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Waymo decouples major hardware and software upgrades. Its 6th generation platform introduces a new custom vehicle and a cheaper, simpler sensor stack, but runs the same proven 5th generation software. This "tick-tock" approach allows them to validate a new hardware platform while relying on a mature, generalizable software stack.

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Successful "American Dynamism" companies de-risk hardware development by initially using off-the-shelf commodity components. Their unique value comes from pairing this accessible hardware with sophisticated, proprietary software for AI, computer vision, and autonomy. This approach lowers capital intensity and accelerates time-to-market compared to traditional hardware manufacturing.

Tesla's camera-only system gives it a significant cost advantage over Waymo's LiDAR-equipped vehicles. However, current data shows a Waymo vehicle crashes every 400,000 miles, while Tesla's crashes every 50,000. Tesla's ability to scale hinges entirely on proving its cheaper technology can become as safe.

According to its co-CEO, Waymo has moved beyond fundamental research and development. The company believes its core technology is sufficient to handle all aspects of driving. The current work is an engineering challenge of specialization, validation, and data collection for new environments like London, signaling a shift to commercial deployment.

The transition from Gen 4 to Gen 5 was a discontinuous jump that enabled rapid expansion. Waymo made a "big bet on AI," replacing a system of many smaller, specialized ML models with a single, generalizable AI backbone. This new architecture, trained on diverse national data, was the key to scaling beyond specific pre-mapped areas.

A pure "pixels-in, actions-out" model is insufficient for full autonomy. While easy to start, this approach is extremely inefficient to simulate and validate for safety-critical edge cases. Waymo augments its end-to-end system with intermediate representations (like objects and road signs) to make simulation and validation tractable.

Frame moonshot projects like Google's Waymo not as singular bets, but as platforms for innovation. Even if the primary goal fails, the project should be structured to spin off valuable 'side effects'—advances in component technologies like AI, mapping, or hardware that benefit the core business.

Waymo uses a foundation model to create specialized, high-capacity "teacher" models (Driver, Simulator, Critic) offline. These teachers then distill their knowledge into smaller, efficient "student" models that can run in real-time on the vehicle, balancing massive computational power with on-device constraints.

The AI landscape is uniquely challenging due to the rapid depreciation of both models (new ones top leaderboards weekly) and hardware (Nvidia launched three new SKUs in one year). This creates a constant, complex management burden, justifying the need for platforms that abstract away these choices.

Waive treats the sensor debate as a distraction. Their goal is to build an AI flexible enough to work with any configuration—camera-only, camera-radar, or multi-sensor. This pragmatism allows them to adapt their software to different OEM partners and vehicle price points without being locked into a single hardware ideology.

GM's next-generation platform, debuting in 2028, centralizes all vehicle compute and uses Ethernet networking. This isn't just about more processing power; it enables sub-millisecond response times for dynamic systems like suspension, a 10x improvement. This architecture abstracts hardware from software, allowing for much faster and more comprehensive over-the-air updates.

Waymo De-risks Hardware Upgrades With a "Tick-Tock" Software/Hardware Cycle | RiffOn