The most compelling part of this project is that the Charger arrives as something more interesting than a pristine new performance car. It is a pre-production engineering vehicle with roughly 50,000 miles, Michigan corrosion, cracked bodywork, and enough prior testing that cutting into it feels considerably less sacrilegious. Yet the basic package still makes an immediate impression. Launch control delivers startling acceleration, line lock works directly through the factory controls, and the all-wheel-drive system can accommodate rear-wheel-drive operation. Rather than treating those features as obstacles to modification, the project begins with the more intriguing question of how much of Dodge’s original engineering can remain useful while the car is pushed far beyond its intended output.
That makes the early CAN bus exploration more than technological showing off. Accessing CAN FD traffic behind the normal diagnostic interface gives the project a way to observe the information the car’s systems are exchanging internally, with engine, transmission, wheel-speed, pressure, temperature, and other signals potentially becoming valuable during development. The process is appropriately messy: incorrect settings trigger warnings, enormous amounts of unidentified data need sorting, and simply finding the relevant network requires tracing wiring through the car. The video does a good job of showing reverse engineering as an uncertain process rather than pretending that plugging in a laptop instantly reveals every secret Dodge buried in the electronics.
The mechanical inspection provides an equally useful reality check. At roughly 4,780 pounds, the Charger has plenty of mass to overcome, although the front-biased weight distribution could benefit an all-wheel-drive launch as weight transfers rearward. The examination of the rear suspension, brake clearance, shock location, hub, and potential 15-inch wheel fitment turns a simple drag-tire idea into a legitimate packaging exercise. Scanning the suspension hardware and considering modified links, shock arrangements, hub drilling, and reduced wheel diameter demonstrates why building a competitive drag setup involves considerably more than adding horsepower. There is also a welcome change in philosophy when the initial idea of gutting the car gives way to attempting a roughly 1,000-horsepower build that retains the interior and some street-car character.
The stock twin-turbo Hurricane engine is treated as a promising foundation rather than something that automatically needs replacement. Its factory 550-horsepower rating, twin direct-injection pumps, compact turbo arrangement, and existing cooling system all become starting points for determining what the platform can support. Moving toward a large single turbo and front-mounted intercooler is explained through packaging, airflow, boost, cooling, and repeatable launch performance rather than presented purely as a quest for a larger dyno number. The 7275 turbo is discussed partly through comparison with other three-liter inline-six platforms, while the claim that the engine should tolerate around 1,100 horsepower is presented with confidence but not demonstrated within the video. At this stage, the ambitious power target remains a development goal rather than a proven capability.
The fabrication planning is one of the strongest sections because digital tools are used to solve specific physical problems. Scanning the rear shock arrangement helps investigate wheel clearance, while a 3D-printed turbo-manifold prototype allows the team to test placement, hood clearance, wastegate orientation, compressor positioning, downpipe space, and intercooler routing before committing to metal. Successive revisions visibly improve the proposed installation. That iterative approach makes the project feel engineered rather than improvised, even though plenty of improvisation remains. Small discoveries, including removable factory brackets and convenient openings for intercooler piping, also give the episode the satisfying rhythm of a complicated build gradually revealing possible solutions.
The electronics become both the most ambitious and least resolved part of the work. Cutting into the ECU harness to intercept crank, cam, pressure, temperature, oxygen-sensor, and other signals creates a path for the Haltech system to observe and potentially alter what the factory computer receives. The proposed strategy is particularly interesting: retain the stock ECU and its integration with the rest of the vehicle while manipulating selected signals and adding control where necessary for higher boost and fueling. Initial tests establish meaningful progress, including RPM recognition and the ability to influence sensor voltage, but they also expose unstable readings, grounding differences, electrical interference, and values capable of triggering faults. The video deserves credit for leaving those failures visible. By the end, signal interception is promising, not solved.
That unfinished state is also the episode’s main limitation. The video promises a Charger headed toward drag racing and major power, but most of this installment consists of discovery, disassembly, measurement, electronics work, and prototype fabrication. There is no completed single-turbo system, no finished intercooler installation, no demonstrated 1,000-horsepower result, and no modified drag pass yet. The sprawling presentation occasionally makes technical developments harder to follow, particularly during the repeated ECU troubleshooting and late-night startup tests. Still, those chaotic moments are part of what gives the project credibility: the car gets upset, the electronics behave unpredictably, disconnected components create unexpected problems, and even accessing the trunk becomes an ordeal. Instead of a polished transformation montage, this is the difficult first stage of learning how to modify a platform before an established aftermarket has already solved the problems.
Pros
- The unusual pre-production Charger provides a compelling platform for experimentation without treating a pristine production car as disposable.
- Factory launch control, line lock, selectable drivetrain behavior, and the Hurricane engine establish substantial performance potential before modifications begin.
- CAN FD exploration and ECU signal interception add genuine technical depth beyond conventional bolt-on performance modifications.
- Suspension measurements, wheel-clearance testing, scanning, and 3D-printed prototypes show a methodical approach to solving unfamiliar packaging problems.
- The revised goal of retaining the interior while pursuing roughly 1,000 horsepower creates a more interesting engineering challenge than simply stripping the car for minimum weight.
- Failed electronics tests, unstable sensor readings, grounding problems, and other setbacks remain visible instead of being edited into an unrealistically smooth development process.
Cons
- The episode ends before the major modifications produce a measurable performance result, leaving the power target and drag-racing potential unproven.
- ECU and sensor troubleshooting becomes difficult to follow as numerous signals, wiring changes, voltage problems, and experiments accumulate.
- Some performance expectations, including the engine’s proposed four-figure power capability, are discussed before this particular build demonstrates them.
- Frequent detours and improvised troubleshooting make the presentation less focused than the underlying engineering deserves.
- Several ambitious directions are introduced at once—electronics, turbocharging, cooling, suspension, wheel fitment, weight, and drivetrain strategy—without enough time to bring any major subsystem to completion.
This is less a finished drag-car transformation than the opening engineering campaign for one, and that distinction works in its favor when the focus stays on discovering what Dodge’s new platform can actually tolerate. The factory Charger already demonstrates impressive launch hardware and drivetrain capability, while CAN bus reverse engineering, ECU interception, suspension scanning, turbo packaging, and intercooler planning reveal how complicated the path toward four-figure power could become. The lack of a completed build or performance test limits the payoff, but the willingness to show unresolved electronics, fabrication revisions, and unexpected problems makes the experimentation unusually engaging and sets up a project whose eventual results should matter far more because the difficult groundwork was shown.
