Rivian CEO Says Subsidized Chinese Capital Risks Western EV Failure
Stripe
Legacy automakers will lose market share by the 2030s unless they rapidly adopt integrated zonal software architectures to compete with structurally lower Chinese production costs.
## Background
Published on October 14, 2025, by Stripe on YouTube, this video features a conversation between John Collison and Rivian founder and CEO RJ Scaringe. The page description highlights their discussion on building a car company from scratch, developing the first electric pickup, shifting to software-defined zonal architecture, utilizing AI for autonomy, and detailing their $5.8 billion deal with Volkswagen.
## TL;DR
In this discussion, Rivian founder RJ Scaringe breaks down the immense capital and architectural challenges of launching an independent automotive startup, highlighting the company's early Amazon partnership and its recent achievement of positive gross margins through the consolidation of its Gen 2 platform. He outlines Rivian's highly vertically integrated strategy, the upcoming mass-market R2 SUV platform, and the multi-pillared business model that includes high-margin technology licensing and a direct-to-consumer ecosystem. Additionally, Scaringe shares technical insights on end-to-end AI in autonomous driving, the engineering behind their fourth-generation 'Maximus' motor, and the compounding structural cost advantages driving the threat of Chinese electric vehicles globally.
## Atmosphere & style
The conversation carries the relaxed, engaging vibe of a 'cheeky pint' between two highly analytical tech leaders, blending lighthearted banter about car naming conventions and design trade-offs with deep-dive technical insights. RJ Scaringe comes across as an enthusiastic, first-principles engineer and passionate car lover who remains grounded and candid when recalling early supplier rejections or navigating brutal pandemic-era supply chain crises. The narrative flows smoothly from playful debates over rearview mirrors to urgent warnings about the global automotive landscape, creating an intellectually stimulating and highly evocative listening experience.
## Key takeaways
- [00:00](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=0s) Traditional automotive legacy relies on 50 to 150 fragmented, siloed computers from separate suppliers, whereas Tesla and Rivian use a centralized architecture allowing full vehicle systems to communicate.
- [00:00](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=0s) Launching an independent car company requires a massive, near-simultaneous alignment of billions in capital, thousands of engineers, and massive production facilities before yielding any initial revenue.
- [02:44](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=164s) Amazon's 2019 partnership and $700 million initial funding round accelerated Rivian's viability, driven by the operational and economic advantages of eliminating engine idling in commercial delivery fleets.
- [05:51](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=351s) Simultaneously launching three highly complex vehicles (R1T, R1S, and Amazon EDV) during the pandemic and subsequent 2022 semiconductor crisis heavily inflated Rivian's early operational costs.
- [12:02](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=722s) Rivian achieved positive gross margins in late 2024 and early 2025 by overhauling its electronics architecture into 'Gen 2', which consolidated 17 discrete computers into just 3 zonal controllers.
- [14:58](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=898s) The upcoming R2 platform is a smaller, five-passenger mass-market SUV starting at $45,000, designed to capture high-volume segments compared to the premium $90,000+ R1 line.
- [15:40](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=940s) Rivian commands roughly 35% of the premium electric SUV market over $70,000 in the U.S., but must scale production up to hundreds of thousands of units via plants in Illinois and Georgia to reach mass viability.
- [17:27](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=1047s) Heavy vertical integration of both low-voltage software stacks and high-voltage powertrains creates high fixed R&D costs early on, but yields a major structural advantage by stripping out tier-one supplier markups at scale.
- [27:38](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=1658s) Rivian bypasses Apple CarPlay to maintain a completely unified digital experience that allows future AI features to directly access and manipulate core vehicle functions like HVAC and cargo space.
- [34:00](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2040s) United States safety regulations uniquely mandate unbelted crash tests, forcing automakers to optimize airbag deployment and internal cabin geometries around unrestrained occupants.
- [37:56](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2276s) Autonomous vehicle architecture is rapidly shifting from rules-based planners to end-to-end trained foundation models processed by transformers, which learn humanistic driving styles via consumer data flywheels.
- [41:15](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2475s) A multi-modal sensor strategy combining cameras, radar, and declining-cost LiDAR provides a cleaner signal and faster neural net training than camera-only or singular-modality systems.
- [44:54](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2694s) Rivian's fourth-generation 'Maximus' drive unit utilizes a continuous winding technique that reduces motor welds by approximately 95%, optimizing manufacturing costs without changing driver feel.
- [46:35](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2795s) Rivian secured a $5.8 billion deal with Volkswagen to license its zonal architecture, demonstrating that legacy automakers need an external software-defined shortcut to survive an AI-driven market.
- [53:20](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3200s) The Rivian business model balances physical vehicle sales with higher-margin technology licensing and a direct-to-consumer ecosystem that captures profitable post-sale lifecycle value, service, and diagnostics.
- [01:01:37](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3697s) The massive cost advantage of Chinese EVs is driven by subsidized, near-zero cost of capital from local governments and low labor rates across all tiers of the supply chain, rather than secret mechanical design elements.
- [01:05:59](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3959s) Low EV adoption in the United States (around 8% of sales) is caused by a massive choice gap for consumers looking for compelling, affordable alternatives under $50,000 outside of Tesla's dominant product lines.
## Detailed walkthrough
### [00:00](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=0s) The Audacity of Starting a Car Company
The conversation kicks off with some lighthearted banter about how car names used to be cool—evoking images of Mustangs and Thunderbirds—whereas today's electric vehicles are saddled with sterile names like R1 and R2. RJ Scaringe, the founder and CEO of Rivian, reveals that the internal code name for their Gen 2 platform is "Peregrine," named after the super-fast falcon. When asked if the audience would buy a "Rivian Peregrine," the room responds with enthusiastic approval.
This leads into a fundamental technical differentiator: with the exception of Tesla and Rivian, every car on the road today relies on 50 to 150 separate, siloed computers sourced from different suppliers. This fragmented setup is why a driver in a traditional car cannot adjust their side mirrors from the center console—the systems simply cannot talk to one another. When Scaringe was pitching his vision of an integrated electric SUV and truck to the CEOs of massive automotive suppliers back in 2013 and 2014, he was practically "laughed out of the room."
Starting an independent car company is widely considered "hardware companies on hard mode," and automotive startups are the hardest of all. Scaringe, who holds a PhD in mechanical engineering, took on Rivian as his very first career. He explains that launching a car company requires an incredibly rare alignment of massive resources all at once: billions of dollars in capital, thousands of engineers, hundreds of willing suppliers, and a massive manufacturing facility. Even with all those ingredients ready on day one, it would still take four to five years to launch a product. Starting with zero capital made the probability of success vanishingly low.
- **The "Zonal" Difference:** Traditional cars use 50 to 150 discrete computers from various suppliers, preventing centralized control of basic features like side mirrors.
- **The Capital Hurdle:** A vehicle startup requires billions of dollars and years of development before generating its very first dollar of revenue.
[02:44](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=164s) The Amazon Partnership and the Electric Van
When looking back at the moments where Rivian's probability of success spiked, Scaringe points directly to 2019. This was the year Amazon stepped in as a major investor, eventually putting in several billion dollars prior to Rivian's IPO and becoming its largest shareholder. The turning point was a $700 million funding round that followed Rivian's debut at the LA Auto Show. Alongside the capital, Rivian secured a massive commercial agreement to design and build custom electric delivery vans for Amazon.
Amazon's interest in electric vans was driven by a clear operational and economic advantage rather than just climate commitments. Delivery vans spend a massive portion of their operational cycle idling. Transitioning to an electric fleet eliminates engine idling, drastically reduces service frequency, and completely removes the need for oil changes, engine repairs, and frequent brake replacements. Because there were no robust, purpose-built electric vans on the market, Amazon partnered with Rivian to design one from scratch.
The speed of the program was unprecedented. In early 2019, Scaringe and the Amazon team were sketching vehicle concepts on a whiteboard. By the end of 2019, they signed the official supply deal, and exactly two years later, the vans were actively delivering packages. Today, Rivian produces about 10,000 of these vans a year. While the commercial van space has moved slower than initially expected due to COVID-19, supply chain disruptions, and capital constraints around charging infrastructure, Rivian has recently begun selling these vans to other commercial operators.
- **Amazon Investment:** Amazon invested roughly $2 billion in total prior to Rivian's IPO, starting with a pivotal $700 million round in 2019.
- **Whiteboard to Road:** The commercial van program went from a whiteboard sketch to active package delivery in exactly two years.
- **Production Volume:** Rivian currently produces approximately 10,000 commercial vans per year and has expanded sales to non-Amazon customers.
[05:51](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=351s) Ramping Production and Navigating the Supply Chain Crisis
Building a reliable production line is notoriously difficult, and early production models of new vehicles are often plagued by quality issues. However, Rivian managed to defy this trend. The host notes that he has been driving his wife's used 2023 Rivian R1—one of the earliest models off the line—and found the build quality and reliability to be incredible. Scaringe explains that unlike software startups, which can launch a loose "minimum viable product" and iterate later, a car company's first product must be incredibly robust. This requires putting vehicles through multiple brutal winters and scorching desert summers, backed by massive durability and reliability teams.
Managing this transition from a fast-moving, prototype-building startup culture to a highly disciplined, process-oriented manufacturing operation was a monumental challenge. If Scaringe could go back in time, he would change one major strategic decision: sequencing their product launches. In late 2021, in the middle of the COVID-19 pandemic, Rivian attempted to launch three highly complex vehicles simultaneously—the R1T truck, the R1S SUV, and the commercial delivery van—while building out their industrial ecosystem.
Despite the extreme difficulty, the R1 platform was a massive critical success, winning "Vehicle of the Year" from MotorTrend and ranking number one by a wide margin in Consumer Reports' annual brand survey for customer satisfaction and repurchase likelihood two years in a row. However, the production ramp-up coincided with the devastating 2022 semiconductor and supply chain crisis. As a new player, Rivian was at the back of the line for parts. Suppliers demanded premiums of up to 20% just to guarantee delivery, forcing Rivian to decide thousands of times whether to halt production or pay inflated prices (such as paying $4 for a $2 part). Rivian chose to absorb these massive cost increases to keep the production line moving.
- **Award-Winning Debut:** The R1 won multiple Truck/SUV of the Year awards and secured the #1 spot in Consumer Reports' owner satisfaction survey, beating the runner-up by 15 points.
- **The Triple Launch:** Rivian launched three distinct vehicles (R1T, R1S, and the Amazon EDV) almost simultaneously during a global pandemic.
- **Supply Chain Penalties:** Rivian faced heavily inflated bill-of-materials costs because suppliers prioritized larger, legacy automotive incumbents during the parts shortage.
[12:02](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=722s) Gen 2 Architecture and the Path to Profitability
To address their challenging cost structure, Rivian spent 2023 resourcing their bill of materials and developing their "Gen 2" vehicle platform. While the exterior of the vehicle remained largely unchanged, the internal electronics were completely overhauled. This massive redesign, combined with renegotiated supplier contracts, led to a considerable reduction in manufacturing costs. As a result, Rivian achieved positive gross margins in the fourth quarter of 2024 and the first quarter of 2025.
The crown jewel of the Gen 2 platform is its transition to a highly consolidated "zonal" electronics architecture. In Gen 1, Rivian used 17 separate domain-specific computers to speed up initial development. In Gen 2, they consolidated these down to just three real-time computers: an East-zone, a West-zone, and a South-zone controller. These three computers run the entire vehicle, managing everything from propulsion and body control to lighting.
This hardware consolidation also allowed Rivian to completely overhaul its approach to autonomy. Starting in late 2021, Rivian began developing an in-house perception stack, utilizing high-resolution cameras, custom radars, and a powerful compute platform. This hardware feeds data into a multi-billion parameter end-to-end foundation model that governs how the vehicle drives. This model is trained via a massive data flywheel and deployed back to Gen 2 vehicles in a distilled state, promising a steep curve of autonomous feature improvements.
- **Gross Margin Positive:** Rivian achieved positive gross margins in Q4 2024 and Q1 2025.
- **Zonal Consolidation:** Gen 2 reduced the number of Electronic Control Units (ECUs) from 17 down to just 3 zonal controllers.
- **Autonomy Stack:** Gen 2 features a completely redesigned, in-house perception stack powered by an end-to-end trained foundation model.
[14:58](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=898s) The Upcoming R2 Platform
The consolidated network architecture and refactored software stack of Gen 2 laid the essential foundation for Rivian's next major milestone: the R2. Described by Scaringe as "the coolest thing we've ever done," the R2 is a smaller, five-passenger SUV designed to capture the mass market.
While the premium R1 platform commands an average selling price of just over $90,000, the R2 will launch with a starting price of $45,000. It is engineered to retain the core identity and "essence" of the R1 but is optimized for significantly higher production volumes.
- **R2 Price Point:** The R2 will start at $45,000, targeting a much broader consumer base than the premium R1.
- **R1 Average Selling Price:** The premium R1 truck and SUV average a selling price of over $90,000.
[15:40](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=940s) Scaling Up: From R1 to the Mass-Market R2 Platform
Rivian currently dominates the premium electric SUV market for vehicles priced over $70,000, commanding roughly a 35% market share in the United States. In progressive EV hubs like California and Washington, the R1 is the bestselling SUV overall, "electric or non-electric." However, the market for a $90,000 vehicle is naturally limited. Rivian expects to ship around 40,000 R1 units this year, but the company is actively tooling up for a massive volume expansion with its upcoming R2 platform.
The R2 will first be manufactured at Rivian's existing plant in Normal, Illinois, where the company is expanding capacity to build up to 175,000 R2s annually alongside the R1 and its commercial delivery vans. This will bring the Normal facility's total capacity to 215,000 units per year. To scale further, Rivian is constructing a new plant in Georgia, which will add another 400,000 units of capacity across two phases. This platform will support the R2, the smaller R3, and other unannounced variants, targeting a massive global market. The average price of a new car in the U.S. is $49,000, and the five-seat crossover/SUV is the most popular configuration, making this mid-priced segment a "huge space" for the brand.
- **Current R1 Volume:** ~40,000 units per year.
- **Normal, Illinois Plant Capacity:** Expanding to 215,000 total units (including up to 175,000 R2s).
- **Georgia Plant Capacity:** 400,000 units across two phases.
- **U.S. Average New Car Price:** $49,000 (the target sweet spot for the R2 platform).
[17:27](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=1047s) The Strategy of Heavy Vertical Integration
Rivian has chosen a highly vertically integrated technology strategy. The company designs and builds almost everything in-house, from low-voltage systems—such as the vehicle computers, software, perception stack, self-driving platform, and infotainment—to high-voltage components like batteries, gearboxes, motors, inverters, and power electronics.
While producing fewer than 50,000 vehicles a year makes the fixed engineering and operational costs of this approach incredibly high, it becomes a massive structural advantage once volume scales. By eliminating traditional tier-one suppliers, Rivian wipes away the added markups and integration complexities that plague legacy automakers.
[18:38](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=1118s) Defying the Skeptics: Why an Electric SUV Was the "Obvious" Choice
When Rivian was founded, the team initially planned to build an electric sports car. However, they quickly realized that "the electric car company starting with a sports car idea has kind of been taken" by Tesla. Furthermore, sports cars are poorly suited for heavy battery packs because the weight compromises handling, whereas an SUV is naturally heavy and perfectly suited for electrification.
Despite this logical fit, when RJ Scaringe pitched the idea of an electric SUV and pickup truck to major automotive suppliers in 2013 and 2014, he was practically "laughed out of the room." Suppliers simply could not comprehend how an electric vehicle could handle off-road conditions, bumpy roads, or deep water. This skepticism created a massive market gap. Rivian set out to prove not only that an electric SUV was possible, but that it could vastly outperform internal combustion vehicles. The new quad-motor R1T truck can accelerate from 0 to 60 mph in just under 2.5 seconds, tackle extreme 45-degree rock faces on trails like Hell's Revenge, and still function as a silent, practical family vehicle.
> "The comical thing is you can pull up to a stoplight, you look to your left and you see a brand new Ferrari and you're actually quicker than that car. And you've got groceries in the front trunk, your kid's in a car seat and silently it just out accelerates any of those things, and then it can veer off the road and drive over a mountain."
