FAME_benchmark / README.md
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---
pretty_name: FAME Benchmark
license: other
task_categories:
- image-segmentation
tags:
- medical-image-segmentation
- few-shot-segmentation
- semantic-segmentation
- benchmark
size_categories:
- 10K<n<100K
configs:
- config_name: preview
data_files:
- split: preview
path: viewer/fame_preview.parquet
- config_name: pixels
data_files:
- split: full
path: data_shards/fame_image_mask_pairs-*.parquet
---
# FAME Benchmark
FAME is a benchmark for zero-shot, few-shot, and OOD medical image segmentation. It is introduced in [arXiv:2607.27856](https://arxiv.org/abs/2607.27856): **Benchmarking Foundation and Large Language Models for Few-Shot Medical Image Segmentation**.
If you use this benchmark, please cite the FAME paper. The BibTeX entry is provided in the [Citation](#citation) section.
This Hugging Face dataset contains the released FAME JSON/JSONL protocols plus all referenced image and mask pixels. To keep the repository usable on Hugging Face, the protocols are packaged in `protocols/FAME_benchmark_protocols.tar.gz`, and the pixels are stored as Parquet shards with `image` and `mask` columns so samples can be inspected in Dataset Viewer/Data Studio. After extracting the protocol archive, `tools/extract_pixels_from_parquet.py` can materialize the raw image and mask files referenced by the protocol JSONL files.
## What Is Segmented?
The montage below shows representative positive target masks from the released FAME tasks. Magenta indicates the foreground mask and yellow indicates the mask contour.
![Representative FAME segmentation targets](assets/fame_segmentation_targets_overview.png)
## Directory Layout
```text
assets/
fame_segmentation_targets_overview.png
protocols/
FAME_benchmark_protocols.tar.gz
After extracting protocols/FAME_benchmark_protocols.tar.gz:
FAME_benchmark/
tasks/<task>/
task_info.json
train_pool.jsonl
train_positive.jsonl
train_negative.jsonl
test.jsonl
test_positive.jsonl
test_negative.jsonl
episodes/k10_seed{0..4}/<task>/
support.jsonl
train.jsonl
test.jsonl
episodes/zero_shot/<task>/
test.jsonl
ood/FAME_ood_pairs.csv
ood_episodes/k10_seed0/<pair_id>/
support.jsonl
test.jsonl
ood_pair_info.json
task_lists/FAME_benchmark_tasks.txt
task_stats.csv
data_shards/
fame_image_mask_pairs-*.parquet
viewer/
fame_preview.parquet
metadata/
protocol_summary.json
pixel_shard_manifest.csv
image_mask_pair_manifest.csv
iid_dataset_summary.csv
ood_pair_summary.csv
tools/
load_fame.py
extract_pixels_from_parquet.py
```
## Protocols
Extract the protocol archive first:
```bash
tar -xzf protocols/FAME_benchmark_protocols.tar.gz
```
Zero-shot evaluation uses the frozen query set for each IID ROI task and no support masks:
```text
FAME_benchmark/episodes/zero_shot/<task>/test.jsonl
```
Few-shot evaluation uses 10 positive support examples per task with five fixed seeds:
```text
FAME_benchmark/episodes/k10_seed0/<task>/
FAME_benchmark/episodes/k10_seed1/<task>/
FAME_benchmark/episodes/k10_seed2/<task>/
FAME_benchmark/episodes/k10_seed3/<task>/
FAME_benchmark/episodes/k10_seed4/<task>/
```
OOD evaluation uses 10 support examples from the source task and evaluates on a target task under covariate or semantic shift:
```text
FAME_benchmark/ood/FAME_ood_pairs.csv
FAME_benchmark/ood_episodes/k10_seed0/<pair_id>/
```
## Dataset Summary
- IID ROI tasks: 21
- IID source datasets: 19/19
- IID test samples: 14,958 total, 13,689 positive, 1,269 negative
- Pixel pairs: 78431 image/mask pairs
- Pixel shards: 77 Parquet files
- Organs: brain, breast, colon, lung, retina, skin, thyroid
- Modalities: CT, MRI, MRI_adc, OCT, colonoscopy, color_fundus_photography, dermoscopy, histopathology, ultrasound
## Pixel Storage
Each row in `data_shards/fame_image_mask_pairs-*.parquet` contains:
- `image`: image bytes and the original repository-relative path
- `mask`: mask bytes and the original repository-relative path
- `image_path` and `mask_path`: paths referenced by the JSON/JSONL protocols
- task-level metadata such as dataset, organ, modality, task, target, and case id
The `preview` config is small and intended for quick visual inspection. The `pixels` config contains the full image/mask pixel store.
