Capacity
Compute capacity is estimated site by site, then read against the thresholds in statute.
Compute capacity is estimated site by site, then read against the thresholds in statute.
314 facilities disclose both a chip count and a nameplate power figure: two independent routes to one number, the compute that site can run in a day. Run both and they agree within a factor of two on 294 of them. The residue is asymmetric. On 89 per cent of sites the chips imply more compute than the power figure will carry, and noise does not point one way. Either the disclosed chip counts run ahead of the power built to serve them (announced fleets, phased sites, full build-outs quoted against a first-phase substation), or the constants below understate how much of a site’s load reaches the accelerators. The estimator below settles that for a site you know.
Plate ITwo readings of one quantity314 sites · complete
from the chip countfrom the power figurethe disagreement
Plate I. One upright per facility, drawn between two estimates of that site’s daily FLOP budget: a filled mark for the chip-count path, an open mark for the power path.
Vertical position is the estimate itself, on a log scale; the upright’s length is the disagreement between the two. Horizontal position is RANK by that disagreement, tightest at the left, so the distance between neighbouring uprights means nothing.
Every facility disclosing both inputs is drawn: 314 of the 512 that disclose either, across 32 countries, none sampled out. That wider figure counts every facility type, chip-manufacturing sites included: a fab’s chip count and power figure can be checked against each other like any other site’s. Thresholds excludes them and states a correspondingly smaller population, because a fab’s power draw is production load and the power path would read it as training compute.
The two estimates are 1.15× apart at the median and 9.3× at the widest; the tightest pair whose accelerator the record names is NVIDIA SATURN V Volta, whose 264 chips and 0.2 MW reconcile to within 0.0 per cent on its own V100 SXM2 spec.
Each site runs the chip its record discloses, on both paths — 285 of 314 do; the rest fall back to the H100 SXM5 default. Because the two paths always share one chip per site, an upright measures how that site’s disclosed pair (chip count and megawatts) reconciles against the constants; it is not a hardware-mix artefact, and it is not a claim that either disclosure is wrong.
A skew as one-directional as this one is therefore evidence about the constants and about disclosure practice at least as much as about any individual site. Every value here is an estimate. Facility records as of 2026-08-30.
Every figure here is a back-solve from something an operator disclosed: a chip count, a nameplate power figure, a construction budget. Run more than one against the same site and the spread between them shows which assumptions carry the uncertainty. How this is derived
The estimator
Give it a chip count, a nameplate power figure, or a construction budget — whichever the operator actually published — and each path returns a daily FLOP budget with the sensitivity range its parameters imply. Every default below is adjustable, and the state of every slider is in the URL, so an estimate under a particular set of assumptions is a link you can put in a footnote.
Default-parameters derivation (Hardware path)
10,000 H100 SXM5 GPUs at the documented defaults (interconnect efficiency 0.85, MFU 0.4). The interactive calculator below hydrates on JS and exposes every parameter as an adjustable slider.
| Step | Formula | Result |
|---|---|---|
| Peak FP16 | gpu_count × per_gpu_fp16_tflops | 9.89 × 1018 FLOP/s |
| Effective FP16 | peak × interconnect_efficiency (0.85) | 8.41 × 1018 FLOP/s |
| Training Throughput | effective × mfu_assumption (0.4) | 3.36 × 1018 FLOP/s |
| Daily FLOP Budget | training × 86,400 | 2.91 × 1023 FLOP/day |
At this daily budget, the EU AI Act 1025 FLOP threshold is reached in approximately 34.4 days. Adjust GPU count, model, interconnect efficiency, and MFU in the interactive calculator below.
Check
Plate I reconciles two estimates against each other, which cannot tell you whether both are wrong together. These 10 frontier-class training runs (≥ 10²⁵ FLOP) are the external check: for each, a lab disclosed a hardware count or Epoch derived a central FLOP estimate, and the same three paths run against it. Where both exist they appear in one row, because the column-level disagreement is the auditable thing.
| Model | Hardware (lab disclosure) | Epoch FLOP | Epoch confidence | Source provenance |
|---|---|---|---|---|
Grok 4 xAI · Jul 2025 | 200,000 GPUs (class undisclosed) via Epoch derivation | 5.0e+26 FLOP T2 | Speculative | |
Grok 3 xAI · Feb 2025 | NVIDIA H100 SXM5 80GB × 80,000 via Epoch derivation | 3.5e+26 FLOP T2 | Likely | |
Llama 4 Behemoth (preview) Meta Platforms, Inc. · Apr 2025 | 32,000 GPUs (class undisclosed) | 5.2e+25 FLOP T2 | Likely | |
Gemini 1.0 Ultra Google DeepMind · Dec 2023 | Google TPUv4 | 5.0e+25 FLOP T2 | Speculative | |
Llama 3.1-405B Meta Platforms, Inc. · Jul 2024 | NVIDIA H100 80GB × 16,384 | 3.8e+25 FLOP T2 | Confident | |
GPT-4 (Jun 2023) OpenAI · Jun 2023 | NVIDIA A100 SXM4 40 GB × 25,000 via Epoch derivation | 2.1e+25 FLOP T2 | Likely | |
GPT-4 (Mar 2023) OpenAI · Mar 2023 | NVIDIA A100 SXM4 40 GB × 25,000 via Epoch derivation | 2.1e+25 FLOP T2 | Likely | |
Nemotron-4 340B Nvidia · Jun 2024 | NVIDIA H100 80GB SXM5 × 6,144 | 1.8e+25 FLOP T2 | Confident | |
Pangu Ultra Huawei Technologies · Apr 2025 | Huawei Ascend NPUs × 8,192 | 1.1e+25 FLOP T2 | Confident | |
Inflection-2 Inflection AI · Nov 2023 | NVIDIA H100 × 5,000 | 1.0e+25 FLOP T2 | Confident |
frontier_model_runs.Parameters
The sliders above move these; the Thresholds view reads the same registry, so the two views cannot drift apart on the constants. Each card shows the default, its adjustable range, the paths it touches and the source it was calibrated against. Methodology version 1.3.6, dated 2026-07-22.
