---
title: "Electric Vehicles May Soon Run Entirely on Solar Power"
url: https://newscentral.site/electric-vehicles-may-soon-run-entirely-on-solar-power/
language: en
publisher: "News Central Site"
section: "Science"
published: 2026-10-09T16:00:00.000Z
updated: 2026-10-11T14:56:13.300Z
id: 907fa735-8e6f-40bd-8f22-908e0f7ceb31
source: "Live Science https://www.livescience.com/technology/electric-vehicles/self-driving-solar-powered-cars-that-talk-to-each-other-what-vehicles-might-look-like-in-10-years"
attribution: "Link to https://newscentral.site/electric-vehicles-may-soon-run-entirely-on-solar-power/ and name News Central Site when you quote or summarize this story."
---

# Electric Vehicles May Soon Run Entirely on Solar Power

Aptera's prototype car, unveiled in 2024, showcases the potential of solar power in electric vehicles.

Imagine embarking on a road trip across the country in 10 years' time. The thought of what vehicles might look like by then is an intriguing one.

As you set off, your electric vehicle charges up quickly and then runs on solar power generated from its specially treated paint. This means you can enjoy the scenic views without worrying about running out of juice.

Your journey is likely to be a smooth one, with minimal need for manual input from you. Your hands will barely touch the wheel, and your foot won't have to press the pedals as frequently.

The roads ahead are likely to become increasingly connected, with vehicles able to communicate with each other in real-time. This could lead to fewer accidents and smoother traffic flow.

One of the key benefits of this technology is that it allows cars to anticipate potential hazards and adjust their speed accordingly. For instance, if a car up ahead brakes suddenly, your vehicle will be aware of it and slow down before you even need to touch the brake.

The benefits don't stop there - as your car harvests excess energy from its solar paint, it can sell this back to the grid when you're parked for the night. This could potentially earn you some extra income on top of your usual fuel savings.

As the world becomes increasingly connected, it's likely that cars will become more than just modes of transportation - they'll be part of a larger ecosystem that interacts with its surroundings in innovative ways.

Aptera's prototype car unveiled in 2024 showcases the potential of solar power in electric vehicles. The car is equipped with solar panels on its hood, roof, dashboard, and hatch, allowing it to travel approximately 40 miles per day solely on sunlight.

This distance is significantly more than the average American drives daily, highlighting the potential for solar-powered cars to reduce reliance on traditional fuel sources. Furthermore, Aptera's vehicle can also cover up to 400 miles on a standard electrical charge.

Some manufacturers are exploring alternative designs that integrate solar panels seamlessly into the vehicle's bodywork. This approach could lead to more efficient energy harvesting and reduced visual impact of the panels.

Mercedes-Benz has been researching photovoltaic paint that converts sunlight into electricity for electric cars. The company estimates that in sunny cities, this paint could generate enough energy to power a car for nearly 7,500 miles per year.

The paint contains tiny particles that convert about 20% of sunlight energy into electricity, comparable to the efficiency of existing solar panels. This innovative technology has the potential to revolutionize the way electric vehicles are powered.

In addition to generating energy, electric vehicle owners could also sell excess power back to the grid during peak hours when demand is high and prices are higher. Standardized software programs already exist to manage EV charging speeds during peak hours.

However, there is currently no standard method for cars to communicate with the grid about when and how much energy to discharge. This issue needs to be addressed by individual manufacturers to enable seamless energy exchange between vehicles and the grid.

A key challenge in achieving seamless energy exchange between vehicles and the grid is the need for standardized protocols that enable communication between electric vehicles (EVs) and charging stations.

For this to happen, every EV manufacturer must incorporate a specific protocol into their vehicles, adhering to its full specifications and making it available for use by charging vendors and other parties.

This would allow cars of the future to do more than just interface with the electrical grid; they could communicate with various infrastructure and other vehicles to optimize traffic flow and prevent accidents.

Vehicle-to-everything (V2X) technologies, which enable cars to interact with their surroundings, are already being developed for use in future vehicles.

These systems would allow cars to exchange data with nearby vehicles and infrastructure using short-range radio signals, warning drivers of potential hazards such as oncoming traffic or pedestrians that may be difficult to see.

One example of V2V technology is the system used by some modern cars today, which can alert other vehicles in the vicinity of a car's speed, direction of travel, and braking patterns through radio signals that can travel up to 1,000 feet (300 meters).

This could help reduce traffic collisions by warning drivers about potential hazards they may not be able to see, such as another car speeding towards an intersection or approaching around a bend.

Despite its potential benefits, V2V technology is currently limited in its practical utility due to the fact that not all cars are equipped with this feature.

