Tesla's Blueprint for Autonomy: Redundancy, Teleoperators, Hubs

By Karan Singh
Not a Tesla App

Tesla’s ambitions extend far beyond electric vehicles, with the company recently saying its goal is sustainable abundance. However, solving vehicle autonomy and deploying a large-scale Robotaxi network are key steps toward that goal.

Today, FSD Supervised offers a glimpse into what an autonomous vehicle will be capable of, but the journey to truly autonomous vehicles involves several interconnected pillars that are in development.

The FSD Journey

The foundation of Tesla’s ambitions is in FSD, which has been on a long, iterative journey. The end goal for FSD is to power both autonomous vehicles, as well as Optimus, Tesla’s humanoid robot.

FSD’s journey began with FSD Beta, an initial phase of real-world testing and extensive data gathering with real users. The first batch of users were influencers on Twitter and YouTube. Tesla eventually opened up FSD Beta to more owners with their Safety Scores in the United States, and then the program rolled out to Canada. Shortly afterward, the Safety Score requirement was removed, and Tesla offered FSD Beta to anyone who purchased FSD or subscribed to FSD. This process took place over several years.

In Spring of 2024, Tesla removed the Beta label and formally introduced FSD (Supervised). FSD Supervised dropped the vast majority of Tesla’s hand-written code and adopted an approach that relied on end-to-end AI networks. This was an important architectural shift, where AI took over most input and output, meaning that AI was controlling the brake and accelerator for the first time.

With the launch of FSD v12.5, FSD also became a hands-free experience with vehicles with a cabin camera. The steering wheel nag was finally gone.

FSD Unsupervised

Now, Tesla is focused on the Robotaxi - with the ultimate objective of deploying a functional version of FSD (Unsupervised). Tesla is already using FSD Unsupervised for logistical tasks, such as moving vehicles from the production line to the outbound delivery lots at Fremont and Giga Texas. 

Tesla has also been testing FSD Unsupervised in California and Texas, albeit with safety drivers - ahead of the upcoming launch of the Robotaxi Network in Austin. While some reports from analysts like Adam Jonas have mentioned that Tesla intends to remotely supervise the fleet with teleoperators, we expect that the teleoperation will be limited to getting vehicles out of precarious situations and evaluating fleet performance.

FSD’s entire evolutionary process is fuelled by the vast amounts of data gathered from millions of Tesla vehicles on the road, enabling the AI to continuously learn and improve from an unparalleled diversity of real-world encounters. Tesla takes massive swathes of data and then automatically annotates them with key labeling parameters to prioritize for its learning suite.

Computational Hardware

Training and executing these increasingly sophisticated AI models demands immense computing power, both within the vehicles themselves and within Tesla’s growing data centers. In the car, FSD hardware has jumped from HW3 to the current AI4. 

However, with V13 already pushing AI4 to its limits due to the increasingly intensive demands of larger and more complex AI models, the upcoming AI5 hardware is expected to further improve in-vehicle processing by increasing memory and compute power. That’s not to say AI4 won’t be able to achieve autonomy, but AI5 is expected to be safer in the long term due to its increased processing power.

Parallel to in-vehicle hardware is Tesla’s multi-billion dollar investments in its own supercomputing infrastructure. This includes Dojo, Tesla’s custom-built supercomputer specifically designed for machine learning and processing massive amounts of video data. Alongside the still-in-prototype phase Dojo, Tesla has already deployed Cortex 1.0 on the south side of Giga Texas, with Cortex 2.0 just recently announced for the north side. These two facilities are both large-scale GPU clusters and will be responsible for FSD development for the foreseeable future.

Everything Needed for a Robotaxi Network

For a Robotaxi service to be successful and widely adopted, the experience from opening the app to stepping out at your destination must be as seamless as possible for users and highly efficient for fleet operations. This necessitates building an entire ecosystem around the autonomous vehicle and the network.

A core component of this will be inside the Tesla App, in the Robotaxi section. We’ve previously seen some glimpses into the details, including user interaction, ride-hailing, and managing journey preferences. 

Minimizing human interaction and maximizing fleet uptime is key. Robotaxis must be able to sustain themselves effectively - and wireless charging is Tesla’s go-to solution. With the addition of wireless charging to V4 Superchargers in the future, Unsupervised autonomy will be able to expand even further than the current limits - which are based around network hubs that provide two key services - charging and cleaning.

That second key service - cleaning - is another big item. Users won’t mind a less luxurious vehicle if it’s cheaper, but it needs to be clean. Tesla has already shown off its robotaxi cleaning robot, which will be deployed at those network hubs. While this may seem like an ideal job for Optimus, Tesla needs to get its network rolling today - and a single robotic arm specialized to the task could be cheaper and faster than employing a humanoid robot. Although, you can bet that Tesla is already thinking about Optimus for such a role in the future.