[21:20](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=1280s) Shifting the EV Buyer Persona
In the early days of EVs, buyers were expected to accept major compromises in exchange for driving electric—a sentiment epitomized by vehicles like the Chevy Volt, which failed to generate mainstream excitement. Rivian wanted to build a vehicle that buyers would choose purely because it was great, capable, and fun, regardless of its powertrain. They designed the R1 to successfully cross-shop against high-performance icons like the Porsche Cayenne Turbo and rugged off-roaders like the Jeep Wrangler Rubicon, combining the best attributes of both into a single vehicle.
[22:47](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=1367s) "Surprise and Delight" and the Features Left Behind
Rivian has built a reputation for clever, user-centric features that bring "kid-like joy" to the ownership experience. These include the "Gear Guard" security mascot, a custom rechargeable flashlight that slides out of the driver's door, and highly reliable phone-as-key integration. Scaringe, a lifelong car enthusiast, explains that even the friendly, non-aggressive headlight design is intended to make the vehicle "lovable."
Some beloved features had to be cut during development to manage manufacturing complexity. Most notably, late in the R1's development, Rivian designed a removable carbon fiber roof option alongside the standard glass roof. The panels were engineered to fit like puzzle pieces inside the front trunk, offering a Jeep-like open-air experience. Scaringe laments losing this feature but hints that they may bring it back for a future R1.
Meanwhile, new features are making their way into production. The quad-motor Gen 2 R1 features "Kick Steer," which uses extreme torque vectoring across its four independent motors to pivot the vehicle on its axis off-road. The upcoming R2 will feature a drop-down rear glass window on the liftgate—perfect for throwing backpacks into the back during school drop-offs—and highly optimized storage compartments designed around real-world user "personas" like backpackers, commuters, and parents with diaper bags.
[27:38](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=1658s) The CarPlay Debate and the Google Maps Solution
One of Rivian's most debated decisions has been its refusal to support Apple CarPlay. Scaringe explains that this is not due to a poor relationship with Apple—noting they have integrated Apple Music and have more collaborations on the way—but rather a desire to maintain a cohesive, fully integrated digital experience. Jumping between CarPlay and native vehicle controls is jarring, and a homogenized phone-mirroring layer cannot access vehicle-level functions. This integration becomes even more critical with AI, where a driver might want to ask the car to open the front trunk, adjust the temperature, and find a taco spot along their navigation route based on the vehicle's current state of charge.
To address the primary pain point of not having CarPlay—which is a lack of trusted navigation and traffic data—Rivian partnered with Google to bring Google Maps data directly into their native interface. This has successfully eliminated the mapping friction for users. Rivian is also working on an improved voice-to-text system for both Apple and Android users to close the remaining functionality gaps.
> "Trying to do that through a homogenized single layer app that works across many, many brands and by definition in some ways has to play to a lowest common denominator is really challenging."
[31:11](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=1871s) The Final Frontier of Adjustability: Rear View Mirrors and Screen Debates
The conversation kicks off with a lighthearted comparison of car design to a "classic bike shed issue." Because everyone drives a car, family members and friends feel qualified to offer endless suggestions, whereas nobody understands the complex inner workings of a company like Stripe. This leads to a specific design question: why do modern cars automatically adjust seats and side mirrors based on a driver's phone connection, yet the rear view mirror remains entirely manual?
RJ Scaringe explains that this is a deliberate cost tradeoff. While side mirrors have had electric actuators for decades—originally introduced because they are physically difficult for a driver to reach across the cabin or out the window—the rear view mirror is easily within arm's reach. Adding an actuator to it would drive up the bill of materials. "If we have a certain pool of dollars we can spend on the car," Scaringe notes, the team must act as arbiters of how those dollars are allocated. Adding one feature means another must fall out, or the vehicle's price must go up.
The discussion shifts to the alternative of replacing the rear view mirror with a live video feed, a feature seen in some large SUVs. Scaringe reveals that this is a highly debated topic within Rivian. A team has actively pitched him on using a screen instead of a mirror, but he has personally resisted it. He finds screen-based mirrors disorienting if the driver already has good physical visibility out the back window. Rather than pleasing 50% of customers while leaving the other half wishing for a traditional mirror, Rivian has chosen to spend those product dollars elsewhere.
- **Side Mirror Evolution:** Moved from manual glass-pushing to mechanical knobs, and finally to electric controls because of physical reach limitations.
- **The Screen Mirror Debate:** Actively discussed internally, but blocked by Scaringe due to the disorienting nature of screens when physical visibility is already sufficient.
[34:00](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2040s) Seatbelts, Safety Standards, and the Transatlantic Regulatory Divide
The host asks why cars rely on bulky booster seats for children up to age eight rather than simply offering a seatbelt with a highly adjustable third point that can slide down to accommodate a child's height. Scaringe explains that Rivian's seatbelts do have an adjustable third point, but it is only designed to slide down to the height of a "fifth percentile female," which does not cover the smaller child range.
This limitation is a classic case of unintended consequences stemming from regulatory testing. In the United States, safety regulations require vehicles to be crash-tested across a range from a 5th percentile female to a 95th percentile male. Crucially, the U.S. is an outlier compared to other developed nations because it mandates "unbelted tests," where crash tests are run with no seatbelts on. Because the kinematics of an unbelted body in a harsh collision are radically different, the vehicle's airbags and control algorithms must be optimized to protect unbelted occupants. This constraint prevents manufacturers from easily redesigning the cabin's restraint geometry solely around belted occupants.
When asked if he would change global safety rules, Scaringe expresses a strong desire for the United States and Europe to harmonize their standards. The most significant safety divergence lies in pedestrian protection. Europe enforces incredibly strict standards to ensure that if a pedestrian is struck, they are swept over the hood, which must have built-in "give" to cushion a human head. Scaringe points out that these strict European rules dictate bumper and hood shapes, noting that "a Cybertruck could not work in Europe" because it could never pass their pedestrian safety tests.
- **U.S. Crash Testing:** Uniquely mandates unbelted crash tests, forcing complex airbag algorithms and cabin geometry optimized for unrestrained occupants.
- **Pedestrian Protection:** European standards require energy-absorbing hoods and specific bumper profiles to mitigate head injuries, a standard that blocks certain sharp-edged U.S. vehicles from European markets.
[36:51](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2211s) Stripe Sponsor Break: Payment Methods and Global Conversion
The host introduces a brief sponsor segment highlighting Rivian's partnership with Stripe. While a car manufacturer might not seem like a typical Stripe customer, Rivian relies on the platform to handle a massive range of transaction values. Customers put down a $1,000 deposit using a credit card, but when paying the final $90,000 purchase price, they transition to secure bank payments via ACH.
Stripe's Optimized Checkout Suite dynamically manages these diverse payment preferences globally. For instance, businesses expanding to Brazil require Pix, which handles the majority of online payments there, while offering BLIK in Poland can boost local conversion rates by over 40%. Globally, consumers also expect point-of-sale financing options like Klarna. Stripe uses AI to analyze customer context and dynamically surface the most relevant options from over 75 different payment methods.
[37:56](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2276s) The AI Revolution in Autonomous Driving: Gen 1 vs. Gen 2
The conversation returns to automotive technology, addressing the rise in distracted driving due to smartphones. While texting has undoubtedly made human drivers worse, semi-autonomous safety features like fender-bender detection are actively countering the danger. Scaringe, a father of three young children, firmly believes that by the time his oldest is of driving age, the driving environment will be completely transformed. Over the next five years, "hands-free-eyes-off" autonomy will transition from a niche luxury to an industry expectation.
This rapid acceleration is driven by a fundamental architectural shift from "Gen 1" to "Gen 2" autonomous systems.
* **Gen 1 (Rules-Based):** Historically, self-driving systems relied on a perception stack to identify objects (e.g., classifying a person, car, or tree), assign vectors (velocity and acceleration), and hand those data points to a human-written, rules-based planner to plot a trajectory.
* **Gen 2 (End-to-End AI):** Modern systems still perceive the world, but they use transformers to process images and feed them directly into a massive, multi-billion-parameter foundation model. Trained similarly to Large Language Models (LLMs), this approach builds a highly humanistic understanding of driving.
For Rivian, this creates a powerful training flywheel. When a customer is driving manually, the AI model runs in parallel in the background. If the human driver does something different than what the model predicts—such as changing lanes when the model expected them to stay put—that discrepancy is flagged. Multiplied across thousands of vehicles on the road, this data teaches the digital driver how to navigate real-world complexities far faster than human engineers could ever program.
[41:15](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2475s) The Sensor Debate: Why More Modalities Win
Addressing the public debate between Waymo’s sensor-heavy approach and Tesla’s camera-only vision approach, Scaringe finds the polarization around the topic surprising. From a mathematical and sensor-theory perspective, "having more sensors is a better approach" because every individual sensor contains noise.
Rather than relying on a single modality, combining cameras, radar, and LiDAR allows the system to balance out individual weaknesses. Because modern AI models build a unified worldview rather than arbitrating between competing sensor inputs, adding diverse modalities simply provides a cleaner, more robust signal. Furthermore, the economics of these components have shifted dramatically over the last decade:
* **LiDAR Cost Curve:** Fallen from $75,000 fifteen years ago (and $20,000 six to seven years ago) to roughly $200 today. LiDAR excels in extremely bright or low-light conditions.
* **Radar Cost Curve:** High-quality imaging radar now costs around $100 to $125 (with basic radar as low as $25), providing crucial visibility through rain, snow, and thick fog where cameras fail.
Scaringe explains that having multiple modalities also accelerates the training of the camera-based perception stack itself. Just as a human driver in thick fog hunts for the tiny red dots of a leading car's taillights, a neural net trained alongside radar can learn to identify subtle visual cues much faster. Ultimately, Scaringe notes that despite the public noise, there is broad industry agreement on the high-level AI training methodology and the value of rich sensor data.
[44:54](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2694s) Driving Down Costs: Rivian's "Maximus" Motor and Continuous Winding
Beyond sensors, the physical components of electric vehicles are undergoing rapid, cost-saving iterations. Scaringe highlights the evolution of Rivian's electric motors, culminating in their fourth-generation drive unit, named "Maximus" after his middle son.
While 99% of electric vehicles on the road today use "hairpin winding" in the stator—where copper wires are bent into shapes and welded together at hundreds of individual tips—the Maximus motor introduces a continuous winding technique. The copper is woven into a continuous mat and folded over itself, reducing the number of physical welds in the motor by approximately 95%. While this change does not materially alter how the car feels to drive, it is slightly more efficient and significantly cheaper to manufacture, helping to steadily drive down the retail price of electric vehicles.
[46:35](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2795s) The "Field of Weeds" in Traditional Car Software
Historically, traditional car companies have struggled with software because they rely on a massive supplier base of Tier 1s. In a standard vehicle, components are purchased alongside their own dedicated computers. "You buy a seat, it historically has come with a little computer. You buy a car with power windows, it has a power window computer." This setup results in 50 to 150 isolated computers (ECUs) running a single car. This fragmented architecture is why a driver cannot adjust their side mirrors from the center console in a normal car; the systems are built by different suppliers running completely separate "islands of software." Aside from Tesla and Rivian, almost every car on the road today suffers from this limitation.
To solve this, Rivian secured a $5.8 billion deal with Volkswagen—the second-largest car company in the world—to provide them with a "zonal architecture." This platform consolidates the vehicle's operations into a very small number of computers running a unified software platform. It is "inconceivable" that by the early 2030s a major car company will be able to maintain market share without a software-defined architecture. The current state of automotive software is like a "field of weeds" with too many abstraction layers between the manufacturer and the code, making updates impossible. To compete in an AI-driven world that requires deep contextual understanding of the vehicle, manufacturers must transition to a unified architecture. They can try to build it themselves (which is difficult due to a lack of internal skill sets), source it from suppliers (who are incentivized to keep their individual computers in play), or partner with Rivian.
- **Volkswagen Partnership:** Serves as the "ultimate billboard" for Rivian's zonal architecture, scaling from flagship Porsches down to a $22,000 European Volkswagen.
- **Traditional Assembly Model:** Traditional brands act as assemblers, going to a "car Costco" to buy unintegrated parts like backup proximity sensors and rearview mirror adjusters that cannot communicate with each other.
[49:55](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2995s) Software Agility and the "Halloween Mode"
The difference between a traditional network architecture and Rivian's integrated approach comes down to execution and speed. While a feature spreadsheet might make the two systems look identical on paper, Rivian controls everything with a relatively small, agile team of software developers. If an engineer has a novel idea, it can be coded, tested, and deployed to the vehicle fleet in a software release within two weeks. In contrast, traditional manufacturers operate on rigid, years-out requirements documents—such as hardwiring a seat to have exactly six presets—making future evolution incredibly difficult.
To showcase the power of this integrated control, Rivian introduces special seasonal features like "Halloween mode" every year. In the previous year's update, they offered *Knight Rider* and *Back to the Future* themes. When a driver approaches their vehicle in *Knight Rider* mode, the car executes a unique sequence: the front light bar sweeps back and forth, and the interior cabin shifts to custom lighting and sound effects. This level of immersive, synchronized behavior across the HVAC, seats, lighting, and exterior sound is only possible because a single brain controls every system in the vehicle.
- **Proximity Syncing:** A simple but delightful integration where the car detects phone proximity, unlocks, and automatically adjusts the seats and climate control to the specific user—a process that would require coordinating 15 different supplier companies in a traditional car.
- **Knight Rider Legacy:** A humorous nod to the classic show, which was "early to having a lot of on-device compute."
[52:04](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3124s) Evocative Names vs. Alphanumeric Codes
The conversation shifts to a lighthearted debate about car naming conventions. Historically, American automakers used highly evocative, adventurous names like Mustang, Thunderbird, and El Dorado. Today, the industry is dominated by alphanumeric codes like R1, R2, Model 3, and X5. When asked if the industry has lost some of its sense of adventure, it is explained that Rivian chose to keep things simple with a structured naming scheme, though they frequently debate the topic internally.
While the public knows the vehicles as the R1 or R2, the engineering teams use internal code names. For example, the code name for the Generation 2 platform is *Peregrine*, named after the super-fast falcon. The audience reacts enthusiastically to the idea of buying a "Rivian Peregrine." However, not all code names are quite as marketable; the very first production-representative R1 prototype was internally dubbed *Avocado*.
[53:20](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3200s) The Three Pillars of the Rivian Business Model
Twenty years ago, the US auto industry was viewed as a highly capital-intensive, low-margin business focused on driving volume, managing price discipline, and upselling customers from sedans to SUVs. Rivian's business model is fundamentally different, structured around three distinct pillars:
1. **Vehicle Sales Volume:** Selling vehicles generates massive top-line revenue that covers fixed costs and funds R&D. While current vehicles sell for around $90,000, even at a lower average selling price of $50,000, selling 200,000 R2 vehicles would generate $10 billion in revenue. Rivian's revenue was around $5 billion in the prior year and is poised to climb rapidly as production scales.
2. **Technology Licensing:** Monetizing the technology stack through deals like the Volkswagen partnership. These B2B technology sales carry a much higher margin profile than physical vehicle sales, which are targeted to comfortably sit at a 20% to 25% gross margin at steady state.
3. **Direct-to-Consumer (D2C) Ecosystem:** By bypassing the traditional distributor-and-dealer network, Rivian retains a direct relationship with the customer. This allows them to capture the highly profitable post-sale lifecycle, particularly servicing and used car sales.
- **The Dealer Profit Secret:** Traditional car dealers make the vast majority of their profits on service. While building out service infrastructure and hiring technicians is a massive capital expenditure upfront that acts as a cost center during the early warranty-only phase, it eventually becomes a highly profitable "afterburner" once the vehicle fleet grows large enough.
- **Used Car Control:** In a software-defined vehicle, Rivian can run deep diagnostics on used assets and deploy software updates that actively increase the vehicle's residual value, allowing them to capture unique profits in the used car market.
- **Lifetime Value:** The total revenue generated over the 15-year lifespan of a vehicle is typically 2 to 2.5 times its initial purchase price, a recurring revenue stream that traditional automakers completely lose to third parties.
