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  • OpenAI and Broadcom Unveil Jalapeño, a Custom LLM Inference Chip to Cut Compute Costs and Reduce Nvidia Dependence

    OpenAI and Broadcom pulled the wrapper off Jalapeño on Wednesday, June 24, 2026, a custom silicon accelerator that OpenAI is calling its first “Intelligence Processor” and its first real move into designing the hardware underneath its own models. Broadcom President and CEO Hock Tan and President Charlie Kawwas physically handed the wafer to OpenAI CEO Sam Altman and President and Co-Founder Greg Brockman, a staged moment meant to signal that the ChatGPT maker is no longer just a models-and-products company but is now reaching all the way down to the chip. Jalapeño is purpose-built for large language model inference, the compute-intensive job of actually serving answers to users rather than training the model in the first place, and OpenAI plans to deploy it at gigawatt scale by the end of 2026 as the first step in a multi-generation platform built with Broadcom and Canadian electronics manufacturer Celestica. You can read the announcement straight from the source in OpenAI’s official post.

    TLDR

    OpenAI and Broadcom unveiled Jalapeño, OpenAI’s first custom AI chip, an ASIC designed from a blank slate specifically for LLM inference rather than training, manufactured by TSMC and integrated into server systems by Celestica that only OpenAI will use. OpenAI claims the chip went from initial design to manufacturing tape-out in just nine months, what it calls the fastest ASIC development cycle ever in high-performance advanced semiconductors, accelerated in part by using its own AI models to design the silicon. Engineering samples are already running ML workloads in the lab, including GPT-5.3-Codex-Spark, and OpenAI says early testing shows performance per watt “substantially better” than current state-of-the-art, a self-reported and not yet independently verified claim with a full technical report promised in the coming months. Broadcom CEO Hock Tan told Reuters the chip matches Nvidia’s Blackwell and Google’s TPUs, framing the launch as part of a flywheel where OpenAI owns the full stack from chip to model to product. The chip slots into a broader infrastructure strategy targeting 10 gigawatts of custom accelerator capacity between 2026 and 2029 with deployments alongside Microsoft and other partners, and The Decoder reported Microsoft is expected to buy 40 percent of the chips, a guarantee Broadcom reportedly demanded to secure the first phase. The move is widely read as OpenAI diversifying away from Nvidia, continuing a procurement spree that already includes AWS Trainium, AMD, and Cerebras, as inference quietly becomes the company’s real cost center.

    Thoughts

    The single most important word in this announcement is “inference,” and it is the word doing the heavy lifting. Training a frontier model is a capital expense that happens in bursts. Inference is the bill that arrives every single day, forever, scaling linearly with usage. Every ChatGPT reply, every Codex task, every API call, every agent step is an inference event, and as OpenAI’s product surface explodes that recurring cost is the thing that actually threatens the unit economics. A custom chip aimed squarely at inference is therefore not a vanity project or a research flex. It is OpenAI attacking the largest variable cost in its business at the root, trying to bend its cost-per-token curve below what it pays renting Nvidia GPUs. If Jalapeño lands anywhere near its claims, the payoff is not faster benchmarks, it is gross margin.

    The performance-per-watt claim, though, deserves the most skeptical reading in the room. OpenAI says Jalapeño will deliver performance per watt “substantially better” than current state-of-the-art, but it has not finalized the numbers, has not said which chips it tested against, on what tasks, or under what conditions, and the full technical report is somewhere in the indefinite “coming months.” These are self-reported figures from a company with an enormous interest in convincing the market it has a credible alternative to Nvidia. Hock Tan’s line that the chip is “as good as” Blackwell and Google’s TPUs is a CEO talking his own book in an interview, not a measured result. The honest posture is to treat the figures as marketing until the technical report lands. A chip running engineering samples in a lab at target frequency is real progress, but it is a very long way from a chip that holds those numbers across a production fleet under messy real-world load.

    OpenAI left the most revealing detail out of its own press release: the report, via The Decoder, that Broadcom demanded Microsoft guarantee it will buy 40 percent of the chips to secure the first phase. That single sentence tells you who is actually carrying the risk. Building gigawatt-scale custom silicon is brutally capital-intensive, and Broadcom is not willing to commit manufacturing capacity on the strength of OpenAI’s demand alone. It wants a balance sheet behind the order, and Microsoft, OpenAI’s largest backer, is the balance sheet. That detail quietly reframes the whole “OpenAI owns the stack” narrative. OpenAI may design the chip, but the deployment is underwritten by Microsoft’s purchasing commitment, which means Microsoft also gets leverage and supply security out of an OpenAI-branded part. Ownership of the design is not the same as ownership of the risk.

