How AI and AVs are interconnected?

Artificial Intelligence and Autonomous Vehicles, i.e. AI and AVs are interconnected in various ways, providing the necessary intelligence to make decisions and take actions based on the data collected by the vehicle’s sensors.

An autonomous vehicle is equipped with AI-based control and functional systems, such as steering control, acceleration by pedal engine, voice and speech recognition, brake pedal control, eye tracking, safety systems, gesture controls, economic fuel, and other driving assistance or monitoring systems.

According to expert reports, in the AI competition focused on investment and research as technology moves into deployment, the regulatory environment can be a source of advantage. AI advancements simulate the development and deployment of AVs in the transportation industry.

Artificial Intelligence plays an important role in the development of Autonomous Vehicles (AVs). Some examples of AI applications in AVs are:

1. Path Planning: AI algorithms plan the trajectory of the vehicle based on sensor data, considering various factors such as traffic, road conditions, and weather to determine the optimal path for the vehicle.

2. Perception: AVs use a variety of sensors, such as cameras, LiDAR, and radar, to perceive their environment. AI algorithms are used in the process to analyze sensor data and identify objects such as pedestrians, other vehicles, and obstacles.

3. Decision-Making: The AV, in its environment, needs to make decisions based on this information, such as when to change lanes, when to brake or accelerate, and when to run.

4. Voice and Speech Recognition: AVs use voice and speech recognition technology to interact with passengers, allowing passengers to control various functions of the vehicle using voice commands.

5. Gesture Controls: AVs use gesture controls to allow passengers to interact with the vehicle without touching any buttons or screens. For example, a passenger can wave their hand to adjust the temperature or change the radio station.

6. Eye Tracking: Some AVs use technology to monitor the driver’s attention level. If the driver is not paying attention to the road, the AV can take control of the vehicle.

7. Safety Systems: AVs are equipped with various safety systems, such as collision avoidance systems and lane departure warning systems. These systems use AI algorithms to detect potential hazards and warn the driver or take control of the vehicle.

8. Economic Fuel: AI algorithms are used by AVs to optimize fuel consumption by adjusting factors such as speed and acceleration.

Artificial Intelligence plays an important role in improving the safety of Autonomous Vehicles (AVs). Some examples include:

1. Collision Avoidance: AI algorithms detect potential collisions and take appropriate action to avoid them. For example, an AV can apply the brakes or steer away from another vehicle if a collision is imminent.

2. Lane Departure Warning: AI algorithms detect when an AV is drifting out of its lane and warn the driver or take corrective action.

3. Pedestrian Detection: AI algorithms are used by AVs to detect pedestrians and other objects in their path, allowing them to slow down or stop if necessary to avoid hitting pedestrians.

4. Adaptive Cruise Control: AI algorithms used by AVs help maintain a safe distance from other vehicles on the road, preventing accidents caused by sudden stops or changes in speed.

5. Emergency Braking: AI algorithms in AVs detect emergency situations and apply the brakes automatically if necessary. For example, if an AV detects that a pedestrian has suddenly stepped into the road, it applies the brakes to avoid hitting them.

6. Improved Decision-Making: AI algorithms used by AVs enable them to make decisions based on sensor data and other information, making more informed decisions than human drivers and helping to prevent accidents.

The promising examples of companies successfully implementing AI to enhance the power of automated driving features and progressing towards fully self-driving vehicles are: –

  • Waymo- The Google self-driving car spin-off company has driven over 20 million miles on public roads with an automated driving system, widely recognized as among the leaders in the industry.

As per the Verge, the only company with a fully driverless commercial taxi service available to the public in Phoenix, Arizona. Waymo uses neural nets and other AI for interpreting sensor data and plan routed and actions. The safety record is impressive during testing with limited autonomous mode accidents.

  • Tesla: With driver supervision, logged billions of miles driven with their Autopilot advanced driver assistance feature enabled. The AI and computer vision software helps with functions such as automatic steering, lane centering, braking, and sign detection on highways.

As per electrek reports, Tesla has been subjected to crashes involving overreliance on Autopilot. It is working to address safety issues and release a full self-driving software update soon.

  • Mercedes Benz: The 2024 S-Class and new EQS sedan include Drive Pilot, a level 3 conditional automated driving system for use on highways up to 40 mph.

As per Motor Trend, it uses lidar, radars, cameras and AI to fully take over driving tasks such as steering, braking, lane changes, while it requires drivers monitoring in case of intervention is needed.

The challenges are significant around predictability, safety validation, and policies, the deployments in the real world demonstrate the meaningful progress of implementing AI for enabling self-driving functionality.

Let’s look at the potential limitations in the deployment of AI in AVs: –

  • Technology Maturity- Its not hard to guess. Despite impressive advances, AI and self-driving systems are not ready yet for a full autonomy in complex environments.

As per the reports by Rand, a 2002 IEEE survey of over 200 leading researchers’ projects were won’t able to achieve SAE level 5 full self-driving capability until at least 2035.

  • Validation Complexity- A safe assured autonomous vehicles are extremely a high reliability standard with complex issues. At least billions of test miles drives and trillions of simulations are needed for an acceptable failure rate compatible with public deployment.
  • Policy Hurdles- As per Brookings, in the early stages of developing appropriate regulations and infrastructure, enables safe integration of autonomous vehicles. The policy issues, reliability towards privacy and licensing are delaying the deployment.
  • User Trust Deficits- High profile crashes undermined public confidence and acceptance of self-driving technology have experience benefits at first-hand.

AI and automation are profoundly impacting transportation, cutting-edge innovation into safe, trusted real-world deployment remains filled with complex multi-disciplinary challenges. A responsible way of communication and development is needed for transparency around limitations.

In summary, AI is an important enabler of AVs, improving safety by detecting potential collisions, warning drivers of lane departures, detecting pedestrians and other objects in their path, and maintaining a safe distance from other vehicles on the road by applying emergency brakes when needed.

Sources:- Embedded, IEEE explore, Hindawi, weforum, denver south, Tech Bullion, IEEE Journal of Automatic, CSIS

Leave a comment

This site uses Akismet to reduce spam. Learn how your comment data is processed.