His Cybertruck Covered 13,000 Miles for $0 in Charging and Powered 17 Nights of Camping, While His Tesla App Showed 98% FSD Use

Four months is long enough for a road trip to stop behaving like a vacation and start behaving like an audit.

Charging becomes part of the daily schedule. Driver assistance meets unfamiliar mountain roads. Coffee makers, refrigerators, blankets, and campsite equipment begin competing with the next morning’s driving range. A truck that felt solid at home has thousands of miles, rough roads, and temperature changes to prove it.

David Shin’s all-wheel-drive Tesla Cybertruck came out of that audit after approximately 13,000 miles through 10 states and two Canadian provinces.

Shin visited 12 national parks, five wine regions, and 12 major ski destinations. His route stretched from Texas and New Mexico to California, Washington, British Columbia, Alberta, Montana, and Wyoming. Along the way, he recorded 88 unique Supercharger locations, 122 Supercharger sessions, and 17 nights of camping.

The Tesla Charge Stats screenshots he shared cover April 3 through August 8, 2026. They show 6,097 kWh charged, 5,942 kWh of it at Superchargers, and a total recorded charging cost of $0.

His conclusion was straightforward.

“As you all say, best car/truck I ever owned, and the best road trip vehicle,” Shin wrote in the Cybertruck Owners Only Facebook group.

The $0 Charging Result Was Real, but It Was Also Highly Personal

Tesla’s app recorded 122 Supercharger sessions across 88 different locations. Approximately 97% of the energy added during the period came from Superchargers, while the remaining 156 kWh came from other charging sources.

The app estimated that Shin saved $2,737 compared with its gasoline-equivalent calculation. Shin rounded his savings to approximately $2,000 and made a separate comparison with a gasoline pickup averaging 20 mpg while fuel cost $4.62 per gallon.

His comparison works mathematically.

A pickup covering 13,000 miles at 20 mpg would consume approximately 650 gallons. At $4.62 per gallon, that becomes $3,003.

However, the reason Shin paid $0 was his free Supercharging benefit, rather than an inherent ability for every Cybertruck to cross North America without charging costs. Tesla’s current terms say free Supercharging credits apply at Tesla-owned Superchargers. Third-party-owned Superchargers remain pay-per-use, and certain congestion charges can still apply under specific circumstances.

That makes the free-charging benefit the least transferable part of Shin’s experience.

The network access, charging reliability, onboard power, and route-planning methods can be repeated by other owners. The $0 energy bill depends on the charging arrangement attached to the particular truck or Tesla account.

His statistics also should not be treated as a controlled Cybertruck efficiency test. The Charge Stats screen reports 13,076 “miles added,” rather than an odometer reading, and the energy total includes electricity later used at campsites. Charging losses, local driving, temperature, speed, and auxiliary power use also remain mixed together.

Still, the numbers reveal Shin’s charging rhythm. Dividing the 5,942 Supercharger kWh by 122 sessions produces an average of approximately 49 kWh per stop. That suggests he frequently added enough energy for the next leg instead of waiting for a nearly full battery every time.

That pattern matches another Cybertruck road-trip report examined by Torque News, where 11 charging stops over approximately 1,000 miles made more sense after looking at how quickly the truck added its next 50 to 100 miles at a low state of charge.

The Cybertruck Became His Campsite’s Electrical System

The most repeatable part of Shin’s trip may have occurred after he stopped driving.

During 17 camping nights, Shin said the campsite equipment consumed approximately 10% to 15% of the Cybertruck’s battery. The truck supplied power for an induction cooktop, Starlink, a coffee maker and grinder, two electric coolers, an electric blanket, a water heater, phone charging, climate control, and entertainment.

That is a broader use case than replacing a gasoline pickup’s fuel tank with a battery.

The Cybertruck was functioning as transportation, a power station, a climate-controlled shelter, an internet connection, and part of the cooking system.

Tesla lists two 120-volt outlets in the cargo bed with a combined 20-amp limit, plus one 240-volt outlet with a 40-amp limit. The truck’s cabin and cargo-bed AC outlets have a combined maximum draw of 40 amps. Tesla’s Keep Outlets On setting can maintain power for up to 12 hours or until the battery falls below 5%. CyberTent Mode can keep the outlets active indefinitely while the truck remains parked.

Other Cybertruck owners have demonstrated the same basic utility at home. One owner used the truck’s 240-volt bed outlet to supply essential household power during an ice storm.

Shin’s 10% to 15% overnight consumption provides a more useful camping rule than simply asking how much driving range the truck has.

Camp energy is part of the next day’s route.

An owner arriving at an isolated campsite with 20% remaining may technically have completed the driving leg, but an overnight electrical load could remove much of the reserve needed to leave. Shin planned around that before he arrived.