    The flywheel framing is genuinely interesting and probably the most defensible strategic claim OpenAI is making. OpenAI says it used its own models to accelerate parts of the chip design and optimization, compressing a normally multi-year ASIC cycle into nine months. If that is even partly true, it is a meaningful loop: the models help design the chips, the chips run the models more cheaply, the cheaper models drive more usage and revenue, and the revenue funds the next chip. That is a compounding advantage that is hard for a pure hardware vendor to replicate and hard for a pure software lab to replicate. The catch is that nine months from design to tape-out is a claim about speed, not about whether the resulting chip is actually competitive in volume. Fast tape-out and great silicon are different achievements, and the industry has seen plenty of chips that taped out quickly and underwhelmed in production.

    Strip away the “Intelligence Processor” branding and this is a playbook we have already watched run three times. Google built TPUs, Amazon built Trainium and Inferentia, Meta built MTIA, and all of them turned to Broadcom or Marvell for the design IP that is hard to replicate in-house. OpenAI is doing the same thing with the same partner, just later and louder. The diversification arc is unmistakable: OpenAI was one of the biggest Nvidia GPU buyers on earth, and in the span of a year it has signed deals for AWS Trainium, AMD accelerators, and Cerebras inference hardware, and now its own custom ASIC. Nvidia is not in trouble, demand still vastly outstrips supply, but the era where the largest AI labs were captive single-vendor customers is clearly ending. The most intriguing wildcard is OpenAI’s own line that Jalapeño is “designed with flexibility to work with all LLMs.” That is not how you describe a chip you intend to keep entirely to yourself. It hints, however faintly, at an OpenAI that could one day rent out inference infrastructure the way it now rents models, which would put it in direct competition with the very cloud providers it currently depends on.

    Key Takeaways

    • OpenAI and Broadcom unveiled Jalapeño on Wednesday, June 24, 2026, OpenAI’s first custom AI chip and its first piece of in-house silicon after years focused on models and products.
    • The chip is branded an “Intelligence Processor” and described as the first AI accelerator in a multi-generation compute platform the two companies are building together.
    • Jalapeño is purpose-built for large language model inference, the compute-intensive work of generating responses and serving answers to users, and explicitly not for training.
    • Inference is OpenAI’s recurring cost center: every ChatGPT conversation, coding request, image generation, and agent action relies on it, making it one of the highest ongoing costs in the business.
    • Broadcom President and CEO Hock Tan and President Charlie Kawwas physically delivered the first wafer to OpenAI CEO Sam Altman and President Greg Brockman.
    • OpenAI designed the chip from scratch around its understanding of LLM fundamentals, informed by its roadmap of models, kernels, serving systems, and product needs.
    • Jalapeño is described as a blank-slate design for modern LLM inference, not a general-purpose accelerator adapted from earlier AI workloads.
    • The chip is shaped by the systems OpenAI runs daily across ChatGPT, Codex, the API, and future agentic products, while also being designed to work with current and future LLMs across the industry.
    • The stated performance goal is to combine the throughput of today’s leading AI accelerators with latency closer to the fastest specialized inference systems, suiting it for interactive LLM products at scale.
    • OpenAI frames this as its full-stack advantage: it designs frontier models, builds products on top of them, and now designs the chip architecture, kernels, memory systems, networking, scheduling, and deployment systems underneath.
    • OpenAI claims Jalapeño went from initial design to manufacturing tape-out in just nine months.
    • The companies call it what they believe to be the fastest ASIC development cycle ever achieved in high-performance advanced semiconductors, against a backdrop of typically multi-year timelines.
    • OpenAI used its own AI models to accelerate parts of the chip design and optimization process, which it credits for the speed.
    • OpenAI frames the result as a flywheel: the same models served to users help improve the infrastructure that runs future models, lowering compute cost across the industry.
    • Engineering samples of Jalapeño are already running ML workloads in the lab at production target frequency and power.
    • Among the workloads running on the samples is OpenAI’s GPT-5.3-Codex-Spark model.
    • GPT-5.3-Codex-Spark currently runs on Cerebras hardware, which also specializes in inference, per The Decoder.
    • OpenAI says early testing shows Jalapeño will deliver performance per watt “substantially better” than current state-of-the-art hardware.
    • That performance-per-watt claim is self-reported and lacks independent verification; OpenAI has not said which chips it tested against, on what tasks, or under what conditions.
    • OpenAI says it is still measuring final performance and has promised a detailed technical report in the coming months.
    • The architecture reduces data movement and balances compute, memory, and networking resources to push realized utilization much closer to theoretical peak performance.
    • Jalapeño is an ASIC, which experts say is less flexible than Nvidia’s GPU but less expensive and tailorable to specific AI tasks.
    • Broadcom contributes silicon implementation and networking technologies, including its Tomahawk networking silicon, to bring the platform to large-scale production.
    • Canadian electronics manufacturer Celestica provides board, rack, and system integration expertise and will build the server systems.
    • The chips are manufactured by Taiwan’s TSMC, the world’s leading advanced semiconductor foundry, after OpenAI sent over the design.
    • Both the chips and the Celestica-built server systems will be used only by OpenAI, not sold to outside customers.
    • OpenAI plans to deploy Jalapeño at gigawatt scale by the end of 2026, with expansion in the years ahead, as the first step in a multi-generation plan.
    • Hock Tan said gigawatt-scale data center deployment will happen with Microsoft and other partners beginning in 2026.
    • The Decoder reported Microsoft is expected to buy 40 percent of the chips, with Broadcom reportedly demanding Microsoft guarantee that share to secure the first phase.
    • Broadcom CEO Hock Tan told Reuters that Jalapeño is as good as Nvidia’s Blackwell chips and the TPUs designed by Alphabet’s Google.
    • In October 2025, after 18 months of working together, OpenAI and Broadcom went public with plans to develop and deploy racks of OpenAI-designed chips starting late this year; CNBC framed the unveiling as coming eight months after that deal.
    • The prior OpenAI-Broadcom plan ultimately aimed at 10 gigawatts of custom AI accelerator capacity, with deployments expected between 2026 and 2029.
    • Estimates suggest OpenAI’s broader infrastructure plans could eventually involve around 26 gigawatts of computing capacity across custom chips, Nvidia hardware, and other accelerators.
    • OpenAI has been one of the biggest buyers of Nvidia’s GPUs since kickstarting the generative AI boom in 2022, but explosive demand has pushed it to seek other sources of advanced silicon.
    • Earlier in 2026 OpenAI struck a deal with Amazon Web Services that includes use of AWS Trainium chips, and has also signed agreements with AMD and with Cerebras, which held its IPO in May.
    • The move is widely characterized as OpenAI diversifying away from and reducing dependence on Nvidia while creating an alternative to its GPUs.
    • OpenAI’s stated goals with the chip are to reduce costs, improve energy efficiency, secure long-term computing supply, and gain more control over the infrastructure powering its services.
    • Broadcom shares climbed about 2 percent following the announcement, are up roughly 10 percent year-to-date in 2026, and have multiplied almost sevenfold since the end of 2022.
    • To build in-house chips, Meta, Amazon, and Google have turned to firms like Broadcom and Marvell for design services and IP that are hard to replicate internally; Reuters first reported OpenAI was exploring its own chip in 2023, and sources told Reuters in April 2026 that Anthropic is weighing its own AI chip.
    • Broadcom’s margin on custom AI chips is currently lower than on products like networking switches due to AI-driven high-bandwidth memory demand; Tan said SK Hynix and Samsung Electronics supply Broadcom with memory chips.

