Render and 3D visualisation
Scene render times shorten in step with GPU core count. Jobs that take hours on a processor finish far sooner with the right card.
Virtual Servers
Xeon VDSA balanced choice for many-core, always-on workloads.117 TRYCore i9 VDSHigh clock speed for single-core bound applications.260 TRYRyzen VDS DDR4Sixteen cores at high clock speed, at the sharpest price point.260 TRYRyzen VDS DDR5The fastest processor and memory in our catalogue.400 TRYDedicated Servers
Xeon Dedicated ServerHigh core counts and ECC memory for enterprise workloads.4,000 TRYIntel Core Dedicated ServerHigh-frequency single-core power. For web and application servers.3,000 TRYRyzen Dedicated ServerHigh clock speed and core count. For render and compute-heavy work.2,000 TRYGPU server hosting
A graphics card is not sold as a separate product but as a hardware option added to a dedicated server. Every system ships with a GT 710 as standard, and more powerful NVIDIA GTX or RTX models can be selected during checkout.
Scene render times shorten in step with GPU core count. Jobs that take hours on a processor finish far sooner with the right card.
On live-stream encoding, format conversion and bulk video work, hardware acceleration frees the processor and clears the queue.
A game client renders a 3D scene, so it will not start on a server without a card. One server can keep several clients open at once.
Workloads that need parallel computation — model inference, image processing — run far more efficiently on a card than on a processor.
The graphics card option is chosen while ordering a dedicated server. You can select more powerful GTX and RTX models at the order step.
The option is offered on both Ryzen and Core i9 based systems.
If the model you need is not listed in our catalogue, get in touch with our sales team — we will look at it based on stock and availability.
An NVIDIA GT 710 is provided free of charge on our servers. The models below can be selected as an option during checkout.
| Model | Architecture | VRAM | Memory | CUDA | AI ready | Class |
|---|---|---|---|---|---|---|
| GT 710 | Kepler | 2 GB | DDR3 | 192 | — | display output |
| GTX 1050 Ti | Pascal | 4 GB | GDDR5 | 768 | — | entry |
| GTX 1660 | Turing | 6 GB | GDDR5 | 1408 | — | mid-range |
| GTX 1070 | Pascal | 8 GB | GDDR5 | 1920 | — | high raster |
| GTX 1080 | Pascal | 8 GB | GDDR5X | 2560 | — | high raster |
| GTX 1080 Ti | Pascal | 11 GB | GDDR5X | 3584 | — | heavy raster |
| RTX 3050 | Ampere | 8 GB | GDDR6 | 2560 | ✓ | entry RTX |
| RTX 3060 | Ampere | 12 GB | GDDR6 | 3584 | ✓ | render / AI |
| RTX 3070 | Ampere | 8 GB | GDDR6 | 5888 | ✓ | high performance |
| RTX 3080 | Ampere | 10 GB | GDDR6X | 8704 | ✓ | heavy render |
| RTX 3090 | Ampere | 24 GB | GDDR6X | 10496 | ✓ | workstation |
| RTX 4060 | Ada | 8 GB | GDDR6 | 3072 | ✓ | next-gen entry |
| RTX 4070 | Ada | 12 GB | GDDR6X | 5888 | ✓ | production + gaming |
| RTX 4080 | Ada | 16 GB | GDDR6X | 9728 | ✓ | premium |
| RTX 4090 | Ada | 24 GB | GDDR6X | 16384 | ✓ | flagship |
| RTX 5060 | Blackwell | 8 GB | GDDR7 | ~3500 | ✓ | next-gen entry |
| RTX 5070 | Blackwell | 12 GB | GDDR7 | ~6000 | ✓ | upper mid-range |
| RTX 5080 | Blackwell | 16 GB | GDDR7 | ~11000 | ✓ | high end |
| RTX 5090 | Blackwell | 32 GB | GDDR7 | ~20000 | ✓ | AI powerhouse |
Note: technical details are based on manufacturer sources. Differences may occur due to updates or model variations. For final specifications we recommend consulting the manufacturer’s official documentation.
On a regular server all computation is handled by the processor. Processors use a small number of powerful cores and finish sequential work quickly, but they are inefficient at running thousands of small calculations in parallel.
This is exactly where a graphics card helps: with thousands of CUDA cores it completes parallel workloads in a fraction of the time. Rendering, video encoding, image processing and AI inference all fall into this class. In addition, software that renders a 3D scene — a game client, for example — will not start at all on a server without a card.
A graphics card is a hardware option selected during checkout on Ryzen and Intel Core i9 dedicated servers.
Graphics cards are not supported on Xeon dedicated servers. If you need a card, choose a Ryzen or Intel Core i9 system.
No. Graphics cards are offered on dedicated servers only; they cannot be added to virtual server plans.
The reason is the hardware itself: the card is a physical component installed in the server’s motherboard and belongs to that machine directly. If your workload needs a GPU, you will need a Ryzen or Intel Core i9 dedicated server.
Yes. The card you choose at checkout can be replaced with a more powerful model later — you might start with a GTX 1660 and move to an RTX card as your needs grow.
Because the card is swapped physically, the server has to be restarted during the process, and your service is interrupted for that period. You can request an upgrade through support and schedule the work at a time that suits you.
VRAM capacity is the deciding factor: if the model does not fit in memory it will not run, and core count becomes irrelevant. As a rough measure, a 4-bit quantised model needs roughly half a byte per parameter.
On that basis 8 GB suits small models and image processing, 12–16 GB suits mid-sized models, and 24 GB or more is appropriate for large language models. In our catalogue the RTX 3090 and RTX 4090 offer 24 GB, and the RTX 5090 offers 32 GB.
For rendering, time scales largely with CUDA core count; as long as your scenes fit in memory, more cores means less time. The RTX 4080 (9,728 cores) and RTX 4090 (16,384 cores) are the strongest options in the catalogue for this.
For video encoding, core count is not the deciding factor — the work is done by a separate hardware encoder on the card. A mid-range RTX therefore performs much like a far more expensive model on stream encoding and format conversion. Buying more card than you need is wasted budget here.
The dedicated server series that offer a graphics card option.