Beyond the user-facing aspects, Tesla will need to have a sophisticated fleet management and operational logistics hub. For Tesla, this means intelligent dispatch algorithms, utilizing real-time fleet monitoring, predictive scheduling for times of use, charging, and maintenance, as well as a degree of teleoperation or supervision for critical incidents.

The Vehicle

The physical vehicle itself is, of course, a critical element in this entire plan. The vehicle itself needs specific attributes that can enable safe and reliable autonomous operation. Tesla has remained steadfast in their vision-only approach, and have demonstrated that processing data from cameras, much like the human eyes, is the most scalable path to achieving general autonomy.

For Unsupervised autonomy, especially in a commercial robotaxi service, robust hardware redundancy is non-negotiable. While today’s Teslas already offer backup solutions for many critical systems such as braking and steering, redundant FSD computer nodes can help to make sure the vehicle can maintain control or even pull over to reach a safe area in the event of a critical incident.

While Tesla intends to begin its Robotaxi pilot with the Model Y, the upcoming Cybercab is expected to host two AI4 FSD computers, which will increase FSD’s redundancy and improve the safety margin. The Cybercab, unlike many other Robotaxi-esque vehicles, is being engineered from the ground up specifically around Tesla’s Robotaxi service. It’s optimized for low-cost manufacturing, high utilization, and durability while also being easy to maintain, charge, and clean.

Regulation and Trust

Solving autonomy extends far beyond just software or engineering innovations. It also involves navigating a complex and evolving regulatory landscape. Gaining approvals for fully autonomous commercial operations from authorities like the National Highway Traffic Safety Administration (NHTSA) at the federal level, as well as various state and local bodies, is a significant and ongoing challenge for Tesla.

Winds have changed in the United States for autonomy with new federal autonomous vehicle frameworks looking to standardize the rules and regulations for autonomous vehicles. These frameworks are just the start to actually getting laws in-place that will allow for the operation of Robotaxis outside of smaller jurisdictions.

Equally important is building public trust and acceptance. While people who use FSD swear by it, the average vehicle owner in North America will still be utterly awestruck or panic when they see a Tesla being Summoned from its parking spot to the curb. 

Building trust is essential - because nobody will step into a vehicle without a driver and without any means of controlling it unless Tesla can demonstrate consistent safety. That consistent safety must be drastically better than human drivers, and Tesla must be transparent with how it reaches its safety milestones in order to encourage the adoption of autonomous ride-hailing.

Tesla’s approach to autonomy is a vertically integrated strategy that touches every aspect of the challenge - from the fundamental AI software and custom silicon that powers it to the massive processing infrastructure, the physical vehicle hardware, and the entire operational ecosystem required for a future Robotaxi service.

While there will no doubt be challenges, this June, Tesla starts its journey toward an autonomous future.

Tesla’s Cabin Overheat Protection: What It Does, Options, Battery Drain

By Karan Singh
Not a Tesla App

Your Tesla is packed with features designed to improve your comfort and safety, and Cabin Overheat Protection (COP) is a prime example. While all the materials and equipment in your car are built to withstand the summer heat, this feature prevents the interior from reaching excessively high temperatures when parked. 

But what does it do, how does it work, and when should you really use it? Let’s dive in.

What is Cabin Overheat Protection?

Cabin Overheat Protection is a climate control feature that activates automatically after you’ve left your vehicle. Its primary goal is to keep the interior cabin temperature from soaring on hot days, and helping to keep the surfaces humans touch most often - like the seats, steering wheel, and screen- at a more manageable temperature.

You can also use Cabin Overheat Protection to protect temperature-sensitive items from excessive temperatures; however, its primary goal is to prevent the cabin from becoming excessively hot.

For moderate durations, Cabin Overheat Protection can actually reduce the amount of energy spent cooling your vehicle, as it’s more efficient to maintain a temperature rather than letting cooling it down from 130ºF. However, it most cases, Cabin Overheat Protection will use additional energy.

It is important to note what Cabin Overheat Protection is not. It isn’t designed to protect people or pets. For that, you’ll want to use Tesla’s dedicated “Dog Mode” or “Keep Climate On” features, which offer more robust control over the internal temperature. You can read a comparison of the major climate features here.

Enable Cabin Overheat Protection

Tesla offers several options for cabin overheat protection, allowing you to choose when and how it operates. You can enable it in your vehicle or through the Tesla app:

In the Vehicle: Navigate to Controls > Safety > Cabin Overheat Protection.

Via the Tesla App: Go to the Climate, swipe up, and toggle Cabin Overheat Protection.

Cabin Overheat Protection Settings

When enabling COP, you can pick from three settings:

Off: The system is completely disabled and will not activate when the vehicle is parked. This is the default option.

No A/C: If the interior temperature exceeds your set threshold (see below), your vehicle will only use the HVAC fan to circulate outside air through the cabin. This helps cool the vehicle since outside air is often cooler than the inside, which can easily reach 130ºF or higher. This is our recommended setting, as it helps prevent the cabin from getting too hot in most situations and uses minimal energy.