Every value here is adjustable on the Capacity Estimator sliders and traces to src/lib/methodology/versions.ts. The full derivation chain, with each formula and its calibration, is documented at /methodology. Estimation bounds are parameter-sensitivity ranges (not statistical confidence intervals).
The register behind Plate I
The plate draws all 314 pairs at once and names one. This is the same population as rows (both estimates, the disclosed inputs behind them, and the divergence), filterable by band and country, sortable, addressable by URL. A tight row means two independent disclosures reconcile under the defaults. A loose row is a lead, usually about the record itself: an unknown chip model behind a known power figure, or a first-phase chip count quoted against a full-build substation. The cost path is excluded at facility level; the note at the foot of the table says why.
| Facility | Country | Hardware-path FLOP/day | Power-path FLOP/day | Divergence | Inputs |
|---|---|---|---|---|---|
| NVIDIA SATURN V Volta | US | 1.00× 0% normalized | 264 GPUs 0 MW | ||
| Meta 2017 V100 Cluster | US | 1.00× 0% normalized | 22,000 GPUs 15 MW | ||
| Sakura's B200s Phase 2 | JP | 1.00× 0% normalized | 10,000 GPUs 16 MW | ||
| OpenAI/Microsoft Atlanta | US | 1.01× 1% normalized | 300,000 GPUs 700 MW | ||
| EuroHPC Karolina | CZ | 1.01× 1% normalized | 576 GPUs 1 MW | ||
| University of Edinburgh DiRAC Tursa | GB | 1.02× 2% normalized | 448 GPUs 0 MW | ||
| xAI Fulton Georgia | US | 1.02× 2% normalized | 12,448 GPUs 20 MW | ||
| NVIDIA Circe | US | 1.02× 2% normalized | 576 GPUs 0 MW | ||
| University of Florida HiPerGator 3.0 Superpod | US | 1.02× 2% normalized | 1,120 GPUs 1 MW | ||
| Lawrence Berkeley NL NERSC Perlmutter | US | 1.03× 3% normalized | 7,168 GPUs 7 MW | ||
| Simon Fraser University/Compute Canada Cedar | CA | 1.03× 3% normalized | 768 GPUs 1 MW | ||
| EuroHPC Leonardo | IT | 1.03× 3% normalized | 13,824 GPUs 13 MW | ||
| University of Tokyo Wisteria/BDEC-01 (Aquarius) | JP | 1.04× 4% normalized | 360 GPUs 0 MW | ||
| TotalEnergies Pangea III | FR | 1.04× 4% normalized | 3,384 GPUs 2 MW | ||
| Petrobras Pegasus (Pégaso) | BR | 1.05× 5% normalized | 2,016 GPUs 2 MW | ||
| Atos Spartan2 | FR | 1.05× 5% normalized | 192 GPUs 0 MW | ||
| Cineca Marconi-100 | IT | 1.05× 5% normalized | 3,952 GPUs 3 MW | ||
| Taiwania 2 | TW | 1.06× 6% normalized | 2,016 GPUs 1 MW | ||
| NVIDIA SATURN V Phase 3 | US | 1.06× 6% normalized | 5,560 GPUs 4 MW | ||
| IBM DYEUS | US | 1.06× 6% normalized | 296 GPUs 0 MW | ||
| Laboratório Nacional de Computação Científica Santos Dumont | BR | 1.06× 6% normalized | 368 GPUs 0 MW | ||
| Microsoft Azure ND v2 Largest Stated | US | 1.06× 6% normalized | 800 GPUs 1 MW | ||
| SberCloud Christofari | RU | 1.06× 6% normalized | 1,200 GPUs 1 MW | ||
| SENAI CIMATEC Ogbon Cimatec/Petrobras | BR | 1.06× 6% normalized | 312 GPUs 0 MW | ||
| AWS Fast BERT Training | US | 1.06× 6% normalized | 2,048 GPUs 1 MW | ||
| Preferred Networks MN-2 | JP | 1.06× 6% normalized | 1,024 GPUs 1 MW | ||
| SAKURA Internet 2019 V100 Supercomputer | JP | 1.06× 6% normalized | 768 GPUs 1 MW | ||
| TACC Longhorn | US | 1.06× 6% normalized | 448 GPUs 0 MW | ||
| CSC Puhti | FI | 1.06× 6% normalized | 320 GPUs 0 MW | ||
| Microsoft Research Hypercluster | US | 1.06× 6% normalized | 576 GPUs 0 MW | ||
| University of Tsukuba Cygnus | JP | 1.06× 6% normalized | 320 GPUs 0 MW | ||
| Lawrence Livermore NL Sierra | US | 1.06× 6% normalized | 17,280 GPUs 12 MW | ||
| Ubilink.AI Supercomputer | TW | 1.06× 6% normalized | 1,024 GPUs 2 MW | ||
| Lawrence Livermore NL RZAdams | US | 1.06× 6% normalized | 512 GPUs 1 MW | ||
| Eni HPC4 Phase 2 | IT | 1.06× 6% normalized | 3,000 GPUs 2 MW | ||
| FZJ JURECA | DE | 1.07× 6% normalized | 768 GPUs 1 MW | ||
