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Zen 6 Max

3.7 trillion parameters across a routed fusion. Each request runs on the specialist Enso picks, so it behaves as one model.

One name

You call Zen 6 Max. You never choose among the models behind it.

The right specialist, per request

Enso reads each request and runs it on the specialist built for that kind of work, transparently.

Long context

A long context, for large codebases and long documents.

Tools and code

Tool calls and code, built in.

Enterprise deployment

On your own premises

What a rack for Zen 6 Max is made of.

We recommend at least four 8-GPU NVIDIA Blackwell servers, B300 or B200, for Zen 6 Max on your own premises. Routing cuts the average inference work a request needs. It does not cut the memory needed to keep every specialist ready.

DGX B300

GPUs8 x B300
GPU memory8 x 288 GB, 2,304 GB
Cluster network8 x 800 Gb/s InfiniBand or Ethernet
Data cache8 x 3.84 TB

NVIDIA DGX B300 user guide: 8 x 288 GB GPU memory

DGX B200

GPUs8 x B200
GPU memory1,440 GB
Cluster network8 x ConnectX-7, up to 400 Gb/s
Data cache8 x 3.84 TB

NVIDIA DGX B200 user guide: 1,440 GB total GPU memory

Four B300 servers hold 9,216 GB of GPU memory; four B200 servers hold 5,760 GB.

Planning range

Qualification. Four 8-GPU servers is where a qualification starts.

Isolated production pools. One pool for each specialist, so a busy class of work never takes memory from another.

Redundant pools. Two independent replicas of those pools across failure domains.

Around the servers

NVLink and NVSwitch inside each server.

400 or 800 Gb/s RDMA wherever a specialist spans servers.

About 31 TB of NVMe in each server (8 x 3.84 TB).

Separate sandbox workers for coding agents.

A high-availability control cluster.

Final capacity and performance commitments come from qualifying your workload: context length, concurrency, routing mix, latency, and failover.

Build what’s next.