[01:00:00](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3600s) Dynamic Drivetrains and the Rise of Chinese EVs
The discussion dives into mechanical details when a question is raised about tire rotation. Rivian vehicles wear their front tires faster when driving in efficiency mode because the vehicle biases power to the front axle. In Gen 2 and R2 vehicles, this power distribution is managed dynamically. Because permanent magnet motors generate energy losses when spinning freely, Rivian uses a physical disconnect mechanism. In conserve mode, the rear axle is mechanically disconnected. On Gen 2 dual-motor vehicles, this disconnect happens dynamically even in "All Purpose" mode. For the upcoming R2, the mechanical connection and disconnection has been optimized to occur in under 140 milliseconds, making the transition completely imperceptible to the driver while maximizing efficiency.
The conversation then transitions to the global landscape, noting that the defining electric vehicle story of the past decade has been the rapid rise of China. Chinese EVs are not only inexpensive but also highly competitive and well-made. This sets up a broader discussion on how China achieved this dominance and how the US can remain competitive globally.
[01:01:37](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3697s) The Reality of the Chinese EV Threat: Cost vs. Technology
The conversation shifts to the rise of Chinese electric vehicles, particularly their impact on Europe. RJ Scaringe breaks the Chinese EV story into two distinct parts: the cost story and the technology story. In the automotive industry, there are no secrets on the mechanical side; every company buys their competitors' products, tears them down, and analyzes them. "On the mechanical side, there's nothing that's not seen by every car company," Scaringe notes, adding that when Rivian launches the R2, everyone else will immediately take it apart.
Scaringe debuts a counterintuitive truth: there is no manufacturing "magic" or revolutionary component design that explains why Chinese EVs are so cheap. Their designs are clean, featuring excellent part consolidation and elimination—similar to what Tesla or Rivian do—but the true driver of their low cost is a compounding financial advantage. Chinese manufacturers, along with their entire tier-one, tier-two, and tier-three supply chains, enjoy a near-zero cost of capital heavily subsidized by local and federal governments. When you combine this virtually free capital with significantly lower labor costs and multiply it across every single component down to the raw materials, you get a highly advantaged cost structure that simply cannot be replicated in the West. If you built the exact same Chinese car design in the United States using a North American supply chain and Western capital costs, it would be far more expensive. This fundamental disparity is what has driven the United States to implement protective tariffs, while Europe's regulatory path remains a major open question.
- **The Cost Advantage Formula:** Subsidized near-zero cost of capital + low labor costs, compounded across all supply chain tiers (from raw materials to finished parts).
- **The Tear-Down Reality:** Car companies routinely buy and dismantle competitors' vehicles; there are no hidden mechanical secrets.
---
[01:04:05](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3845s) The Second Threat: Clean-Sheet Technology and the Volkswagen Deal
The second, and perhaps more formidable, aspect of the Chinese EV story is their technology. While this does not apply to every Chinese brand, a select group has done an outstanding job by starting with a clean sheet. Free from legacy constraints, they made the same logical, first-principles decisions that Tesla and Rivian made: designing zonal architectures with minimal computers, owning their own software stacks rather than outsourcing them to dozens of different suppliers, and vertically integrating their high-voltage systems. Because of their superior cost structure, they can also afford to say "yes" to more features—though Scaringe jokes that even they have not opted for a powered rearview mirror.
For Western legacy manufacturers, this is the ultimate threat. To survive, they must rapidly develop software-defined architectures and world-class electronic stacks. Scaringe points out that this exact urgency is what drove Rivian's landmark deal with Volkswagen, as Rivian offered a proven shortcut to that advanced technological state. "I think every manufacturer should be thinking, 'How do we build a software-defined architecture as quickly as possible?'" Scaringe warns, because it is the baseline requirement to compete on the global stage.
---
[01:05:59](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3959s) EV Adoption, the "Choice Issue," and the Origin of the Name "Rivian"
When asked about the phasing out of EV tax credits, Scaringe admits it will create short-term headwinds and foster a less-competitive environment as legacy automakers pull back on their EV investments. While he notes myopically that this pullback might be "good for Rivian" by clearing the field, he laments that "it's bad for the world, it's bad for my kids." The starkest symptom of this underinvestment is that Tesla still commands roughly 50% of the US electric vehicle market, even though EVs make up a mere 8% of total US new vehicle sales.
Scaringe argues that this low adoption rate is not a lack of consumer interest, but a lack of compelling choices. In the internal combustion engine (ICE) market, a buyer looking to spend under $50,000 has hundreds of options across sedans, crossovers, minivans, and SUVs. In the EV market, consumers are largely limited to the Tesla Model 3 or Model Y. When other manufacturers launch uninspiring EVs that fail, they mistakenly blame the consumer, claiming "customers aren't ready." Scaringe asserts the opposite: "No, it's because the EV is not that compelling." The R2 is designed to be the first highly compelling, affordable alternative crossover to challenge this status quo. By comparison, China—which offers vast consumer choice—boasts an EV adoption rate three to four times higher than the US, with a very steep growth curve.
To close the conversation, Scaringe shares the origin of the name "Rivian." It is a play on words inspired by his childhood growing up on the Indian River in Florida. The name combines the first few letters of "river" (R-I-V) with the last three letters of "Indian" (I-A-N). They wanted a name that was phonetically smooth and carried no prior meaning in any language. Though it felt unfamiliar at first, it has now become second nature.
- **US EV Market Share:** Electric vehicles represent only about 8% of new vehicle sales in the United States.
- **The Choice Gap:** ICE buyers under $50k have hundreds of options; EV buyers are largely funneled to Tesla's Model 3 and Model Y.
- **China's Adoption Rate:** 3.5 to 4 times higher than the United States, driven by a massive variety of compelling EV choices.
- **The Name "Rivian":** A portmanteau of "**Riv**er" and "Ind**ian**," named after the Indian River where Scaringe grew up.
## Notable quotes
> [18:38](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=1118s) The comical thing is you can pull up to a stoplight, you look to your left and you see a brand new Ferrari and you're actually quicker than that car. And you've got groceries in the front trunk, your kid's in a car seat and silently it just out accelerates any of those things, and then it can veer off the road and drive over a mountain. — RJ Scaringe
> [27:38](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=1658s) Trying to do that through a homogenized single layer app that works across many, many brands and by definition in some ways has to play to a lowest common denominator is really challenging. — RJ Scaringe
> [31:11](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=1871s) If we have a certain pool of dollars we can spend on the car — RJ Scaringe
> [34:00](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=2040s) a Cybertruck could not work in Europe — RJ Scaringe
> [01:01:37](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3697s) On the mechanical side, there's nothing that's not seen by every car company — RJ Scaringe
> [01:04:05](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3845s) I think every manufacturer should be thinking, 'How do we build a software-defined architecture as quickly as possible?' — RJ Scaringe
> [01:05:59](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3959s) it's bad for the world, it's bad for my kids. — RJ Scaringe
> [01:05:59](https://www.youtube.com/watch?v=AlF2H8zeyw8&t=3959s) No, it's because the EV is not that compelling. — RJ Scaringe
## Mentioned
RJ Scaringe, John Collison, Rivian, Stripe, Tesla, Amazon, MotorTrend, Consumer Reports, Peregrine, Avocado, R1, R2, R3, R1T, R1S, Volkswagen, Porsche, Chevy Volt, Jeep Wrangler Rubicon, Porsche Cayenne Turbo, Google, Google Maps, Apple, Apple CarPlay, Apple Music, Pix, BLIK, Klarna, Waymo, Maximus, Knight Rider, Back to the Future, Cybertruck, Ferrari, Tesla Model 3, Tesla Model Y
Rivian founder RJ Scaringe contends that building a viable modern automaker requires abandoning legacy component outsourcing in favor of vertically integrated, software-defined zonal architectures. To sustain profitability, EV manufacturers must pair proprietary hardware-software stacks with aggressive cost reductions and high-volume, mass-market vehicle platforms.
Consolidating Electronics into Zonal Architecture (46:35)
Traditional automotive manufacturing relies on 50 to 150 separate electronic control units (ECUs) purchased from Tier 1 suppliers, creating isolated software silos that prevent centralized vehicle control. Scaringe characterizes this traditional supplier model as a "field of weeds" with too many abstraction layers between the manufacturer and the code, preventing cohesive vehicle updates. To solve this, Rivian overhauled its vehicle platform for its Gen 2 architecture, consolidating 17 domain computers down to three zonal controllers—East, West, and South—that govern all propulsion, body control, and lighting.
This consolidated architecture allows Rivian's engineering teams to deploy fleet-wide software releases within two weeks, in contrast to the rigid, multi-year requirement cycles typical of legacy automakers. The software-defined approach also forms the basis of Rivian's B2B licensing business, exemplified by a $5.8 billion joint venture agreement to license its zonal architecture and software stack to the Volkswagen Group across brands and price tiers.
Scaling Production from R1 to Mass-Market R2 (15:40)
Launching an automotive brand demands billions of dollars in capital, thousands of engineers, and massive production facilities years before generating initial revenue. Rivian faced acute operational strain in late 2021 by launching three complex vehicles simultaneously—the R1T pickup, R1S SUV, and Amazon commercial delivery van (EDV)—while navigating the 2022 semiconductor shortage. To keep assembly lines running, the company absorbed heavy supplier price premiums, sometimes paying double for critical parts.
To establish a sustainable cost structure, Rivian spent 2023 resourcing its bill of materials and redesigning high-voltage components, such as its fourth-generation "Maximus" electric motor, which uses continuous winding to eliminate 95% of stator welds. These revisions helped Rivian achieve positive gross margins in Q4 2024 and Q1 2025. While the company's premium $90,000 R1 platform generates roughly 40,000 sales annually, Rivian plans to unlock volume with the $45,000 R2 platform. Rivian is expanding its Normal, Illinois factory to 215,000 units of total annual capacity (including up to 175,000 R2s) and constructing a Georgia facility to add 400,000 units across two phases.
Multimodal Autonomous Systems and Software Control (41:15)
Rivian transitioned its autonomous driving platform from a Gen 1 rules-based trajectory planner to an end-to-end foundation model. This system processes sensory data via transformers and relies on a fleet training flywheel that flags discrepancies whenever a human driver's choices diverge from the model's predictions. Scaringe forecasts that "hands-free-eyes-off" autonomy will shift from a luxury feature to an industry expectation within five years.
Contrasting his views with camera-only autonomous architectures, Scaringe argues that multimodal sensing is mathematically superior because all sensors have noise. While cameras struggle in poor weather, imaging radar now costs roughly $100 to $125, and LiDAR costs have plummeted from $75,000 fifteen years ago to approximately $200. Rivian applies a similar end-to-end philosophy to its cabin software, deliberately excluding Apple CarPlay to prevent a disconnected interface layer from blocking native vehicle control, while integrating Google Maps to resolve user navigation demands.
Chinese Cost Asymmetry and the EV Adoption Gap (61:37)
Addressing the global rise of Chinese electric vehicles, Scaringe disputes the idea that Chinese automakers possess proprietary mechanical breakthroughs, noting that competitor vehicle teardowns reveal standard design and consolidation practices. Instead, Scaringe attributes their pricing power to a compounding economic advantage: government-subsidized, near-zero cost of capital combined with lower labor costs across every supplier tier down to raw materials. He states this cost structure cannot be replicated under Western capital conditions, prompting protective tariffs in the United States.
Scaringe also rejects claims that slow U.S. electric vehicle adoption—where EVs represent roughly 8% of sales and Tesla holds about 50% market share—is caused by consumer reluctance. Instead, he points to a lack of compelling, affordable choices under $50,000, contrasting this with China's market, where varied choices drive adoption rates 3.5 to 4 times higher. Rivian intends to address this gap with the R2 while utilizing its direct-to-consumer sales model to capture profitable servicing and used-vehicle revenue across a 15-year lifecycle.
While Rivian has demonstrated technical validation through its Volkswagen partnership and achieved positive gross margins, its broader viability depends on executing the mass-market R2 ramp. Competing successfully will require managing high Western capital costs against low-cost foreign producers while navigating potential demand volatility from shifting EV tax policies.
[18:38] RJ Scaringe: The comical thing is you can pull up to a stoplight, you look to your left and you see a brand new Ferrari and you're actually quicker than that car. And you've got groceries in the front trunk, your kid's in a car seat and silently it just out accelerates any of those things, and then it can veer off the road and drive over a mountain.
[27:38] RJ Scaringe: Trying to do that through a homogenized single layer app that works across many, many brands and by definition in some ways has to play to a lowest common denominator is really challenging.
[31:11] RJ Scaringe: If we have a certain pool of dollars we can spend on the car
[34:00] RJ Scaringe: a Cybertruck could not work in Europe
[46:45] RJ Scaringe: inconceivable
[46:45] RJ Scaringe: field of weeds
[46:45] RJ Scaringe: car Costco
[46:45] RJ Scaringe: the ultimate billboard
[53:20] RJ Scaringe: afterburner
[61:37] RJ Scaringe: On the mechanical side, there's nothing that's not seen by every car company
[64:05] RJ Scaringe: I think every manufacturer should be thinking, 'How do we build a software-defined architecture as quickly as possible?'
[65:59] RJ Scaringe: it's bad for the world, it's bad for my kids.
[65:59] RJ Scaringe: No, it's because the EV is not that compelling.
Original transcript
[0:00] Cars used to have cool names.
[0:01] You know, you had Mustang, Thunderbird.
[0:03] Now we have R1, R2.
[0:06] Yeah, so the code name
for Gen 2 is Peregrine.
[0:08] Okay, beautiful.
Which is
[0:09] a super fast falcon.
[0:10] Would anyone here buy a Rivian Peregrine?
[0:12] Yeah, I'm seeing a lot of takers.
[0:13] With the exception of two
companies, Rivian and Tesla,
[0:16] every car on the road has anywhere
[0:18] from 50 to maybe 150 little
computers that run the car.
[0:21] This is why you, in a normal car,
[0:23] cannot adjust the, say the side mirrors,
[0:26] from the center console.
[0:27] It's two or three different companies.
[0:28] In 2013, 2014, I would
go meet with suppliers,
[0:33] CEOs of very large suppliers and say,
[0:35] "We're working on an electric
SUV and electric truck
[0:38] as a flagship product."
[0:39] To say, "laughed out of the
room" is probably accurate.
[0:44] So you know how to pour
these things and everything.
[0:45] These are actually really easy.
[0:46] This is good, this is a new...
[0:48] No, you've got to go all the way.
[0:49] All the way?
It's perfectly sized to fit.
[0:51] That is impressively sized.
[0:52] RJ Scaringe is the
founder and CEO of Rivian.
[0:55] Makers of electric trucks and SUVs.
[0:58] You've probably started to see Rivians
[0:59] out and about on the road.
[1:00] It's a delightful product,
[1:01] and how they built an
independent new car company
[1:04] is a really interesting story.
[1:05] Welcome, cheers.
Cheers, yeah.
[1:08] The Rivian story makes no sense to me.
[1:12] It shouldn't have worked
because you grew up
[1:15] passionate about cars, nature enthusiast.
[1:18] You did a mechanical engineering PhD
[1:21] and Rivian was not only the
first company you started,
[1:25] it was your first job, or
I mean your first career.
[1:27] Yeah, yeah.
[1:28] Like, hardware companies
are startups on hard mode,
[1:32] auto companies are hardware
companies on hard mode.
[1:35] So everything about this just seems
[1:38] like it shouldn't have worked out.
[1:40] Yeah, yeah, it's really hard.
[1:41] Explain yourself.
[1:43] Yeah, I mean one of the things
[1:43] that makes starting a
car company so difficult
[1:45] is you need a lot of hard-to-obtain things
[1:50] all at the same time.
[1:51] So you need billions
of dollars of capital,
[1:54] you need a team of thousands of engineers.
[1:56] You need hundreds of suppliers
[1:58] that would want to work with you
[1:59] and provide components and parts,
[2:01] a manufacturing facility that's enormous
[2:03] and takes years to build.
[2:05] And if you had all those
ingredients at the start,
[2:07] it would take maybe four or five years
[2:08] to launch the first product.
[2:10] But in the beginning you have
none of those ingredients,
[2:11] and so it really is a
challenging exercise.
[2:14] And for me, I think the part
[2:16] that was probably harder than I expected
[2:17] was just the path to go from,
we started with no capital,
[2:21] so to go from no capital to raising
[2:23] a very small amount of capital,
[2:25] enough to prove out some
semblance of an idea,
[2:29] but then to start to raise
[2:30] more and more capital to scale it.