| Nebius Kansas City Phase 2 | US | 1.07× 7% normalized | 26,000 GPUs 40 MW | ||
| AWS EC2 P4d | US | 1.07× 7% normalized | 4,000 GPUs 3 MW | ||
| Continental DGX Supercomputer | DE | 1.07× 7% normalized | 448 GPUs 0 MW | ||
| Immunity Bio Cluster | US | 1.07× 7% normalized | 320 GPUs 0 MW | ||
| Nagoya University Flow Type II (Furo) | JP | 1.07× 7% normalized | 884 GPUs 1 MW | ||
| NCI Australia Gadi | AU | 1.07× 7% normalized | 640 GPUs 0 MW | ||
| Argonne NL Sophia (Formerly Theta) | US | 1.07× 7% normalized | 192 GPUs 0 MW | ||
| Azure OpenAI GPT-3 Cluster | US | 1.07× 7% normalized | 10,000 GPUs 7 MW | ||
| Japan Atomic Energy Agency and Quantum and Radiological Science and Technology HPE SGI8600 | JP | 1.07× 7% normalized | 1,088 GPUs 1 MW | ||
| Leonardo SpA davinci-1 | IT | 1.07× 7% normalized | 320 GPUs 0 MW | ||
| Microsoft Azure Immunity Bio | US | 1.07× 7% normalized | 1,250 GPUs 1 MW | ||
| MIT Supercloud | US | 1.07× 7% normalized | 488 GPUs 0 MW | ||
| Naver DGX Superpod | KR | 1.07× 7% normalized | 1,120 GPUs 1 MW | ||
| Oracle 2020 A100 Cluster | US | 1.07× 7% normalized | 512 GPUs 0 MW | ||
| NVIDIA In-house DGX A100 Cluster | US | 1.07× 7% normalized | 400 GPUs 0 MW | ||
| RPI Supercomputer 2 | US | 1.07× 7% normalized | 608 GPUs 0 MW | ||
| Lawrence Livermore NL Lassen Phase 2 | US | 1.07× 7% normalized | 3,169 GPUs 2 MW | ||
| Petrobras Dragão | BR | 1.08× 8% normalized | 2,176 GPUs 2 MW | ||
| Max-Planck-Gesellschaft Raven | DE | 1.09× 8% normalized | 768 GPUs 1 MW | ||
| Colossus 2 | US | 1.09× 8% normalized | 530,000 GPUs 946 MW | ||
| Calcul Québec Narval | CA | 1.09× 9% normalized | 636 GPUs 1 MW | ||
| EuroHPC MeluXina | LU | 1.09× 9% normalized | 800 GPUs 1 MW | ||
| EuroHPC Vega | SI | 1.09× 9% normalized | 240 GPUs 0 MW | ||
| ND A100 v4 | US | 1.09× 9% normalized | 2,000 GPUs 2 MW | ||
| Argonne NL Polaris | US | 1.09× 9% normalized | 2,240 GPUs 2 MW | ||
| Commissariat a l'Energie Atomique Topaze | FR | 1.09× 9% normalized | 192 GPUs 0 MW | ||
| Dell Rattler | US | 1.09× 9% normalized | 192 GPUs 0 MW | ||
| High-Performance Computing Center Stuttgart Hawk | DE | 1.09× 9% normalized | 192 GPUs 0 MW | ||
| Indiana University Big Red 200 | US | 1.09× 9% normalized | 256 GPUs 0 MW | ||
| Los Alamos NL Chicoma | US | 1.09× 9% normalized | 512 GPUs 0 MW | ||
| Osaka University SQUID | JP | 1.09× 9% normalized | 336 GPUs 0 MW | ||
| Samsung SSC-21 | KR | 1.09× 9% normalized | 1,760 GPUs 2 MW | ||
| U.S. Army Jean | US | 1.09× 9% normalized | 280 GPUs 0 MW | ||
| Yandex Lyapunov | RU | 1.09× 9% normalized | 1,096 GPUs 1 MW | ||
| MTS Grom | RU | 1.09× 9% normalized | 160 GPUs 0 MW | ||
| NVIDIA Cambridge-1 | GB | 1.09× 9% normalized | 640 GPUs 1 MW | ||
| Recursion BioHive-1 | US | 1.09× 9% normalized | 320 GPUs 0 MW | ||
| Saudi Aramco Dammam-7 | SA | 1.09× 9% normalized | 7,912 GPUs 5 MW | ||
| SberCloud Christofari Neo | RU | 1.09× 9% normalized | 792 GPUs 1 MW | ||
| SiDi IARA | BR | 1.09× 9% normalized | 200 GPUs 0 MW | ||
| Tesla Auto-Labeling Cluster | US | 1.09× 9% normalized | 1,752 GPUs 2 MW | ||
| Tesla Training Cluster | US | 1.09× 9% normalized | 4,032 GPUs 3 MW | ||
| Texas A&M Grace | US | 1.09× 9% normalized | 200 GPUs 0 MW | ||
| Vingroup VinAI Research Superpod | VN | 1.09× 9% normalized | 160 GPUs 0 MW | ||
| Yandex Chervonenkis | RU | 1.09× 9% normalized | 1,592 GPUs 1 MW | ||
| Yandex Galushkin | RU | 1.09× 9% normalized | 1,088 GPUs 1 MW | ||
| Microsoft Azure Pioneer-EUS | US | 1.09× 9% normalized | 1,312 GPUs 1 MW | ||
| Microsoft Azure Pioneer-SCUS | US | 1.09× 9% normalized | 1,312 GPUs 1 MW | ||
| Microsoft Azure Pioneer-WEU | NL | 1.09× 9% normalized | 1,312 GPUs 1 MW | ||
| Microsoft Azure Pioneer-WUS2 | US | 1.09× 9% normalized | 1,312 GPUs 1 MW | ||
