspect machined components, painted car bodies, and metal surfaces with a level of consistency human inspectors can’t match. Audi, for example, uses computer vision to catch small fissures in sheet metal before defective parts ever leave the factory — reducing the risk of costly recalls.
AI has brought a new generation of robotic solutions — collaborative bots, or “cobots” — to work safely alongside humans on the assembly line. These robots learn from human actions, adapt to changing environments, and use sensors to avoid collisions, speeding up production while reducing workplace injuries.
Computer-vision-powered in-cabin cameras can monitor a driver’s eyes and behavior to detect fatigue, distraction, phone use, or an unusually low blinking rate — Tesla is a well-known example — and alert the driver to pull over before a mistake turns into an accident.
AI analyzes sensor data and service records to flag potential mechanical problems before the “check engine” light ever turns on, helping avoid safety hazards and expensive last-minute repairs — both for individual drivers and for entire manufacturing plants.
A typical car is built from thousands of parts sourced from manufacturers around the globe. AI improves speed, transparency, and predictive accuracy across that supply chain — automating requests for components, tracking shipments in real time, and forecasting manufacturing downtime before it causes costly disruptions.
Car dealerships increasingly use AI to gather customer data across search engines, websites, apps, and social media, then narrow it down to the specific make, model, and features a given customer is most likely to want — making recommendations more relevant and sales conversations more targeted.
Beyond the factory floor, AI is reshaping how vehicles get designed and built in the first place. Engineers can now run simulations and virtual modeling instead of relying purely on physical prototypes, shortening development timelines. Manufacturers also use AI to mine the vast amounts of production data they generate — informing better decisions on production strategy, resource allocation, and process improvements, often with the help of dedicated data engineering practices to keep that data clean, structured, and usable.
Self-driving cars have become possible primarily thanks to computer vision and deep learning. Computer Vision (CV) uses high-resolution cameras and lidars that detect what happens in the car’s immediate surroundings. As a result, car systems can react to possible obstacles and avoid accidents. Of course, CV is not enough. You also have to teach car systems how to drive according to traffic rules. And this is where machine learning, backed up by deep learning, steps into the game.
Deep learning is one of the most advanced AI technologies that works similarly to the human brain. Every piece of data (concerning self-driving cars, we talk about data received by the vehicle’s sensors) goes through the multi-layered neural network, enabling analyzing images in a much more comprehensive way. This solution allows carmakers to achieve a much higher level of complexity and accuracy. In effect, self-driving cars are really smart and can operate even in congested cities.
AI-powered technologies behind autonomous vehicles typically combine natural language processing, deep learning neural networks, and gesture control features — acting as the “brains” behind self-driving cars, with or without a human driver on board. Tesla is a good example: its autopilot neural network handles everything from path-planning to identifying entities on the road to avoid crashes, and the autopilot feature has become one of the most recognizable parts of the Tesla driving experience.
Self-driving cars are a huge milestone not just from the technological standpoint but also from the operational point of view. You see, these vehicles have everything it takes to accelerate and facilitate our everyday work.
With self-driving cars:
Of course, we’re not saying here that autonomous vehicles are already in common use. This is still a project in the making, partly due to legal regulations in many countries, which forbid autonomous vehicles from driving on public roads. However, it’s just a temporary complication. As technology is growing and becoming more prevalent, the law will have to keep up with these changes.
These operational gains extend across the wider automotive industry too, and they’re backed by real numbers:
Maintaining these gains at scale usually means keeping AI models running reliably in production — which is where solid MLOps practices make the difference between a promising pilot and a system manufacturers can actually depend on day to day.
To show you that this technology is at hand, we’ve chosen three tremendous examples of autonomous vehicles with AI in action. For the sake of this article, we focused strictly on cars. Therefore, there are no drones and other self-steering vehicles/devices.
Here we go:
It’s a US-based company that’s working on the world’s first autonomous ride-hailing service and autonomous trucking and local delivery solutions. They want to develop an autonomous driving system that’s capable of replacing the human driver altogether. Such a system could be applied both in passenger cars and trucks. Waymo based their solution on a network of radars, lidars, and cameras.
Their systems are capable of detecting:
Today, Waymo works with such car makers as Jaguar, Volvo, and Daimler Trucks in order to develop their solutions even further and put them in other vehicles.
