EVs & Manufacturing · Tesla
A small Tesla with no steering wheel and no pedals just entered production in Texas.
Its real story isn't self-driving. It's about tearing up a century-old way of building cars.
Tesla's Cyber Cab has entered production at Gigafactory Texas, built using a radically different process called "unboxed manufacturing." For years, Tesla promised a $25,000 affordable EV, known unofficially as Model 2, Model Q, or Project Redwood — but it never arrived as promised, and reports of its cancellation sparked real market panic. What actually happened is more interesting: Tesla shifted its cheap-car ambitions into two tracks at once — cheaper versions of existing models as a near-term stopgap, and an entirely new factory process, proven first on Cyber Cab, that could eventually make a genuinely affordable Tesla possible at real scale.
Cyber Cab has no steering wheel and no pedals — but the more important change is happening on the factory floor that builds it.
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Tesla's Cyber Cab has entered production using a new "unboxed manufacturing" process, raising the question of what happened to Tesla's long-promised $25,000 EV. This article traces Tesla's original master plan, contrasts it with BYD's bottom-up strategy, explains why the traditional assembly line became Tesla's real bottleneck, breaks down the three engineering pillars behind unboxed manufacturing, untangles the cancellation reports, and lays out what a future affordable Tesla could realistically look like.
The Robot Taxi That Might Be Hiding Tesla's Cheaper Car
At Gigafactory Texas, a small new Tesla is rolling off the line — one with no steering wheel and no pedals.
It's called Cyber Cab, and Tesla says it will drive itself.
But the more interesting story isn't autonomy. It's how this specific car is being built.
Tesla is changing the assembly line the entire car industry has relied on for nearly a century.
When production actually began, the driverless Cyber Cab appeared first — not the affordable car everyone expected.
So has Elon Musk quietly shelved the affordable Tesla? Or is that car's battery, platform, and manufacturing technology hidden inside Cyber Cab itself?
And can this new process really compete with BYD's low-cost supply chain? That's the real story worth unpacking.
The Master Plan: From Roadster to Model Y
To understand where this is heading, rewind to 2006, when Elon Musk laid out Tesla's original master plan.
The idea was simple on paper: start expensive, then work down toward mass affordability, step by step.
Tesla's first car, the Roadster, was an expensive, largely hand-built electric sports car — never meant for ordinary buyers.
Its purpose was proof, not profit: showing an electric car didn't have to be slow or boring.
The money and credibility from the Roadster funded the luxury Model S. The Model S, in turn, funded the more accessible Model 3 and Model Y.
The Model Y went on to become a genuine global sales success. But it was never meant to be the final step.
The real destination was a truly affordable EV — one an ordinary working family could buy without a second thought. That's where the $25,000 car conversation began.
Why BYD Attacked From the Bottom, Not the Top
While Tesla climbed downward from luxury, a very different company was climbing upward from the bottom: China's BYD.
BYD didn't start as a car company at all — it began by manufacturing phone batteries.
That background gave it deep expertise in low-cost, large-scale battery chemistry, long before it ever built a car.
| Company | Strategy | Starting Point |
|---|---|---|
| Tesla | Top-down: luxury first, then mass-market | Roadster → Model S → Model 3/Y → (affordable EV) |
| BYD | Bottom-up: low-cost first, then scale | Phone batteries → vertical integration → EVs like the Seagull |
BYD extended that control over essential components: semiconductors, electric motors, and its own cobalt-free blade battery.
This vertical integration means BYD handles lithium processing, batteries, motors, electronics, vehicle assembly, and even shipping — largely without outside suppliers.
That control produced hatchbacks like the Seagull, priced below $20,000, while many Western EVs started near $40,000.
In 2025, BYD's overseas sales reportedly crossed 1 million vehicles, with a target of around 1.5 million discussed for 2026 — genuine global expansion, not just a China story.
The Real Bottleneck Wasn't the Car — It Was the Factory
Meanwhile, Tesla's own numbers were getting harder to ignore.
Model Y sales, once dominant, reportedly fell by double digits in some major European markets as the first wave of EV buyers slowed down.
The expiration of the US EV tax credit further eroded the pricing advantage Tesla could show after subsidies.
Tesla had once targeted 20 million vehicles a year by 2030 — a scale simply not reachable by speeding up existing factories slightly.
Shaving costs on a bumper or seat material could trim a car's price a little. It could never turn a $40,000 car into a $25,000 one.