As autonomous driving technology advances, it is likely that many cars on the market by 2035 will be equipped with features that enable fully automated driving in certain situations within designated service areas.

According to estimates, around 4% of vehicles on the road could have these capabilities in a decade's time. This means drivers will still have control over their vehicles under normal circumstances but can hand over responsibility to the car in specific situations where it is safe and practical.

Mercedes-Benz has already taken steps towards integrating autonomous driving technology into its consumer cars, introducing its Drive Pilot system for two of its models in 2022. This advanced feature allows drivers to temporarily relinquish control to their vehicle during heavy traffic on certain roads.

On German Autobahn highways and selected freeways between major US cities such as Los Angeles, San Francisco, and Las Vegas, the system enables drivers to engage in other activities while the car handles steering and speed adjustments.

As artificial intelligence models used for autonomous driving continue to improve, they will become better equipped to handle unusual scenarios on the road. This means that vehicles will be able to respond more effectively to unexpected events such as pedestrians suddenly stepping into a crossing or navigating through flooded roads.

With advanced AI systems, cars may develop reasoning abilities that enable them to make decisions in complex situations where current technology falls short. For instance, they could assess potential hazards and adjust their driving accordingly.

Autonomous vehicles will also be able to track drivers' attention levels and alert them with sounds, lights, or tactile feedback when their focus wavers. This feature is expected to become more widespread in the coming years as manufacturers strive to improve road safety.

As AI technology advances, it's likely that we'll see a gradual shift towards increased automation on our roads. With each passing year, vehicles will be able to handle more complex situations and take greater control of driving duties from their human counterparts.

The integration of autonomous driving features into mainstream cars is expected to lead to improved road safety, reduced traffic congestion, and enhanced overall transportation experience for drivers. However, widespread adoption still faces significant technical and regulatory hurdles before it becomes a reality.

The technology that enables vehicles to monitor their drivers' state is based on systems that use cameras and software to track head position, eye movement, and steering-wheel input.

This information helps ensure drivers are focused on the road even when they're using features like lane centering, allowing for a safer driving experience. The technology also has the potential to expand its capabilities, monitoring drivers for signs of fatigue or alcohol impairment.

If a driver is deemed to be in an impaired state, the vehicle's systems could adjust their behavior accordingly. This might involve deactivating certain features or altering how they operate based on the driver's condition at that moment.

Proposed legislation suggests that this technology may become mandatory in new vehicles as early as 2027, but several hurdles must still be overcome before its widespread adoption can occur.

Among these challenges are technological obstacles and concerns over data privacy and the potential for false positives. These issues could slow or even halt the implementation of such systems.

The technology has the potential to assist drivers who become unable to safely operate their vehicle, whether due to falling asleep or experiencing a medical emergency. In such cases, the car's systems can intervene by sending alerts or taking control of the vehicle if necessary.

If a driver is deemed to be unresponsive to these cues, the vehicle might activate its hazard lights and come to a stop. Some manufacturers are already incorporating this technology into their vehicles, with Volkswagen making it available in all new models from 2025 onwards.

In addition to personal cars, highly automated services will become more prevalent as rideshare vehicles in major metropolitan areas. In some cities, commuters rely heavily on autonomous vehicles provided by companies like Waymo.

These companies are rapidly expanding their services, with Waymo announcing plans to enter over 20 new locations beyond its current dozen cities. Other firms, such as Nuro and Volkswagen's MOIA, are testing their vehicles in human-driven environments before launching full public service.

Autonomous vehicles rely on a combination of preloaded maps and real-time data from various sensors to navigate their surroundings. These sensors include high-resolution cameras, radar, lidar, and visual data collected by onboard computers that build a 3D map of the environment.

The cost of these advanced sensors is currently a significant barrier for consumer adoption, but manufacturers are making them more affordable as production scales up. This enables autonomous vehicles to anticipate the behavior of other cars and pedestrians on the road, using AI models trained on both common and unusual driving scenarios.

Developing high-resolution maps, however, remains a time-consuming process that involves equipping a car with advanced visual sensors and lasers, then driving it through the area to be mapped. This is one reason why autonomous rideshares are not yet widely available.

Despite these challenges, researchers continue to refine their approaches to navigating complex city environments where unexpected stops and pedestrian behavior can create complexities.

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Source: [Live Science](https://www.livescience.com/technology/electric-vehicles/self-driving-solar-powered-cars-that-talk-to-each-other-what-vehicles-might-look-like-in-10-years)  
Published by News Central Site: https://newscentral.site/electric-vehicles-may-soon-run-entirely-on-solar-power/