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GPU instances catalogue

Accelerated compute for AI, graphics and HPC

Eleven NVIDIA accelerator models — from H200 to RTX Pro 6000 — catalogued with NVIDIA-published specifications and delivered as partner-sourced capacity with written scope.

Models catalogued
11 NVIDIA GPUs
Workloads
AI · graphics · HPC
Delivery model
Partner-sourced
H200HOPPER ARCHITECTURE

Workload guide

Choose by workload, not by badge

Most selection decisions come down to memory, scale-up interconnect and whether the job is AI, graphics or both. These criteria narrow the eleven models — a scoping conversation settles the final choice.

  • Train and fine-tune

    Memory capacity and interconnect decide how a model has to be split.

    • How much GPU memory the largest model or batch needs
    • Whether training must scale across multiple GPUs
    • Precision and framework requirements for the training stack
  • Serve and infer

    Throughput per watt and per card decides how a fleet is shaped.

    • Concurrent requests, latency targets and traffic peaks
    • How many models or versions must run side by side
    • Rack density, power and hosting constraints
  • Design, render and visualise

    Frame-buffer size and RT cores decide what a desktop or render node can hold.

    • Scene, frame-buffer and working-set size
    • Interactive desktops versus batch render nodes
    • Remoting and workstation software support

Starting points, not performance claims — scoping confirms the right fit for your workload.

The catalogue

All eleven GPU models

Every card links to its model page — NVIDIA-published specifications, workload guidance and the shared partner-sourced delivery model.

H200HOPPER ARCHITECTUREHopper

NVIDIA H200

Hopper-class acceleration with the largest HBM3e buffer in the catalogue, for AI workloads that are constrained by memory.

GPU memory
141 GB HBM3e
Memory bandwidth
4.8 TB/s
FP8 tensor
3,958 TFLOPS
View specifications
H100HOPPER ARCHITECTUREHopper

NVIDIA H100

The proven Hopper accelerator for LLM training and inference, with FP8 Transformer Engine support and 900 GB/s NVLink scale-up.

GPU memory
80 GB HBM3
Memory bandwidth
3.35 TB/s
FP8 tensor
3,958 TFLOPS
View specifications
A100AMPERE ARCHITECTUREAmpere

NVIDIA A100

A proven training-and-HPC accelerator with an 80 GB memory pool per GPU and mature tooling across the AI ecosystem.

GPU memory
80 GB HBM2e
Memory bandwidth
2,039 GB/s
FP16 tensor
624 TFLOPS
View specifications
L40SL40SADA LOVELACE ARCHITECTUREAda Lovelace

NVIDIA L40S

One card for generative AI, 3D graphics, rendering and video — the pragmatic choice where workloads refuse to stay in one lane.

GPU memory
48 GB GDDR6 ECC
Memory bandwidth
864 GB/s
FP8 tensor
1,466 TFLOPS
View specifications
A30A30AMPERE ARCHITECTUREAmpere

NVIDIA A30

A right-sized Ampere accelerator for teams stepping up from CPU inference or low-end GPUs into real AI capacity.

GPU memory
24 GB HBM2
Memory bandwidth
933 GB/s
Max power
165 W
View specifications
A2A2AMPERE ARCHITECTUREAmpere

NVIDIA A2

Entry-level, single-slot Ampere acceleration for inference and edge workloads that do not justify flagship hardware.

GPU memory
16 GB GDDR6
Memory bandwidth
200 GB/s
Max TDP
40–60 W
View specifications
L4L4ADA LOVELACE ARCHITECTUREAda Lovelace

NVIDIA L4

The efficiency play: dense video processing and AI inference in a low-profile card built for many-servers, many-streams deployments.

GPU memory
24 GB GDDR6
Memory bandwidth
300 GB/s
Max power
72 W
View specifications
RTX 8000RTX 8000TURING ARCHITECTURETuring

NVIDIA RTX 8000

A 48 GB professional graphics platform for visualisation, design and graphics rendering on proven Turing-era tooling.

GPU memory
48 GB GDDR6 ECC
Memory bandwidth
672 GB/s
CUDA cores
4,608
View specifications
RTX A6000RTX A6000AMPERE ARCHITECTUREAmpere

NVIDIA RTX A6000

48 GB of ECC professional graphics memory on Ampere — a workhorse for AI-assisted design, rendering and visualisation.

GPU memory
48 GB GDDR6 ECC
Memory bandwidth
768 GB/s
CUDA cores
10,752
View specifications
RTX 6000 AdaRTX 6000 AdaADA LOVELACE ARCHITECTUREAda Lovelace

NVIDIA RTX 6000 Ada

The current-generation professional graphics flagship: Ada throughput, 48 GB ECC memory, and strong AI capability in one card.

GPU memory
48 GB GDDR6 ECC
Memory bandwidth
960 GB/s
CUDA cores
18,176
View specifications
RTX Pro 6000RTX Pro 6000BLACKWELL ARCHITECTUREBlackwell

NVIDIA RTX Pro 6000

The Blackwell-generation professional flagship — 96 GB of GDDR7 and current-generation AI/graphics capability in workstation or server editions.

GPU memory
96 GB GDDR7 ECC
Memory bandwidth
1,792 GB/s
CUDA cores
24,064
View specifications

How to read this catalogue

Verified specs, honest commercial notes

  • Specifications are taken from NVIDIA's published product pages and datasheets — every model page states its variant caveats.
  • Tensor Core throughput figures are NVIDIA's sparsity-accelerated ratings; memory, bandwidth and power figures are as published.
  • Availability, configuration and commercial terms are confirmed in writing per engagement. This catalogue describes what we can scope — not stock we hold.

Delivery model

How Scalenta delivers GPU capacity

Partner-sourced, scoped and operated with the same discipline as the rest of the infrastructure business.

  • Partner-sourced capacity

    Accelerator capacity is sourced through verified data center and hardware partners — no facility-ownership claims, no stock promises.

  • Scoped per engagement

    Model, variant, GPU count, interconnect and host configuration are confirmed in writing before anything is committed.

  • Operated with 24/7 support

    Deployments are covered by 24/7 support and SLA-backed managed services scoped to your environment.

FAQ

Catalogue questions

Does Scalenta own the GPUs in this catalogue?
No — and we say so deliberately. Scalenta sources GPU capacity through verified data center and hardware partners and operates it within a managed service. The catalogue describes the NVIDIA platforms we can scope and support, not stock we hold.
How do I choose between the eleven models?
Start from the workload, not the model badge: how much memory the model or scene needs, whether it must scale across GPUs, and whether the job is AI, graphics or both. The workload guide above narrows the list; a scoping conversation settles it, and we will recommend against models that do not fit.
Can I combine GPUs from different generations?
Mixed estates are common — graphics workstations and AI servers rarely need the same card. What matters is consistent driver management, scheduling and lifecycle planning across the mix, which is exactly what a managed engagement covers.
What does pricing look like?
Commercial terms depend on model, configuration, term and region, so nothing is published as a fixed price. You receive a written proposal with clear scope and cost after the scoping conversation — no obligation, no hidden line items.

Request a GPU consultation

Tell us the workload — model, memory and throughput expectations — and we will map it to the right accelerator with a written scope. No obligation.