    Detailed Summary

    A blank-slate chip built only for inference

    Jalapeño is OpenAI’s first so-called Intelligence Processor, and the company is emphatic that it is not a repurposed general-purpose accelerator. It was designed from a blank slate specifically for modern large language model inference, the job of crunching data to answer a user’s query rather than the separate, bursty work of training a model. OpenAI says it designed the chip from scratch around its own deep understanding of LLM fundamentals, informed by its roadmap of models, kernels, serving systems, and product needs, drawing on the systems it runs every day across ChatGPT, Codex, the API, and future agentic products. The stated objective is to fuse the raw power and throughput of today’s leading AI accelerators with latency closer to the fastest specialized inference systems, which would make Jalapeño particularly well suited to interactive products used at scale. Notably, OpenAI also says the chip is designed with flexibility to work with all LLMs across the industry, not only its own, a claim that sits a little oddly next to its plan to keep the hardware entirely in-house.

    The full-stack flywheel and AI designing its own silicon

    OpenAI is selling Jalapeño as proof of a full-stack advantage. The argument is that because OpenAI now develops frontier models, builds products on top of them, and designs the infrastructure underneath them, including chip architecture, kernels, memory systems, networking, scheduling, deployment systems, and the product experience, every layer can be optimized around the same goal of making its models faster, more reliable, and cheaper. OpenAI describes this as a flywheel: better infrastructure drives compute efficiency, which enables better training and serving, which powers more capable models, which become better products, which drive more usage and revenue, which funds the next generation of infrastructure. The most striking piece of that loop is that OpenAI used its own AI models to accelerate parts of the chip’s design and optimization. The company’s framing is direct: if AI can help engineers design better chips faster, it can lower the cost of compute across the industry. That self-referential loop is the part of the announcement that is genuinely novel rather than a rerun of an existing hyperscaler playbook.

    Nine-month tape-out and the partner stack

    OpenAI claims it took roughly nine months to go from initial design to manufacturing tape-out, and calls this what it believes to be the fastest ASIC development cycle ever achieved in high-performance advanced semiconductors, against an industry norm measured in years. It credits deep software-hardware co-development, Broadcom’s silicon implementation expertise, and the use of its own models to compress the schedule. The work is split across a clear partner stack: OpenAI provides the architecture and AI-specific requirements, Broadcom contributes silicon implementation and networking technology, including its Tomahawk networking silicon, and Celestica handles boards, racks, and system integration, building the actual server systems. Once the design was complete, OpenAI sent it to TSMC in Taiwan, the world’s leading advanced foundry, for manufacturing. Crucially, both the chips and the systems built around them are for OpenAI’s exclusive use; they are not products being sold to outside customers.

