Relative Adoption Metric (RAM)
The RAM score: A better metric for contextualizing the downloads of new open models across size ranges.
A score over 1 means a model is tracking to be a top 10 downloaded model of its size.
Visualizing the RAM Score
Monotonic top-10 cutoff downloads per size category with recent models over time.
RAM baseline: 2026-Q2; snapshot: 2026-05-23
The ATOM Project (2026-Q2)
source: huggingface
Why We Built RAM
Download counts alone can hide which models are truly breaking out across different size classes.
While building The ATOM Project and other tools to measure the open ecosystem at Interconnects.ai, we are often frustrated with using downloads as a primary metric. We, and the community, know that small models are downloaded much more, so it makes some adoption metrics favor organizations releasing small models. Over the 1,100+ leading LLMs we track carefully, more than 1.4 billion of ~2 billion total downloads come from models in the 1-9B range.
This small model dominance happens to be partially caused by far more models being released at that size. Among the top 10 downloaded models at each size category, the median models from 1-9B parameters are only downloaded about 4X the count of models of 100B+ parameters. Still, this difference combined with the potential of small models to be outliers in downloads—by being loaded in the continuous integration (CI) tests of ML developers checking their code and other at-scale automated systems—makes small models dominate plots. For RAM, the size-category baseline is the download count of the 10th-most-downloaded model at the same days-after-release checkpoint.
We created the Relative Adoption Metric, reported as a RAM Score, to be able to tell within 30-90 days if a new model is on track to be ecosystem defining. We can already see that some models, such as GPT-OSS, are truly exceptional. In releasing only 2 models, OpenAI is well on the map as a top 5-10 open model lab in adoption metrics—this is hard to see when comparing organizations versus each other, when OpenAI's competitors may have many models.
We're also excited to see that some recent larger models from newer AI labs on the scene, such as MiniMax or Moonshot AI, are outperforming the metric, indicating competition in the large MoE space dominated by DeepSeek earlier in the year.
We're excited to support the ecosystem with this new tool!
Recent Model Performance
RAM scores at each milestone (days after release) for recently released models.
| Model | Size | 7d | 14d | 30d | 60d | 90d | 180d |
|---|---|---|---|---|---|---|---|
1-5B | |||||||
| Qwen 3.5 4B | 5B | 6.97x 166K | 8.93x 751K | 4.8x 2.4M | 4.09x 6.3M | -- | -- |
| DeepSeek OCR | 3B | 12.68x 302K | 15.45x 1.3M | 8.59x 4.3M | 6.11x 9.4M | 3.78x 12.8M | 2.3x 21.4M |
10-50B | |||||||
| Nemotron Nano 3 (30B) | 31.6B | 2.11x 166K | 3.38x 585K | 1.76x 1.1M | 2.07x 3M | 4.08x 5.9M | -- |
| Qwen 3.5 35B | 35B | 10.44x 822K | 12.13x 2.1M | 8.01x 5M | 8.75x 12.7M | -- | -- |
100-250B | |||||||
| MiniMax M2.1 | 229B | 4.16x 93K | 2.52x 195K | 1.19x 246K | 0.68x 323K | 0.78x 372K | -- |
| GPT-OSS 120B | 120.4B | 19.19x 429K | 10.18x 788K | 13.09x 2.7M | 13.68x 6.5M | 21.68x 10.3M | 20.31x 21.5M |
| Nemotron Super 120B | 123.6B | 16.96x 379K | 19.38x 1.5M | 14.94x 3.1M | 10.96x 5.2M | -- | -- |
| Qwen 3.5 122B | 122B | 7.38x 165K | 4.92x 381K | 7.27x 1.5M | 6.71x 3.2M | -- | -- |
250B+ | |||||||
| Kimi K2.5 | 1000B | 1.64x 100K | 4.14x 463K | 6.43x 1.4M | 7.66x 5.6M | 9.55x 10.4M | -- |
| Kimi K2 Thinking | 1000B | 1.47x 90K | 1.42x 159K | 1.77x 385K | 1x 732K | 1.01x 1.1M | 1.29x 1.4M |
| DeepSeek V3.2 | 685B | 0.41x 25K | 0.55x 61K | 0.52x 114K | 0.46x 339K | 0.59x 648K | -- |
| GLM 4.7 | 358B | 0.64x 39K | 0.46x 51K | 0.66x 144K | 0.67x 491K | 0.63x 685K | -- |
| GLM-5 | 753.9B | 5.93x 362K | 6.78x 759K | 20.21x 4.4M | 9.07x 6.6M | 7.43x 8.1M | -- |
| Qwen 3.5 397B | 403.4B | 4.22x 258K | 10.72x 1.2M | 10.1x 2.2M | 5.74x 4.2M | 5.85x 6.4M | -- |
The ATOM Project (2026-Q2)
source: huggingface
Methodology
How RAM references and model trajectories are computed.
Data Collection
- Reviewed top-model candidate pools per size bucket from the ATOM API snapshot
- Cumulative downloads at milestones: 7d, 14d, 30d, 60d, 90d, 180d, 365d post-release
- Release-aligned HuggingFace total downloads over time per model
Why a Monotonic Top-10 Cutoff?
RAM is designed to answer whether a release is on pace to become a top model for its size. At each checkpoint, we rank candidate models by downloads at the same age and use the 10th-highest value as the target. If a later raw cutoff dips because fewer models are old enough, the previous higher cutoff is carried forward. This will be solved as the ecosystem matures.
Last edited May 25, 2026. RAM baseline 2026-Q2, snapshot 2026-05-23. For the full paper methodology and appendix tables, see the ATOM report.