Interlocking gears laced with red neural wires, representing hardware and software combined into one AI platform.
NVIDIA sells a full stack: silicon at the bottom, model software at the top, and validated glue in between.

NVIDIA supplies the dominant hardware for training and running AI models, plus a layered software stack that turns raw GPUs into a supported enterprise platform. The problem it solves is fragmentation. Teams that buy GPUs still face driver management, inference optimisation, model packaging, and lifecycle tooling. NVIDIA bundles these into named products so you can deploy models in your own data center or cloud with vendor support instead of assembling everything yourself.

This page covers the platform at a high level: GPUs and DGX systems as the hardware, NVIDIA AI Enterprise as the supported software suite, NIM as the inference delivery layer, and NeMo as the framework for building and customising models. It also explains when a NVIDIA-based deployment makes sense versus a cloud-managed model API.

Where it sits in the stack

Build and customise
NeMo Nemotron models data prep, fine-tuning, evaluation, guardrails
Serve and deploy
NIM microservices TensorRT-LLM vLLM containerised models behind industry-standard APIs
Supported software suite
NVIDIA AI Enterprise security, stability, enterprise support
Hardware
NVIDIA GPUs DGX systems DGX SuperPOD workstation to on-premises cluster

How it fits together

The four layers are designed to work as one validated system. Each layer targets a different job.

GPUs and DGX systems (hardware). NVIDIA GPUs supply the acceleration for training and inference. DGX systems package those GPUs with software and support into a unified AI development solution. DGX SuperPOD extends this to on-premises cluster scale, adding NVIDIA Mission Control for operations. This is the compute foundation used by telcos, pharmaceutical companies, automotive manufacturers, and government institutions.

NVIDIA AI Enterprise (supported software). This is an enterprise AI software suite for data center deployments. It wraps the model tooling with security, stability, and vendor support so production workloads run on a maintained platform rather than loosely versioned open-source parts.

NIM (inference microservices). NIM delivers GPU-accelerated inference microservices for pretrained and customised models across clouds, data centers, and RTX AI PCs. Each NIM is a container that exposes an industry-standard API and is pre-optimised for a given model and GPU combination. Under the hood it uses inference engines including TensorRT-LLM, vLLM, and SGLang. You either download the container to self-host or call NVIDIA-hosted endpoints. This is the layer that closes the gap between a trained model and a production endpoint.

NeMo (build and customise). NeMo is an open suite of libraries for building, customising, and governing models and AI agents. It covers data preparation, fine-tuning, evaluation, and guardrails across the agent lifecycle. NeMo produces the models that NIM then serves, so the two products connect directly.

Step 1 Build with NeMo Prepare data, select or fine-tune a foundation model, and evaluate it.
Step 2 Package as NIM Wrap the model in a NIM container with an industry-standard API.
Step 3 Run on NVIDIA hardware Deploy the NIM on GPUs or DGX systems under NVIDIA AI Enterprise support.
Step 4 Integrate and optimise Call the API from your application, then monitor and tune over time.

How to access it

You do not install NVIDIA AI as a single package. You choose an entry point that matches where you want the compute to live.

  • Own hardware. Buy DGX systems or GPU servers, license NVIDIA AI Enterprise, and pull NIM containers to self-host models behind your firewall.
  • A GPU cloud. Rent NVIDIA GPUs from a specialist provider such as CoreWeave or a hyperscaler, then run NIM and NeMo on that capacity.
  • Hosted endpoints. Call NVIDIA-hosted NIM endpoints and API catalog models without managing infrastructure, useful for prototyping before you commit to hardware.

NIM containers are built to run under Kubernetes, so they slot into an existing orchestration platform rather than forcing a new one. That keeps a NVIDIA deployment portable across data center and cloud.

NVIDIA platform vs cloud-managed model APIs

The main strategic choice is whether you run models yourself on NVIDIA infrastructure or consume them through a managed cloud API. The trade-off is control and data locality versus operational simplicity.

NVIDIA AI PlatformAmazon BedrockAzure OpenAICoreWeave GPU cloud
What you getGPUs plus model softwareManaged model APIManaged model APIRented raw GPUs
You manageDeployment and modelsAlmost nothingAlmost nothingDeployment and models
Data localityYour data center or cloudAWS regionAzure regionProvider region
Model choiceOpen and custom modelsCurated catalogOpenAI familyAny you deploy
Best forOn-prem, regulated, customFast AWS integrationMicrosoft-centric teamsCheap GPU capacity

For deeper comparison across providers, see the multi-cloud AI strategy guide , Amazon Bedrock , and Azure OpenAI .

When not to use it

  • You want zero infrastructure work. If your team has no platform engineers, a managed API such as Bedrock or Azure OpenAI removes the deployment burden that NIM and NeMo assume you can handle.
  • Your workload is small or spiky. For low, irregular traffic, per-token API pricing usually beats reserving GPU capacity that sits idle.
  • You only need a single hosted frontier model. If a provider API already gives you the model you want, self-hosting adds cost and operational risk for no gain.
  • You cannot secure GPU supply. Committing to a NVIDIA-based platform without a clear path to hardware, whether owned or rented, leaves you unable to scale.

Choose the NVIDIA platform when data must stay in your environment, when you customise or run open foundation models , or when steady high-volume inference makes owned or reserved GPUs cheaper than a metered API.

Further reading

Sources