    Performance claims that nobody can check yet

    OpenAI says early testing shows Jalapeño will deliver performance per watt substantially better than current state-of-the-art hardware, with an architecture that reduces data movement and balances compute, memory, and networking to push realized utilization much closer to theoretical peak. Hardware program lead Richard Ho said the team optimized around the kernels, memory movement, networking, and serving patterns that matter most for frontier models, and that the chip will execute key workloads close to the hardware’s theoretical limits. He told Reuters it will be performant on what he thinks will be all kinds of future LLM iterations. The important caveat is that none of this is verifiable. OpenAI is still measuring final performance, has not finalized the numbers, and has not disclosed which chips it benchmarked against, on what tasks, or under what conditions, with the technical report only promised in the coming months. As The Decoder put it bluntly, these are self-reported numbers, unverifiable for now, that should not be taken at face value. Broadcom CEO Hock Tan’s separate claim to Reuters that the chip is as good as Nvidia’s Blackwell and Google’s TPUs is similarly an unverified assertion from an interested party.

    Gigawatts, Microsoft’s 40 percent, and who carries the risk

    Jalapeño is the opening move in a much larger infrastructure buildout. Initial deployment is targeted for the end of 2026 at gigawatt scale, expanding over multiple generations. Tan said the gigawatt-scale data centers will come online with Microsoft and other partners beginning in 2026. The deal traces back to October 2025, when, after 18 months of collaboration, OpenAI and Broadcom went public with plans to deploy racks of OpenAI-designed chips, ultimately aiming for 10 gigawatts of custom accelerator capacity with deployments expected between 2026 and 2029. Broader estimates put OpenAI’s total infrastructure ambition at around 26 gigawatts across custom chips, Nvidia hardware, and other accelerators. The detail that cuts through the optimism comes from The Decoder: Microsoft is expected to buy 40 percent of the chips, and Broadcom reportedly demanded that Microsoft guarantee that purchase to secure the first phase. That guarantee shows that the financial risk of this buildout is not OpenAI’s alone; it rests heavily on its largest backer’s balance sheet.

    The Nvidia diversification arc and Broadcom’s windfall

    Jalapeño is the clearest signal yet of OpenAI loosening its dependence on Nvidia. OpenAI has been one of the biggest buyers of Nvidia GPUs since it kickstarted the generative AI boom in 2022, but demand has exploded past what any single vendor can supply. Within 2026 alone, OpenAI has struck a deal with AWS that includes Trainium chips, signed agreements with AMD and with Cerebras, which held its IPO in May, and now rolled out its own ASIC. The pattern mirrors what Meta, Amazon, and Google already did, all of them leaning on firms like Broadcom and Marvell for design IP that is hard to build in-house, and Anthropic is reportedly weighing the same move, per sources who spoke to Reuters in April 2026. Broadcom is the obvious beneficiary, with shares up about 2 percent on the news, up roughly 10 percent in 2026, and up nearly sevenfold since the end of 2022. Even so, Tan noted that the AI-driven surge in high-bandwidth memory demand makes Broadcom’s margin on custom AI chips lower than on products like networking switches, with SK Hynix and Samsung Electronics supplying the memory.

    Notable Quotes

    “The world is moving to a compute-powered economy.”

    Greg Brockman, President and Co-Founder of OpenAI, framing the launch as a broad economic shift

    “Jalapeño is part of our long-term full-stack infrastructure strategy to make compute more abundant, resulting in AI which is faster, more reliable, more affordable for people and businesses, and can be used to solve more important problems. By designing more of the stack ourselves, we can serve more intelligence with greater efficiency and keep pushing advanced AI toward broader access.”

    Greg Brockman, President and Co-Founder of OpenAI, on the full-stack rationale for building its own chip

    “Jalapeño was designed from the ground up for LLM inference using detailed insights from our close collaboration with OpenAI researchers.”

    Richard Ho, who leads OpenAI’s hardware program, describing the chip as purpose-built rather than adapted

    “We optimized the architecture around the kernels, memory movement, networking, and serving patterns that matter most for frontier AI models. Based on early testing, Jalapeño will efficiently execute our most important workloads close to the hardware’s theoretical limits.”

    Richard Ho, who leads OpenAI’s hardware program, on the architecture’s optimization targets and early performance

    “It will be performant on, we think, all kind of future iterations of LLMs.”

    Richard Ho, OpenAI hardware chief, to Reuters on the chip’s forward compatibility with future models

    “Our collaboration with OpenAI represents a fundamental commitment to scaling the physical infrastructure required for the next decade of AI.”