On: If the interior temperature exceeds your set threshold, the system will use both the fan and the air conditioning to actively cool the cabin down to and maintain it below that threshold. This is the most effective cooling option, but it also uses a significant amount of energy.

You can also set a Temperature Threshold for activating Cabin Overheat Protection. Tesla provides three options: 90°F (30°C), 95°F (35°C), or 100°F (40°C). Cabin Overheat Protection will attempt to maintain your vehicle at the threshold while it is active.

Battery Drain

The main reason you might choose to leave Cabin Overheat Protection off is its energy impact, which will not only increase your costs but also reduce your vehicle’s range. Ultimately, this feature keeps your vehicle’s HVAC system—or at least its fans—running to help cool the cabin.

While the No A/C mode consumes minimal energy, the On mode (which uses air conditioning) will noticeably drain the battery, particularly on hot days when the system works harder to maintain the set temperature.

The amount of energy COP uses will vary greatly based on your selected activation temperature, the exterior temperature, and whether your vehicle is parked in the sun. However, in general, the energy impact will be minimal if COP is set to No A/C, and significant if it’s set to On.

As a reminder, Cabin Overheat Protection will automatically shut off after 12 hours of operation or if the vehicle’s state of charge falls below 20%. COP and several other Tesla features will increase the cost of using your vehicle. We recently reviewed all Tesla features that continue to use power while your vehicle is parked.

Is Cabin Overheat Protection Necessary?

This is a common question, and the answer is no, Cabin Overheat Protection is not essential. Tesla vehicles, including their interior components, are designed and tested to withstand the typical automotive temperature cycles, including both hot and cold. While keeping the cabin cooler could potentially provide some marginal benefit in preventing the leather or other surfaces from degrading, the primary purpose is for the comfort of the occupants when they return.

What About Extreme Cold?

We’ve talked about heat, but what about extreme cold? Cabin Overheat Protection, as the name implies, deals with heat and will not prevent your vehicle from getting too cold. For cold weather, your Tesla has different mechanisms.

Your vehicle will automatically use energy to keep its high-voltage battery within a safe temperature range in extreme cold, whether or not you’re in the car. This helps protect the battery’s health and ensures you’ll have a minimal level of performance even if you enter the vehicle without preconditioning.

For optimal comfort in cold weather, preconditioning your vehicle will warm up the cabin and battery for improved performance.

Cabin Overheat Protection is a valuable feature that improves the comfort of your Tesla, particularly during hot weather. However, it’s not designed to improve the lifespan of your vehicle's interior, and it should not be used for people or pets (use Keep Climate or Dog Mode for those situations).

If you're parked in extreme heat and have sensitive items in the car, this could be an ideal use case. Use Keep Climate if you need to keep the items below 80°F, or Cabin Overheat Protection if you’re just looking to protect them from excessive temperatures.

Tesla Gains Support for Australian Battery Recycling Facility

By Karan Singh
Electrek.co

Tesla’s recent focus on expanding and vertically integrating its battery production is beginning to take global steps, starting with a battery recycling and service center in South Australia. In Marion, a suburb of Adelaide, the council recently voted in favor of a proposal that would see contaminated public land developed and leased to Tesla.

The move promises local jobs and environmental remediation but has garnered a lot of public debate focused on Elon’s moves outside his role as CEO. 

The proposal involves a site that’s currently unusable for recreation due to chemical contamination. A local developer plans to acquire and remediate the land, constructing a new facility specifically for Tesla. This site would reportedly serve two purposes: recycling old lithium-ion batteries and serving as a Tesla Service Center.

Tesla’s Commitment to Recycling

Tesla recently announced its intention to ramp up its battery recycling and repurposing efforts. During the Q1 2025 Earnings Call, Tesla’s executives highlighted substantial progress. Tesla had recycled enough materials in Q1 2025 to build approximately 21,000 Model Y RWD vehicles, representing a 136% year-over-year increase from Q1 2024. 

Dedicated regional hubs like this one would be a logical next step in expanding the recycling loop and furthering Tesla’s vertical integration while also reducing its reliance on new materials. In addition, local sources also mentioned that Tesla could be repurposing older lithium-ion batteries for other purposes, including their inclusion in stationary battery storage systems like Powerwall or Megapack.

Of course, the facility also has major benefits for the local community, including creating around 100 local jobs, as well as injecting approximately $56 million into the local economy. Further, developing the contaminated land as a renewable facility is one of the safest ways to use the land that’s been sealed off from the public for nearly a decade.

Elon’s Image

The proposal isn’t without its critics. Local opposition was voiced during community consultations, with most of the negative sentiment directed towards Elon rather than the facility itself. Despite these complaints, the local council elected to proceed, arguing that tangible economic and environmental benefits far outweigh any perceived geopolitical or symbolic harm that shutting down the project could cause.

With the council’s endorsement on record, the proposal now moves to the South Australian state government for approvals regarding the change in land classification.

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