Tesla has finally activated one of the Cybertruck’s most anticipated features. Its battery can now help power a home during an outage, although the system requires specific Tesla hardware.

The Tesla Cybertruck V2H feature has finally arrived after years of waiting. Tesla says the electric pickup can now send energy from its high-voltage battery to a home during a power outage through the company’s Powerwall system.

The technology is known as Vehicle-to-Home, or V2H. It allows an electric vehicle to act as an additional energy source rather than simply consuming electricity.

However, there is an important catch. Cybertruck owners cannot activate the feature with just any home charging setup.

Cybertruck V2H Requires a Powerwall 3

Tesla says the new system, called Powershare Home Backup, currently requires a Powerwall 3 installed at the home.

A Tesla Wall Connector is also required to transfer energy from the Cybertruck into the home. That hardware combination allows the pickup and stationary battery system to work together as a larger backup solution.

Tesla says adding a Cybertruck can extend household backup power by more than three days. The company compares that additional capacity to the energy provided by up to nine extra Powerwalls.

The Tesla Cybertruck can now provide backup energy to a home when paired with a Powerwall 3.

Both the Powerwall 3 and the Cybertruck’s energy export system can handle up to 11.5 kW of AC power. That gives the setup enough output for most typical household backup needs.

For Cybertruck owners who already have the required Tesla energy equipment, the feature could significantly increase the amount of time their homes remain powered during an outage.

Tesla Is Rolling Out Powershare Home Backup

Tesla has started enabling the feature for eligible owners, although the rollout is not necessarily automatic for everyone.

Some Cybertruck owners have reportedly received emails asking them to complete a survey before the functionality is activated on their systems.

For now, Powerwall 3 is the only supported stationary battery. Tesla says compatibility with older Powerwall 2 and Powerwall+ systems is expected later.

Tesla’s Powershare Home Backup system connects the Cybertruck with the company’s home energy infrastructure.

Tesla has described the system as a way to integrate two separate energy sources through the same wall connection used for vehicle charging.

The company also points to improvements made to the Cybertruck since the first customer vehicles were delivered. That includes earlier software and hardware work related to Powershare.

The Cybertruck Already Had a Form of Home Backup

This is not the first time Tesla has allowed the Cybertruck to provide electricity to a house.

In 2024, the company introduced a software update that allowed the pickup to keep a home powered through a Powershare Gateway and Universal Wall Connector.

The major difference is that the Gateway itself does not contain a battery. It relies entirely on the Cybertruck’s battery pack to provide backup energy.

The newer configuration with a Powerwall 3 creates a more integrated home energy system, combining the stationary battery with the vehicle when additional capacity is needed.

The Cybertruck’s earlier Powershare system also allowed it to provide electricity to a home during an outage.

The Price of Cybertruck V2H Adds Up Quickly

The Tesla Cybertruck V2H capability is useful, but it is not a cheap upgrade.

The Cybertruck package that enables V2H currently costs $1,970 before installation and does not include the required home battery. A Powerwall 3 system costs considerably more, with the supplied pricing putting the installed unit at around $16,000.

That means homeowners starting from scratch could face a substantial investment before they can use their Cybertruck as a home energy source.

Still, the system offers something conventional backup equipment cannot: access to the vehicle’s large battery whenever the truck is connected and available.

Cybertruck Turns Into More Than Just a Pickup

The arrival of Tesla Cybertruck V2H finally delivers one of the electric truck’s most anticipated capabilities. Instead of simply being a vehicle that draws energy from the home, the Cybertruck can now become an additional power source during an outage.

Moreover, Tesla’s approach highlights how the company is trying to connect its vehicles and stationary energy products into a single ecosystem. The Cybertruck, Powerwall 3 and Wall Connector can work together rather than operating as completely separate products.

For now, the system is limited to Powerwall 3 installations, but support for older Tesla energy systems could expand its reach later. After years of promises and delays, Cybertruck owners finally have a practical way to turn their pickup into a backup battery for the house.

The Tesla Cybercab is taking the robotaxi concept further by removing another piece of conventional EV hardware. For now, owners cannot plug it into a typical home charger.

The Tesla Cybercab home charging experience is very different from what most electric vehicle owners are used to. Tesla’s purpose-built robotaxi appears to leave out one important component found in conventional EVs: the onboard charger.

That means the Cybercab cannot currently be plugged into a typical Tesla Wall Connector or another AC home charger. Instead, the vehicle needs to receive DC power directly from a fast charger.

The decision fits Tesla’s broader strategy for the Cybercab. The vehicle has been designed specifically around autonomous operation and fleet use, allowing the company to eliminate components it considers unnecessary for a robotaxi.

The Cybercab Does Not Have an Onboard Charger

A conventional electric vehicle can accept AC power from a household charger because it has an onboard charger that converts alternating current into the direct current needed by the battery.

The Cybercab apparently removes that conversion hardware.

As a result, plugging the robotaxi into a normal home charging setup is not currently possible. Instead, the vehicle must connect directly to a DC fast-charging source.

The Tesla Cybercab appears to omit the onboard charger required for conventional AC home charging.

For a privately owned EV, that would be a major limitation. However, the Cybercab is being developed around a very different operating model.

The robotaxi is supposed to spend as much time as possible carrying passengers rather than sitting in a driveway. That makes fast charging much more important than convenient overnight AC charging.

Tesla Uses DC Fast Charging Instead

The Cybercab can receive DC power through its NACS charging connection. The connector is hidden behind an access panel in the rear bumper, allowing the vehicle to connect directly to a compatible fast charger.

For now, that means Cybercab operators need to rely on Tesla’s Supercharger network.

The Cybercab uses a hidden NACS connection for direct DC fast charging at Tesla Supercharger locations.