    Hock Tan, President and CEO, Broadcom, on the scale of the infrastructure commitment

    “This is just the beginning of a multi-generation roadmap. By co-developing our industry-leading silicon directly with OpenAI, we are enabling the deployment of gigawatt scale data centers with Microsoft and other partners beginning in 2026.”

    Hock Tan, President and CEO, Broadcom, on the multi-generation plan and 2026 gigawatt-scale deployment with Microsoft

    “The goal is to combine the power and throughput of today’s leading AI accelerators with latency closer to the fastest specialized inference systems, making Jalapeño well suited for interactive LLM products at scale.”

    OpenAI, in the press release, stating the performance objective for the chip

    “These are self-reported numbers that haven’t been finalized. Take them with a grain of salt.”

    Maximilian Schreiner, The Decoder, on the unverified performance-per-watt claim

    Jalapeño is a real chip running real workloads in a lab, but the gap between an engineering sample and a profitable production fleet is exactly where this story will be decided over the next year, and the most important numbers, the performance-per-watt figures that justify the whole effort, remain self-reported and unverified until OpenAI publishes its technical report. Read OpenAI’s full announcement here.

    Related Reading

    • OpenAI, the chip’s designer and the primary source of the announcement and quotes.
    • Broadcom, the co-developer providing silicon implementation and Tomahawk networking.
    • Celestica, which builds the boards, racks, and server systems around the Jalapeño chip.
    • ASIC (application-specific integrated circuit), what Jalapeño is, a custom chip built for one task unlike a general-purpose GPU.
    • Nvidia Blackwell, the Nvidia architecture Broadcom’s CEO claims Jalapeño matches.

  • Jensen Huang on Nvidia’s Supply Chain Moat, TPU Competition, China Export Controls, and Why Nvidia Will Not Become a Cloud (Dwarkesh Podcast Summary)

    TLDW (Too Long, Didn’t Watch)

    Jensen Huang sat down with Dwarkesh Patel for over 90 minutes covering Nvidia’s supply chain dominance, the TPU threat, why Nvidia will not become a hyperscaler, whether the US should sell AI chips to China, and why Nvidia does not pursue multiple chip architectures at once. Jensen framed Nvidia’s entire business as transforming “electrons into tokens” and argued that Nvidia’s real moat is not any single technology but the full stack ecosystem it has built over two decades. He was blunt about his regret over not investing in Anthropic and OpenAI earlier, passionate about keeping the American tech stack dominant worldwide, and dismissive of the idea that China’s chip industry can be meaningfully contained through export controls.

    Key Takeaways

    1. Nvidia’s moat is the ecosystem, not the chip. Jensen repeatedly emphasized that Nvidia’s competitive advantage comes from CUDA, its massive installed base, its deep partnerships across the entire supply chain, and the fact that it operates in every cloud. The moat is not a single product but an interlocking system that took 20+ years to build.

    2. Supply chain bottlenecks are temporary, energy bottlenecks are not. Jensen argued that CoWoS packaging, HBM memory, EUV capacity, and logic fabrication bottlenecks can all be resolved in two to three years with the right demand signal. The real constraint on AI scaling is energy policy, which takes far longer to fix.

    3. TPUs and ASICs are not an existential threat to Nvidia. Jensen was emphatic that no competitor has demonstrated better price-performance or performance-per-watt than Nvidia, and challenged TPU and Trainium to prove otherwise on public benchmarks like InferenceMAX and MLPerf. He described Anthropic as a “unique instance, not a trend” for TPU adoption.

    4. Jensen regrets not investing in Anthropic and OpenAI earlier. He admitted he did not deeply internalize how much capital AI labs needed and that traditional VC funding was not sufficient for companies at that scale. He described this as a clear miss, though he said Nvidia was not in a position to make multi-billion dollar investments at the time.

    5. Nvidia will not become a hyperscaler. Jensen’s philosophy is “do as much as needed, as little as possible.” Building cloud infrastructure is something other companies can do, so Nvidia supports neoclouds like CoreWeave, Nebius, and Nscale instead of competing with them. Nvidia invests in ecosystem partners rather than vertically integrating into cloud services.

    6. Jensen is strongly against US chip export controls on China. This was the longest and most heated segment of the interview. Jensen argued that China already has abundant compute, energy, and AI researchers, and that export controls have accelerated China’s domestic chip industry while causing the US to concede the world’s second-largest technology market. He compared the situation to how US telecom policy allowed Huawei to dominate global telecommunications.

    7. AI will cause software tool usage to skyrocket, not collapse. Jensen pushed back on the narrative that AI will commoditize software companies. He argued that agents will use existing tools at massive scale, causing the number of instances of products like Excel, Synopsys Design Compiler, and other enterprise tools to grow exponentially.

    8. Nvidia does not pick winners among AI labs. Jensen explained that Nvidia invests across multiple foundation model companies simultaneously and refuses to favor any single one. He cited his own company’s unlikely survival story as the reason for this humility: Nvidia’s original graphics architecture was “precisely wrong” and would have been counted out by anyone picking winners.