His Most Useful Range Setting Was 60%, Not 0%

Shin said that when approaching the final destination of the day, he adjusted his plan to arrive with approximately 60% battery remaining.

That is unusually conservative for an ordinary highway stop. It makes more sense when the destination is remote, campsite electricity will consume another 10% to 15%, and the truck must still be capable of returning to a reliable charger.

He also kept his next two destinations entered into the navigation system. That meant the route plan considered more than the immediate stop.

The distinction is important:

A highway reserve protects the truck until the next charger.

A destination reserve protects the campsite, the next morning, and the return to the charging corridor.

That is also why a seemingly adequate range estimate can become dangerous when the buffer is narrow. In another Cybertruck towing case, the truck estimated 107 miles of range while the next Supercharger was 99 miles away. The eight-mile margin could have disappeared through wind, speed, elevation, or a charger problem.

Shin’s 60% destination target sacrifices some charging time in exchange for flexibility. It allowed him to use last-minute lodging cancellations near national parks, remain at campsites without electrical hookups, and change plans without beginning every departure near the bottom of the battery.

The 98% FSD Number Needs Careful Reading

Shin’s separate Self-Driving Stats screenshot displays 98.0%, with FSD engaged for 16,006 of 16,322 tracked miles. It also shows a longest continuous streak of 178 miles.

The 16,322-mile total is 3,322 miles greater than Shin’s rounded 13,000-mile road-trip figure. The source material does not establish that both screens use the same date range or mileage definition.

The responsible interpretation is therefore that Shin’s Tesla app showed 98% FSD use across a 16,322-mile tracked period. It should not be presented as a clean measurement proving FSD handled exactly 98% of this particular 13,000-mile trip unless the dates are confirmed.

Shin described the experience as having an “invisible chauffeur” traveling with him. He said FSD worked flawlessly on narrow, winding mountain passes and allowed him to spend more time observing the landscape.

His report belongs beside Tesla’s own description of the system.

Tesla identifies FSD as a supervised driver-assistance system. The company says it can handle navigation, lane changes, turns, and interactions with surrounding traffic, but it does not make the vehicle autonomous and requires an attentive driver at all times.

Tesla’s Cybertruck manual specifically warns that intervention may be needed on narrow roads, around blind corners, through complex intersections, and on high-curvature roads. It also warns that the truck can make sudden or unexpected maneuvers even when conditions appear straightforward.

That does not erase Shin’s result. It defines it more accurately.

The achievement was sustained supervised driving that reportedly reduced the owner’s workload across an unusually long and geographically varied trip. It was not autonomous transportation.

Other owner experiences show why continued attention matters. One Cybertruck driver reported that FSD handled more than 100 miles perfectly, then behaved erratically after a stop on the return route. Another owner said FSD handled approximately 90% of a 680-mile trip while responding successfully to several unusual road situations. 

Together, those reports describe a capable system whose behavior can still vary between trips, roads, and software conditions.

Fifteen Miles of Fire Road Did Not End the Trip

Shin said the navigation system eventually routed the Cybertruck onto approximately 15 miles of single-track fire roads.

He credited the truck’s large tires, substantial hardware, and stainless-steel exterior with giving him confidence on the rough section. After four months of travel, he said the Cybertruck still felt solid and new.

One truck completing one trip cannot establish a fleetwide reliability record. It does provide a demanding owner account involving highways, mountain passes, cities, campsites, heat, cold, fire roads, and more than 100 charging sessions without a reported trip-ending failure.

The correct conclusion contains two separate findings.

Shin’s $0 charging bill was exceptional because his free Supercharging benefit paid the energy bill.

His ability to use the Cybertruck as a long-distance vehicle, campsite power supply, climate-controlled space, and heavily assisted highway cruiser is the more repeatable result.

Would free Supercharging change whether you would take a Cybertruck on a four-month road trip?

On a journey this long, which feature would matter most to you: campsite power, reduced driving workload, or access to the Supercharger network?

About The Author

Noah Washington is an automotive journalist based in Atlanta, Georgia, covering sports cars, luxury vehicles, and performance culture. His reporting focuses on explaining the engineering, design philosophy, and real-world ownership experience behind modern vehicles.

Noah has been immersed in the automotive world since his early teens, attending industry events and following the enthusiast communities that shape how cars are built and driven today. His work blends industry insight with enthusiastic storytelling, helping readers understand not just what a car is, but why it matters.

Noah is also a member of the Southeast Automotive Media Association (SAMA), a professional organization for automotive journalists and industry media in the Southeast. 

His coverage regularly explores sports cars, luxury vehicles, and performance-driven segments of the automotive industry, including the evolving culture surrounding Formula Drift and enthusiast builds.

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