| Microsoft Azure Voyager-EUS2 | US | 1.09× 9% normalized | 2,112 GPUs 2 MW | ||
| University of Minnesota Agate | US | 1.09× 9% normalized | 264 GPUs 0 MW | ||
| Karlsruher Institut für Technologie HoreKa | DE | 1.10× 9% normalized | 740 GPUs 1 MW | ||
| NSCC ASPIRE 2A Phase 2 | SG | 1.10× 10% normalized | 352 GPUs 0 MW | ||
| AGH Cyfronet Athena | PL | 1.10× 10% normalized | 384 GPUs 0 MW | ||
| Ezra-1 Stability AI AWS Cluster | — | 1.10× 10% normalized | 4,000 GPUs 3 MW | ||
| IBM Vela | US | 1.10× 10% normalized | 2,880 GPUs 2 MW | ||
| Indiana University Bloomington Jetstream2 | US | 1.10× 10% normalized | 360 GPUs 0 MW | ||
| Microsoft GPT-4 cluster | US | 1.10× 10% normalized | 25,000 GPUs 21 MW | ||
| TACC Lonestar6 | US | 1.10× 10% normalized | 252 GPUs 0 MW | ||
| Aleph Alpha alpha ONE | DE | 1.10× 10% normalized | 512 GPUs 0 MW | ||
| Tesla A100 Cluster Phase 2 | US | 1.10× 10% normalized | 7,360 GPUs 6 MW | ||
| Microsoft Azure Meta AI Rental | US | 1.10× 10% normalized | 5,400 GPUs 5 MW | ||
| GENCI Adastra | FR | 1.10× 10% normalized | 1,352 GPUs 2 MW | ||
| G42 Microsoft 100 MW UAE Cluster | AE | 1.11× 10% normalized | 55,000 GPUs 100 MW | ||
| Calcul Québec Béluga | CA | 1.11× 10% normalized | 688 GPUs 0 MW | ||
| Nebius ISEG | FI | 1.11× 11% normalized | 1,520 GPUs 2 MW | ||
| JUWELS-Booster | DE | 1.11× 11% normalized | 3,744 GPUs 3 MW | ||
| ExxonMobil Discovery 5 | US | 1.12× 11% normalized | 2,000 GPUs 2 MW | ||
| CoreWeave Muskogee | US | 1.13× 12% normalized | 40,000 GPUs 100 MW | ||
| NVIDIA Selene Phase 2 | US | 1.13× 12% normalized | 4,480 GPUs 5 MW | ||
| TU Dresden AlphaCentauri | DE | 1.13× 12% normalized | 272 GPUs 0 MW | ||
| DeepL Mercury | SE | 1.13× 12% normalized | 544 GPUs 1 MW | ||
| Microsoft Azure Eagle | US | 1.13× 12% normalized | 14,400 GPUs 21 MW | ||
| AWS EC2 P5 UltraClusters | US | 1.13× 12% normalized | 20,000 GPUs 29 MW | ||
| Google TPUv5e | — | 1.13× 12% normalized | 50,944 GPUs 24 MW | ||
| Imbue 10k Cluster | US | 1.13× 12% normalized | 10,000 GPUs 15 MW | ||
| Lambda Labs H100/H200 | US | 1.13× 12% normalized | 32,000 GPUs 46 MW | ||
| Microsoft Azure ND H100 v5 VM | US | 1.13× 12% normalized | 4,000 GPUs 6 MW | ||
| Mistral Large Model Implied Cluster | — | 1.13× 12% normalized | 4,000 GPUs 6 MW | ||
| NHN Cloud's National AI Data Center | KR | 1.13× 12% normalized | 1,000 GPUs 1 MW | ||
| NVIDIA Eos Phase 2 | US | 1.13× 12% normalized | 4,608 GPUs 7 MW | ||
| Oracle OCI Supercluster A100s | US | 1.13× 12% normalized | 32,768 GPUs 27 MW | ||
| Scaleway Nabuchodonosor | FR | 1.13× 12% normalized | 1,016 GPUs 1 MW | ||
| Softbank SuperPOD | JP | 1.13× 12% normalized | 2,048 GPUs 2 MW | ||
| Tesla 10k H100 Cluster | US | 1.13× 12% normalized | 10,000 GPUs 15 MW | ||
| Together AI H100 Cluster | US | 1.13× 12% normalized | 4,424 GPUs 6 MW | ||
| Amazon Titan training cluster | US | 1.13× 12% normalized | 13,760 GPUs 11 MW | ||
| Google Hypercomputer TPU v5p pod | — | 1.13× 12% normalized | 8,960 GPUs 10 MW | ||
| MosaicML MPT training cluster | — | 1.13× 12% normalized | 440 GPUs 0 MW | ||
| MPT-30B training cluster | — | 1.13× 12% normalized | 256 GPUs 0 MW | ||
| NAVER Corp Sejong | KR | 1.13× 12% normalized | 2,240 GPUs 2 MW | ||
| NEC Corp Japan Supercomputer | JP | 1.13× 12% normalized | 928 GPUs 1 MW | ||
| NVIDIA Helios | — | 1.13× 12% normalized | 1,024 GPUs 1 MW | ||
| SK Telecom Titan Phase 2 | KR | 1.13× 12% normalized | 1,040 GPUs 1 MW | ||
| AIRAWAT-PSAI Phase 2 | IN | 1.13× 12% normalized | 656 GPUs 1 MW | ||
| hessian.AI fortytwo | DE | 1.13× 12% normalized | 632 GPUs 1 MW | ||
| KT SuperPOD | KR | 1.13× 12% normalized | 792 GPUs 1 MW | ||
| Meta Research SuperCluster (RSC-1) Phase 2 | US | 1.13× 12% normalized | 16,000 GPUs 13 MW | ||