[2:31] But it was a low probability of success.
[2:34] So what were the moments where,
[2:35] if you're following the prediction market,
[2:36] if you're looking on Polymarket,
"Will Rivian succeed?"
[2:40] What are the moments where the probability
[2:41] would've spiked upwards at some point?
[2:44] Probably 2019.
[2:45] 2019 Amazon invested in the company,
[2:47] so that would be a big
spike in the probability.
[2:49] Sure, how much did they invest?
[2:50] Well, in total they invested
several billion dollars
[2:52] before we went public.
[2:53] You know, today they're
our largest shareholder,
[2:55] but in addition to them,
so they invested at,
[2:58] I think around 2 billion
prior to our IPO, roughly.
[3:01] Because it invested in a few rounds.
[3:03] But the round they invested
in was a $700 million round.
[3:05] It was our big first round
of a number of strategic
[3:10] and really well-known investors
came in at that point.
[3:13] And that was after we'd shown the product
[3:15] at the LA Auto Show.
[3:17] And prior to that we'd raised
a few hundred million dollars,
[3:19] but we still needed quite a bit more money
[3:20] to launch the company.
[3:21] But importantly, beyond
just them investing,
[3:23] we also put a commercial deal together
[3:25] where we build commercial vans for them.
[3:27] And so you now see them
all over the place.
[3:29] These are the big electric
vans that we build
[3:31] with Amazon as a lead customer,
[3:32] but there's other non-Amazon customers.
[3:33] Why did they care about electric vans?
[3:35] Was it their climate commitment?
[3:36] Was it something to do with
operationally it works better?
[3:39] What do they want?
Well, there's a true
[3:40] cost advantage to running
electric vans for deliveries.
[3:42] So when you think about a delivery van,
[3:45] it spends a lot of its time sitting still.
[3:47] And so not having an engine idle,
[3:49] not having the same service frequency
[3:52] and all the engine maintenance
and repairs, oil changes,
[3:55] brake replacements,
everything just goes away.
[3:57] So there's a real cost
advantage to running EVs,
[3:59] but there weren't any
great electric van products
[4:02] in the market and certainly
nothing that was designed
[4:05] with robustness or with
their use case in mind.
[4:08] Okay, so they thought for
their logistics operation,
[4:10] having a proprietary
source of electric vehicles
[4:12] would lead to a long-term
operating cost advantage.
[4:15] Yeah, I mean, it was wild.
[4:17] From the early meetings with Amazon,
[4:19] we sketched an idea on the whiteboard.
[4:22] And that was in like
2019, early part of 2019,
[4:26] we were sketching the
ideas for the vehicle
[4:29] and by end of 2019 we'd signed a deal
[4:33] to supply commercial vans,
[4:34] and then exactly two years
later we launched the product.
[4:38] So it was a extremely fast program
[4:40] to go from whiteboard to
vans delivering packages
[4:44] within about two years.
[4:45] Yeah, yeah, yeah. And where are those?
[4:47] Where is production of those vans now,
[4:49] in terms of volumes or
kind of how you work
[4:51] with Amazon on it?
[4:52] It's about 10,000 or so a year.
[4:53] It's going to be growing.
[4:55] So we're bullish on the van
market in the long term.
[4:59] I think in the short term there's been
[5:00] a lot of things we didn't plan for.
[5:02] We had COVID, supply chain interruption.
[5:04] We've seen a number of companies
[5:06] just be much more capital constrained
[5:07] in how they deployed assets
[5:09] to invest in, let's say, electrification
[5:11] or electrification infrastructure.
[5:12] And so the whole commercial van space
[5:14] has moved slower than we thought.
[5:15] But the economics are so advantaged
[5:17] that we're really clear on it
long term being a big space.
[5:20] Do you already sell those vans to others?
[5:22] Will you sell those vans to others?
[5:23] Yeah, we just started about
a year ago selling to others.
[5:27] Okay.
But the ramp up has been slow.
[5:30] When you think of large operators of vans,
[5:34] very often these are not the companies
[5:35] that are going to take the
biggest risks on technology
[5:37] or be on the front edge of early adoption.
[5:40] So we think of it as they take
smaller steps with pilots,
[5:42] prove the model, prove
that they can support
[5:44] the charging infrastructure.
[5:46] And then once they see
the economic advantage,
[5:48] then I think many will make the switch.
[5:51] Yeah, going back to the Rivian
story being a bit unlikely,
[5:53] the other thing that seems to me
[5:54] is getting reliable production
going is really hard.
[6:01] And again, it feels like the first cars
[6:04] that roll off the line
should be super janky
[6:06] and unreliable and everything like that.
[6:08] In preparation for this episode,
[6:09] I've been stealing my wife's Rivian,
[6:11] I've been really enjoying it.
[6:12] And it is, you're complaining because
[6:13] you're making fun of me
[6:15] because it's a used
version that we bought,
[6:17] not a new version, so it's a '23 model,
[6:19] which is one of the earliest
ones, and it's awesome,
[6:22] and it works great and the
build quality is incredible
[6:25] and things like that.
[6:26] And so again, that's the other part to me
[6:27] that feels unreliable of the story.
[6:29] Just it feels like that's not how
[6:32] hardware companies usually go.
[6:33] So how did you guys get the quality
[6:35] and reliability good out of the gate?
[6:35] Yeah, I mean one of the things
[6:37] that's so different about
building a car company
[6:41] versus most software,
most technology companies,
[6:43] and for that matter,
even how venture capital,
[6:45] how it's evolved and
how how it takes place
[6:47] is the first product of most startups,
[6:50] like usually a tech or
software-centric startup
[6:53] is pretty loose, it's there to demonstrate
[6:55] that the idea holds promise,
[6:57] and it may not have
scalability built into it,
[7:02] but it shows there's a product market fit.
[7:03] And then following that there could be
[7:05] more capital invested to grow it,
[7:07] to add robustness to the product.
[7:09] So the minimum bet size
for you is really big.
[7:12] Yeah, so in a vehicle, your
first dollar of revenue
[7:14] takes many billions of
dollars of development.
[7:17] And the thing you launch
needs to be incredibly robust.
[7:20] And so that means multiple
winters of testing.
[7:23] Multiple hot summers where
you're testing vehicles
[7:25] in the desert, very large durability
[7:29] and reliability team set up to run this.
[7:32] And there's cultural challenges.
[7:34] When you think about
building a new company.
[7:37] One of the strengths of
a new company very often
[7:39] and I think what allows startups
[7:42] and entrepreneurs to excel
[7:43] is they're willing to try
new things as businesses,
[7:47] it gets embedded into the culture.
[7:49] There's a certain move fast
and break things mindset.
[7:53] And that's great for technology,
[7:55] it's great for pushing boundaries,
[7:56] but it's very different than the skills
[7:58] and the cultural mindset you need
[8:00] to run stable operations where let's say
[8:04] if you're running a manufacturing plant,
[8:05] you need repeatability,
[8:07] you need a lot of process orientation.
[8:10] And so just for us,
[8:12] this step of going from a
product development company
[8:14] developing new technology,
[8:16] making prototypes, which are wonderful.
[8:19] And demonstrating that
those prototypes are capable
[8:21] and then transitioning that
into a production system
[8:24] that can scale and has high quality
[8:27] and robustness built into it.
[8:28] That took a lot of work, it was hard.
[8:31] But the first version of
many hardware products
[8:34] have a lot of teething pains.
[8:35] Like, did the R1 have a
lot of teething pains?
[8:38] Did you guys do something
different to avoid that?
[8:40] Well, so for us, we made a few,
[8:44] if I could go back in time,
[8:45] I probably would change one thing.
[8:46] We launched a truck, an
SUV, so the R1T and the R1S,
[8:48] so it's a sibling-set of products.
[8:51] At the same time we
launched a commercial van.
[8:52] So we launched three
different products at the time
[8:56] and we were building out our plants
[8:58] starting in the beginning of
2020 and then launched in 2021.
[9:02] And so like trying to build
out an industrial ecosystem,
[9:05] turn on a supply chain and
then ramp a product is hard.
[9:09] Doing that in the middle
of COVID is really hard,
[9:11] and doing that across three
different product lines
[9:13] was extremely hard.
[9:15] And so I probably would've
inserted more sequencing
[9:18] between all those different products.
[9:19] But nonetheless, when the R1 launched
[9:22] we won vehicle of the
year, which was awesome.
[9:27] And so MotorTrend does this,
a few different organizations.
[9:29] We had multiple truck or
SUV of the year awards
[9:32] and then Consumer Reports
does this annual brand survey,
[9:35] and they look at customer
satisfaction, customer appeal,
[9:38] and they look at likelihood to repurchase.
[9:40] And so in our first year of production
[9:42] with our first product
we've ever produced,
[9:44] we came out by far number one
on that, which was amazing.
[9:48] And in our second year we
came out by far number one.
[9:51] So we beat the next
closest by like 15 points.
[9:55] So that was amazing.
[9:56] It was really just a reflection
[9:57] of how much work the teams had put in
[10:00] to make all these product-level decisions,
[10:02] trade offs around...
[10:04] You think of a vehicle,
it's many tens of millions
[10:07] of trade offs you're making around cost
[10:10] versus performance versus a feature.
[10:13] And so we'd really done a nice job
[10:15] of getting the product market fit right,
[10:16] so really connected with consumers.
[10:18] But saying all that, the ramp was hard.
[10:20] So launching late '21, it was difficult
[10:24] because we were coming
off the back of COVID
[10:27] and then we had this awful
supply chain crisis that hit,
[10:31] you may remember like
2022 or getting anything
[10:34] from drywall to semiconductors was hard.
[10:36] But in our case we were last in line
[10:39] with many of the suppliers
because we were new.
[10:42] And so you can imagine we went
[10:44] from having a bill of materials
[10:46] that was already inflated
[10:47] relative to existing large incumbents,
[10:49] to something where if
we just wanted supply,
[10:52] they said,
[10:53] "look, you're going to have
to pay us an extra 20%."
[10:54] And so it was like this across
thousands of parts in a car,
[10:58] all these discreet decisions
[10:59] of do we stop production for
this part that should cost $2,
[11:04] but we're being asked to pay $4.
[11:06] And you do that several
thousand times and it adds up.
[11:09] So we had a cost structure
that was really challenging.
[11:12] We chose to actually ramp
with some of that cost.
[11:15] And I assume you mostly just
ate those cost increases
[11:18] because it doesn't make sense
[11:19] to spike the cost of the vehicle.
[11:20] Did you debate whether
you should pass along
[11:22] the cost increases or eat them?
[11:24] Well in parallel to this,
[11:26] of course inflation went
really wild in 2022 into 2023.
[11:31] So the price of vehicles grew quite a bit
[11:35] in that same timeframe.
[11:36] And so we did add, in reaction to that,
[11:40] we did have adjustments to our pricing,
[11:42] but we've tried to be
really stable in pricing.
[11:44] because it's always hard
[11:45] if your pricing's moving around a lot,
[11:47] it wrecks havoc on the residual market.
[11:49] Yeah, you can't plan for car purchase.
[11:51] It's just really hard for consumers.
[11:53] So we tried to be really
methodical with that.
[11:56] But saying all that, we had
to sort of grow through '23,
[12:00] we resourced a lot of
our bill of materials.
[12:02] We launched what we call
Gen 2 of the vehicle,
[12:05] which you don't have, but
is a meaningful step forward
[12:08] in terms of technology, but
also a considerable reduction
[12:12] in the overall cost of the vehicle.
[12:13] And so finally end of
'24, beginning of '25,
[12:17] we started to hit positive gross margins.
[12:19] So Q4 of '24, Q1 of '25
positive gross margin.
[12:24] We're extremely bullish on
long-term profitability,
[12:27] but this business is really tough.
[12:29] If you have disruptions to the supply,
[12:31] just the fixed costs are really tough.
[12:33] What's the Gen 2 pitch?
[12:34] What's most exciting from
a tech point of view?
[12:36] Is it autonomy, is it something else?
[12:38] Boy, yeah, there's a lot there.
[12:41] We didn't change the
exterior of the car much.
[12:43] So really, we redid a lot of the interior,
[12:46] like the guts of the car.
[12:48] And the biggest change was on Gen 1
[12:50] we designed and built all
the electronics in the car.
[12:54] But we allowed for a number
of the compute platforms
[12:58] to be specific to an area,
like specific to a domain.
[13:02] Oh, this the zonal architecture
where you move to...
[13:04] Yeah, so the reason we
did that at the start
[13:06] is we needed to move fast.
[13:07] So let's say you're on
the body controls team,
[13:10] your timeline isn't necessarily the same
[13:12] as let's say the powertrain controls team
[13:14] or the vehicle dynamics team.
[13:15] And so we allowed the proliferation
[13:18] of a few different domains
[13:19] that we knew long term would consolidate.
[13:21] But we made the decision,
[13:22] because we said we own
the whole software stack,
[13:24] we own the electronics,
[13:24] the consolidation will come in step two.
[13:27] And then with Gen 2 we
went from 17 down to three.
[13:29] And so now we have a, what we
call an East-zone controller,
[13:32] a West-zone controller, and
a South-zone controller.
[13:34] When you say controller,
these are the the computers
[13:37] and the integrated kind
of systems management?
[13:39] Yeah, so there's three real-time
computers in the vehicle
[13:42] that run the whole platform.
[13:43] So they run everything from
propulsion to body control
[13:46] to your lighting, all
the real-time systems.
[13:51] And that was a big lift
to move all the software
[13:54] into this new architecture.
[13:57] But we also used that as a chance
[13:59] to completely change out the
way we approached autonomy.
[14:01] And so that effort started
in actually about late 2021
[14:05] where we recognized we
needed to move entirely
[14:08] to a platform where we owned
[14:09] the entirety of the perception stack.
[14:11] So all the cameras, in
our case also the radars,
[14:15] a much more powerful compute
platform for autonomy
[14:18] and launch that in a way
[14:20] such that we can build
this large data flywheel
[14:22] where we can train the system
[14:23] and what we often call
now end-to-end training
[14:25] where we have cameras,
radars that feed in,
[14:28] that's building a large parameter,
[14:30] multi-billion parameter foundation model
[14:33] that governs how the vehicle drives.
[14:34] We then deploy that in a distilled state
[14:36] back into the vehicle.
[14:38] So that's now in the car,
and the slope of the curve
[14:41] in terms of progress
and additional features
[14:43] is going to be really steep.
[14:45] Your Gen 1 won't have
that, but Gen 2s well.
[14:48] But that was a huge part of the lift
[14:50] and all that laid the
network architecture,
[14:52] the consolidation of ECUs,
this refactored software stack,
[14:55] it laid the foundation for us
to do a lot of other things.
[14:58] So we're about to launch
our lower price vehicle,
[15:01] which we call R2.
[15:02] It's the coolest thing we've
ever done. It is awesome.
[15:05] It's a smaller SUV, five passenger,
[15:06] as I was telling you
before, you will love it.
[15:09] If you like the R1,
you'll really like the R2,
[15:12] but it's a starting price of $45,000.
[15:16] It has all the essence of
a Rivian that you see in R1
[15:18] but squeezed into a slightly—
[15:21] And higher volumes, I presume.
[15:22] Much higher volumes.
[15:23] Can you give us the comparison
[15:24] between R1 volumes and R2 volumes?
[15:26] So R1, the average selling
price is just over $90,000.
[15:30] And so it's, in terms of...
[15:33] These things are always
subject to boundary diagrams.
[15:35] But if you draw the boundary diagram
[15:37] around electric premium vehicles,
[15:40] so like premium SUVs
that are over $70,000,
[15:44] we're by far the bestselling vehicle
[15:47] in that class of vehicles.
[15:49] So we have about 35% market share
[15:51] as we draw that boundary diagram.
[15:52] Said differently we have
the bestselling electric SUV
[15:56] over $70,000 in the United States.
[15:58] Interesting, in California
and the state of Washington,
[16:00] we have the bestselling SUV
electric or non-electric
[16:04] in California and the state of Washington.
[16:06] That fits with what I
see out on the roads.
[16:07] Yeah, so if you're here in
the Bay area, like everywhere,
[16:09] so it is the bestselling premium SUV.
[16:11] But the size of the market
[16:12] for someone who's buying a $90,000 vehicle
[16:14] is just naturally more collapsed.