The deeper problem was structural. Traditional factories move a car's welded metal shell along one long, sequential line.
A single stalled bolt or broken tool at one station can stop every car behind it — and every station ahead sits idle, waiting.
The paint shop compounds this: dipping the entire welded body in chemical tanks and long ovens is expensive, slow, and energy-intensive.
Unboxed Manufacturing: Three Engineering Pillars
Tesla's answer wasn't a cheaper car — it was a redesigned factory, treated as if it were a product in its own right.
Called "unboxed manufacturing," the idea splits a car into roughly six large sections — front, rear, floor, doors, and body panels — built simultaneously in separate zones.
Instead of workers bending through small door openings, the flat, open floor lets people and robots work from every side at once.
Finished modules are then joined at final assembly, with exterior panels painted separately beforehand — reducing dependence on the traditional paint shop entirely.
| Pillar | What Changes |
|---|---|
| Gigacasting | Large single-piece aluminum castings replace hundreds of stamped, welded parts |
| Structural battery floor | Battery pack becomes load-bearing, reducing separate parts and fasteners |
| 48-volt architecture | Higher voltage cuts required current roughly fourfold, allowing thinner wiring |
Tesla has estimated this approach could cut factory floor space by more than 40%, though these remain company estimates, not independently verified figures.
A single gigacasting error or accident damage, however, could be genuinely difficult to repair — a real trade-off behind the efficiency gains.
Did Tesla Quietly Cancel the $25,000 Car?
Just as this new process neared readiness, a report claimed Tesla had cancelled its affordable-car program entirely.
Engineering resources, the report said, had shifted toward robo-taxis and autonomous driving instead. Wall Street reacted badly.
Investors worried Tesla was abandoning the affordable segment right as BYD was gaining ground there globally.
Later reporting complicated that picture. It was never confirmed that Project Redwood and Cyber Cab were two separate, fully production-ready vehicles on the same platform.
What did become clear: Tesla adopted a practical plan B, using its existing Model 3 and Model Y lines rather than waiting on an entirely new factory.
By October 2025, that plan appeared publicly as the Model 3 Standard, starting at $36,990, and the Model Y Standard, starting at $39,990.
Both offered over 300 miles of range on a cost-optimized battery and powertrain — cheaper, simpler versions of existing cars, not a hidden $25,000 Redwood.
What Project Redwood Could Actually Look Like
With Cyber Cab now in production, unboxed manufacturing has moved from presentations to the factory floor.
That raises the question everyone actually wants answered: what might a steering-wheel Redwood eventually look like?
There's no official answer yet — but reports and industry estimates sketch a plausible picture.
Likely shape: a compact crossover or practical hatchback, with Cybertruck-inspired lines but a much smaller footprint suited to narrow urban streets.
Reports suggest a retail price between $25,000 and $28,000, with Tesla possibly targeting a gross margin near 20% — a difficult combination without major cost cuts.
The battery could use cobalt-free, nickel-free LFP chemistry: cheaper, thermally stable, and more tolerant of daily full charging, though less energy-dense.
Estimates point to a roughly 53 kWh pack and 250–300 miles of real-world range, with a minimalist interior built around a single central touchscreen.
Manohar Insight
The most interesting thing about this story is what it reveals about how hard "affordable" actually is to engineer.
Tesla didn't fail to design a cheaper car. It ran into the much harder problem of building it profitably, at real scale.
BYD's advantage was never really about labor cost — it was about owning the entire chain from lithium to finished vehicle.
Tesla's answer wasn't to copy that model. It was to redesign the factory itself as the actual product being engineered.
That's a genuinely bigger bet than any single car, and a riskier one — precision module-joining and unproven gigacasting repair economics are real open questions.
Cyber Cab's economics also depend heavily on autonomous software actually working and getting regulatory approval, which is its own uncertain timeline.
Tesla's next defining vehicle may not be its cheapest one. It may simply be proof that the unboxed factory can build hundreds of thousands of cars, not just a showroom prototype.
Join the Signal
If a $25,000 Tesla does eventually arrive built on this new unboxed process, do you think it will actually dent BYD's grip on the low-cost EV market — or has that ship already sailed? Share your take in the comments.
#Tesla #ElectricVehicles #BYD #EVManufacturing #CyberCab #ProjectRedwood #AutomotiveTech #KMManoharInsights
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About the Author
K M Manohar is an independent Sci-Tech writer and research curator who explains breakthrough discoveries that are shaping the future of technology.
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