| Meta Research SuperCluster 2 (RSC-2) | US | 1.13× 12% normalized | 8,000 GPUs 7 MW | ||
| NSC Berzelius Phase 2 | SE | 1.13× 12% normalized | 752 GPUs 1 MW | ||
| KAUST Shaheen-III | SA | 1.15× 14% normalized | 2,816 GPUs 5 MW | ||
| RPI AiMOS | US | 1.15× 14% normalized | 1,512 GPUs 1 MW | ||
| Meta GenAI 2024a | US | 1.15× 14% normalized | 24,576 GPUs 35 MW | ||
| Meta GenAI 2024b | US | 1.15× 14% normalized | 24,576 GPUs 35 MW | ||
| Saudi Aramco Tuwaiq-1 | SA | 1.15× 14% normalized | 416 GPUs 1 MW | ||
| Wroclaw Centre for Networking and Supercomputing Lem | PL | 1.15× 14% normalized | 304 GPUs 0 MW | ||
| Core42 SuperPOD | AE | 1.15× 14% normalized | 1,272 GPUs 2 MW | ||
| CSIRO Virga | AU | 1.15× 14% normalized | 448 GPUs 1 MW | ||
| Denvr Dataworks H100 | US | 1.15× 14% normalized | 1,024 GPUs 1 MW | ||
| GreenNode Bangkok Cluster | TH | 1.15× 14% normalized | 1,024 GPUs 1 MW | ||
| IBM Blue Vela | US | 1.15× 14% normalized | 1,024 GPUs 1 MW | ||
| LeptonAI H100 Cluster | US | 1.15× 14% normalized | 1,024 GPUs 1 MW | ||
| Meta 100k | US | 1.15× 14% normalized | 100,000 GPUs 143 MW | ||
| Neevcloud cluster 1 | IN | 1.15× 14% normalized | 1,024 GPUs 1 MW | ||
| NexGen Cloud Hyperstack AQ Compute Supercomputer | NO | 1.15× 14% normalized | 16,384 GPUs 23 MW | ||
| Northern Data Group Njored Taiga Cloud Island 5 | GB | 1.15× 14% normalized | 2,048 GPUs 3 MW | ||
| Northern Data Group Taiga Cloud Island 3 | — | 1.15× 14% normalized | 2,048 GPUs 3 MW | ||
| Northern Data Group Taiga Cloud Island 4 | — | 1.15× 14% normalized | 2,048 GPUs 3 MW | ||
| Northern Data Group Taiga Cloud NO1 Island 1 | NO | 1.15× 14% normalized | 2,048 GPUs 3 MW | ||
| Northern Data Group Taiga Cloud NO1 Island 2 | NO | 1.15× 14% normalized | 2,048 GPUs 3 MW | ||
| NVIDIA Israel-1 Phase 2 | IL | 1.15× 14% normalized | 2,048 GPUs 3 MW | ||
| OpenAI/Microsoft Goodyear Arizona | US | 1.15× 14% normalized | 100,000 GPUs 143 MW | ||
| Oracle OCI MI300x | US | 1.15× 14% normalized | 16,384 GPUs 25 MW | ||
| Oracle OCI Supercluster H100s | US | 1.15× 14% normalized | 16,384 GPUs 23 MW | ||
| Oracle OCI Supercluster H200s | US | 1.15× 14% normalized | 65,536 GPUs 94 MW | ||
| Ori Global Cloud H100 Cluster | — | 1.15× 14% normalized | 1,024 GPUs 1 MW | ||
| PCSS Poznan Proxima | PL | 1.15× 14% normalized | 348 GPUs 0 MW | ||
| Sesterce H100s Phase 2 | FR | 1.15× 14% normalized | 4,096 GPUs 6 MW | ||
| Sesterce Nordics | — | 1.15× 14% normalized | 8,192 GPUs 12 MW | ||
| SIAM AI HGX | TH | 1.15× 14% normalized | 1,024 GPUs 1 MW | ||
| SoftBank CHIE-2 | JP | 1.15× 14% normalized | 2,040 GPUs 3 MW | ||
| SoftBank CHIE-3 | JP | 1.15× 14% normalized | 2,040 GPUs 3 MW | ||
| Tesla Earnings Call Claim | US | 1.15× 14% normalized | 35,000 GPUs 50 MW | ||
| Ahrefs Yep1 | US | 1.15× 14% normalized | 504 GPUs 1 MW | ||
| Andreessen Horowitz Oxygen | US | 1.15× 14% normalized | 20,000 GPUs 29 MW | ||
| BNY Mellon Supercomputer | — | 1.15× 14% normalized | 500 GPUs 1 MW | ||
| CoreWeave H200s | US | 1.15× 14% normalized | 42,000 GPUs 60 MW | ||
| Fastweb NeXXt AI Factory | IT | 1.15× 14% normalized | 248 GPUs 0 MW | ||
| Hut 8 H100 Cluster | US | 1.15× 14% normalized | 1,000 GPUs 1 MW | ||
| Iris Energy Prince George cluster | CA | 1.15× 14% normalized | 816 GPUs 1 MW | ||
| Opera Iceland KEF-1 SuperPOD | IS | 1.15× 14% normalized | 248 GPUs 0 MW | ||
| Recursion BioHive-2 | US | 1.15× 14% normalized | 504 GPUs 1 MW | ||
| Vultr Chicago Cluster | US | 1.15× 14% normalized | 3,000 GPUs 5 MW | ||
| TSUBAME4.0 | JP | 1.16× 15% normalized | 960 GPUs 1 MW | ||
| Gcore data center Phase 2 | KR | 1.16× 15% normalized | 1,000 GPUs 2 MW | ||
| University of Cambridge Wilkes-3 | GB | 1.16× 15% normalized | 320 GPUs 0 MW | ||
| Inflection AI Cluster | US | 1.17× 15% normalized | 22,000 GPUs 31 MW | ||