That’s another company working on AI self driving cars. Did you know that it was in 2015 when for the very first time, a BMW car (i3 to be exact) parked itself in a parking garage? Three years later, BMW opened their Autonomous Driving Campus, where they are working on self-driving vehicles. This campus allows BMW to keep all the research and development within one facility, making their work quicker.
In June 2021, official information was released that autonomous buses produced by the Aurrigo company will be operating on the streets of British Cambridge. These vehicles are currently in the final testing phase, and soon users will be able to use public transport, the operation of which will be based on AI and ecology. You can see Aurrigo’s buses in action even today.
Tesla is an automotive company synonymous with electric vehicles and one of the most visible examples of AI in the automotive industry at large. The company implements artificial intelligence technologies in its electric cars to turn them into autonomous vehicles and enhance the driving experience — the autopilot feature, in particular, made Tesla the fastest-growing brand worldwide in 2021. Drivers can switch to autopilot mode when they feel tired or dizzy and benefit from the advanced driver assistance system, while in-cabin cameras simultaneously monitor the driver for signs of fatigue.
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The automotive industry is on the brink of a transformative era, driven by advancements in technology and changing consumer preferences. As electric vehicles (EVs) gain traction, the market for EVs is expected to grow significantly, with projections indicating that global EV sales will reach 30% of total vehicle sales by 2030.
This shift is not only about electrification; it encompasses the rise of autonomous vehicles and the integration of artificial intelligence — machine learning included — into nearly every automotive process, from the assembly line to the dashboard.
AI in self-driving cars is really just the most visible part of a much bigger shift happening across the automotive industry — from predictive maintenance on the factory floor to voice assistants and driver-monitoring cameras inside the car itself. Companies like Waymo, Tesla, BMW, and Aurrigo show that autonomous driving is no longer a distant idea, and the numbers back it up: an automotive AI market heading toward $35.71 billion by 2033, with autonomous vehicles expected to make up 10-15% of new car sales by 2030.
Getting there safely and cost-effectively rarely comes down to picking one flashy feature — it depends on getting the underlying AI strategy right from day one. That’s where working with an experienced AI consulting partner makes the difference between an interesting pilot and a system your business can actually rely on at scale.
The article is an updated version of the publication from Jul. 16, 2021.
References
Here are the types of data used by engineers for self-driving cars:
Yes, they can be hacked because they use complex technology. It is recommended car makers protect against different hacking methods, such as tricking the car’s sensors or attacking the car’s software. Also, the cars need regular software checks to prevent hacking.
AI algorithms used in self-driving cars include supervised learning algorithms for tasks like object and lane detection, and unsupervised learning algorithms for tasks such as anomaly detection and clustering. Some popular machine learning algorithms employed in self-driving cars are AdaBoost for data classification, TextonBoost for object recognition, Histogram of Oriented Gradients (HOG) for detecting objects like pedestrians and vehicles, and YOLO (You Only Look Once) for real-time object detection.
AI is transforming the automotive industry by enabling advancements in autonomous driving, enhancing manufacturing processes, and revolutionizing the in-car experience. Through AI, car manufacturers can improve operational efficiency, safety, and the overall quality of vehicles, while creating new business models centered around technology-driven solutions.
AI enhances safety both on the production line and in vehicles themselves. In manufacturing, AI-driven cobots reduce workplace injuries, while AI quality control systems ensure vehicles meet high safety standards. On the road, AI supports advanced driver-assistance systems (ADAS) such as emergency braking, lane-keeping, and driver-monitoring technologies to prevent accidents and enhance overall driving safety.
Yes, AI enhances the driving experience, for example, by powering voice assistants and facial recognition systems within vehicles. These technologies allow drivers to issue voice commands for hands-free controls or access secure systems through facial recognition. Additionally, AI can customize in-car features—such as temperature, lighting, and seat positioning—based on user preferences.
AI improves automotive supply chain management by providing real-time tracking, predictive analytics, and automated demand planning. AI-driven tools streamline logistics, prevent supply chain disruptions, and reduce costs. By predicting demand more accurately, car manufacturers can ensure that components are available when needed, supporting efficient production.
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