YouTuber Transforms Stripped Tesla Model 3 Into Off-Road Go-Kart Highlighting Electric Drivetrain Resilience

In an unconventional display of automotive endurance and software complexity, YouTuber Remmy Evans recently acquired a heavily modified and stripped-down Tesla Model 3 for the sum of $2,000, subsequently subjecting the vehicle to a series of high-intensity off-road tests. The vehicle, which lacks nearly all traditional body components, including panels, glass, and standard safety equipment, remains functional enough to provide over 200 miles of estimated range and significant performance capabilities. This experiment serves as a public case study on the durability of electric vehicle (EV) powertrains and the rigid software ecosystems that govern modern automotive technology.

The Origin of the Two-Thousand-Dollar Rolling Chassis

The journey of this specific Tesla Model 3 began long before it reached Evans’ hands. Originally purchased for approximately $6,000 to $7,000 by an enthusiast named Grayson, the vehicle was intended to serve as a donor for an ambitious restomod project. The plan involved transplanting the high-performance electric drivetrain into a 1970s-era concept car body. To facilitate this, the owner commissioned 3D renderings and began the arduous process of stripping the Model 3 down to its core components.

However, the project was eventually deemed unfeasible. Estimates suggested that the custom bodywork and integration would require upwards of 800 hours of labor. Consequently, the car sat unregistered and stationary in Idaho for at least two years. When Evans was alerted to the vehicle’s existence, he negotiated the price down from an initial $3,000 asking price to $2,000, effectively purchasing a "rolling chassis" that consisted of little more than the floor pan, the battery pack, two electric motors, the steering assembly, the central touchscreen, and two front seats.

This type of acquisition is becoming increasingly common in the automotive aftermarket. As electric vehicles become more prevalent, their drivetrains are being harvested for "EV swaps" in classic cars. Specialized companies, such as EV West, have built entire business models around selling Tesla "crate motors" and battery modules to hobbyists. However, Evans’ decision to drive the skeleton of the car itself represents a departure from the typical restoration or conversion path.

Technical Specifications and Software Discrepancies

Despite its skeletal appearance, the vehicle’s core systems remained remarkably intact. Upon charging the battery to its full capacity, the onboard computer indicated a remaining range of 212 miles. Given that a standard Tesla Model 3 typically offers between 250 and 350 miles of range depending on the battery configuration and age, the 212-mile figure suggests that the battery pack has maintained a high level of health despite the car’s prolonged dormancy and lack of protective housing.

The software environment, however, presented a more chaotic picture. The vehicle’s diagnostic system flagged 78 distinct error codes. In a modern Tesla, the central computer expects constant feedback from a suite of external cameras, ultrasonic sensors, radar units, and safety modules (such as airbag sensors and seatbelt pretensioners). Because these components were physically removed during the stripping process, the car’s Autopilot and safety suites were entirely non-functional.

Interestingly, the absence of these sensors created a unique performance opportunity. Standard Tesla vehicles utilize complex traction control and stability systems that are difficult to fully disable, even in "Track Mode." Because this stripped-down version lacked the sensors required for these interventions, it defaulted to a state where the driver had raw control over the motors, allowing for easier drifting and power-sliding—maneuvers that would typically be mitigated by the car’s safety software.

Field Testing and Off-Road Performance

Before taking the vehicle to the dirt, Evans performed basic maintenance, which included replacing the original tires. The stock rubber had deteriorated to the point of "delaminating," with internal metal wiring becoming visible. After fitting a set of bright red aftermarket wheels and fresh tires, Evans tested the vehicle’s roadworthiness—or lack thereof—by driving it 25 minutes on public roads to a local electronics store.

The vehicle lacks a windshield, side mirrors, and functional headlights, and the driver utilized a DOT-rated ratchet strap as a makeshift safety harness. While the legality of operating such a vehicle on public thoroughfares is highly questionable under Washington state and federal Department of Transportation (DOT) regulations, the car successfully navigated the trip without mechanical failure or law enforcement intervention.