[16:17] So kind of how many
R1s do you ship a year?
[16:18] This year we'll do, call it 40-ish.
[16:21] 40,000, okay.
[16:22] And so what are you tooling up for
[16:23] in terms of R2 production?
[16:25] So R2 we're going to build
first in our plant in Illinois,
[16:28] just south of Chicago,
a town called Normal.
[16:30] And there we'll be
building up to 175,000 R2s.
[16:34] In addition to R1 in addition
to our commercial vans.
[16:37] But we're also building
a plant in Georgia,
[16:40] which will be the further expansion
[16:42] and the size of the market
for R2 and then R2 variants.
[16:45] So there's an R3, there's other things
[16:47] we haven't yet announced.
[16:48] But there's a whole host of products
[16:50] that sit on that platform.
[16:51] You know, it's many millions of units.
[16:53] It's the whole, if you think of
[16:55] the whole automotive demand space,
[16:57] the average price of new car
[16:59] in the United States is $49,000.
[17:00] The most popular configuration
[17:01] is a five seat SUV or crossover,
[17:05] and so it's just a huge space.
[17:07] Okay, so you're on the cusp
of a very significant ramp up.
[17:09] Yeah, so sort of the first
step is going from, in total,
[17:13] call it sub 50,000 units a year,
[17:15] the plant will be capable of 215,000 units
[17:18] with just our Normal facility,
Normal, Illinois facility.
[17:21] And then we add in
Georgia across two phases,
[17:24] another 400,000 units of capacity.
[17:27] We've taken the approach
[17:27] of very heavily vertically
integrating technology.
[17:30] And so everything from
the low-voltage systems
[17:33] we just talked about,
[17:34] so the computers in the car,
[17:36] the software that runs in
them, the perception stack,
[17:38] our self-driving platform, our
whole infotainment platform,
[17:42] and then into the
high-voltage side, batteries,
[17:44] gearboxes motors,
inverters, DC-DC converters,
[17:47] DC-AC converters, all
that power electronics,
[17:49] all is done in house.
[17:51] And so when you're producing
less than 50,000 units a year,
[17:54] the engineering fixed cost
[17:56] and the operational fixed
cost to run that is very high.
[17:58] So it's a structural cost
challenge, but you reach your—
[18:01] Sorry, the fixed cost to run which?
[18:03] Well just to run an engineering team
[18:05] to engineer all that content,
[18:07] but it's only finding its way
[18:08] into a small number of vehicles.
[18:10] You're saying the systems are very complex
[18:12] and so you want to amortize that—
[18:13] So once we add volume,
[18:15] then it becomes this enormous
structural cost advantage
[18:17] because we don't have...
[18:19] Typically you have a lot
of tier one suppliers
[18:22] that provide all these systems
and they add a lot of cost,
[18:25] and for that matter also
a lot of complexity.
[18:28] So because we do it all ourselves,
[18:30] all that complexity
and cost is wiped away.
[18:33] But you need the volume to
really have it make sense.
[18:38] It seems interesting to me
[18:41] that there was a gap in the
market for an electric SUV.
[18:45] because when you think about it,
[18:46] you guys were thinking
about starting originally
[18:49] with a sports car, that's
what you founded the company
[18:50] to start with, and my
sense is that you said,
[18:53] "Huh, the electric car company
[18:56] starting with a sports car
idea has kind of been taken."
[18:58] That's exactly, yeah.
"So maybe we'll pivot."
[19:01] But I've driven the Tesla Roadster,
[19:04] it's not a good idea
[19:05] to put a ton of batteries in a sports car.
[19:07] It doesn't handle well,
whereas an SUV is heavy anyway.
[19:11] It's perfectly suited to
being an electric vehicle.
[19:13] And so why were you guys able
to arrive into the market
[19:16] and take what feels like
the most obvious form factor
[19:19] for an electric vehicle?
[19:20] Boy, is that a good question?
[19:22] It's funny how things change over time.
[19:23] So today it seems obvious,
but in like 2013, 2014,
[19:31] I would go meet with suppliers,
[19:33] and CEOs of very large suppliers and say,
[19:36] "We're working on an electric
SUV and electric truck
[19:39] as a flagship product.
[19:40] Following that we want to launch
[19:42] more affordable electric SUVs."
[19:44] And the lack of understanding
[19:47] of what an electric vehicle
can do in those conditions
[19:50] was so extreme that it's
hard to even appreciate this.
[19:53] I mean, I would get, to say,
"laughed out of the room"
[19:55] is probably accurate.
[19:56] I mean, it would be like,
[19:58] "Why would you make an electric SUV?"
[19:59] And the questions would
be, "Well what if it
[20:01] has to go over a bumpy road?"
[20:03] Or, "What if it needs
to go through water?"
[20:06] And so there's this perception
[20:07] that you couldn't drive an
electric vehicle off road.
[20:10] You couldn't go through deep puddles.
[20:12] And so born out of that,
[20:13] we realized it was actually
this amazing opportunity
[20:15] to not only say, "Yes, you
can make an electric SUV,"
[20:19] or, "Yes you can make an
electric lifestyle pickup,"
[20:22] but you can make it so much better
[20:25] than anything in the combustion world.
[20:27] And so we really had fun with that.
[20:29] I mean the R1, our new quad motor R1
[20:32] does zero to 60 on the R1T, the truck,
[20:35] we'll do zero to 60 in just
under two and a half seconds.
[20:38] It can manage the most
complex off-road trails.
[20:42] Like Hell's Revenge or any
of the really hard stuff
[20:45] where you're going up
almost 45 degree angle
[20:48] steep rock faces, it
can do that no problem.
[20:51] And you can use it every day.
[20:52] And so like the comical thing
[20:53] is you can pull up to a stoplight,
[20:55] you look to your left and
you see a brand new Ferrari
[20:59] and you're actually quicker than that car.
[21:02] And you've got groceries
in the front trunk,
[21:04] your kid's in a car seat
[21:05] and silently it just out
accelerates any of those things,
[21:08] and then it can veer off the
road and drive over a mountain.
[21:11] So we wanted to make this product
[21:14] that's just completely challenged
[21:16] those incorrect assumptions
around technology.
[21:20] So if you rewind to those
suppliers in 2013, 2014,
[21:23] is what they missed, one,
they were maybe thinking
[21:25] about the Ford F-150 market,
[21:28] which will be slower as adopters,
[21:30] but there's a very large just
general everyday SUV market,
[21:36] and kind of outdoor enthusiast market.
[21:38] Is kind of thing one,
they kind of misunderstood
[21:40] some of the truck markets.
[21:41] And then secondly, you can
actually make a better vehicle
[21:45] when you have all this
abundant chips power
[21:47] available to you because
especially as you get
[21:48] into the outdoorsy stuff,
[21:50] having just an abundant source of power
[21:52] is actually pretty nice
[21:52] for a lot of the other functionality.
[21:53] Yeah, I think with electrification
[21:56] we have found that particularly
early on, this has shifted.
[21:59] But there was this perception
[22:00] of what an electric vehicle buyer was
[22:02] and if the description of a
Rivian was, "It's electric"
[22:07] and then you describe
all these compromises,
[22:10] that sort of fits the historical,
[22:12] call it 2014 description
of electric vehicle buyer.
[22:15] Buying a vehicle, accepting
a bunch of compromises.
[22:18] But we have customers today
[22:19] that are not buying it
because it's electric,
[22:21] they're buying it because
it's great to drive,
[22:23] it's fun, it's capable,
it fits their lifestyle.
[22:26] And so that was a goal
No-one ever got
[22:27] super excited about a Chevy Volt.
[22:28] They're like, "This is the car I want."
[22:30] We wanted a vehicle that was like,
[22:31] "If you're cross shopping this
with a Porsche Cayenne Turbo"
[22:35] or let's say like a Wrangler Rubicon,
[22:39] you'd be like, "Wow, this
is a better vehicle."
[22:41] And it actually does the
things that the Rubicon can do
[22:44] and it does the things
[22:45] that the Cayenne Turbo can do in one car.
[22:47] Where did the culture
[22:49] of surprise and delight
features come from?
[22:51] Because that's one thing
I associate with Rivian.
[22:53] We have here your gear guardian,
[22:55] is that what you said
this fella's name is?
[22:57] The kind of animated fellow
[22:59] who kind of makes clear
to any ne'er-do-wells
[23:03] that they are being monitored
[23:05] if they're trying to break into the car.
[23:06] You also have things like the flashlight
[23:08] is a very cute feature.
[23:09] And then I also noticed,
[23:11] this is not quite surprise and delight,
[23:12] but they're often features
that other cars will have
[23:14] that I find they're just executed
really well in the Rivian.
[23:17] And so the functionality where
you pair it with your phone
[23:19] and then it kind of locks and unlocks
[23:20] based on your coming and going.
[23:22] Lots of cars claim to have that,
[23:24] but unless it works super reliably,
[23:26] it's actually more annoying
than not having it, right?
[23:28] because you walk away from
the car and you're like,
[23:29] "Huh, did it lock?" or whatever.
[23:30] And again, the execution of that feature
[23:32] on the Rivian is really, really good.
[23:34] It's better on Gen 2.
[23:36] I will, I promise that
someday I'll upgrade.
[23:39] Where did this come from?
[23:41] Why have a flashlight in the car?
[23:43] I'm a huge car enthusiast
[23:44] and I think that's really helpful
[23:47] in that I love cars, I've
grown up loving them.
[23:53] And so as a kid, when you're
growing up reading about cars,
[23:57] it connects with this emotional,
[24:00] almost dreamlike part of you
[24:01] where you're imagining and
you're dreaming of things.
[24:04] I have three kids now
[24:06] and I ask them to sketch, "Hey, sketch me
[24:08] what an R12 looks like,
or an R9, or an R23.
[24:12] The ideas they come up with
[24:14] are so wonderfully removed
[24:16] from the practicalities
of what's possible.
[24:18] And they have all these
like surprising features.
[24:20] Sometimes they're like
wildly not possible.
[24:24] But we wanted to have
some of that kid-like joy
[24:27] built into the product,
[24:28] and even the aesthetics
of how the vehicle looks.
[24:30] It's one of the fastest
cars you could buy today,
[24:34] but it doesn't look
mean, it looks friendly.
[24:37] And so we wanted the
vehicle to be lovable.
[24:39] We wanted a lot of, when you
fall in love with something,
[24:43] it makes like the little things nice.
[24:45] And so, I mean, my kids and I
were at a farm the other night
[24:48] and it got dark and we're
walking around in the cornfields
[24:51] and we needed a flashlight.
[24:52] So it was perfect, we
walked back to the car,
[24:53] pulled a flashlight out of the car
[24:55] and everybody that was with us was like,
[24:56] "How'd you get a flashlight?"
[24:57] I'm like, "Oh, I have one
in the car, it's built in."
[25:00] And so it's those little
features that they just unlock.
[25:03] That made the whole night
different for myself,
[25:06] my kids, and a bunch of other people.
[25:08] And so we thought about
[25:09] those kinds of features really carefully.
[25:11] What are fun features that you left
[25:13] on the cutting room floor
[25:14] that you would love to have put in?
[25:15] Or maybe you'll do in a future car, but...
[25:17] On R1?
Yeah.
[25:19] Oh, I shouldn't say this here
[25:20] because everybody's going
to say, "Bring it back."
[25:21] Up until very, very late in
R1 we had two roof options.
[25:27] One's the glass roof,
[25:28] which is what you guys have in your car,
[25:30] and the other was a
beautiful carbon fiber roof
[25:32] that you could take it off the top
[25:36] and it fit perfectly puzzled
into the front trunk.
[25:38] Oh wow.
[25:39] And so you get this, now when
you look up with the glass,
[25:42] imagine there's no glass
there and it's open.
[25:44] So you get this really nice open air—
[25:45] A Jeep Wrangler kind of...
[25:46] Yeah, that was really nice,
[25:46] especially in a car like
this, to have that capability.
[25:50] Future R1, someday we'll bring that back.
[25:52] That was really cool, we
all lamented losing that,
[25:54] but it was just a lot.
[25:55] Again, back to complexity and launching,
[25:57] we decided just to manage
our own complexity in that.
[26:00] But that was one.
[26:02] Now R1 has just about
everything we wanted.
[26:04] The new quad we brought back this,
[26:07] we call Kick Steer
feature, where we can use
[26:09] the fact that there's
four motors in the quad
[26:11] in the four-motor version to
introduce torque vectoring
[26:14] to an extreme degree where you can pivot—
[26:16] Like an F-22 Raptor,
you're cross vectoring.
[26:18] Yeah, you can pivot it on its axis,
[26:21] so it's really fun off road.
[26:22] It's not an on road feature
[26:24] you're not going to use it on the highway,
[26:25] and it's quite useful.
[26:26] Not with that attitude.
[26:27] Yeah, not with that attitude.
[26:29] But, so we brought that back.
[26:30] I think as I look at R2,
there's some features on it
[26:33] that we didn't put in R1, but
that really make R2 special.
[26:36] So R2 still has a flashlight,
[26:38] but the rear glass on
the lift gate now drops.
[26:42] And I've been using an R2
with the kids to do school
[26:43] drop offs.
[26:47] And it is so cool to come
up with the back glass open
[26:50] and the kids just throw their backpacks in
[26:51] through the back of the
car, so I love that.
[26:55] And then we've added a few other
[26:57] really thoughtful features around.
[27:00] Like all the storage compartments
[27:01] are thought about from the perspective of,
[27:04] "Do you have kids, do you have pets,
[27:06] do you have a backpack,
do you have a handbag?
[27:08] Do you have something that
you need to put somewhere
[27:10] and where does it go?"
[27:11] And increasingly, I found
in a lot of modern cars,
[27:14] you just don't have
places for all this gear.
[27:16] And so we do personas.
[27:19] So imagine you're a backpacker,
where does all your gear go?
[27:22] Imagine you're commuting to the office,
[27:24] where does your gear go?
[27:25] Imagine you've got two kids
[27:26] and a diaper bag, where does that go?
[27:28] And so we really have thought about it
[27:30] from the perspective of users.
[27:33] And that user-centric
design just manifests
[27:35] into all these things being
thought about, really.
[27:38] The last time I saw you,
[27:38] I was asking you about CarPlay,
[27:40] and I was saying how you guys needed that.
[27:42] But then I realized afterwards
[27:44] that I think when people
say they want CarPlay
[27:47] or when I said I want CarPlay,
[27:49] what I actually want is navigational
[27:52] and traffic data from
a source that I trust.
[27:55] And the inbuilt navigation
system in a car,
[27:58] like from a Mercedes or
BMW or something like that,
[28:01] no-one thinks that they
have the best traffic data
[28:04] and then you guys launch
Google Maps and it's awesome.
[28:06] Yeah, it's great.
How did that come about?
[28:09] Well, you just nailed it.
[28:11] This is a decision, it's generated...
[28:14] I said there's many millions of decisions.
[28:17] Many of them will never get noticed
[28:19] and they're just under the surface.
[28:21] One of those decisions that's
been noticed quite a bit
[28:23] is the fact that we've intentionally
[28:24] not included CarPlay in the vehicle.
[28:26] And that's not to say we don't think
[28:29] a close partnership
with Apple's important.
[28:31] So we have Apple Music integration.
[28:32] We have a bunch of Apple
integrations that are yet to come.
[28:34] But, a great relationship
with the team at Apple.
[28:37] But it was more to say we
just felt and continue to feel
[28:40] very strongly around
creating a consistent,
[28:43] fully-integrated digital experience
[28:46] where you're not jumping between apps,
[28:49] let's say from a CarPlay
app back to the vehicle app,
[28:52] and it's quite jarring
when you don't have,
[28:54] let's say vehicle-level controls
[28:56] when you're in the CarPlay environment.
[28:58] That view we've had since
the early, early days.
[29:01] I think that's going to
become even more important
[29:04] and more true in a world of integrated AI.
[29:06] So suddenly when you
can talk to your vehicle
[29:09] and say, "Please open the front trunk.
[29:13] Please unlock the doors,
lower the windows,
[29:14] set the temperature,
take me to this place.
[29:17] I'm hungry, I feel like tacos,
[29:18] find something along
the way to the charger."