## Materialize Raw Files
To run code that expects the JSON paths and raw pixel files to exist on disk, extract the protocols and then extract the Parquet pixel store:
```bash
tar -xzf protocols/FAME_benchmark_protocols.tar.gz
python tools/extract_pixels_from_parquet.py \
--root /path/to/FAME-benchmark \
--out-root /path/to/FAME-benchmark
```
This creates the `data/benchmark_dataset/...` and `data/benchmark_dataset_ood/...` image/mask files referenced by the protocol JSONL files.
## Load Episodes in Python
```python
from pathlib import Path
from tools.load_fame import list_ood_pairs, list_tasks, load_episode, load_ood_episode
release_root = Path("/path/to/FAME-benchmark")
tasks = list_tasks(release_root)
support, query = load_episode(
release_root,
"ISIC2018__ISIC2018_skin_lesion",
seed=0,
resolve_paths=False,
)
print(len(support), len(query))
print(query[0]["image"], query[0]["mask"])
ood_pairs = list_ood_pairs(release_root)
ood_support, ood_query, ood_info = load_ood_episode(
release_root,
"cov_BUSI_to_BUID_breast_mass",
resolve_paths=False,
)
print(ood_info["shift_type"], len(ood_support), len(ood_query))
```
Set `resolve_paths=True` after running `tools/extract_pixels_from_parquet.py`.
## Run STAMP-2B or MedSAM3
```bash
cd /path/to/Disease-conditionalSeg
export FAME_RELEASE=/path/to/FAME-benchmark
tar -xzf "${FAME_RELEASE}/protocols/FAME_benchmark_protocols.tar.gz" \
-C "${FAME_RELEASE}"
python "${FAME_RELEASE}/tools/extract_pixels_from_parquet.py" \
--root "${FAME_RELEASE}" \
--out-root "${FAME_RELEASE}"
ln -sfn "${FAME_RELEASE}/data" ./data
export POOL_ROOT="${FAME_RELEASE}/FAME_benchmark"
export EPISODE_ROOT="${FAME_RELEASE}/FAME_benchmark/episodes"
export TASKS="${FAME_RELEASE}/FAME_benchmark/task_lists/FAME_benchmark_tasks.txt"
export K=10
export SEED=0
export GPUS=0,1,2,3
bash scripts/bench/run/download_weights.sh check
bash scripts/bench/run/stamp.sh 2b_in_context
bash scripts/bench/run/stamp.sh 2b_zero_disease
bash scripts/bench/run/medsam3.sh ten_support
bash scripts/bench/run/medsam3.sh zero_disease
```
## License and Data Access
FAME is provided for non-clinical research benchmarking. The underlying medical images and annotations remain governed by the licenses and access conditions of their original datasets.
## Citation
If you use FAME, please cite:
```bibtex
@misc{liu2026benchmarkingfoundationlargelanguage,
title={Benchmarking Foundation and Large Language Models for Few-Shot Medical Image Segmentation},
author={Jinghong Liu and Yuchuan Deng and Fanping Liu and Meng Huang and Xirong Li},
year={2026},
eprint={2607.27856},
archivePrefix={arXiv},
primaryClass={cs.CV},
url={https://arxiv.org/abs/2607.27856},
}
```