    9. Nvidia added Groq for premium token economics. Nvidia recently acquired Groq and is folding it into the CUDA ecosystem because the market is now segmenting into different token tiers. Some customers will pay premium prices for faster response times even at lower throughput, creating a new segment of the inference market.

    10. Without AI, Nvidia would still be very large. Jensen was clear that accelerated computing, not AI specifically, is the foundational mission of the company. Molecular dynamics, quantum chemistry, computational lithography, data processing, and physics simulation all benefit from GPU acceleration regardless of deep learning.

    Detailed Summary

    Nvidia’s Real Business: Electrons to Tokens

    Jensen opened the conversation by reframing Nvidia’s entire value proposition. When Dwarkesh suggested that Nvidia is fundamentally a software company that sends a GDS2 file to TSMC for manufacturing, Jensen pushed back hard. He described Nvidia’s job as transforming electrons into tokens, with everything in between representing an “incredible journey” of artistry, engineering, science, and invention. He said the transformation is far from deeply understood and the journey is far from over, making commoditization unlikely.

    Jensen described Nvidia as operating a philosophy of doing “as much as necessary and as little as possible.” Whatever Nvidia does not need to do itself, it partners with someone else and makes it part of the broader ecosystem. This is why Nvidia has what Jensen called probably the largest ecosystem of partners in the industry, spanning the full supply chain upstream and downstream, application developers, model makers, and all five layers of the AI stack.

    On the question of whether AI will commoditize software companies, Jensen offered a contrarian take. He argued that agents are going to use software tools at unprecedented scale, meaning the number of instances of products like Excel, Cadence design tools, and Synopsys compilers will skyrocket. Today the bottleneck is the number of human engineers. Tomorrow, those engineers will be supported by swarms of agents exploring design spaces and using the same tools humans use today. Jensen said the reason this has not happened yet is simply that the agents are not good enough at using tools. That will change.

    The Supply Chain Moat

    Dwarkesh pressed Jensen on Nvidia’s reported $100 billion (and potentially $250 billion) in purchase commitments with foundries, memory manufacturers, and packaging companies. The question was whether Nvidia’s real moat for the next few years is simply locking up scarce upstream components so that no competitor can get the memory and logic they need to build alternative accelerators.

    Jensen confirmed this is a significant advantage but framed it differently. He said Nvidia has made enormous explicit and implicit commitments upstream. The implicit commitments matter just as much: Jensen personally meets with CEOs across the supply chain to explain the scale of the coming AI industry, convince them to invest in capacity, and assure them that Nvidia’s downstream demand is large enough to justify that investment. Nvidia’s GTC conference serves this purpose too, bringing the entire ecosystem together so upstream suppliers can see downstream demand and vice versa.

    Jensen described a process of systematically “prefetching bottlenecks” years in advance. CoWoS advanced packaging was a major bottleneck two years ago, but Nvidia swarmed it with repeated doubling of capacity until TSMC recognized it as mainstream computing technology rather than a specialty product. More recently, Nvidia has invested in the silicon photonics ecosystem through partnerships with Lumentum and Coherent, invented new packaging technologies, licensed patents to keep the supply chain open, and even invested in new testing equipment like double-sided probing.

    When Dwarkesh asked about the ultimate physical bottlenecks, Jensen surprised him. The hardest bottleneck to solve is not CoWoS or HBM or EUV machines. It is plumbers and electricians needed to build data centers. Jensen used this as a launching point to criticize “doomers” who discourage people from pursuing careers in software engineering or radiology, arguing that scaring people out of these professions creates the real bottlenecks.

    On EUV and logic scaling specifically, Jensen was optimistic. He said no supply chain bottleneck lasts longer than two to three years. Once you can build one of something, you can build ten, and once you can build ten, you can build a million. The key is a clear demand signal. If TSMC is convinced of the demand, ASML will produce enough EUV machines. Meanwhile, Nvidia continues to improve computing efficiency by 10x to 50x per generation through architecture, algorithms, and system design.

    The TPU Question

    Dwarkesh pushed hard on whether Google’s TPUs represent a real threat, noting that two of the top three AI models (Claude and Gemini) were trained on TPUs. Jensen drew a sharp distinction between what Nvidia builds and what a TPU is. Nvidia builds accelerated computing, which serves molecular dynamics, quantum chromodynamics, data processing, fluid dynamics, particle physics, and AI. A TPU is a tensor processing unit optimized for matrix multiplies. Nvidia’s market reach is far greater than any TPU or ASIC can possibly have.

    Jensen emphasized programmability as Nvidia’s core architectural advantage. If you want to invent a new attention mechanism, build a hybrid SSM model, fuse diffusion and autoregressive techniques, or disaggregate computation in a novel way, you need a generally programmable architecture. The only way to achieve 10x or 100x performance leaps (versus the roughly 25% per year from Moore’s Law) is to fundamentally change the algorithm, and that requires the flexibility CUDA provides.