[29:21] All those immersive experiences
really need the full breadth
[29:25] of context from your mobile
device, from your vehicle,
[29:27] from the vehicle back to you.
[29:28] What's the state of charge,
[29:30] and trying to do that through
a homogenized single layer app
[29:35] that works across many, many brands
[29:38] and by definition in some ways
[29:40] has to play to a lowest common denominator
[29:42] is really challenging.
[29:43] And so there's a few areas
that by not having CarPlay,
[29:45] it generates friction.
[29:46] The first is maps, and
so until we launched
[29:49] this partnership with Google,
[29:51] we had built our own mapping platform
[29:54] where we took OpenStreetMaps
[29:55] and we layered in a routing
platform on top of that.
[29:58] And we had information that
we would buy on traffic,
[30:01] but it was not going to
be as good as Google.
[30:02] Yeah, I don't even know
if it's irrational for me
[30:05] to not trust it, but I
just noticed that I don't.
[30:07] Yeah, it's better.
[30:08] It's a big step forward with
Google how we've done it.
[30:11] So that I'd say fully eliminated
the concern on mapping.
[30:16] And then the next is text.
[30:18] And voice to text and being able
[30:19] to interact with your device.
[30:20] And that's equally important for Android
[30:22] and for Apple customers.
[30:23] And so that's coming very soon.
[30:25] Oh, that's cool.
[30:26] And then there's really no gap,
[30:28] and what we found is
working directly with Apple
[30:30] on the applications that folks care about,
[30:32] like Apple Music, these
are the kinds of things
[30:34] we'd rather do and give customers
[30:36] this more highly-curated
choice of different platforms.
[30:41] But within the Rivian ecosystem.
[30:43] You know, again, I was struck by,
[30:44] after we discussed it,
[30:46] that again, I don't actually want CarPlay,
[30:49] it's kind of funny when
you think about it.
[30:49] There's the screen with all
the icons and the Audible app,
[30:52] and no-one wants to go browse through
[30:53] their audiobook library on the car screen.
[30:56] What they want is navigation
data from a source they trust
[30:59] and to play audio from their phone.
[31:00] Those things they actually want.
[31:02] Can I give you my pitches for
my suggested Rivian features?
[31:06] Yes, bring it on.
[31:08] You know, have you seen that
episode of "The Simpsons"
[31:10] where Homer gets to design his own car?
[31:11] Yeah, somebody gave me
you a picture of that car.
[31:13] Exactly, yeah, yeah, the Homer car.
[31:14] But I feel like it's a
classic bike shed issue
[31:17] where I don't know, no-one's that familiar
[31:19] with what Stripe does
at the innards level.
[31:21] And so they just assume that Stripe
[31:23] is doing all the sensible things.
[31:25] Whereas everyone drives a car
[31:27] and so everyone could be like,
[31:28] "Here's what you guys should do."
[31:30] So with that, here's what—
[31:30] Family members, friends, totally.
[31:32] Exactly.
Yeah.
[31:33] Why do all cars offer
memory of the driver,
[31:38] either the old-fashioned
way that other cars do it
[31:40] where you press the position
one or two for the seat.
[31:44] You guys do it, connects to
the phone, it's really nice.
[31:47] That moves the seat, that
moves the side mirrors.
[31:51] No car moves the rear view mirror.
[31:54] Why is that the final
frontier of adjustability?
[31:58] Well, there's no actuator on the mirror.
[32:00] Sure, but that's your choice.
[32:03] It's definitely our choice.
[32:04] We could, it's a cost trade off.
[32:08] But you have actuators
on the side mirrors.
[32:10] Yeah, they're harder to reach though.
[32:12] The rear view mirror is harder to reach.
[32:13] So the side mirrors,
if you go back in time,
[32:16] if you go back 25 years.
[32:17] Oh, sorry, they're harder
for the driver to reach.
[32:18] Yeah, yeah, yeah.
They used to be
[32:19] manually adjusted.
Yeah I know, the little...
[32:21] And then little knobs.
[32:22] And then way, way back
[32:25] you'd have to push on the
glass to move it around.
[32:27] And then we had little knobs.
[32:29] The advanced knob technology.
[32:31] Yeah, and then we moved to
electrically controlled,
[32:33] and in those cases we moved
to electric controlled
[32:35] because it's hard to reach out the window
[32:37] or reach across the car.
[32:38] In this case it's just there.
[32:40] But you guys are the
surprise and delight company.
[32:41] So here's the question we
always have to ask ourselves.
[32:43] If we have a certain pool of dollars
[32:46] we can spend on the car.
[32:49] Essentially we're the arbiters
[32:51] of how those dollars get spent,
[32:53] and we can't make everyone happy.
[32:54] Somebody will maybe wants
that, but to do that
[32:58] something else either has to fall out
[32:59] or the price has to go up.
[33:00] Okay, if you're worried about the bond—
[33:02] So we end up taking...
[33:03] Those are the kinds of things we just—
[33:05] You could also do it like,
[33:05] you know when you see the really big SUVs,
[33:07] they actually just have a
video feed projected up there.
[33:10] You could also do the video feed,
[33:12] which then would not
require any adjustment.
[33:13] Completely, yes.
[33:14] So we actually have had a
lot of debate around this.
[33:17] This is very actively debated,
where you see the mirror,
[33:19] it's not actually a
mirror, it's just a screen.
[33:22] And we've not done that yet.
[33:26] If I'm honest, partially,
not partially, because of me.
[33:29] I've not loved—
[33:30] Oh, the team's coming
and pitching you on...
[33:33] There's a team that would like to do it
[33:35] with the mirror as a screen
and I've been against it.
[33:39] In part because if you
have good visibility,
[33:41] so if you can see out the back,
it's a little disorienting.
[33:44] And so my concern is you make
50% of people happier with it,
[33:48] but a lot of people would
say, "Just give me a mirror."
[33:51] And so we've just made the trade to say,
[33:52] "We're going to take those dollars
[33:54] and spend them elsewhere."
[33:56] There's not anything wrong
with those as products,
[33:57] it's just a decision.
[33:59] Okay, next question.
[34:00] California mandates booster
seats up to the age of eight.
[34:04] And I've always found it funny
[34:05] that we are boosting the child
[34:07] as opposed to moving the third point
[34:09] up and down on the seatbelt.
[34:10] Where you could just have
an adjustable seatbelt
[34:13] and then ensure that the child
[34:15] is correctly configured where
you move the third point down
[34:17] and now the seatbelt is
appropriately across their lap
[34:20] and it would just be much less
stuff to be carted around.
[34:22] You're not requiring boosters,
you just adjust the seat
[34:25] to be correctly configured
to the child's size.
[34:27] And Volvo kind of does this with the XC90
[34:29] where they have an integrated booster seat
[34:31] in the middle seat, but it's only one seat
[34:33] and it's actually still
a booster and everything.
[34:35] Why not do adjustable seatbelt points
[34:38] as a child-restraining device?
[34:39] So we do have the adjustability
of the third point,
[34:43] we can adjust it, it just only goes down
[34:46] to fifth percentile female.
[34:48] So it doesn't cover the kid range.
[34:51] And the reason for that
[34:52] is it's classic unintended consequences.
[34:53] So we have to test at different settings
[34:56] and so we test across from
fifth percentile female
[34:59] to 95th percentile male.
[35:01] And that's what that range is set up for.
[35:02] We also, uniquely in the United States,
[35:05] there's no other developed
country that has this,
[35:07] where we have unbelted tests.
[35:10] So we run a lot of our crash
tests with no belts on.
[35:14] And so the kinematics of a body moving
[35:16] in the event of a harsh collision
[35:18] are very different if
you have your seatbelt on
[35:20] or your seatbelt off,
[35:21] and so it's a very interesting question.
[35:23] There is no clear answer,
[35:24] but if you were to say,
"We're going to test
[35:26] around all occupants being belted,"
[35:29] you would end up with different solutions
[35:32] and different control
algorithms for the airbags.
[35:34] Oh, that's so interesting.
And so we also plan
[35:36] for unbelted in a way that
I think other countries
[35:39] don't contemplate that.
[35:41] Sorry, and that is when you say, "We,"
[35:43] the United States has a certification.
[35:45] The United States, yeah.
United States, yeah.
[35:46] Oh, I didn't know the United
States were an outlier there.
[35:48] Are there places where if you
could change the certification
[35:53] and safety rules around
cars, you would make changes?
[35:58] It'd be really nice if the
United States and Europe
[36:00] had one set of standards, yeah.
[36:03] The biggest difference in terms of safety
[36:05] between the US and Europe
is in pedestrian protection.
[36:08] So when you think about if
you hit somebody on the road,
[36:11] what you want is you want to
have them go up over the car
[36:13] but they're likely going
to have a hard impact
[36:14] with the hood.
[36:17] And so in Europe there's very tight
[36:19] pedestrian protection standards,
[36:21] and so the shape of the
bumpers have been designed
[36:24] to make sure they get brought
over the top of the car
[36:27] and then the hood needs
to have some give to it.
[36:31] And so we've designed our hoods.
[36:34] Like, a big part of the hood design
[36:36] is to contemplate a head,
[36:37] like a human head hitting the hood.
[36:39] You know, there's certain
cars that you see here
[36:40] in the United States that could never pass
[36:42] a pedestrian protection in Europe.
[36:44] Like for example, a Cybertruck
could not work in Europe.
[36:47] Interesting.
[36:51] You wouldn't expect a car maker
like Rivian to use Stripe.
[36:53] But one reason they do
[36:54] is they need to accept a
huge range of payment values.
[36:57] So when you're putting down
a $1,000 deposit on the car,
[36:59] you probably want to use your credit card.
[37:01] But when you're actually ready to buy
[37:03] and you're spending $90,000,
[37:04] you might run into a few issues with that.
[37:06] So Rivian uses Stripe
[37:07] to securely accept bank
payments using ACH.
[37:11] The right payment method for
the situation, it just depends.
[37:14] For Rivian, they want bank payments.
[37:16] And many businesses on Stripe,
[37:17] they want to accept the blossoming variety
[37:19] of international payment methods.
[37:22] If you're expanding to Brazil,
for example, you need Pix,
[37:24] which is now how most
people pay online there.
[37:27] In Poland offering the local option BLIK
[37:29] can lift conversion by over 40%.
[37:31] And globally, customers
increasingly expect
[37:33] point of sale credit using
services like Klarna.
[37:36] Stripe's Optimized Checkout Suite
[37:38] handles all these payment methods
[37:39] and their differences for you.
[37:42] We use AI to analyze the customer
and the context they're in
[37:45] and then we dynamically
surface the payment methods,
[37:47] over 75 different options,
most likely to convert
[37:50] for that specific customer.
[37:52] Learn more at stripe.com/payments.
[37:56] Are accident rates going up
because of texting and driving?
[38:00] Yeah, for sure.
Okay.
[38:01] But countering that is as the vehicle
[38:03] increasingly drives itself.
[38:04] Sure, that's where I was going to go.
[38:06] There's a battle between people
are becoming worse drivers,
[38:09] which is kind of bad and scary but true
[38:11] because they're just
increasingly on their phone.
[38:15] And we were walking through
the city at one point recently
[38:17] and a car kind of blew past
the pedestrian crossing
[38:19] right as people were kind of
in the process of crossing
[38:23] and this old guy next to us
[38:25] as we were crossing the road said,
[38:28] "You have to be on your phone
to be driving like that."
[38:31] I thought that was an apt description
[38:32] of much driving these days.
[38:33] But how much are the
improvements in semi-autonomy,
[38:38] like the fender bender detection
[38:39] and stuff like this helping?
[38:41] I mean, so I have a 9-year-old,
[38:42] a 7-year-old, and a 6-year-old.
[38:44] And I truly think that by the time
[38:47] my oldest is able to drive,
[38:49] the environment's going to be so different
[38:51] than what we see today.
[38:52] And we're in this...
[38:53] The next five years
[38:56] we're going to see autonomy features
[38:58] where the idea of hands-free,
[38:59] or hands-free-eyes-off
go from being something
[39:03] that a very small percentage of customers
[39:05] are looking for or using
[39:07] to something that's essentially expected.
[39:10] And so for that reason,
[39:11] it's by far the biggest
investment area for us
[39:14] in our business.
[39:15] It's the most critical area
of technology development.
[39:19] But what's changed so much
that has me believing deeply
[39:22] that the next five years
will look very different
[39:23] than the last five years is just the way
[39:25] that AI is now part of this system.
[39:27] So historically the way
self-driving systems
[39:30] were created was you'd
have a perception stack,
[39:32] it would see the world, it
would identify all the objects,
[39:35] it would classify the objects
like, "Person, car, tree,"
[39:38] assign vectors to those objects.
[39:40] So acceleration, velocity for
each of those, X, Y, and Z.
[39:44] And then it would hand
all of those objects
[39:47] and their classifications to a planner
[39:48] that would be rules-based.
[39:49] So a planner written by
humans that would describe
[39:53] the rules of the road and for which
[39:54] would make a whole host of decisions
[39:56] around what the trajectory
should be for the vehicle.
[39:58] That whole approach has
been completely replaced
[40:02] with what I would call Gen
2 of autonomous vehicles,
[40:04] which is you still
perceive the whole world,
[40:07] but you've used a transformer
to then call all the images.
[40:10] You then feed it into a very large model
[40:12] and you train it in the
way that you train LLMs,
[40:15] you're building this very humanistic
[40:17] understanding of the world.
[40:18] And if you have a car
park that's large enough,
[40:20] like what we do, you can create
[40:22] this amazing training flywheel
[40:23] and the rate of progress is so much faster
[40:27] than trying to program
how the world works.
[40:30] because you just have cars
going around in the parking lot.
[40:33] Well not yours, Gen 1, but
all the Gen 2 vehicles.
[40:35] Ah, they're gathering
training data for this.
[40:37] Yeah, so the obvious ones
[40:38] are if you're in self-driving mode,
[40:40] if you're on the highway,
for example, in our vehicle,
[40:41] and it disengages, that's
a piece of information
[40:44] we train off that.
[40:45] More interesting is when you're
driving, you as the human,
[40:50] the model's running in parallel.
[40:52] And when you do something
different than the model predicts,
[40:55] that's interesting.
[40:56] It's like if you change lanes
[40:57] and the model predicted
you would not change lanes
[41:00] or vice versa, if the model predicts
[41:02] we should change lanes now
[41:03] and you don't change lanes.
[41:04] On a singular basis,
okay, sort of interesting.
[41:06] But you multiply that
[41:07] across thousands and
thousands of vehicles,
[41:09] it becomes a really powerful method
[41:11] for teaching a digital
driver how to drive.
[41:15] Yeah, I feel like the
big debate that plays out
[41:18] in the public realm on this stuff
[41:20] is basically the Waymo
versus Tesla approaches
[41:23] of more sensors on Waymo's
versus fewer sensors on Tesla
[41:27] and Elon's being quite
dismissive of LiDAR.
[41:30] Where do you stand on this sensor debate?
[41:32] I think first is, I'd
say there's alignment
[41:35] amongst Rivian, Tesla, Waymo
around the use of AI to train.
[41:40] And so the view that you're building
[41:43] a large scale foundation model,
[41:44] multi-billion parameter model,
[41:46] you're building that
with the data flywheel
[41:49] of the vehicles that are deployed.
[41:51] There's consistency there.
[41:52] I think for some reason this has been
[41:56] a lightning rod issue in ways
that I wouldn't have expected.
[41:59] You know, if you look at sensor theory
[42:01] and even if you have noisy sensors,
[42:03] just mathematically it proves
[42:04] that having more sensors
is a better approach.
[42:07] because it always seemed
nonsensical to me.
[42:08] Yeah, more sensors obviously
better and we know how to—
[42:11] So that's the reason you
have more than one camera.
[42:13] So even moving beyond
more than one camera,
[42:16] we have many cameras around the vehicle,
[42:18] but then saying we want
additional modalities
[42:20] that have a non-overlapping set
[42:22] of strengths and weaknesses with a camera.
[42:25] And there's no arbitration of
the camera versus the radar,
[42:29] or camera versus the LiDAR,
because it's just not how
[42:31] the models are built anymore.
[42:32] They have a worldview
and then the addition
[42:35] of different modalities, it
actually helps balance out
[42:38] some of the noise and the signals.