| Novo Nordisk Gefion | DK | 1.17× 15% normalized | 1,528 GPUs 3 MW | ||
| Project Ceiba Phase 2 | US | 1.17× 16% normalized | 20,736 GPUs 50 MW | ||
| ExxonMobil Discovery 6 | US | 1.17× 16% normalized | 4,032 GPUs 6 MW | ||
| Google A3 VMs | US | 1.17× 16% normalized | 26,000 GPUs 36 MW | ||
| Nebius Finland Phase 2 | FI | 1.17× 16% normalized | 60,000 GPUs 84 MW | ||
| Saudi Data & AI Authority Sovereign AI factory | SA | 1.17× 16% normalized | 5,000 GPUs 12 MW | ||
| Sesterce Valence | FR | 1.17× 16% normalized | 40,000 GPUs 96 MW | ||
| together.ai 36k GB200s | US | 1.17× 16% normalized | 36,000 GPUs 86 MW | ||
| AIST ABCI 3.0 | JP | 1.17× 16% normalized | 6,128 GPUs 9 MW | ||
| AIST ABCI-Q | JP | 1.17× 16% normalized | 2,048 GPUs 3 MW | ||
| CEA EXA1-HE Phase 3 | FR | 1.17× 16% normalized | 2,688 GPUs 4 MW | ||
| Foxconn Hon Hai Kaohsiung Supercomputer | TW | 1.17× 16% normalized | 4,608 GPUs 11 MW | ||
| Horizon Compute Baobab Phase 2 | US | 1.17× 16% normalized | 2,048 GPUs 3 MW | ||
| iGenius Colosseum | IT | 1.17× 16% normalized | 5,760 GPUs 14 MW | ||
| JCAHPC Miyabi | JP | 1.17× 16% normalized | 1,120 GPUs 2 MW | ||
| KDDI Sharp Sakai | JP | 1.17× 16% normalized | 2,000 GPUs 5 MW | ||
| MITRE Federal AI Sandbox | US | 1.17× 16% normalized | 256 GPUs 0 MW | ||
| PanaAI AUS AISF | AU | 1.17× 16% normalized | 4,088 GPUs 6 MW | ||
| S. Korea 6th national supercomputer | KR | 1.17× 16% normalized | 8,800 GPUs 12 MW | ||
| Sesterce Pegasus | — | 1.17× 16% normalized | 10,496 GPUs 25 MW | ||
| Sesterce Synapse Phase 2 | FR | 1.17× 16% normalized | 4,096 GPUs 6 MW | ||
| TensorWave MI300X Cluster 1 Phase 2 | US | 1.17× 16% normalized | 10,000 GPUs 15 MW | ||
| TensorWave MI300X Cluster 2 | US | 1.17× 16% normalized | 10,000 GPUs 15 MW | ||
| Voltage Park Location 5 | US | 1.17× 16% normalized | 4,088 GPUs 6 MW | ||
| Voltage Park Location 6 | US | 1.17× 16% normalized | 4,088 GPUs 6 MW | ||
| Voltage Park Texas Phase 2 | US | 1.17× 16% normalized | 4,088 GPUs 6 MW | ||
| Voltage Park Utah | US | 1.17× 16% normalized | 4,088 GPUs 6 MW | ||
| Voltage Park Virginia | US | 1.17× 16% normalized | 4,088 GPUs 6 MW | ||
| Voltage Park Washington | US | 1.17× 16% normalized | 4,088 GPUs 6 MW | ||
| Yotta Shakti Cloud D1 | IN | 1.17× 16% normalized | 16,384 GPUs 23 MW | ||
| Yotta Shakti Cloud NM1 Phase 2 | IN | 1.17× 16% normalized | 16,384 GPUs 23 MW | ||
| YTL AI Johor | MY | 1.17× 16% normalized | 15,428 GPUs 37 MW | ||
| CoreWeave LiquidLab | US | 1.17× 16% normalized | 4,000 GPUs 6 MW | ||
| Corvex B200s | US | 1.17× 16% normalized | 256 GPUs 1 MW | ||
| FPT AI Factory Japan | JP | 1.17× 16% normalized | 3,000 GPUs 4 MW | ||
| FPT AI Factory Vietnam | VN | 1.17× 16% normalized | 3,000 GPUs 4 MW | ||
| Huawei Pangu Ultra MoE 910Bs | — | 1.17× 16% normalized | 6,000 GPUs 5 MW | ||
| Magic G4 Google Cloud Rental | US | 1.17× 16% normalized | 8,000 GPUs 11 MW | ||
| Nebius ISEG2 | IS | 1.17× 16% normalized | 4,992 GPUs 7 MW | ||
| NVIDIA CoreWeave Eos-DFW Rumored Phase 2 | US | 1.17× 16% normalized | 32,000 GPUs 45 MW | ||
| OneAsia OBON Clusters | TH | 1.17× 16% normalized | 4,000 GPUs 6 MW | ||
| Oracle OCI Supercluster B200s | US | 1.17× 16% normalized | 131,072 GPUs 262 MW | ||
| Poolside 10k Cluster | — | 1.17× 16% normalized | 10,000 GPUs 14 MW | ||
| Quebec 2k H100 Cluster | CA | 1.17× 16% normalized | 2,000 GPUs 3 MW | ||
| Samsung SSC4 | KR | 1.17× 16% normalized | 2,496 GPUs 3 MW | ||
| SoftBank Planned B200 Superpod | JP | 1.17× 16% normalized | 4,000 GPUs 8 MW | ||
| Sustainable Metal Cloud Singapore Phase 2 | SG | 1.17× 16% normalized | 5,000 GPUs 7 MW | ||
| Sweden 4k H100 Cluster | SE | 1.17× 16% normalized | 4,000 GPUs 6 MW | ||
| University of Bristol Isambard-AI | GB | 1.17× 16% normalized | 5,448 GPUs 8 MW | ||
