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Own Your Own Intelligence: The Lenovo Sovereign AI Inference Solution with IBM and NVIDIA

Solution Brief

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Published
16 Oct 2026
Form Number
LP2558
PDF size
7 pages, 371 KB

Abstract

As AI inference moves into production, enterprises need greater control over proprietary data, model lifecycle, performance, and cost. This is especially the case in regulated, disconnected, or latency-sensitive environments.

The Lenovo Sovereign AI Inference architecture, part of Lenovo Hybrid AI Factory, combines Lenovo, IBM, and NVIDIA technologies to keep data, models, prompts, retrieved context, and KV cache on-premises. Its disaggregated prefill-and-decode design and tiered KV cache enable independent scaling, efficient GPU use, and data sovereignty.

Introduction

Enterprises are moving AI assistants, research, code generation, and multimodal analysis from experimentation into production. Cloud services can suit proofs of concept and variable demand, but sustained use can increase requirements for data sovereignty, predictable latency, model control, capacity, and cost visibility.

The Lenovo Sovereign AI Inference architecture addresses these requirements by keeping inference within the enterprise boundary, controlling model and data placement, and scaling owned infrastructure as demand grows. This Solution Brief describes the use cases, components, benefits, and deployment options.

The Sovereign AI Inference Use Case

AI sovereignty has four dimensions:

  • Data sovereignty — Prompts, context, embeddings, and outputs remain within the organization’s boundary and jurisdiction, including deployments without external inference endpoints.
  • Model sovereignty — Enterprises select, fine-tune, version-pin, and update open-weight models on their own schedule.
  • Operational sovereignty — The enterprise manages availability, performance, capacity, and workload priority.
  • Economic sovereignty — Owned infrastructure provides greater cost visibility and control as token volumes grow.

The table below summarizes common sovereign AI inference use cases by industry, workload, and primary sovereignty driver.

Table 1. Common sovereign AI inference use cases
Industry Typical Inference Workload Primary Sovereignty Driver
Financial services Research summarization, client document processing, internal policy assistants Regulatory jurisdiction and data residency
Healthcare & life sciences Clinical documentation, literature, and trial-data research agents Patient data protection and auditability
Government & defense Classified document search, analyst support, disconnected field systems Classification and air-gap requirements
Manufacturing Visual defect analysis, maintenance knowledge assistants, digital twins Latency and plant-floor autonomy
Legal & professional Contract review, discovery, matter research at volume Client confidentiality and privilege

Lenovo Sovereign AI Inference Architecture

The architecture keeps prompts, retrieved context, KV cache, and outputs on enterprise-managed infrastructure, with no required external endpoint in the inference data path. Enterprises can deploy, fine-tune, and version-pin open-weight models; independently scale Kubernetes-based prefill and decode resources; and tier KV cache to IBM shared storage to reduce memory pressure and improve GPU utilization.

Deployment runbooks for IBM and NVIDIA RAG and agentic blueprints, together with the LangFlow visual application builder, help keep retrieval pipelines, embeddings, and agent workflows on premises while accelerating the first production workload.

The following table outlines the software components that support workloads, orchestration, inference serving, models, data services, operations, and observability.

Table 2. Software components of the architecture
Component Description
Workloads NVIDIA AI-Q and Video Search and Summarization (VSS) Blueprints, IBM OpenRAG
AI orchestration LangFlow
Inference serving NVIDIA Dynamo, vLLM, LMCache, NIXL/UCX transport, LiteLLM
Models Any open-weight, open-source model that fits the deployed GPU memory profile
Data services IBM Storage Active File Management
Operating Platform Kubernetes on Ubuntu or Red Hat
Observability Customer choice of AIOps and AI SecOps tools

The following table summarizes the compute, storage, and networking components that form the hardware foundation of the architecture.

Table 3. Hardware components of the architecture
Component Description
Compute Lenovo Hybrid AI Factory architectures, including GPU server platforms supporting up to eight GPUs per node, following NVIDIA reference designs, plus x86 CPU nodes for client, control-plane, and gateway roles
Storage Lenovo storage-rich servers running IBM Storage Scale ECE, or IBM Storage Scale System 6000
Networking NVIDIA Spectrum-X Ethernet switching, with RoCE-capable adapters and BlueField DPUs

Inside the Architecture

The architecture, shown in the figure below, ranges from a single-node proof of concept to a Kubernetes-orchestrated, multi-node cluster. Specialized compute, workload, storage, and network resources can scale independently with token volume and user demand.

