The demand for high performance Graphics Processing Units (GPUs) is growing rapidly. This is fueled by advancements in the fields of Artificial Intelligence (AI), Machine Learning (ML), scientific research and high-end graphics rendering.

As per the recent report, the global GPU as a Service Market size was estimated at USD 6.54 billion in 2024 and is predicted to increase from USD 8.81 billion in 2025 to approximately 26.62 billion by 2030, expanding at a CAGR of 26.5% from 2025 to 2030.

As the demand is growing, teams are not just looking for performance, they’re also paying close attention to cost. To make the right choice, they need to understand both the power and the price of each GPU option.

In this guide, we will break down cloud GPU pricing across four popular NVIDIA GPUs such as A100, L40S, H100 and RTX A6000. You’ll discover how these GPUs differ in power, price and purpose, helping you choose the right one based on your workload and budget. So, let’s get started!

Cloud GPU Pricing Breakdown

HowDo Cloud GPU Prices Differ?

Cloud GPU pricing varies due to a mix of technical, architectural and market-driven factors. Understanding these differences helps you make informed decisions based on performance needs and budget constraints.

1.  Performance

The latest GPUs with faster chips usually cost more. For example, H100 is faster than A100, so it’s more expensive. GPUs with the latest technology deliver results faster and more efficiently, especially for training large AI models.

2.  Memory and Bandwidth

AI models need a lot of memory and fast access to it. GPUs with more VRAM and higher bandwidth, like the H100, cost more because they can handle larger tasks better and faster. Cheaper GPUs like L40S or RTX A6000 have less memory speed, which may slow down big workloads.

3.  Type and Build

SXM GPUs have stronger internal connections (like NVLink), allowing multiple GPUs to work together smoothly. PCIe-based GPUs are cheaper but not ideal for scaling across many GPUs.

4.  Sharing Capabilities

GPUs like A100 and H100 can be split into smaller parts using a feature called MIG. This lets you run different tasks on one GPU at the same time, making better use of it. L40S and RTX A6000 don’t support this, which limits flexibility.

5.  Availability

Some GPUs are harder to get, especially newer ones. If there’s limited supply or high demand in your region, the price can go up.

6.>   Pricing Plans

On-demand pricing is flexible but more expensive. If you can commit to using GPUs for a longer time, you can get lower rates through reserved instances or long-term plans.

A100 vs L40S vs H100 vs RTX A6000: Comparison Table

Below is a comparison table of cloud GPUs. Here’s what sets each GPU apart.

GPU

Architecture

Memory

Bandwidth

NVLinks

MIG

Tensor perf highlights

Best For

H100

Hopper

80 GB HBM3

3.35 TB/s

900 GB/s

Yes (up to 7×10 GB)

TF32: 989 TFLOPS (sparsity) • FP16/BF16: 1,979 TFLOPS (sparsity) • FP8: 3,958 TFLOPS (sparsity)

Large-scale training and fast inference

A100

Ampere

80 GB HBM2e

~2.04 TB/s

600 GB/s

Yes (up to 7×10 GB)

TF32: 156 (312 w/ sparsity) • FP16/BF16: 312 (624 w/ sparsity)

General training and shared clusters

L40S

Ada

48 GB GDDR6

864 GB/s

No

No

FP32: 91.6 • TF32: 183 (366 w/ sparsity) • BF16/FP16: 362 (733 w/ sparsity) • FP8: 733 (1,466 w/ sparsity)

Inference, fine-tuning, graphics

RTX A6000

Ampere

48 GB GDDR6

768 GB/s

2-way, 112.5 GB/s

No

FP32: 38.7 • Tensor: 309.7 (gen-3 Ampere Tensor Cores)

Visualization and mixed workload

Each GPU brings distinct advantages in architecture, memory, bandwidth and AI capabilities. This table helps match specs to your workload. Whether you're training LLMs, scaling inference, or powering 3D rendering, this breakdown shows which GPU delivers the right price-performance ratio in a cloud setup. Use this insight to align performance goals with budget and infrastructure needs.

Cloud GPUs Hourly Price Comparison Table

Below is a side-by-side cloud GPU price comparison table on hourly basis across major providers.

Providers

A100 (80GB)

L40S (48GB)

H100 (80GB)

RTX A6000 (48GB)

AceCloud

$2.72/GPU-hr (starts) (Pay-as-you-go)

$1.81/GPU-hr (starts)

$4.63/GPU-hr (starts)

$0.87/GPU-hr (starts)

CoreWeave

$21.60/GPU-hr

$18.00/GPU-hr

$49.24/GPU-hr

-

RunPod

$1.64/hr

$0.86/GPU-hr

$2.39/GPU-hr

$0.49/GPU-hr

AWS

$32.77/inst-hr p4d.24xlarge (8× A100 40GB; ≈$4.10/GPU-hr)

$4.98/inst-hr g6e.8xlarge (1× L40S)

$60.544/inst-hr p5.48xlarge (8× H100; ≈$7.57/GPU-hr)

-

Azure

$32.77/inst-hr ND96amsr A100 v4 (8×; ≈$4.10/GPU-hr)

-

$98.32/inst-hr ND96isr H100 v5 (8×; ≈$12.29/GPU-hr)

-

Google Cloud (GCP)

$40.55/inst-hr A2 Ultra (a2-ultragpu-8g; 8× A100 80GB; ≈$5.07/GPU-hr)

-

$88.49/inst-hr A3 High (a3-highgpu-8g; 8× H100 80GB; ≈$11.06/GPU-hr)

-

Use this table to benchmark hourly rates to rent nvidia A100 and H100 alongside L40S and RTX A6000 across AceCloud, CoreWeave, RunPod, AWS, Azure, and GCP, and interpret hyperscaler numbers as effective per‑GPU within multi‑GPU instances while accounting for region, commitments, and spot market variability.

FAQs -

Which GPU gives the best value for my workload?

For Cloud GPU Pricing, L40S often wins for inference and fine-tuning. A100 balances price and throughput for mixed training. H100 delivers the fastest training but at a premium. RTX A6000 suits visualization and hybrid tasks.

Do I need NVLink or MIG to control costs?

Use NVLink for multi-GPU training where tensor or model parallelism matters. Use MIG on A100/H100 to safely share one GPU across jobs. L40S and RTX A6000 do not support MIG.

On-demand, reserved or spot - what should I choose?

On-demand is flexible but most expensive. Reserved or committed use lowers unit cost for steady workloads. Spot is cheapest but interruptible; use it for fault-tolerant training and batch inference.

What hidden costs impact Cloud GPU Pricing beyond hourly rates?

Account for storage, data egress, premium networking and support tiers. Add orchestration overhead and idle time. Keep data and compute in one region and autoscale to cut waste.

How can I estimate monthly GPU spend quickly?

Start with GPUs × hourly rate × hours × 1.2–1.35 (overhead buffer). Validate with a short benchmark on A100, L40S, H100 or RTX A6000 using your real batch sizes and sequence lengths. For a tailored quote and capacity plan, contact AceCloud.