Nvidia’s bleeding-edge Ampere GPU architecture revealed: 5 things PC gamers need to know

Nvidia’s next-generation GPU architecture is finally here. Nearly a year and a half after the GeForce RTX 20-series launched with Nvidia’s Turing architecture inside, and three years after the launch of the data center-focused Volta GPUs, CEO Jensen Huang unveiled graphics cards powered by the new Ampere architecture during a digital GTC 2020 keynote on Thursday morning. It looks like an absolute monster.

Ampere debuts in the form of the A100, a humongous data center GPU powering Nvidia’s new DGX-A100 systems. Make no mistake: This 6,912 CUDA core-packing beast targets data scientists, with internal hardware optimized around deep learning tasks. You won’t be using it to play Cyberpunk 2077.

But that doesn’t mean we humble PC gamers can’t glean information from Ampere’s AI-centric reveal. Here are five key things that Nvidia’s Ampere architecture mean for the next-gen GeForce lineup.

1. Ampere isn’t for you yet, but it will be

If you’re looking for specific details about GeForce graphics cards, well, keep waiting. Like the Volta and Pascal GPU architectures before it, Ampere’s grand reveal took shape in the form of a mammoth GPU built to accelerate data center tasks. Unlike Volta, however, Ampere will indeed be coming to consumer graphics cards too.

In a prebriefing with business reporters, Huang said that Ampere will streamline the Nvidia GPU lineup, replacing both the data center-centric Volta GPUs as well as the Turing-based GeForce RTX 20-series. The hardware inside each specific GPU will be tailored to the market it’s targeting, though. “There’s great overlap in the architecture, but not in the configuration,” Marketwatch reports Huang as saying when asked about how the consumer and workstation GPUs will compare.

2. Ampere jumps to 7nm

As widely expected, Nvidia’s Ampere GPUs are built using the 7nm manufacturing process, moving forward from the 12nm process used for Turing and Volta. It’s a big deal.

Nvidia

Smaller transistors mean better performance and power efficiency. The “Navi”-based Radeon RX 5000-series graphics cards beat Nvidia to 7nm and the transition helped AMD’s offerings greatly increase their efficiency. While Radeon cards have run hot and power hungry for years prior, the 7nm Navi cards drew even with their GeForce counterparts in both performance and efficiency—no small feat. Looking back to Team Green’s own past, Nvidia’s transition from the GeForce GTX 900-series’ 28nm process to the GTX 10-series’ 16nm process resulted in huge performance gains.

In other words, history says we should expect wonderful advancements from Ampere-based GeForce GPUs.

3. Ampere squeezes in a lot more cores

The move to smaller transistors also means you can squeeze more cores into the same space. Whereas the Volta flagship, the Tesla V100, deployed 21.1 billion transistors, 5,120 CUDA cores, and 80 streaming multiprocessor clusters into its 815 mm^2 die, the new Ampere-based A100 crams 54 billion transistors, 6,912 CUDA cores, and 108 SMs into its 826 mm^2 die.

That’s a big leap forward, and more GPU means faster graphics cards. For reference, the GeForce RTX 2080 Ti has 4,352 CUDA cores in its 754 mm^2 die. Its successor might be downright bristling with cores.

4. Ampere’s AI brains got smarter

Volta and Turing introduced tensor cores to Nvidia’s GPUs. Tensor cores accelerate machine learning tasks, and in GeForce GPUs, they power the awesome Deep Learning Super Sampling (DLSS) 2.0 technology and “denoise” the grainy artifacts generated by real-time ray tracing’s light casting.