NVIDIA Vera Rubin: How Developers Will Scale Agentic AI Without Latency
NVIDIA released Vera Rubin—a platform for high-speed agentic AI. It combines the Vera Rubin GPU and Groq 3 LPX accelerator. On trillion-parameter models, it achieves 400 tokens per second while managing latency in a 400K-token context.
AI-processed from NVIDIA Developer Blog; edited by Hamidun News
NVIDIA introduced the Vera Rubin platform, which solves the main challenge in scaling agentic AI—unpredictable latencies in multi-turn sessions.
Why Agentic AI Is Harder to Scale
Typical model scaling works for batch processing: feed many texts, get many responses. But agentic AI works differently. An agent makes a decision, takes an action, observes the result, and makes the next decision. This translates to hundreds of model requests in a single session, each with a small batch size and extremely strict speed requirements.
Since the agent's trajectory is unpredictable in advance (which action the agent will choose is unknown), compiling and optimizing execution is difficult. Latencies accumulate, and the 400K-token context becomes a bottleneck.
Vera Rubin's Three-Layer Solution
Instead of a one-size-fits-all approach, NVIDIA embedded three technologies working together in the platform:
- Direct cable connections between chips—each LPU is connected to 96 others at 112 Gbps, providing 640 TB/sec bandwidth per rack without switches
- Compiler plans all data transfers in advance—instead of deciding at runtime when and where to send data, the compiler pre-calculates every bit of information across the network
- Synchronizing thousands of independent chips—the system aligns the clocks of LPU accelerators so the network operates with known, predictable latency
Hybrid Acceleration: NVIDIA + Groq
The platform leverages a division of labor between GPU and specialized accelerators. Vera Rubin NVL72 handles attention layers (which favor high throughput), while Groq 3 LPX takes on FFN layers (which require low latency during sequential generation). The KV-cache is synchronized between them one token at a time.
It sounds complicated, but the result is a system that operates without compromises between speed and quality.
What Was Achieved
- 400 tokens per second on 1-trillion-parameter MoE models with 400K context
- 35x more throughput per watt than GB200 NVL72
- Predictable latency even when running multiple agents simultaneously
What This Means
For AI agent developers, this means that latency and scalability are no longer adversaries. Vera Rubin allows deploying large models (trillion parameters) and running complex agents within them without compromising response speed. In practice, this means that personal assistants, automation systems, and worker agents will be able to operate quickly even with extended context.
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Key Questions Answered
Why Agentic AI Is Harder to Scale?
Typical model scaling works for batch processing: feed many texts, get many responses. But agentic AI works differently. An agent makes a decision, takes an action, observes the result, and makes the next decision. This translates to hundreds of model requests in a single session, each with a small batch size and extremely strict speed requirements. Since the agent's trajectory is unpredictable in advance (which action the agent will choose is unknown), compiling and optimizing execution is difficult. Latencies accumulate, and the 400K-token context becomes a bottleneck.
What are the key details on Vera Rubin's Three-Layer Solution?
Instead of a one-size-fits-all approach, NVIDIA embedded three technologies working together in the platform: Direct cable connections between chips—each LPU is connected to 96 others at 112 Gbps, providing 640 TB/sec bandwidth per rack without switches Compiler plans all data transfers in advance—instead of deciding at runtime when and where to send data, the compiler pre-calculates every bit of information across the network Synchronizing thousands of independent chips—the system aligns the clocks of LPU accelerators so the network operates with known, predictable latency
What are the key details on Hybrid Acceleration: NVIDIA + Groq?
The platform leverages a division of labor between GPU and specialized accelerators. Vera Rubin NVL72 handles attention layers (which favor high throughput), while Groq 3 LPX takes on FFN layers (which require low latency during sequential generation). The KV-cache is synchronized between them one token at a time. It sounds complicated, but the result is a system that operates without compromises between speed and quality.
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