    On the specific question of whether hyperscalers with huge engineering teams can simply write their own kernels and bypass CUDA, Jensen acknowledged they do write custom kernels but argued that Nvidia’s engineers still routinely deliver 2x to 3x speedups when they optimize a partner’s stack. He described Nvidia’s GPUs as “F1 racers” that anyone can drive at 100 mph, but extracting peak performance requires deep architectural expertise. Nvidia uses AI itself to generate many of its optimized kernels.

    Jensen was particularly blunt about public benchmarks. He pointed to Dylan Patel’s InferenceMAX benchmark and said neither TPU nor Trainium has been willing to demonstrate their claimed performance advantages on it. He said Nvidia’s performance-per-TCO is the best in the world, “bar none,” and challenged anyone to prove otherwise.

    Regarding Anthropic’s multi-gigawatt deal with Broadcom and Google for TPUs, Jensen called it “a unique instance, not a trend.” He said without Anthropic, there would be essentially no TPU growth and no Trainium growth. He traced this back to his own mistake: when Anthropic and OpenAI needed multi-billion dollar investments from their compute suppliers to get off the ground, Nvidia was not in a position to provide that capital. Google and AWS were, and in return, Anthropic committed to using their compute.

    Nvidia’s Investment Strategy and Regrets

    Jensen was unusually candid about his regret over not investing in foundation model companies earlier. He said he did not deeply internalize how different AI labs were from typical startups. A traditional VC would never put $5 to $10 billion into a single AI lab, but that was exactly what companies like OpenAI and Anthropic needed. By the time Jensen understood this, Nvidia was not in a financial or cultural position to make those kinds of investments.

    Now, Nvidia has invested approximately $30 billion in OpenAI and $10 billion in Anthropic. Jensen said he is delighted to support both and considers their existence essential for the world. But he acknowledged that these investments came at much higher valuations than would have been possible years earlier.

    Jensen explained Nvidia’s broader investment philosophy: support everyone, do not pick winners. He invests in one foundation model company, he invests in all of them. This comes from hard-won humility. When Nvidia started, there were 60 3D graphics companies. Nvidia’s original architecture was “precisely wrong” and the company would have been at the top of most lists to fail. Jensen said he has enough humility from that experience to know that you cannot predict which AI company will ultimately succeed.

    Why Nvidia Will Not Become a Hyperscaler

    Dwarkesh pointed out that Nvidia has the cash to build and operate its own cloud infrastructure, bypassing the middleman ecosystem that converts CapEx into OpEx for AI labs. Jensen rejected this path based on his core operating philosophy.

    If Nvidia did not build its computing platform, NVLink, and the CUDA ecosystem, nobody else would have done it. He is “completely certain” of that. These are things Nvidia must do. But the world has lots of clouds. If Nvidia did not build a cloud, someone else would show up. So the answer is to support the ecosystem instead: invest in CoreWeave, Nscale, Nebius, and others to help them exist and scale, rather than competing with them.

    Jensen was clear that Nvidia is not trying to be in the financing business either. When OpenAI needed a $30 billion investment before its IPO, Nvidia stepped up because OpenAI needed it and Nvidia deeply believed in the company. But these are targeted ecosystem investments, not a strategic pivot into cloud services.

    On GPU allocation during shortages, Jensen pushed back on the narrative that Nvidia strategically “fractures” the market by giving allocations to smaller neoclouds. He said the process is straightforward: you forecast demand, you place a purchase order, and it is first in, first out. Nvidia never changes prices based on demand. Jensen said he prefers to be dependable and serve as the foundation of the industry rather than extracting maximum short-term value.

    The China Debate

    The longest and most heated section of the interview was Jensen’s case against US chip export controls on China. This was a genuine debate, with Dwarkesh pushing the national security argument and Jensen pushing back forcefully.

    Jensen’s core argument rested on several pillars. First, China already has abundant compute. They manufacture 60% or more of the world’s mainstream chips, have massive energy infrastructure (including empty data centers with full power), and employ roughly 50% of the world’s AI researchers. The threshold of compute needed to build models like Anthropic’s Mythos has already been reached and exceeded by China’s existing infrastructure.

    Second, export controls have backfired. They accelerated China’s domestic chip industry, forced their AI ecosystem to optimize for internal architectures instead of the American tech stack, and caused the United States to concede the second-largest technology market in the world. Jensen compared this directly to how US telecom policy allowed Huawei to dominate global telecommunications infrastructure.

    Third, Jensen argued that AI is a five-layer stack (energy, chips, computing platform, models, applications) and the US needs to win at every layer. Fixating on one layer (models) at the expense of another layer (chips) is counterproductive. If Chinese open source AI models end up optimized for non-American hardware and that stack gets exported to the global south, the Middle East, Africa, and Southeast Asia, the US will have lost something far more valuable than whatever marginal compute advantage the export controls provided.