IBM Storage Scale provides a unified namespace for inference data, model weights, KV cache, and outputs such as transcripts, agent memory, logs, traces, and telemetry. Common encryption, access, retention, and audit policies simplify governance across the pipeline. The architecture uses scale units rather than a fixed configuration, enabling enterprises to expand compute, workload, storage, and network capacity independently as requirements evolve.

Lenovo Sovereign AI Inference Architecture on a Multi-Node Cluster
Figure 1. Lenovo Sovereign AI Inference Architecture on a Multi-Node Cluster

The architecture’s key platform capabilities mapped to their practical customer outcomes, including stronger sovereignty, flexible scaling, improved GPU utilization, deployment choice, and faster time to production are shown in the following table.

Table 4. Key Features, Customer Benefits and Specifications
Key Platform Feature Customer Benefits
Sovereign and turnkey by design Keeps the complete inference path on premises; supports approved open-weight and fine-tuned models; integrates NVIDIA Dynamo, vLLM, and LMCache; and applies encryption, access control, tenant isolation, and audit trails.
Scale inference serving and workloads with ease Independently scales control-plane, application, prefill, decode, and storage resources. Kubernetes manages container scheduling and recovery, while LiteLLM routes requests across models and endpoints for resilience and efficiency.
Serve more users without more GPUs IBM Storage Scale extends KV cache beyond GPU HBM, reducing recomputation and helping GPUs serve more concurrent users with improved capacity economics.
Flexible deployment options Supports single-node and multi-node deployments, with IBM Storage Scale ECE on Lenovo servers or IBM Storage Scale System 6000.
Working AI use cases day one Includes deployment recipes for NVIDIA AI-Q, Video Search and Summarization, IBM OpenRAG, and the LangFlow visual workflow builder.

Single Node POC and Demo System

The following table presents a compact single-node starting point for proofs of concept and demonstrations using the included AI workloads and orchestration tools.

Table 5. Single-Node POC and Demo System Starting Point
Node Role Starting Point Content
POC/Demo 1 NVIDIA AI-Q Blueprint, IBM OpenRAG, LangFlow

For reference and details, view the document Lenovo Validated Design Hybrid AI 281 with IBM.

Multi-Node Cluster

The following table provides recommended starting points and primary scaling factors for each role in a production multi-node cluster.

Table 6. Multi-Node Cluster Starting Points and Scaling Factors
Node Role Starting Point Scales With
Prefill GPU nodes 1 or more Context length and time-to-first-token targets
Decode GPU nodes 1 or more Output length and concurrent conversations
Workload nodes 1 or more Number and type of AI applications in production
General purpose client nodes 1 or more Request rate and gateway throughput
Kubernetes control plane 3 nodes High availability requirement
Storage
  • 7 or more (IBM Storage Scale ECE), or
  • 1 or more IBM Storage Scale System 6000
Application datasets, RAG corpus size, KV cache tier capacity, and HA requirements
Spectrum-X fabric 3+ switches, spine-leaf Node count and network traffic bandwidth

Services and Support

Lenovo AI Services can support workload and data assessment, cluster sizing, model and blueprint selection, system integration, on-site deployment, validation, and performance tuning. After go-live, Lenovo can assist with operations, re-tuning, and expansion as token volume and workload mix evolve, including connected, disconnected, and air-gapped environments.

Conclusion

The Lenovo Sovereign AI Inference architecture gives enterprises greater control over production of AI data, models, infrastructure, and costs. Independent scaling of compute, storage, and inference resources aligns capacity with demand, while support for connected, disconnected, and air-gapped environments provides a practical foundation for owning and operating enterprise intelligence.

Explore the Hybrid AI Advantage with NVIDIA

Discover how Lenovo and NVIDIA are helping enterprises build secure, scalable, and cost-efficient AI factories - bringing generative AI, RAG, and real-time inferencing into production with confidence.

Learn more about the Lenovo Hybrid AI Advantage, the Lenovo Validated Design Hybrid AI 281 with IBM and explore the full portfolio of NVIDIA-accelerated solutions and services by visiting the Lenovo Hybrid AI Solutions page.

Authors

Pierce Beary is the AI Solutions Product Manager focused on datacenter solutions, he previously worked on the WW HPC team as a product manager for Lenovo EveryScale (LeSI). Prior to joining Lenovo in 2021, Pierce held positions at Exxon Mobil, where he worked as a Mechanical Engineer and Engineering Project Manager. Pierce has a Bachelor’s degree in Mechanical Engineering from North Carolina State University.

Traci Parker is the Worldwide Solutions Marketing Manager for Enterprise IT and AI at Lenovo. She specializes in hybrid cloud, infrastructure modernization and AI solutions. She has more than 15 years of experience as a Marketing Manager and Product Marketing Manager across high-tech, fin-tech and healthcare industries.

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