NVIDIA
NVIDIA is a computing company founded in 1993, known for GPUs and accelerated computing, with products spanning PC gaming, computer graphics, AI, industrial digitalization, and data-center-scale infrastructure.
Cadence and NVIDIA Claim 40x Faster RTL Verification With AI Agents
Cadence and NVIDIA say an autonomous verification stack built around Cadence ChipStack, Nemotron, Codex and NVIDIA OpenShell can reduce RTL verification cycles from weeks to hours by automating simulation, formal verification, debugging and code repair. The companies present the system as a way to compress one of chip development’s most time-consuming loops, while still escalating major design issues to human engineers.
Sarvam and NVIDIA Build Full-Stack Sovereign AI Infrastructure for India
Sarvam co-founder Pratyush Kumar argues that India’s AI sovereignty cannot mean putting Indian-language interfaces on foreign-built systems. In a NVIDIA-backed account of Sarvam’s work, he describes a full-stack effort to build foundational models, data pipelines, inference systems and developer APIs inside India, using NVIDIA H100 clusters and NeMo tooling to process Indian-language data at scale. The case is that voice-first AI for India’s population requires domestic capability across data, models, applications and accelerated-compute expertise.
NVIDIA Positions RTX Spark as a Local AI Runtime for Windows PCs
NVIDIA is pitching RTX Spark as more than a faster Windows PC chip: it says the Blackwell-and-Grace “superchip” is the hardware basis for a new class of personal AI computers built around local agents. Developed in close collaboration with Microsoft, the platform is framed as a Windows architecture for agents that can run natively, use local or cloud models, remain sandboxed, and handle substantial on-device AI workloads alongside creation and gaming.
AI Factories Are Turning Taiwan’s Supply Chain Into Strategic Infrastructure
NVIDIA’s GTC keynote pregame in Taipei presented Taiwan as more than a manufacturing base for the AI boom. Across interviews led by Bruce Lu of Goldman Sachs and Tracy Tsai of Gartner, Jensen Huang and Taiwanese technology executives argued that AI is becoming infrastructure, requiring chips, advanced packaging, racks, power, factories, robots, software, local compute and talent to work as one system. The case was optimistic but conditional: Taiwan’s strength is the density of its industrial stack, and its test is whether it can move up into systems, software and application leadership.
Automated Cognitive Intelligence Can Sustain Decades of AI Growth
Asked about fears of an AI bubble during a TVBS exchange in Taiwan, Nvidia chief executive Jensen Huang argued that the durability of the industry rests on usefulness rather than market timing. Because AI can now automate cognitive intelligence, Huang said, demand for compute and AI capability should have “decades” of growth ahead, with Taiwan’s chip and packaging partners positioned inside that buildout. His advice to individuals was similarly practical: learn the technology and use it to improve their own work rather than stand aside.
Low-Cost Robot Arms Let Non-Specialists Train Physical AI
On NVIDIA’s AI Podcast, Seeed Studio CEO Eric Pan and head of robotics Elaine Wu make the case that open-source, Jetson-powered robot arms can move embodied AI beyond specialist industrial settings. Their argument is that low-cost hardware, frameworks such as OpenClaw and LeRobot, and Isaac Sim digital twins let makers, students and small businesses teach and constrain robots around specific tasks, rather than waiting for a closed general-purpose humanoid.
AI Factory Digital Twins Link Facility Design to Tokens per Watt
Leaders from Jacobs, PTC and Phaidra argue that AI factories are becoming too complex and volatile to design, build and operate through siloed handoffs. In their account, NVIDIA’s DSX reference design and Omniverse DSX Blueprint provide a shared digital twin that carries design intent from planning into simulation and operations, allowing teams to test facility layouts before construction and train AI agents to manage cooling, power use and tokens per watt once the data center is running.
Cost Per Token Is Replacing FLOPS as the AI Infrastructure Metric
Shruti Koparkar of NVIDIA’s Accelerated Computing team argues that AI infrastructure should be evaluated by token economics rather than by GPU-hour pricing or FLOPS per dollar. On NVIDIA’s AI Podcast, she lays out a four-part framework — token utility, supply, demand and monetization — in which cost per token becomes the central measure of business value. Koparkar says NVIDIA Blackwell’s system-level design delivers 50 times more tokens per watt than Hopper and 35 times lower token cost, while lower token costs will expand GPU demand by making more AI workloads economically viable.
Snap Cut Experimentation Job Costs 76% With GPU-Accelerated Spark
Prudhvi Vatala, Snap’s head of engineering platforms, argues that the company’s 10-plus-petabyte daily experimentation pipeline became a cost and scale problem that could not be solved by adding more CPUs. In an NVIDIA AI Podcast interview, he says Snap cut job costs by 76% by moving Spark workloads to NVIDIA GPU-accelerated infrastructure on Google Cloud, reusing idle inference GPUs overnight, and doing so without application code changes.
Enterprise AI Agents Need Harnesses, Traces, and Controlled Runtimes
LangChain co-founder and CEO Harrison Chase argues that enterprise AI agents are becoming an architectural problem rather than a question of adding autonomy wherever possible. In an NVIDIA AI Podcast interview, he says systems such as Claude Code, Manus and Deep Research share a common “deep agent” pattern: an LLM in a tool-calling loop, supported by a reusable harness, workspace, subagents and planning. For enterprises, Chase says trust depends on choosing the right level of autonomy and surrounding agents with observability, evaluation, secure runtimes and continued iteration.