Sliced vs. Full GPUs: Why a Whole Card Beats a GPU Slice in 2026

More and more classic data center providers rent out their big GPUs in slices. An A100, H200 or RTX Pro 6000 is cut into fractions with MIG or vGPU profiles, and each fraction is sold as “a GPU”. On paper that looks flexible. In practice you pay for a big-name card and get a fraction of its compute, a fraction of its memory bandwidth, and a bill that grows with every vCore and every gigabyte of RAM.

This guide shows what GPU slicing really means, compares 17 typical sliced and classic GPU offers with full-card alternatives, and explains why a whole GPU is almost always faster and cheaper for AI workloads.


What Is GPU Slicing?

Data center GPU split into several slices
Data center GPU split into several slices

GPU slicing splits one physical graphics card into several smaller virtual GPUs. Each slice gets a fixed share of the VRAM and only a fraction of the card’s compute units and memory bandwidth.

On data center cards this is usually done with MIG (Multi-Instance GPU). An A100 or H200 can be split into up to seven instances, and each one gets a hard partition of streaming multiprocessors and memory. The naming gives it away: a “1g.10gb” profile is 1/7 of the chip with 10 GB of VRAM.

For providers, slicing is a great way to fill racks. For you it means something simple: you rent the name of a big GPU, but only a piece of its power.


⚡ Why Slicing Costs You Speed

Three things shrink when a GPU is sliced:

  • CUDA cores. A 2/7 slice of an A100 gets 1,792 of its cores, not 6,912.
  • Memory bandwidth. LLM inference is bandwidth-bound. A slice gets a matching fraction of the memory bus, so tokens per second drop sharply.
  • VRAM. You get exactly the slice’s memory. Bigger models, longer contexts and larger batches simply don’t fit.

A full, smaller card often beats a sliced, bigger one. A modern Blackwell card with all its cores is faster than a famous data center GPU cut into sevenths.


📊 The Comparison: Classic Data Center GPUs vs. Trooper.AI Blibs

We compared typical offers from European classic data centers with the matching Trooper.AI Blibs. Each Blib has at least the same VRAM. For a fair price comparison, every classic offer was configured with exactly the same CPU cores, RAM and NVMe storage as the Blib it is compared with.

Classic Data Center GPU VRAM CUDA Cores (Classic) Trooper.AI Blib VRAM CUDA Cores (Trooper.AI) Speed Price
T4 – 1/4 slice 4 GB ~640 Explorer S1 · RTX A4000 16 GB 6,144 Faster up to 56% cheaper
T4 – 1/2 slice 8 GB ~1,280 Explorer S1 · RTX A4000 16 GB 6,144 Faster up to 64% cheaper
T4 – full 16 GB 2,560 Explorer S1 · RTX A4000 16 GB 6,144 Faster up to 74% cheaper
A10 – 1/6 slice 4 GB ~1,536 Explorer S1 · RTX A4000 16 GB 6,144 Faster up to 61% cheaper
A10 – 1/3 slice 8 GB ~3,072 Explorer S1 · RTX A4000 16 GB 6,144 Faster up to 70% cheaper
A10 – 1/2 slice 12 GB ~4,608 Explorer S1 · RTX A4000 16 GB 6,144 Faster up to 76% cheaper
A10 – full 24 GB 9,216 Ranger S1 · RTX Pro 4000 Blackwell 24 GB 8,960 Faster up to 73% cheaper
A100 – 1/7 slice 10 GB 896 Explorer S1 · RTX A4000 16 GB 6,144 Faster up to 69% cheaper
A100 – 2/7 slice 20 GB 1,792 Ranger S1 · RTX Pro 4000 Blackwell 24 GB 8,960 Faster up to 65% cheaper
A100 – 3/7 slice 40 GB 2,688 InfinityAI S1 · A100 (full card) 40 GB 6,912 Faster up to 61% cheaper
A100 – 7/7 slice 80 GB 6,272 HyperionAI S1 · RTX Pro 6000 Blackwell 96 GB 24,064 Faster up to 36% cheaper
L40S – full 48 GB 18,176 StellarAI L1 · RTX 4090 Pro 48 GB 16,384 Faster up to 32% cheaper
H200 – 1/7 slice 20 GB 2,048 Ranger S1 · RTX Pro 4000 Blackwell 24 GB 8,960 Faster up to 65% cheaper
H200 – 2/7 slice 40 GB 4,096 InfinityAI S1 · A100 (full card) 40 GB 6,912 Faster up to 67% cheaper
H200 – 3/7 slice 70 GB 7,680 HyperionAI S1 · RTX Pro 6000 Blackwell 96 GB 24,064 Faster up to 36% cheaper
H200 – full 141 GB 16,896 HyperionAI M2 · 2× RTX Pro 6000 Blackwell 192 GB 48,128 Equal speed up to 40% cheaper
RTX Pro 6000 – 1/2 slice 48 GB ~12,032 RabenAI S1 · RTX Pro 5000 Blackwell (full card) 48 GB 14,080 Faster up to 37% cheaper

A sliced GPU gets only a fraction of the chip: fewer CUDA cores, a matching fraction of memory bandwidth, and a share of the VRAM. A Trooper.AI Blib always gets the full card.