[42:40] because every signal's
going to have noise,
[42:41] every camera has noise, every
LiDAR has noise, every radar.
[42:44] So you just want as many
sensors as you can afford
[42:46] in the car then combined.
[42:48] Yeah, and then it becomes
as many as you can afford
[42:50] and as many as you can process,
[42:52] which ties to how much you can afford.
[42:53] And so a few things have happened
[42:56] in the last five years
that have changed things.
[42:57] One, as we move to a
neural net-based approach.
[43:00] That's what we talked about already.
[43:02] The second is that the
cost of sensors is...
[43:06] Six, seven years ago a LiDAR was $20,000.
[43:10] 15 years ago LiDAR was $75,000.
[43:12] Today a LiDAR is like 200 bucks.
[43:14] So it's a very low-cost sensor
[43:16] and it solves certain things
like very bright light,
[43:19] very low light, extremely well.
[43:21] And similarly, a radar is 100 bucks.
[43:24] Depending on which one, you
can buy the crappy radar
[43:26] for 25 bucks, you can
buy a great imaging radar
[43:29] for 100 bucks, 125 bucks.
[43:32] And it gives you rain, snow, fog,
[43:35] in ways that cameras obviously
don't perform very well.
[43:37] And if you've ever driven
in really thick fog,
[43:39] you probably thought to yourself,
[43:39] "Boy, wouldn't it be
great if I had a radar
[43:41] on my forehead?"
[43:42] That's what planes have.
Which I think all the time.
[43:44] Yeah, but you would
navigate those situations
[43:47] with a much higher degree of safety.
[43:48] But then the last piece I'd call out
[43:50] is when you have multiple modalities,
[43:53] it allows you to train your
perception stack better.
[43:56] And so for example, if
you're driving in the fog,
[44:00] there are subtle little
things your eyes will spot
[44:03] and you're hunting for,
like you're looking
[44:04] for the little red dots of the car
[44:06] in front of you from their taillights.
[44:07] But you have to hunt for them.
Yeah.
[44:09] Imagine your brain had
the assistance in training
[44:11] its neural net to immediately know
[44:13] where those objects are vis-a-vis radar.
[44:16] So your brain can more quickly identify
[44:18] the visual characteristics
[44:20] and you build this much
more robust neural net
[44:23] to be able to see in hard situations.
[44:26] Bright lights and other really...
[44:27] When you're, let's say
coming down the 101,
[44:31] you've got that sun right in your eyes.
[44:33] It's really helpful to have something
[44:35] that that doesn't affect.
[44:37] But so I think it's strange
it became a debate topic.
[44:40] I think it's not really...
[44:42] Everyone's actually in agreement
on the high level points.
[44:43] "No, I like that."
[44:44] I think everybody's actually in agreement
[44:45] on kind of the overall AI
approach and then yeah.
[44:47] Actually there isn't
that much disagreement
[44:50] on the sensor stuff, or maybe
less than it would appear.
[44:54] You're describing some of
the progressing components.
[44:56] So you're describing how LiDAR and radar
[44:58] have really changed in
becoming a lot cheaper.
[45:01] What else is happening
in the land of components
[45:03] that you work with?
[45:04] Are tires getting better?
[45:05] Batteries, tires, windshields,
anything like that?
[45:08] I think on the electric side
[45:09] we're seeing the motors become lower cost.
[45:13] So I'll illustrate the point.
[45:15] On what's going into R2,
[45:16] it's our fourth-generation
motor that we've designed.
[45:19] And so previous generations used
[45:21] what's called a hairpin
winding in the stator.
[45:22] So you take copper wire, you
bend it into a unique shape
[45:26] and you've seen these before,
[45:27] I'm sure there's a whole ring of wires,
[45:30] and then to bring them together,
[45:32] depending on how you designed
the electric mechanics on it,
[45:36] you're welding all these
little tips together.
[45:38] That was state of the art,
and that's what essentially
[45:41] 99% of the cars or electric vehicles
[45:42] on the road are now doing.
[45:44] On R2, on the drive unit
that we called Maximus,
[45:47] which is my middle son's name,
[45:49] which is a great name for a motor.
[45:51] We have a continuous winding,
so it's one long wire
[45:53] that we wind, it's sort
of like woven into a mat
[45:56] and then we fold it on each other.
[45:58] And what it does, it takes the
number of welds in the motor
[46:01] down by something like 95%.
[46:04] And so it's slightly more efficient,
[46:06] but importantly it's a lot less costly.
[46:09] And so does it materially
drive different? No.
[46:13] But does it allow us to
continually drive the price
[46:16] of electric vehicles down, yes.
[46:17] Okay, so a lot of components
that are pretty important
[46:20] for electric vehicles is
a meaningful cost curve
[46:23] of improvement happening on them.
[46:24] Yeah, yeah, yeah.
[46:26] And then I think if you
take the complexities
[46:28] of designing real-time operating systems
[46:32] and a compute platform across the vehicle,
[46:35] these are things that car companies
[46:36] don't historically do very well.
[46:38] We've got, as an industry,
[46:39] there's this massive
supplier base of tier ones
[46:43] that provide functions and
computers alongside of them.
[46:46] So you buy a seat, it
historically has come
[46:48] with a little computer.
[46:50] You buy a car with power windows,
[46:51] it has a power window computer.
[46:53] And so with the exception
[46:55] of two companies, Rivian and Tesla,
[46:58] every car on the road has,
[47:00] depending on the amount of content,
[47:01] anywhere from 50 to maybe 150
[47:03] little computers that run the car.
[47:05] This is why you, in a normal car,
[47:07] could not adjust the,
say, the side mirrors
[47:10] from the center console.
[47:12] It's two or three different companies.
[47:15] Companies and different software.
[47:16] It's islands of software
written by a little supplier
[47:18] or on little ECUs that
go back to suppliers.
[47:21] And so that actually underpins,
[47:23] we did a a $5.8 billion
deal with Volkswagen
[47:26] where we're providing them,
[47:27] this is the second largest
car company in the world
[47:29] where we're providing
them a zonal architecture.
[47:32] So a platform that allows
us to run the whole car
[47:36] with a very small number of computers,
[47:37] depends on the size of the vehicle,
[47:39] and then a software platform.
[47:41] I think it's inconceivable that by,
[47:45] call it early 2030s, that a
car company can exist at scale
[47:50] and maintain their market share
[47:52] and not have a
software-defined architecture
[47:55] and be on an architecture
for which they have.
[47:58] I think of the software architectures
[48:00] that are in cars today,
it's like a field of weeds.
[48:01] It's like you just have
all these little ECUs
[48:03] all over the place, they're
all little islands of software.
[48:05] You can't make updates to them.
[48:07] None of them are written by yourself.
[48:08] There's so many abstraction layers
[48:10] between the actual code
and the manufacturer.
[48:13] I think that must go away
[48:15] for you to be competitive in a world of AI
[48:17] where you want deep
contextual understanding
[48:19] of what's happening across the vehicle.
[48:21] And being able to create
these highly-immersive,
[48:24] highly-evolving experiences
[48:25] that get better and better over time.
[48:27] And so I think every car
company's either going to go
[48:29] try to develop it
themselves, which is hard
[48:30] because they don't typically
have those skill sets.
[48:32] Try to source it from
suppliers, that's very hard
[48:34] because those companies
are precisely the ones
[48:36] that don't want to see all
their little computers go away,
[48:39] or work with us.
[48:42] Obviously I have a biased point of view,
[48:44] but we think of the Volkswagen partnership
[48:47] as the ultimate billboard for the idea.
[48:50] It's to be able to deploy this platform
[48:53] in such a wide range of
vehicles from flagship Porsches
[48:57] down to like a $22,000 European Volkswagen
[49:02] demonstrates the scalability
of this architecture.
[49:04] And so I think that's going to be a huge
[49:05] change that must come.
[49:08] And if it doesn't, sort
of like if manufacturers
[49:10] don't make that change,
[49:11] they're just going to lose market share,
[49:12] and the ones that do have that technology
[49:14] are going to gain a lot of market
[49:15] share in the next 10 years.
[49:16] Yeah, I think people
don't realize how much,
[49:18] like with traditional car manufacturing,
[49:21] the brands are in the
car assembly business.
[49:24] And you're going to car Costco
[49:26] and you're filling your cart with,
[49:27] "We need a backup proximity sensor
[49:30] and we need a rear view mirror adjust."
[49:32] We're spending a lot of time
[49:33] on our side mirror adjustment
system and things like that.
[49:37] But they're kind of assembling
all these components
[49:39] from sub manufacturers
that are not integrated.
[49:42] I think your point is
like in a traditional car,
[49:45] the backup beeping sensor,
"Oh, it can only beep.
[49:47] That's the only thing it does."
[49:48] And so you can't integrate it
[49:50] with the rest of the car and the systems,
[49:51] and has that approach.
[49:52] Whereas you think the integrated approach
[49:54] is just definitely going to win.
[49:55] What's also, it's an
interesting moment in time
[49:57] because if you were to build a spreadsheet
[49:59] that looked at all the features
[50:01] of a classic network
architecture versus us,
[50:05] you'd say there's actually,
[50:06] "Looks like you have
all the same features."
[50:07] But then you look at how they're created.
[50:09] And in our case we have,
on a relative scale,
[50:13] a small team of software
developers that control everything
[50:16] and we can make changes very quickly.
[50:18] If you have an idea, I can
put it into the next release
[50:20] and it'll be in the car in two weeks.
[50:21] And you compare that with something
[50:23] that's very, very requirements-driven.
[50:24] So the manufacturer writes
requirements sometimes years out,
[50:27] and it may be things like the
seat will have six presets
[50:31] and that gets hardwired in,
[50:33] and it's very hard to change
things or evolve things.
[50:37] And so I think that again,
it's a moment in time
[50:42] where there's a huge amount of effort
[50:43] to try to have a similar set
of features to what we do.
[50:46] But then they can't do
cool things like we do.
[50:48] So we have a couple of
things we do every year
[50:50] that try to flex this
[50:52] into a very easy-to-understand consumer—
[50:54] And the simplest version of it.
[50:55] Sorry, you're probably going
to say something like this,
[50:57] but the simplest version I see
is I'll walk out to the car
[51:00] and it unlocks based on phone proximity
[51:02] and adjust the seats to me, again,
[51:05] based on knowing that it's me.
[51:06] It's minor but it's really nice.
[51:08] But that's like 15 different companies.
[51:10] So you have to do HVAC
adjustments, seat adjustment,
[51:12] lighting adjustment, exterior
sound, interior sound,
[51:14] vehicle state, battery state.
[51:17] But here's where it's exciting
[51:18] is we can do something
like a Halloween mode.
[51:20] So we do one every year and
the cars get dressed up.
[51:22] So last year we had a
"Night Rider" version,
[51:24] we had a "Back to the Future" version.
[51:26] And when you walk up to your car
[51:28] and it's in that mode, it does
a totally different sequence.
[51:31] It plays, in the case of "Night Rider,"
[51:34] the light on the front goes...
[51:36] You get in the inside of the car
[51:37] is different lighting
sequences, different sounds.
[51:39] And it's just for Halloween.
[51:41] But that's only possible if
you control all those systems.
[51:45] And so we're at the tip of the iceberg
[51:48] of being able to do these very immersive,
[51:51] very hard to recreate modes
[51:54] that you can't do with a
traditional architecture.
[51:57] "Night Rider" was early
[51:58] to having a lot of on-device compute.
[52:01] The value of a zonal architecture
and systems integration.
[52:04] Speaking of actually, there
was a Pontiac Trans Am
[52:06] if I recall, cars used to have cool names.
[52:09] You know, you have Mustang, Thunderbird.
[52:11] All these really nice names,
El Dorado, very evocative.
[52:16] Now we have R1, R2, Model 3, X5.
[52:21] Why?
Yeah, have we lost
[52:23] a bit of the sense of adventure?
[52:25] Could we have some—
[52:26] Yeah, could be, it's a good question.
[52:28] Evocative names?
Alpha numeric versus name.
[52:30] We decided to just keep things simple
[52:32] and we had, it's a structured name.
[52:34] Yeah, but you're a surprise
and delight company.
[52:36] You have a "Night Rider" mode.
[52:38] Yeah, I don't, maybe we should have.
[52:39] Is that something that's
befitting of an R1 or of a—
[52:41] Yeah, we had those debates.
[52:43] You guys are super outdoorsy.
[52:45] Apple's taken the Yosemite,
El Capitan naming scheme,
[52:49] but again, I feel like there's—
[52:49] So all of our cars end
up having code names.
[52:51] Yeah, can we just use the code
names as the public names?
[52:52] So the code name for Gen 2 is Peregrine.
[52:54] Okay, beautiful.
Which is a super fast Falcon.
[52:57] Would anyone hear buy a Rivian Peregrine?
[52:59] Yeah, I'm seeing a lot of takers.
[53:00] But you'll laugh.
[53:01] So the first batch of prototypes we built
[53:03] then the first one of
those vehicles of R1,
[53:06] like production representative,
[53:08] the code name for that vehicle is avocado.
[53:11] Not as good as Peregrine.
Less of a saleable name.
[53:13] Okay, I can help you with the names.
[53:15] Again, back to the bike shed,
[53:16] but I'm happy to advise on that.
[53:20] as we talk about the Rivian business.
[53:22] Think about a car business 20 years ago,
[53:24] say a US manufacturer.
[53:26] It's, I think regarded as a hard business.
[53:28] Capital intensive, it's about getting
[53:31] to a significant number
of units in market share,
[53:33] being disciplined on price,
[53:34] generally trying to move people
[53:35] up from sedans to higher-value vehicles,
[53:38] is at least for the American car makers
[53:40] how they try to improve the business.
[53:43] How should investors think
[53:44] about what the Rivian business is today?
[53:47] Where there's, again,
the classic car business
[53:48] where you're trying to
sell a lot of units,
[53:50] trying to get volumes up
and you do other stuff
[53:52] like you do insurance and
lending and things like that.
[53:54] But car makers have always done
that to drive more volumes.
[53:58] Or is the business actually
very meaningfully different
[54:02] from a classic automaker where you have
[54:03] this big Volkswagen deal
[54:05] that sounds like a capital-light,
[54:07] more kind of B2B side of the business.
[54:10] Obviously people talk
about how ride sharing
[54:11] is going to change things.
[54:12] And so I'm curious how much Rivian
[54:13] is a classic car business done well
[54:16] where it's a P times Q, we're
going to sell a lot of cars
[54:19] and make a margin on them,
and you have the volume ramp.
[54:22] Versus how much is it,
"Oh this is actually
[54:25] a totally different kind of business.
[54:26] And we're going to rent cars to people
[54:28] in the ride sharing world
[54:28] or we're going to sell software
to other car manufacturers?"
[54:31] I would characterize there's
three parts of the business.
[54:33] There's the volume of selling vehicles.
[54:35] And the revenue associated
that is quite large.
[54:38] And so even with each, today
it's $90,000 for every sale,
[54:44] but let's say it's half that,
[54:47] it still just creates a
tremendous amount of revenue
[54:49] and helps cover a lot of the fixed costs.
[54:51] And allows you to develop technology
[54:53] that even if a small percentage of that
[54:56] is being put back into technology,
[54:57] allows you to develop a lot of technology.
[55:00] And so that's core to what we believe,
[55:03] and we built a brand
that people really love.
[55:04] So we just need to get to
a higher volume of products
[55:08] to pull that together.
[55:09] Like 200,000 R2s times 50K
per is $10 billion of revenue.
[55:16] So you can really start
to move up the revenue.
[55:19] So last year I think we
were just around $5 billion.
[55:22] So we'll see our revenue
really start to climb.
[55:25] And so that is absolutely
a part of the business.
[55:27] Then there is technology sales
[55:30] and there's a lot of different
ways to accomplish that.
[55:32] But Volkswagen's an example of that.
[55:33] But we look at what we're doing
across our technology stack.
[55:36] There's a bunch of areas that we believe
[55:38] are things that can be monetized
[55:40] to generate incremental
revenue and often revenue
[55:43] that has a higher margin profile
[55:44] than let's say the vehicle sales.
[55:46] Vehicle sales, let's say
that comfortably sitting at,
[55:49] when we get to the right steady state,
[55:51] 20% to 25% gross margin.