    Dwarkesh countered with the Mythos example: Anthropic’s new model found thousands of high-severity zero-day vulnerabilities across every major operating system and browser, including one that had existed in OpenBSD for 27 years. If China had enough compute to train and deploy a model like Mythos at scale before the US could prepare, the cyber-offensive capabilities would be devastating.

    Jensen’s response was direct. Mythos was trained on “fairly mundane capacity” that is already abundantly available in China. The amount of compute is not the bottleneck for that kind of breakthrough. Great computer science is, and China has no shortage of brilliant AI researchers. He pointed to DeepSeek as evidence: most advances in AI come from algorithmic innovation, not raw hardware. If China’s researchers can achieve breakthroughs like DeepSeek with limited hardware, imagine what they could do with more.

    Jensen also argued for dialogue over confrontation. He said it is essential that American and Chinese AI researchers are talking to each other, and that both countries agree on what AI should not be used for. The idea that you can prevent AI risks by cutting off chip sales, when the real advances come from algorithms and computer science, reflects a fundamental misunderstanding of how AI progress works.

    The debate ended without resolution, but Jensen’s final point was sharp: “I’m not talking to somebody who woke up a loser. That loser attitude, that loser premise, makes no sense to me.”

    Why Not Multiple Chip Architectures?

    Near the end of the interview, Dwarkesh asked why Nvidia does not run multiple parallel chip projects with different architectures, like a Cerebras-style wafer-scale design or a Dojo-style huge package, or even one without CUDA.

    Jensen’s answer was simple: “We don’t have a better idea.” Nvidia simulates all of these alternative approaches in its internal simulators and they are provably worse. The company works on exactly the projects it wants to work on. If the workload were to change dramatically (not just the algorithms, but the actual market shape), Nvidia might add other accelerators.

    In fact, Nvidia recently did exactly this by acquiring Groq. The inference market is now segmenting into different tiers. Some customers will pay premium prices for extremely fast response times even if throughput is lower. This creates a new “high ASP token” segment that justifies a different point on the performance curve. But Jensen was clear: if he had more money, he would put it all behind Nvidia’s existing architecture, not diversify into alternatives.

    Nvidia Without AI

    Jensen closed by saying that even if the deep learning revolution had never happened, Nvidia would be “very, very large.” The premise of the company has always been that general-purpose computing cannot scale indefinitely and that domain-specific acceleration is the way forward. Molecular dynamics, seismic processing, image processing, computational lithography, quantum chemistry, and data processing all benefit from GPU acceleration regardless of AI. Jensen said the fundamental promise of accelerated computing has not changed “not even a little bit.”

    Thoughts

    This interview is one of the most revealing Jensen Huang conversations in years, partly because Dwarkesh actually pushes back instead of lobbing softballs. A few things stand out.

    The Anthropic regret is real and significant. Jensen is essentially admitting that Nvidia’s biggest strategic miss of the AI era was not understanding that foundation model companies needed supplier-level capital commitments, not VC funding. The fact that Google and AWS used compute investments to lock in Anthropic’s architecture choices has had downstream consequences that Nvidia is still working to unwind. When Jensen says Anthropic is “a unique instance, not a trend” for TPU adoption, he is simultaneously downplaying the threat and revealing exactly how seriously he takes it.

    The China debate is the highlight. Jensen’s argument is more nuanced than it first appears. He is not saying “sell China everything.” He is saying the current binary approach of near-total restriction has backfired by accelerating China’s domestic chip industry and pushing the Chinese AI ecosystem away from the American tech stack. His comparison to the US telecom industry losing global market share to Huawei is pointed and historically grounded. Whether you agree with his conclusion or not, the framing of AI as a five-layer stack where the US needs to compete at every layer is a useful mental model.

    The “electrons to tokens” framing is Jensen at his best. It is a simple metaphor that captures something genuinely complex about where value is created in the AI supply chain. And his insistence that the transformation is “far from deeply understood” is a subtle way of arguing that Nvidia’s competitive position will be durable because the problem space is not close to being solved.

    The Groq acquisition reveal is interesting for what it signals about the inference market. If Nvidia is creating a separate product tier for premium-priced, low-latency tokens, it suggests the company sees inference economics fragmenting significantly. This aligns with the broader trend of AI becoming an enterprise product where different customers have wildly different willingness to pay based on how they use tokens.

    Finally, Jensen’s refusal to diversify chip architectures is a bold bet. “We simulate it all in our simulator, provably worse” is an incredibly confident statement. History is full of companies that were right until they were not. But Nvidia’s track record of 50x generation-over-generation improvements through co-design across processors, fabric, libraries, and algorithms is hard to argue with. The question is whether the current paradigm of transformer-based models on GPU clusters represents a local or global optimum for AI compute.