The true test occurred on a private property featuring a dirt track and a tabletop jump. In these conditions, the Tesla’s low center of gravity—a result of the heavy battery pack being located at the very bottom of the chassis—provided surprising stability. Observers compared the handling to a Polaris Slingshot, though with significantly higher torque and acceleration. The vehicle was jumped repeatedly, landing on dirt with the full weight of the battery pack and motors, yet it continued to operate without triggering a catastrophic system failure or battery fire.

The Challenges of the Proprietary Charging Network

One of the most significant hurdles identified during the project was the difficulty of charging a "salvaged" or modified Tesla. Tesla’s proprietary Supercharger network and even third-party CCS (Combined Charging System) stations rely on a "handshake" between the station and the car’s software.

Evans encountered immediate physical and digital obstacles:

1. Physical Compatibility: When attempting to use a public DC fast charger, Evans found that his adapter would not fit the charging port due to the lack of surrounding bodywork support and slight misalignments. He resorted to using tools from Harbor Freight to manually modify a charging adapter, sawing off portions of the plastic housing to allow it to seat correctly.
2. Software Locks: Tesla has historically been known to disable Supercharging capabilities on vehicles that have been labeled as "salvaged" or that have undergone significant unauthorized modifications. This is done under the guise of safety, as the company cannot guarantee the integrity of a battery pack that has been involved in a major incident.
3. The Update Dilemma: To enable third-party fast charging, the car likely required a software update. However, Evans expressed concern that connecting the car to Tesla’s servers for an update would allow the company to "see" the 78 error codes and the missing hardware. There is a documented history of Tesla remotely "bricking" or restricting the functionality of modified cars once they check in via the internet. Consequently, Evans was forced to rely on Level 2 charging, which requires 7 to 8 hours for a full charge, or standard 110V wall outlets, which can take over 24 hours.

Broader Implications for the EV Industry and Right to Repair

This experiment highlights a growing tension in the automotive world: the durability of hardware versus the control of software.

From a hardware perspective, the project is a resounding endorsement of EV longevity. Internal combustion engine (ICE) vehicles often suffer from "perishing" components—hoses, belts, gaskets, and fuel lines—that degrade when a car sits for years. In contrast, the Tesla’s electric motors and solid-state battery remained functional despite extreme neglect and physical trauma. The simplicity of the electric drivetrain, which features orders of magnitude fewer moving parts than a gasoline engine, suggests that the "million-mile battery" or "million-mile motor" is a technical reality.

However, the software side of the story underscores the challenges of the "Right to Repair" movement. As cars become more like computers on wheels, manufacturers maintain unprecedented control over the vehicle’s lifecycle. The fact that a perfectly functional drivetrain can be rendered difficult to use—or excluded from fast-charging infrastructure—due to missing "non-essential" sensors (like a parking camera or a door handle sensor) raises questions about consumer ownership and the environmental impact of discarding viable technology.

Chronology of the Project

• 2021-2022: The Model 3 is purchased for $6k+ and stripped for a concept car project in Idaho.
• 2022-2024: The project is abandoned; the rolling chassis sits unregistered.
• Early 2024: Remmy Evans receives a tip about the vehicle and negotiates a $2,000 purchase price.
• Spring 2024: Initial assessment reveals 212 miles of range and 78 error codes. New wheels and tires are installed.
• Testing Phase: The vehicle is driven on public roads, drifted, and jumped on a dirt track.
• Charging Incident: Evans performs "surgery" on a charging adapter to facilitate power intake.
• Future Outlook: Evans has announced plans to take the vehicle to an official Tesla Service Center to see if the company will authorize a software update or re-enable fast charging.

Conclusion

The "Skeleton Tesla" project provides a visceral look at the future of automotive hobbyism. While the days of simple wrenching on a carburetor may be fading, a new era of "software hacking" and drivetrain harvesting is taking its place. The durability shown by the Model 3’s powertrain under extreme stress confirms that electric vehicles can be incredibly resilient. However, the 78 error codes and charging hurdles serve as a stark reminder that in the age of the connected car, the manufacturer often remains the ultimate authority over how, where, and if a vehicle can be driven. Whether Tesla will support the continued life of this $2,000 "go-kart" or move to disable it remains the subject of significant interest within the EV community.