[55:54] And then there's a third piece
[55:55] which is different business models.
[55:57] And a big unlock here is
actually just being D2C,
[56:02] being Direct-to-Consumer.
[56:04] And so, with the
exception of us and Tesla,
[56:07] every manufacturer today
sells through distributors
[56:09] and distributors then onto dealers
[56:11] or in a few cases Direct-to-Dealers.
[56:14] But nonetheless there's a middle layer.
[56:16] I think there's two middle layers.
[56:17] You have to sell to distributors
who sell to dealers.
[56:19] Yeah, often it's a
distributor then to a dealer.
[56:21] Yeah, yeah, yeah.
That often draws
[56:22] the attention to the sale,
[56:24] saying, "Oh, you're paying a third party
[56:25] 10% to 15% to sell your car."
[56:28] That's true, that's a
far less efficient way
[56:32] to sell the vehicle than
having a direct relationship.
[56:34] But I think that the
unappreciated part of it
[56:36] is you lose out on all the business
[56:39] that happens post-sale.
[56:41] And so the service
business actually becomes
[56:43] a very large part of
our revenue generation.
[56:46] And if you look at car
dealers and you look at,
[56:49] if you know any friends that
own large car dealer groups,
[56:52] they're very profitable.
[56:54] And where they make the vast majority
[56:55] of their money is on service.
[56:58] The thing you have to wrap
your head around though
[56:59] is in the beginning, service
is not a profitable business
[57:01] because you have to
build, so you're investing
[57:03] a very large amount in building capacity.
[57:05] So service infrastructure,
so a ton of Cap-Ex.
[57:08] You have to build up a large
team of service technicians.
[57:10] This is a huge spend category for us.
[57:13] And in the beginning we're
just performing warranty work.
[57:16] We don't really have paying service yet.
[57:18] But it suddenly goes from this
thing that's a cost center
[57:21] and either feeding in as
part of a warranty expense
[57:25] or feeding in as Op-Ex
[57:27] and suddenly it becomes
cogs and profitable cogs
[57:30] and it's like an
afterburner to the business.
[57:31] because it's the car park's
then at a big enough size
[57:34] where it just is throwing off
[57:35] billions of dollars a year in profit.
[57:38] That's the goal.
[57:39] That's the services side of the business
[57:41] we think of as quite
interesting in the long term
[57:43] and something we protect.
[57:45] And it becomes even more valuable
[57:47] if you have a software-defined vehicle
[57:48] because there's an opportunity for me,
[57:50] think about used cars.
[57:52] Used car's another huge profit
center for the auto industry.
[57:54] And today when you buy a used car,
[57:56] if you're a business
that's buying a used car
[57:58] to then sell to someone else,
[58:00] you buy it, you maybe do a 25-point check,
[58:02] maybe you do a 50-point check,
[58:04] you maybe put some sort of a stamp on it
[58:06] to say this has got an
additional warranty,
[58:09] but you actually have
very little understanding
[58:10] of what the health of the asset is,
[58:12] and you have no ability to
incrementally improve the asset
[58:16] with software improvements,
with a software update.
[58:18] We control that so we can decide,
[58:21] "Hey, we want to invest in
making software improvements
[58:25] that will raise the
value of these vehicles."
[58:28] And so it allows us to
play very differently
[58:30] in the residual space and uniquely control
[58:33] and have profit built into
the used car business.
[58:36] And so that's another arm that today,
[58:39] it represents a very small
percentage of our revenue.
[58:41] There's not a lot of
used Rivian transactions.
[58:43] We participate in a lot of them.
[58:44] We buy Rivians and sell them.
[58:45] Okay. Yeah, yeah.
[58:46] But in the long term it
becomes a very big business.
[58:49] Okay, this is very interesting.
[58:50] So traditional car maker, part
of why the business is hard
[58:53] is because you sell units and the business
[58:55] is kind of the least recurring revenue
[58:57] you can imagine where you're—
[58:58] All the recurring revenue
somebody else gets.
[58:59] Exactly, and so you're
always in this dog fight
[59:01] for next year's sales and
the following year's sales.
[59:03] Whereas you're saying
you guys are selling cars
[59:06] and then you have monthly
active users of Rivian out there
[59:11] and you have a direct service business
[59:12] because you have direct
relationships with those customers.
[59:14] And that really changes
the direct business.
[59:17] Nevermind the B2B stuff.
[59:18] It depends on the brand, but
if you look at it like this,
[59:20] for every car that's sold,
[59:23] whatever its sale price is,
[59:24] the revenue over the life of the vehicle
[59:26] is generally around
two to two and a half X
[59:29] the initial sale price.
[59:31] But that's over a 15 year time horizon.
[59:34] But there's a lot of revenue
[59:34] that happens associated with the vehicle.
[59:36] And of course we know that,
think of all the businesses
[59:38] that exist that are not car companies
[59:40] that exist because of those cars.
[59:43] And so some of those businesses
[59:45] have less relevance in a EV world.
[59:49] So do I need to go to a
Jiffy Lube to change the oil?
[59:53] No, but what I like to have a
software update? Definitely.
[59:58] That's still a complex thing.
[59:58] There's still components that wear out.
[60:00] For sure.
Yeah, yeah,
[60:01] my car's telling me to rotate my tires.
[60:02] Why do I need to rotate my tires?
[60:04] In your car?
[60:05] Because we're biasing the front tires
[60:07] when you're in efficiency mode,
[60:08] so it's wearing the front tires
[60:09] a little bit faster than the rear tires.
[60:11] And then Gen 2 it does this dynamically?
[60:13] Gen 2, yeah, it can, if you put it
[60:16] in what we call the All Purpose Mode,
[60:18] and then R2 is even better.
[60:20] Because the way we do
it dynamically is we...
[60:23] I'll go deep here for just one second.
[60:25] So it's a permanent magnet motor
[60:26] and so a permanent magnet motor
[60:27] generates losses if it's spinning.
[60:30] And so what we do is when
you're in conserve mode,
[60:31] it automatically
disconnects the rear axle,
[60:34] and so you're using just the front.
[60:35] On Gen 2 with the dual motor,
[60:39] we dynamically disconnect the
rear axle even in All Purpose.
[60:42] And then R2 we've been
able to make it so fast
[60:45] that it connects and disconnects
[60:46] and you don't even know it's happening.
[60:48] So it feels really sporty,
[60:48] because when you hit the throttle,
[60:52] it all very, very quickly
connects everything.
[60:54] But you have to mechanically
disconnect the rear axle.
[60:56] So you think of like, "Can you
do that in 140 milliseconds?"
[61:01] It's a lot of stuff to
do in 140 milliseconds.
[61:04] And going to two-wheel drive
rather than four-wheel drive,
[61:06] that's an efficiency thing?
[61:07] Yeah, because you turn off,
[61:09] you completely disconnect the motors.
[61:10] So there's no losses associated
[61:12] with spinning the
permanent magnet machine.
[61:13] Interesting. Okay.
[61:15] The big EV story of the past 10 years
[61:17] has been the China ramp up.
[61:21] Why, obviously the Chinese EVs are cheap,
[61:24] but they're also very good.
[61:26] How did China get so good at EVs
[61:28] and how does the US
[61:29] continue to be competitive
with the global market?
[61:31] Obviously the US is protected as a market,
[61:34] but as you think about winning
other countries, say Europe.
[61:37] Europe in particular, yeah.
[61:39] So there's two pieces of the China story
[61:40] and I think the one that
we often are drawn to
[61:45] is the cost story.
[61:47] And so one of the things
about the car industry
[61:51] is everybody buys everybody's products.
[61:53] And so you can go buy,
if it's on the market,
[61:56] you can buy it, so everyone
buys them, they take them apart.
[61:59] There's Jim Farley talking open about EVs.
[62:01] On the mechanical side,
there's nothing that's not seen
[62:04] by every car company.
[62:05] So when we launch R2,
everyone will have it.
[62:07] Everyone will take it apart.
[62:08] And so what I call out is
that there's not any magic
[62:11] that's happening in terms
of how Chinese vehicles
[62:13] are manufactured, the processes,
[62:16] the design of the
components and the systems.
[62:19] There's high degrees of
overlap in some cases,
[62:23] very similar to what
we have here in the US
[62:26] and very similar to some of the things
[62:27] we've done within Rivian.
[62:28] Or if you look at comparisons
to Tesla or others.
[62:31] There's obviously clean designs.
[62:33] So they have great part
consolidation, part elimination,
[62:35] but there's not something
that you'd look at and say,
[62:38] "Oh, aha, this is how
the cost has come down."
[62:40] And what's driven the cost down
[62:42] is that you have the compounding benefits
[62:44] of much lower cost of capital
[62:46] across not just the manufacturer,
[62:48] the vehicle manufacturer,
[62:49] but across their whole supply chain.
[62:50] So tier one, tier two, tier three.
[62:52] Everyone's cost of capital
is in some cases zero
[62:55] or close to zero because
a lot of that capital
[62:57] is provided by the local government.
[62:59] And in some of the larger companies cases,
[63:02] the federal government,
[63:03] or their equivalent of
the federal government.
[63:04] And then you have a much
lower cost of labor,
[63:06] and you put those two things together
[63:08] and you multiply it across every part,
[63:12] all the way down to every
source of raw material.
[63:15] It just ends up with a cost structure
[63:16] that's very advantaged
relative to the western world.
[63:19] Particularly very advantaged
relative to the United States.
[63:22] And that doesn't translate.
[63:23] Meaning if you took a
car, the exact same design
[63:26] of a Chinese car and you produce
that in the United States
[63:28] with a US or North
American-centric supply chain
[63:32] in North American cost of capital,
[63:34] the cost would be much, much higher.
[63:37] And so we're seeing tariffs
[63:39] in the case of the
United States go in place
[63:40] that try to take up the fact
[63:41] that there's difference in labor cost,
[63:43] difference in cost of capital.
[63:45] I think Europe's a big question
as to what happens there.
[63:47] But depending on how
those regulations fall,
[63:50] if there's zero trade friction between,
[63:55] let's say a country in China,
[63:57] more production in the fullness of time
[63:59] will shift to China because
of those advantages.
[64:01] The lower cost of labor,
lower cost of capital.
[64:03] But is it not just the cost structure?
[64:05] because you've seen the videos of the Neo,
[64:07] the champagne glasses on the—
[64:09] So that's the second part.
[64:10] So that's the second thing.
[64:11] And this is the part that I think,
[64:12] I'm glad you touched on this.
[64:14] This is the part that actually
[64:17] everyone should be taking note of,
[64:18] which is the technology is very good.
[64:21] And this isn't true for every Chinese car,
[64:23] but there's a subset of the Chinese brands
[64:25] that have done an excellent job
[64:27] in many ways for the same reasons
[64:29] that Tesla and Rivian have developed
[64:31] our technology different than
the incumbent manufacturers,
[64:34] that they started with a clean sheet.
[64:36] And so if you start with a clean sheet,
[64:38] you're going to naturally
look at this and say,
[64:39] "Well let's design a zonal architecture
[64:41] with as few computers as possible.
[64:43] Let's own our software stack.
[64:44] We're not going to have it
owned by 50 different suppliers
[64:48] and abstracted across 100
different islands of software.
[64:51] Let's vertically integrate
around the high-voltage systems."
[64:54] And you end up making a lot of these
[64:55] very logical first principles decisions
[64:58] in ways that are not too
different from a Rivian
[65:01] or not too different from a Tesla.
[65:02] And then because the
cost structure's such,
[65:04] they've been able to say yes
in some cases to more features.
[65:09] They haven't done the powered...
[65:12] Even they have not done the
powered rear view mirror.
[65:15] But they adjust, but you could see
[65:18] they've said yes to more features.
[65:20] Because they have the cost
structure to enable that.
[65:23] And so I think that if I'm
a western manufacturer,
[65:28] that would be my biggest concern
[65:30] is you have to very rapidly
go build a software,
[65:34] a software-centric architecture
[65:37] and a world-class electronic
stack to support that.
[65:40] It's sort of obvious, but
I think that's a big part
[65:42] of what led to our deal with Volkswagen
[65:44] is we offered an ability to
very quickly get to that state.
[65:49] I think every manufacturer
should be thinking,
[65:51] "How do we build a
software-defined architecture
[65:53] as quickly as possible?"
[65:55] Because to be competitive
on a world stage,
[65:57] you need to have it.
[65:58] Yeah, I can buy that.
[65:59] How do you feel about the
phasing out of the EV credits?
[66:02] In the short term I think it's
[66:02] going to create some headwinds
[66:04] and in the longer term, I say this often,
[66:10] I think it's hard to argue
that it's going to create a...
[66:13] It absolutely creates a
less-competitive environment.
[66:15] So you see a lot of manufacturers
[66:17] pulling back on their EV investment.
[66:19] I think that's, myopically,
I'd say it's good for Rivian,
[66:22] but I'd say it's bad for the
world, it's bad for my kids.
[66:25] I think it's unfortunate
[66:27] that we don't have more
companies leaning in.
[66:29] You know, the best measure of, I think,
[66:31] the underinvestment in this space
[66:33] and the lack of highly compelling product
[66:35] is that there's a single company, Tesla,
[66:37] that still has around 50% market
share in the United States.
[66:40] The United States is at around 8%
[66:41] of new vehicle sales are electric.
[66:43] Isn't that a surprisingly low number?
[66:45] 8% of new vehicle sales in the
United States are electric.
[66:47] Just if you're to ask someone to guess,
[66:48] I feel like they guess a higher number.
[66:50] But here's why.
[66:50] If our products that Rivian sells today
[66:53] is our flagship products.
[66:56] I really believe that
R2 will expand the 8%.
[66:59] But if I'm buying a vehicle
[67:00] and I want to spend less than 50K,
[67:03] There's hundreds of
choices in the ICE world.
[67:06] I can get sedans, I can get coupes,
[67:08] I can get convertibles,
I can get minivans,
[67:11] I can get crossovers, SUVs,
[67:12] all these different
choices, different brands.
[67:15] If I'm buying an EV, I think there's...
[67:18] You think it's just a choice issue?
[67:20] I think there's two choices.
[67:21] I think it's a Model 3 or Model Y today,
[67:23] and everything else is...
[67:25] There's maybe a few
that are getting close,
[67:26] but everyone clearly likes crossovers
[67:27] judging from the internal
combustion world.
[67:29] And so I think for the first time with R2,
[67:31] you'll have a choice
that's highly compelling,
[67:33] that's not a Tesla, that's not to say
[67:35] anything negative about Teslas.
[67:37] Well the R2 is the first
affordable crossover?
[67:40] There's others, I'd say it's going to be
[67:41] the first highly compelling, affordable.
[67:44] That's the key part is you need
it to be highly compelling.
[67:46] And so there's been a
number of EV launches
[67:49] from existing manufacturers
that haven't gone that well.
[67:52] And I think we get the
causality backwards.
[67:54] We say, "Oh, it's because customers
[67:55] aren't ready to buy EVs."
[67:56] And I say, "Well no, it's because the EV
[67:57] is not that compelling."
[67:58] And the existence proof that if you have
[68:00] a highly-compelling product,
[68:01] there will be a lot of demand is Tesla.
[68:03] The Model Y is one of the
bestselling cars in the world.
[68:06] Now we just need to have 20 other choices
[68:09] in order to start to really make a dent.
[68:11] And then if you compare this to China
[68:12] where there is a lot more choice,
[68:15] China's a three and a half,
four times higher level
[68:18] of adoption of
electrification than we are,
[68:20] and the slope of the curve is very steep.
[68:22] We have a choice issue here
in the US, is our view.
[68:25] Last question, where did
the name Rivian come from?
[68:28] So Rivian is a play on words.
[68:29] I grew up on the Indian River
[68:32] and so it's the first few
letters of the word "river,"
[68:34] and the last three letters
of the word "Indian," I-A-N.
[68:37] We came up with all these different ideas,
[68:39] but we wanted something
that was phonetically smooth
[68:41] and nice, but didn't mean
anything in any language.
[68:44] Now it's so natural, but when
we first started using it,
[68:46] it was like, "Is that right?"
[68:47] It's a great name, it
sounds really nice, yeah.
[68:49] All right, well, RJ, thank you.
[68:50] Yeah, thanks. Thanks for having me.
[68:51] Super fun.
Yeah, it was fun.