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README.md
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license: cc-by-4.0
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---
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---
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license: cc-by-4.0
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language:
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- en
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task_categories:
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- image-to-image
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- image-segmentation
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pretty_name: GeoSR-Bench
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size_categories:
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- 10K<n<100K
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---
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# GeoSR-Bench
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GeoSR-Bench directly connects super-resolution (SR) with downstream Earth monitoring tasks, moving beyond conventional fidelity-based evaluation. It comprises spatially co-located, temporally aligned, and quality-controlled image pairs from about 36,000 locations across diverse land covers, spanning spatial resolutions from 500 m to 0.6 m. It is designed to evaluate whether improved image resolution from SR models translates into better downstream performance for tasks such as land cover segmentation, infrastructure mapping, and biophysical variable estimation.
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GeoSR-Bench includes two cross-platform super-resolution tasks:
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- **MODIS β Landsat-8**
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- **Sentinel-2 β NAIP**
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For each task, the dataset is organized into two types of subsets:
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1. **Super-resolution-only datasets**
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These subsets include paired lower-resolution and higher-resolution remote sensing images without downstream task labels. They are designed for training SR models.
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2. **Downstream task datasets**
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These subsets include paired lower-resolution and higher-resolution images together with task-specific labels. They are designed to finetune SR models and evaluate whether super-resolved images improve downstream Earth monitoring tasks, such as land cover segmentation, infrastructure mapping, and biophysical variable estimation.
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Each sample may contain:
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- A lower-resolution image
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- A higher-resolution reference image
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- A downstream task label, when available
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- Metadata, when available
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GeoSR-Bench is intended to support research on task-aware super-resolution, cross-platform learning, and remote sensing foundation models.
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## Folder Structure
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The dataset contains both SR-only datasets and downstream task datasets.
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### SR-only dataset
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```text
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SRDatasetName/
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βββ lr/ or modis/ or s2/
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β βββ lr_0.tif
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β βββ lr_1.tif
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β βββ ...
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βββ hr/ or l8/ or naip/
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β βββ hr_0.tif
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β βββ hr_1.tif
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β βββ ...
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βββ meta/
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β βββ meta_0.json
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β βββ meta_1.json
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β βββ ...
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βββ SRDatasetName_split_all.csv
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```
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### Downstream task dataset
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```text
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DownstreamDatasetName/
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βββ s2/ or modis/
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β βββ s2_0.tif
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β βββ s2_1.tif
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β βββ ...
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βββ naip/ or l8/
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β βββ naip_0.tif
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β βββ naip_1.tif
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β βββ ...
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βββ label/
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β βββ label_0.tif
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β βββ label_1.tif
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β βββ ...
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βββ meta/
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β βββ meta_0.json
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β βββ meta_1.json
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β βββ ...
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βββ DownstreamDatasetName_split_all.csv
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```
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## Split Files
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Each subset includes a CSV file describing the image paths and data split.
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SR-only datasets are intended for training super-resolution models and do not have predefined train/validation/test split files.
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For downstream task datasets, the CSV contains:
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```text
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LR image,HR image,Label,split
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DownstreamDatasetName/s2/s2_0.tif,DownstreamDatasetName/naip/naip_0.tif,DownstreamDatasetName/label/label_0.tif,training
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DownstreamDatasetName/s2/s2_1.tif,DownstreamDatasetName/naip/naip_1.tif,DownstreamDatasetName/label/label_1.tif,validation
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DownstreamDatasetName/s2/s2_2.tif,DownstreamDatasetName/naip/naip_2.tif,DownstreamDatasetName/label/label_2.tif,test
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```
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## Data Fields
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| Column | Description |
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|---|---|
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| `LR image` | Path to the lower-resolution input image |
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| `HR image` | Path to the higher-resolution reference image |
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| `Label` | Path to the downstream task label |
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| `split` | Dataset split: `training`, `validation`, or `test` |
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## File Formats
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- Images are stored as GeoTIFF files (`.tif`).
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- Labels are stored as GeoTIFF files (`.tif`).
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- Metadata files, when available, are stored as JSON files (`.json`).
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- Split files are stored as CSV files (`.csv`).
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GeoTIFF files retain geospatial metadata such as coordinate reference system, transform, resolution, and spatial extent.
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## Usage
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You can read the split CSV using Python:
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```python
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import pandas as pd
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csv_path = "DownstreamDatasetName/DownstreamDatasetName_split_all.csv"
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df = pd.read_csv(csv_path)
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train_df = df[df["split"] == "training"]
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val_df = df[df["split"] == "validation"]
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test_df = df[df["split"] == "test"]
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print(len(train_df), len(val_df), len(test_df))
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```
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For SR-only datasets, use the `LR image` and `HR image` columns:
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```python
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sample = train_df.iloc[0]
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lr_path = sample["LR image"]
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hr_path = sample["HR image"]
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print(lr_path)
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print(hr_path)
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```
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For downstream task datasets, use the `LR image`, `HR image`, and `Label` columns:
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```python
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sample = train_df.iloc[0]
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lr_path = sample["LR image"]
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hr_path = sample["HR image"]
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label_path = sample["Label"]
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print(lr_path)
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print(hr_path)
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print(label_path)
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```
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You can read GeoTIFF files using `rasterio`:
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```python
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import rasterio
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with rasterio.open("DownstreamDatasetName/s2/s2_0.tif") as src:
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image = src.read()
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crs = src.crs
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transform = src.transform
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print(image.shape)
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print(crs)
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print(transform)
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```
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## Intended Use
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This dataset is intended for research on:
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- Remote sensing image super-resolution
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- Downstream task-aware image restoration
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- Land cover mapping
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- Infrastructure mapping
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- Biophysical variable estimation
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- Cross-platform Earth observation learning
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- Geo-foundation models
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## Citation
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If you use this dataset, please cite:
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```bibtex
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@article{li2026beyond,
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title={Beyond Visual Fidelity: Benchmarking Super-Resolution Models for Large-Scale Remote Sensing Imagery via Downstream Task Integration},
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author={Li, Zhili and Chai, Kangyang and Wang, Zhihao and Jia, Xiaowei and Li, Yanhua and Mai, Gengchen and Skakun, Sergii and Manocha, Dinesh and Xie, Yiqun},
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journal={arXiv preprint arXiv:2605.00310},
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year={2026}
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}
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```
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