Key Highlights & Announcements from NVIDIA GTC 2025

NVIDIA’s influence is undeniable, especially for those in the IC industry. The NVIDIA GPU Technology Conference (GTC) is considered a key gathering for AI, deep learning, and GPU developers.

On March 17 (local time), NVIDIA’s annual GTC conference, often dubbed the “Spring Festival Gala for AI Developers,” officially kicked off in San Jose, California. Spanning five days, the event covers cutting-edge fields such as quantum computing, humanoid robotics, and autonomous driving. NVIDIA expects 25,000 attendees on-site and another 300,000 participants online.

At 1:00 AM Beijing time on March 19, NVIDIA CEO Jensen Huang delivered his keynote speech, focusing on how NVIDIA’s accelerated computing platform is driving the next wave of AI, digital twins, cloud technology, and sustainable computing.

IC professionals paid close attention, as Huang’s speech laid out key advancements and innovations shaping AI’s future. Below are the core takeaways:

Jensen Huang unveiled NVIDIA’s new architecture evolution plan: the currently mass-produced Blackwell architecture will see an Ultra-enhanced version in the second half of 2025, with a 30% performance boost. The next-generation Vera Rubin architecture is set for Q3 2026, followed by an Ultra version and the Feynman architecture in 2028, forming a five-year technology roadmap.

The upgraded GB300 NVL72 rack system delivers revolutionary performance, with AI inference speeds 150% faster than the previous GB200. In large language model (LLM) scenarios, the B300 system achieves an 11x inference acceleration. Memory capacity has quadrupled, and computing unit density has increased sevenfold, specifically designed for training trillion-parameter models.

The new Spectrum-X silicon photonics switch achieves a single-port transmission rate of 1.6Tbps. Integrated laser optimization reduces energy consumption by 40%. As the core component of the Spectrum-X photonic Ethernet platform, it enhances data center network resilience tenfold while reducing per-unit compute energy consumption by 3.5 times.

NVIDIA introduced the Grace Blackwell platform in two forms:

  • The DGX Spark, powered by the GB10 chip, supports FP4 precision computing and enters the consumer market at $3,000.
  • The enterprise-grade DGX Station, compatible with the GB300 Ultra chip, supports billion-parameter model deployment on desktops, marking the beginning of democratized AI development.

The Nemotron inference model series, optimized for the Llama architecture, is now open-source. It includes three versions: Nano (7B), Super (70B), and Ultra (400B). Using dynamic precision algorithms, it reduces computational demands while maintaining 95% accuracy. Enhanced with synthetic data techniques, it enables cross-platform NIM microservices deployment.

NVIDIA introduced Isaac GR00T N1, the world’s first customizable humanoid AI model, using a hybrid neural-symbolic architecture. In collaboration with DeepMind, NVIDIA launched the open-source Newton physics engine, boosting robot training efficiency by 300%. The BDX robot has undergone motion control upgrades, increasing joint degrees of freedom to 54.

The demand for virtual world construction is driving a two-order-of-magnitude increase in computing benchmarks. By 2025, the top four North American cloud providers are expected to increase procurement by 280% year-over-year. In large-model inference scenarios, single-query token processing surpasses one million, with latency requirements compressed below 200ms, necessitating a comprehensive computing architecture overhaul.

The open-source NVIDIA Dynamo framework delivers major breakthroughs in inference performance:

  • Standard Llama throughput increased by 210%.
  • DeepSeek model token generation efficiency surged 30x.
    By leveraging distributed optimization in the compute stage, real-time inference of trillion-parameter models is now possible on consumer-grade RTX 4090 GPUs.

On March 20, 2024, NVIDIA will host its first Quantum Day Summit, collaborating with IBM, Google, and other industry leaders to build a quantum-classical hybrid computing roadmap. Within five years, NVIDIA plans to launch its first quantum acceleration card, focusing on breakthroughs in chemical simulations and cryptography applications.

The rise of AI compute clusters is driving growth in three key areas:

  • Liquid cooling adoption is expected to surpass 60%.
  • 1.6T optical modules are entering mass production.
  • The high-voltage DC power market is growing at a 75% compound annual rate.
    Meanwhile, the robotics industry is experiencing a sensor upgrade cycle, with demand for 3D vision modules surging 300%. In the short term, tech sector volatility may reach 30%, while long-term AI infrastructure investments are projected to sustain a 45% annual growth rate.

Related:

  1. Nvidia Forms ASIC Division, Aggressive Talent Hunt Underway
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