| TACC Frontera | US | 1.18× 16% normalized | 808 GPUs 0 MW | ||
| Princeton Della Phase 2 | US | 1.18× 17% normalized | 612 GPUs 1 MW | ||
| NVIDIA Tethys | US | 1.19× 18% normalized | 160 GPUs 0 MW | ||
| Pawsey Supercomputing Centre Setonix | AU | 1.21× 19% normalized | 768 GPUs 1 MW | ||
| G42 Microsoft 30 MW UAE Cluster A | AE | 1.22× 20% normalized | 15,000 GPUs 30 MW | ||
| G42 Microsoft 30 MW UAE Cluster B | AE | 1.22× 20% normalized | 15,000 GPUs 30 MW | ||
| Telangana Yotta Hyderbad AI City Cluster Phase 2 | IN | 1.22× 20% normalized | 25,000 GPUs 50 MW | ||
| NSTDA Supercomputer Center (ThaiSC) LANTA | TH | 1.22× 20% normalized | 704 GPUs 1 MW | ||
| Mare Nostrum 5 | ES | 1.23× 20% normalized | 4,480 GPUs 6 MW | ||
| Microsoft Goodyear | US | 1.23× 21% normalized | 100,000 GPUs 202 MW | ||
| KT Internal MI250 Cluster | KR | 1.23× 21% normalized | 1,200 GPUs 1 MW | ||
| Oak Ridge NL Frontier | US | 1.24× 21% normalized | 37,632 GPUs 40 MW | ||
| University of Illinois NCSA Delta | US | 1.24× 22% normalized | 880 GPUs 1 MW | ||
| NFDG Andromeda Phase 2 | US | 1.24× 22% normalized | 4,400 GPUs 6 MW | ||
| Foxconn Big Innovation Cloud AI factory | TW | 1.26× 23% normalized | 10,000 GPUs 26 MW | ||
| Microsoft Explorer-WUS3 | US | 1.27× 24% normalized | 1,920 GPUs 2 MW | ||
| Reliance Industries Supercomputer | IN | 1.27× 24% normalized | 450,000 GPUs 1,000 MW | ||
| Applied Digital Ellendale Possible Phase 3 | US | 1.27× 24% normalized | 180,000 GPUs 400 MW | ||
| NVIDIA DGX SuperPOD 2019 | — | 1.27× 24% normalized | 1,536 GPUs 1 MW | ||
| Eni HPC5 | IT | 1.27× 24% normalized | 7,280 GPUs 4 MW | ||
| Petrobras Atlas | BR | 1.28× 24% normalized | 1,088 GPUs 1 MW | ||
| Eni HPC6 | IT | 1.29× 25% normalized | 13,888 GPUs 14 MW | ||
| XTX Markets Cluster | — | 1.29× 26% normalized | 20,000 GPUs 15 MW | ||
| EuroHPC LUMI | FI | 1.29× 26% normalized | 11,912 GPUs 12 MW | ||
| OpenAI/Microsoft Mt Pleasant, Wisconsin Phase 2 | US | 1.31× 27% normalized | 700,000 GPUs 1,500 MW | ||
| Lawrence Livermore NL Tuolumne | US | 1.34× 29% normalized | 4,608 GPUs 6 MW | ||
| Samsung SSC-21 Scalable Module | KR | 1.34× 29% normalized | 144 GPUs 0 MW | ||
| G42 Artemis | AE | 1.34× 29% normalized | 1,296 GPUs 1 MW | ||
| Intel Stability Gaudi 2 | US | 1.34× 29% normalized | 4,000 GPUs 5 MW | ||
| Sandia NL El Dorado | US | 1.35× 29% normalized | 1,520 GPUs 2 MW | ||
| Sesterce Southern France 250MW | FR | 1.35× 30% normalized | 120,000 GPUs 250 MW | ||
| Petrobras Fênix Phase 2 | BR | 1.38× 32% normalized | 720 GPUs 1 MW | ||
| Nscale Loughton | GB | 1.39× 32% normalized | 23,040 GPUs 90 MW | ||
| Tesla Cortex Phase 3 | US | 1.41× 34% normalized | 120,000 GPUs 140 MW | ||
| Fluidstack France Gigawatt Campus | FR | 1.41× 34% normalized | 500,000 GPUs 1,000 MW | ||
| Nebius New Jersey | US | 1.41× 34% normalized | 150,000 GPUs 300 MW | ||
| OpenAI/Microsoft Mt Pleasant, Wisconsin Phase 1 | US | 1.41× 34% normalized | 150,000 GPUs 300 MW | ||
| Sesterce Grand Est France A | FR | 1.41× 34% normalized | 150,000 GPUs 300 MW | ||
| Sesterce Grand Est France B | FR | 1.41× 34% normalized | 150,000 GPUs 300 MW | ||
| NVIDIA Taipei-1 | TW | 1.42× 35% normalized | 768 GPUs 1 MW | ||
| SURF Snellius Phase 3 | NL | 1.43× 35% normalized | 640 GPUs 1 MW | ||
| AGH Cyfronet Helios | PL | 1.44× 36% normalized | 464 GPUs 1 MW | ||
| Center for Advanced Intelligence Project, RIKEN, RAIDEN | JP | 1.46× 37% normalized | 416 GPUs 0 MW | ||
| Petrobras Gaia | BR | 1.48× 39% normalized | 704 GPUs 1 MW | ||
| Alps Supercomputer Phase 2 | CH | 1.48× 39% normalized | 10,752 GPUs 12 MW | ||
| Oak Ridge NL Summit | US | 1.50× 40% normalized | 27,648 GPUs 13 MW | ||
| Los Alamos NL Venado | US | 1.51× 41% normalized | 2,560 GPUs 3 MW | ||
