The hardware we sell

From a $2,500 desktop card up to a $3,000,000 datacenter rack. Every product below shows its real price, GPU memory, and power draw — plus what each number means and when it actually matters.

Desktop card

NVIDIA RTX 4090

A top-end gaming/workstation GPU. Great for learning, prototyping, and running small models — not built for giant open-source models.

Price$2,500
GPU memory24 GB
Power draw450 W
InterconnectPCIe (no NVLink between cards)
What "price" means here: the one-time cost to own this hardware outright. Bigger models need more of it, so price is really a proxy for "how much capability can I afford" — compare price against GPU memory, not on its own.
What "GPU memory" means: the model's entire brain (its parameters) has to fit in GPU memory before it can answer a single question. A model needs roughly 1 GB of GPU memory per billion parameters, plus working room. Run out of GPU memory and the model simply won't load — no amount of CPU RAM or clever code fixes that.
What "power draw" means: how many watts this hardware pulls from the wall while running flat-out. It matters for two reasons: your electricity bill, and whether your building's cooling and circuits can actually handle it. 450 W is about 0.38x an average home's continuous draw (1 home ≈ 1,200 W).
Datacenter GPU

NVIDIA H100 SXM

The workhorse datacenter GPU. Sold as an individual accelerator that slots into a server baseboard alongside others, wired together with NVLink.

Price$32,000
GPU memory80 GB
Power draw700 W
InterconnectNVLink (900 GB/s between GPUs)
What "price" means here: the one-time cost to own this hardware outright. Bigger models need more of it, so price is really a proxy for "how much capability can I afford" — compare price against GPU memory, not on its own.
What "GPU memory" means: the model's entire brain (its parameters) has to fit in GPU memory before it can answer a single question. A model needs roughly 1 GB of GPU memory per billion parameters, plus working room. Run out of GPU memory and the model simply won't load — no amount of CPU RAM or clever code fixes that.
What "power draw" means: how many watts this hardware pulls from the wall while running flat-out. It matters for two reasons: your electricity bill, and whether your building's cooling and circuits can actually handle it. 700 W is about 0.58x an average home's continuous draw (1 home ≈ 1,200 W).
Full system

NVIDIA DGX H100 (8x H100)

A turnkey server: 8 H100 GPUs, CPUs, networking, and storage in one box, fully wired with NVLink/NVSwitch. Plug it in and it works.

Price$350,000
GPU memory640 GB
Power draw10,200 W
InterconnectNVLink + NVSwitch (all 8 GPUs act as one pool)
What "price" means here: the one-time cost to own this hardware outright. Bigger models need more of it, so price is really a proxy for "how much capability can I afford" — compare price against GPU memory, not on its own.
What "GPU memory" means: the model's entire brain (its parameters) has to fit in GPU memory before it can answer a single question. A model needs roughly 1 GB of GPU memory per billion parameters, plus working room. Run out of GPU memory and the model simply won't load — no amount of CPU RAM or clever code fixes that.
What "power draw" means: how many watts this hardware pulls from the wall while running flat-out. It matters for two reasons: your electricity bill, and whether your building's cooling and circuits can actually handle it. 10200 W is about 8.50x an average home's continuous draw (1 home ≈ 1,200 W).
Datacenter rack

NVIDIA GB200 NVL72 Rack

A full rack of 72 Blackwell GPUs wired together as a single giant accelerator. This is what companies buy to serve the largest models at scale, with room to grow.

Price$3,000,000
GPU memory13,500 GB
Power draw120,000 W
InterconnectNVLink switch fabric across all 72 GPUs
What "price" means here: the one-time cost to own this hardware outright. Bigger models need more of it, so price is really a proxy for "how much capability can I afford" — compare price against GPU memory, not on its own.
What "GPU memory" means: the model's entire brain (its parameters) has to fit in GPU memory before it can answer a single question. A model needs roughly 1 GB of GPU memory per billion parameters, plus working room. Run out of GPU memory and the model simply won't load — no amount of CPU RAM or clever code fixes that.
What "power draw" means: how many watts this hardware pulls from the wall while running flat-out. It matters for two reasons: your electricity bill, and whether your building's cooling and circuits can actually handle it. 120000 W is about 100.00x an average home's continuous draw (1 home ≈ 1,200 W).