🔍 What the Table Tells You

1. A slice is not a GPU. An “A100 with 20 GB” as a 2/7 slice gets less than a third of the chip. Our Ranger S1 with a full RTX Pro 4000 Blackwell has five times the CUDA cores, more VRAM, and costs up to 65% less.

2. Full cards win on bandwidth. LLM inference lives and dies by memory bandwidth. A slice gets a fraction of it, a full card gets all of it. That’s why a full A100 or RTX Pro 5000 regularly outruns a much “bigger” GPU that has been cut into pieces.

3. Blackwell changes the math. Fifth-generation Tensor Cores with native FP4 and FP8 let a single RTX Pro 6000 Blackwell outrun even a fully allocated 80 GB A100 on modern quantized models, with 16 GB more VRAM.

4. Even the H200 loses when it’s sliced. A 3/7 slice has less than half the streaming multiprocessors and half the memory bandwidth, and no native FP4. A full RTX Pro 6000 Blackwell beats it on modern quantized models, with 26 GB more VRAM and up to 36% lower cost. Only the full, unsliced H200 is on par with two HyperionAI cards, and those give you 192 GB instead of 141 GB.

5. The L40S is a fair fight, and we still win. Against a full L40S, our RTX 4090 Pro 48 GB delivers higher memory bandwidth (around 1 TB/s vs. 864 GB/s), which is what counts for LLM inference, at up to 32% lower cost.


💸 The Hidden Cost of “Cheap” Slices

Invoice with many small add-on charges for cloud resources
Invoice with many small add-on charges for cloud resources

The slice itself often looks affordable. The bill doesn’t. Classic data centers typically charge separately for every vCore, every gigabyte of RAM and every gigabyte of storage. Configure a slice with enough RAM to actually load your model and the price climbs fast.

A realistic AI workload needs system RAM at least equal to its VRAM, enough CPU cores for tokenization and data loading, and fast local storage for model weights. Once you add those, a sliced GPU is rarely the cheap option.

Cost factor Classic data center slice Trooper.AI Blib
GPU Fraction of a card Full card, bare-metal
CPU cores Billed per vCore Included, dedicated
RAM Billed per GB Included, dedicated
Storage Often network-attached, billed per GB Local NVMe up to 7.5 GB/s, included
Setup fees Common on bare-metal offers None
Billing Often monthly or long terms Hourly, weekly or monthly

🇪🇺 How Trooper.AI Gives You the Whole GPU

EU hosted bare-metal GPU servers
EU hosted bare-metal GPU servers

Trooper.AI rents EU-hosted GPU servers, operated from Germany, with full, bare-metal GPUs in every Blib. No slicing, no shared silicon, no noisy neighbours on your card. From an RTX A4000 to four RTX Pro 6000 Blackwell cards with 384 GB of VRAM, you always get the complete GPU.

Key benefits include:

  • ✅ 100% bare-metal GPU, CPU and RAM
  • ✅ Local NVMe storage with up to 7.5 GB/s
  • ✅ 99.6% availability SLA for business customers
  • ✅ EU-hosted, GDPR DPA signed in one click
  • ✅ Full root access and one-click AI templates (vLLM, OpenWebUI, ComfyUI and more)
  • ✅ Hourly, weekly or monthly billing, plus reserved Blackwell capacity

Configure your full GPU server now →


Frequently Asked Questions

What is a sliced GPU?

A sliced GPU is a fraction of a physical graphics card, typically created with MIG or vGPU profiles. You get a fixed share of the VRAM and only a fraction of the CUDA cores and memory bandwidth.

Is a sliced A100 or H200 faster than a full modern GPU?

Usually not. A 1/7 or 2/7 slice has only a small part of the original chip. A full, modern card like the RTX Pro 4000 or RTX Pro 6000 Blackwell delivers more CUDA cores, more bandwidth and native FP4/FP8 support.

When does a slice make sense?

For very small, bursty inference tasks or virtual desktops where a fraction of a GPU is enough. For LLM inference, fine-tuning or image generation, a full card is the better choice.

Does GPU slicing affect LLM performance?

Yes, significantly. LLM inference is bound by memory bandwidth, and a slice only gets a fraction of it. Tokens per second drop roughly in line with the slice size.

Are Trooper.AI GPUs ever shared?

No. Every Blib gets full, dedicated bare-metal GPUs, CPU cores and RAM. Nothing is sliced or shared with other customers.

What’s the best first step?

Check how much VRAM your model needs, then pick the smallest full-card Blib that fits. You get the whole GPU and can upgrade later without reinstalling.

Full GPU power for your AI workloads
Full GPU power for your AI workloads


Last updated: September 2026. Comparison based on publicly listed offers of European classic data center providers (September 2026), configured with identical CPU, RAM and storage as the matching Trooper.AI Blib. Monthly billing. Speed ratings are our assessment based on CUDA cores, memory bandwidth, architecture and our own TAIFlops benchmarks.