That may sound unusual, but the setup makes more sense when viewed as a commercial fleet vehicle.

A robotaxi can potentially spend much of its operating day on the road. Therefore, minimizing charging time can have a direct impact on how many trips the vehicle can complete.

Wireless Charging Could Eliminate the Plug

Tesla is also working toward another solution that would fit the Cybercab’s autonomous mission even better: wireless charging.

The company plans to install inductive charging equipment at some Supercharging sites. That would allow the Cybercab to recharge without a person physically connecting a cable.

Tesla’s planned wireless charging system could eventually allow Cybercabs to recharge without human assistance.

Wireless charging would make particular sense for an autonomous fleet. The vehicle could potentially position itself over a charging pad and begin replenishing its battery without requiring anyone to plug it in.

However, there is a tradeoff. Wireless charging is slower than Tesla’s high-power wired fast charging.

The Cybercab’s Small Battery Changes the Equation

Previous demonstrations of Tesla’s wireless charging technology have shown speeds of up to roughly 25 kW. That is significantly lower than the peak output associated with Tesla’s fastest Superchargers.

Still, the Cybercab is expected to use a battery pack with less than 50 kWh of capacity. That means a full wireless recharge could take around two hours based on the previously demonstrated charging rate.

For a purpose-built robotaxi operating continuously, that may be an acceptable compromise, particularly if charging is automated and happens between passenger trips.

Tesla Could Still Add Home Charging Later

The current limitation may not necessarily be permanent.

Tesla could decide to add an onboard AC charger before the Cybercab becomes available to consumers. At the moment, the vehicle is not offered as a normal consumer product, so the hardware configuration could still change before wider availability.

For now, however, the Tesla Cybercab home charging setup is essentially nonexistent. The robotaxi is built around DC fast charging today, with wireless charging potentially becoming the more important solution as Tesla expands its autonomous fleet.

That approach may seem strange compared with conventional EV ownership, but the Cybercab is not really designed like a conventional EV. It is a commercial autonomous platform where uptime, automation and rapid charging matter more than plugging into a wall overnight.

Tesla’s Cybercab has started carrying passengers on public roads in Austin. An early ride showed a remarkably smooth and uneventful experience, but plenty of real-world challenges remain.

The Tesla Cybercab Austin experience is already becoming a reality. After years of prototypes, announcements and controlled demonstrations, Tesla’s purpose-built autonomous taxi is now carrying passengers on public roads without a steering wheel or conventional pedals.

An early passenger video from Austin offers a close look at what that experience is actually like. Surprisingly, there was very little drama.

Once the two passengers were inside, the Cybercab automatically closed its butterfly doors. A tap on the central touchscreen started the journey, and the vehicle then pulled away smoothly toward its destination.

The Cybercab’s Ride Was Almost “Boring”

For an autonomous vehicle that lacks traditional driving controls, the most notable part of the journey may have been how ordinary it looked.

The Cybercab completed the filmed section of the trip without visible hesitation, harsh braking or sudden steering inputs. It also appeared capable of dealing with an uneven section of road without making the ride uncomfortable.

That calm behavior is exactly what a driverless taxi needs to deliver. The less passengers notice the automation, the more naturally the technology fits into everyday transportation.

Tesla’s Cybercab carries passengers through Austin without a steering wheel or pedals.

The cabin experience is also a major part of the Cybercab concept. The compact exterior hides a surprisingly spacious two-seat interior, with a bench that can move forward and backward as a unit.

The seatbacks can recline, while passengers have access to a large amount of legroom. Climate controls, seat adjustments, door functions and entertainment are all handled through the central display.

A 21-Inch Screen Controls the Cabin

The Cybercab replaces many traditional physical controls with its large center display, which measures roughly 21 inches.

That screen becomes the primary interface for passengers throughout the journey. Instead of reaching for conventional switches, occupants can use the touchscreen to adjust the environment and interact with the vehicle.

However, one small problem showed that software-driven controls can have their own quirks.

assengers use the Cybercab’s large central touchscreen to control vehicle and cabin functions.

The only apparent stumble during the recorded trip involved Grok. A request to adjust the cabin temperature was reportedly interpreted as a request to change the destination.

That kind of mistake is relatively minor in the context of the ride, but it also highlights a challenge for increasingly software-dependent vehicles. Even when the driving system performs well, the passenger interface still needs to understand commands accurately.

One Smooth Ride Does Not Prove Tesla’s Full Autonomy Claims

The passenger who recorded the trip described the Cybercab as calm, smooth and essentially “perfectly boring.” That may sound like faint praise, but for an autonomous taxi, boring could actually be the ideal result.

Still, one successful trip through Austin is not enough to establish that the Cybercab is ready for every driving environment.

The vehicle still has to prove how it handles rain, road construction, unpredictable drivers and other situations that can quickly challenge autonomous systems. Those conditions are far more difficult than traveling through a limited operational area.

The Tesla Cybercab delivers a smooth passenger experience in Austin during an early autonomous trip.

Austin Is Only the Beginning for the Cybercab

There is also a major difference between operating within a controlled or geofenced environment and handling a city with constantly changing conditions.

A system that performs well in Austin still has to demonstrate how it would cope with dense traffic, pedestrians and frequent road obstructions in places such as New York City.

Furthermore, claims that the Cybercab already drives better than a human should be treated carefully. The enthusiastic passenger who made that assessment is a well-known Tesla supporter, and a single successful trip cannot provide enough evidence for such a broad conclusion.

For now, the most convincing takeaway is simpler. The Tesla Cybercab Austin experience shows that a driverless vehicle without a steering wheel or pedals can deliver an unexpectedly normal passenger journey. That is an important milestone, but the harder test will be proving that same consistency when the road stops being predictable.