| CEA EXA1-HE Phase 2 | FR | 1.55× 43% normalized | 1,908 GPUs 2 MW | ||
| Gemini 1.0 Ultra training cluster A | US | 1.57× 44% normalized | 28,672 GPUs 20 MW | ||
| Microsoft Ares/Maia | US | 1.58× 45% normalized | 2,048 GPUs 2 MW | ||
| Google Oklahoma TPU v4 Pods | US | 1.61× 47% normalized | 32,768 GPUs 24 MW | ||
| Paper on PaLM | US | 1.61× 47% normalized | 6,144 GPUs 4 MW | ||
| Google TPU v4 Pod | US | 1.62× 47% normalized | 4,096 GPUs 3 MW | ||
| SK Group AWS Uslan Phase 2 | KR | 1.64× 49% normalized | 60,000 GPUs 103 MW | ||
| Google TPUv3 POD Generic | — | 1.64× 49% normalized | 1,024 GPUs 1 MW | ||
| Google MLPerf 0.7 Submission | US | 1.67× 50% normalized | 4,096 GPUs 4 MW | ||
| Argonne NL Aurora | US | 1.75× 54% normalized | 63,744 GPUs 60 MW | ||
| University of Oxford Jade2 | GB | 1.75× 55% normalized | 504 GPUs 0 MW | ||
| LUMI Supercomputer (CSC Finland) | FI | 1.90× 62% normalized | 10,240 GPUs 7 MW | ||
| Eclairion Bruyères-le-Châtel (Mistral Compute) | FR | 1.94× 64% normalized | 13,800 GPUs 44 MW | ||
| Oak Ridge NL Titan | US | 1.94× 64% normalized | 18,688 GPUs 16 MW | ||
| Tesla Dojo 1 Phase 1 | US | 2.05× 69% normalized | 3,000 GPUs 2 MW | ||
| Lawrence Livermore NL El Capitan Phase 2 | US | 2.09× 71% normalized | 44,544 GPUs 35 MW | ||
| CSCS Piz Daint Phase 2 | CH | 2.14× 73% normalized | 5,704 GPUs 4 MW | ||
| Jupiter, Jülich | DE | 2.15× 73% normalized | 23,536 GPUs 18 MW | ||
| ORNL Frontier (Exascale HPC) | US | 2.19× 75% normalized | 37,888 GPUs 23 MW | ||
| GSIC TSUBAME 3.0 | JP | 2.32× 80% normalized | 2,156 GPUs 2 MW | ||
| US Government Supercomputer 1 | US | 2.37× 81% normalized | 4,160 GPUs 3 MW | ||
| US Government Supercomputer 2 | US | 2.37× 81% normalized | 4,160 GPUs 3 MW | ||
| Meta 2017 P100 Cluster | US | 2.42× 83% normalized | 992 GPUs 1 MW | ||
| Google TensorFlow Research Cloud | US | 2.50× 86% normalized | 4,096 GPUs 3 MW | ||
| Jean Zay Supercomputer Phase 4 | FR | 2.52× 86% normalized | 3,704 GPUs 2 MW | ||
| GSIC TSUBAME 2.5 | JP | 2.58× 88% normalized | 4,224 GPUs 3 MW | ||
| Preferred Networks MN-1b | JP | 2.69× 91% normalized | 1,536 GPUs 1 MW | ||
| Moscow State University Lomonosov 2 | RU | 2.81× 95% normalized | 1,472 GPUs 1 MW | ||
| Eni HPC2 | IT | 3.49× 111% normalized | 3,000 GPUs 1 MW | ||
| Aramco Groq Inference Cluster | SA | 3.82× 117% normalized | 19,725 GPUs 8 MW | ||
| MIT LLSC TX-GAIA | US | 4.08× 121% normalized | 896 GPUs 3 MW | ||
| Universitaet Frankfurt Goethe-NHR | DE | 4.35× 125% normalized | 880 GPUs 0 MW | ||
| JAMSTEC ZettaScaler-2.2 Gyoukou | JP | 6.32× 145% normalized | 10,000 GPUs 3 MW | ||
| Paper on AlphaZero | US | 9.33× 161% normalized | 5,000 GPUs 1 MW |
Each facility's estimate runs the accelerator its own record discloses: 285 of 314 reconciled sites resolve a specific chip from the per-facility hardware inventory, and the remaining 29 fall back to the H100 SXM5 default because no recognisable model is recorded. Both paths apply the SAME chip for a given site (the power path anchors its TDP to it), so a divergence reconciles the disclosed pair (chip count, megawatts) against the shared constants, with no hardware mismatch between the two readings. Throughput cancels between the paths and TDP does not, so a row on the fallback spec has a divergence conditional on that assumption; those rows are the ones a disclosed chip model would move.
Model archaeology
Everything above compresses a facility to a number. These are the seven physical strata that produce it (raw silicon, the fab, the accelerator, the cluster, the power drawn), dug down one model scale at a time, each layer cited.
Thresholds reads the same estimate against the lines that carry legal consequence: which of these sites hold enough compute to put a model across the EU AI Act’s 10²⁵ trigger, and how fast.