Canopy height data: NEON and five international sites
Training and evaluation data from our canopy height mapping study, packaged for testing. All source data are public (see Sources and licences).
| Archive | Content |
|---|---|
Canopy_height_data_NEON.tar.gz |
neon_test/ |
Canopy_height_data_MRF.tar.gz |
intl_test/MRF_stack/, intl_train/MRF_train_stack/ |
Canopy_height_data_EBR.tar.gz |
intl_test/EBR_stack/, intl_train/EBR_train_cover400_stack/ |
Canopy_height_data_SER.tar.gz |
intl_test/SER_stack/, intl_train/SER_train_cover400_stack/ |
Canopy_height_data_SPC.tar.gz |
intl_test/SPC_stack/, intl_train/SPC_train_cover400_stack/ |
Canopy_height_data_MUR.tar.gz |
intl_test/MUR_stack/, intl_train/MUR_train_cover400_stack/ |
All archives unpack into Canopy_height_data/ and include stats/ (per-channel mean and standard deviation of the 76-channel input). Every array is a stack of 256 × 256 chips at 10 m resolution, stored as a NumPy .npy file with the chips on the first axis. Stacks of more than 400 chips are split into part001 and part002.
International sites: MRF = Mount Richmond Forest (New Zealand), EBR = Entlebuch Biosphere Reserve (Switzerland), SER = Sepilok and Danum Valley (Malaysia), SPC = São Paulo (Brazil), MUR = Middle Usumacinta (Mexico).
Weights
weights/: trained models for chm-tool.
| Folder | Files |
|---|---|
source/ |
UNet-ALS.pth (input AE), UNet-A-ALS.pth, UNet-E-ALS.pth, UNet-T-ALS.pth, UNet-TE-ALS.pth |
NEON/ |
UNet-SLS.pth, RF-SLS.joblib |
MRF/, EBR/, SER/, SPC/, MUR/ |
UNet-SLS.pth, RF-SLS.joblib, KG-UNet1.pth, KG-UNet2.pth |
Files
neon_test/: chips are ordered by site: ABBY (18), BART (30), HARV (61), LENO (25), MLBS (36), NIWO (28), SCBI (25), SJER (25), SRER (37), TALL (30), TEAK (46), WREF (43). The site-year is 2019, except NIWO (2020) and MLBS (2021).
| File | Content |
|---|---|
X_part001.npy |
annual input, 76 channels |
X_part001_TS.npy |
seasonal input, 44 channels |
y_part001.npy, chm_p95.npy, chm_p98.npy |
ALS canopy height, p90 / p95 / p98 |
y_GEDI_part001.npy |
GEDI RH95 |
y_eth_part001.npy, y_umd_part001.npy, tolan_p90.npy |
HRCH, GFCH, GMTCH |
chip_index.csv |
site and biome of each chip |
intl_test/<SITE>_stack/:
| File | Content |
|---|---|
<SITE>_partNNN.npy |
annual input, 76 channels |
<SITE>_chm_partNNN.npy, <SITE>_chm_p95_partNNN.npy, <SITE>_chm_p98_partNNN.npy |
ALS canopy height, p90 / p95 / p98 |
<SITE>_GEDI_part001.npy (SER, SPC, MUR) |
GEDI RH95 |
<SITE>_eth_partNNN.npy, <SITE>_umd_partNNN.npy, <SITE>_gmtch_partNNN.npy |
HRCH, GFCH, GMTCH |
<SITE>_index.csv (<SITE>_label_index.csv for EBR and MRF) |
chip locations |
intl_train/:
| File | Content |
|---|---|
<SITE>_train_cover400_stack/<SITE>_train_cover400_partNNN.npy (EBR, SER, SPC, MUR) |
annual input, 76 channels |
<SITE>_train_cover400_stack/<SITE>_train_cover400_GEDI_partNNN.npy |
GEDI RH95 training labels |
<SITE>_train_cover400_stack/<SITE>_train_cover400_index.csv |
chip locations |
MRF_train_stack/MRF_GEDI_partNNN.npy |
GEDI RH95 training labels for MRF; MRF is trained on its evaluation chips, whose input is intl_test/MRF_stack/MRF_partNNN.npy |
MRF_train_stack/MRF_train_index.csv |
chip locations |
Data
Annual input (uint16; 0 = no data):
| Channels | Layer | Decode |
|---|---|---|
| 0–63 | Satellite Embedding, annual | value / 10000 − 1 |
| 64 | SRTM elevation | m |
| 65–66 | Sentinel-1 VV, VH, annual median | value / 100 − 50 (dB) |
| 67–75 | Sentinel-2 L2A B2, B3, B4, B5, B6, B7, B8, B11, B12, annual median | value / 10000 (reflectance) |
Seasonal input (X_part001_TS.npy, same encoding): channels 0–7 are Sentinel-1 VV and VH for seasons 1–4 (VV1, VH1, VV2, VH2, …); channels 8–43 are the nine Sentinel-2 bands for seasons 1–4. The seasons are December (of the previous year) to February, March–May, June–August and September–November.
ALS canopy height (float32, m; −999 = no data): the 90th, 95th and 98th percentile of the 1 m ALS canopy height within each 10 m cell.
GEDI RH95 (float32, m; −999 = no footprint): median GEDI L2A RH95 of 2019–2021 on the 10 m grid.
Global products (float32, m): umd = GFCH, eth = HRCH, gmtch / tolan_p90 = GMTCH (90th percentile of the 1 m map within each 10 m cell).
International index files: one row per chip in stack order (part, row_in_part), with the CRS (epsg or crs) and the upper-left corner of the chip (tile_x0, tile_y1 or x_ul, y_ul).
Biome codes in chip_index.csv: TRF = temperate rain forest, TSF = temperate seasonal forest, BF = boreal forest, WS = woodland/shrubland, SD = subtropical desert.
Sources and licences
| Data | Source | Licence |
|---|---|---|
| NEON ALS | NEON, Ecosystem structure (DP3.30015.001): RELEASE-2025 https://doi.org/10.48443/jqqd-1n30; RELEASE-2024 https://doi.org/10.48443/zzz8-pr54 (SCBI); provisional data (MLBS 2021) | CC0 1.0 when obtained |
| SPC ALS | São Paulo City Hall (2024), OpenTopography, https://doi.org/10.5069/G9NV9GD1 | GPL-3.0 |
| MUR ALS | Inomata (2022), OpenTopography, https://doi.org/10.5069/G95B00NF | CC BY 4.0 |
| SER ALS | Coomes & Jackson (2022), NERC EDS CEDA, https://doi.org/10.5285/dd4d20c8626f4b9d99bc14358b1b50fe | OGL v3.0 |
| EBR ALS | swisstopo swissSURFACE3D Raster and swissALTI3D, https://www.swisstopo.admin.ch | swisstopo OGD |
| MRF ALS | LINZ / Marlborough District Council (2020–2022), OpenTopography, https://doi.org/10.5069/G97D2SB0 | CC BY 4.0 |
| Satellite Embedding | Google and Google DeepMind (2025), https://developers.google.com/earth-engine/datasets/catalog/GOOGLE_SATELLITE_EMBEDDING_V1_ANNUAL | CC BY 4.0 |
| SRTM | NASA JPL (2013), https://doi.org/10.5067/MEaSUREs/SRTM/SRTMGL1.003 | public domain |
| Sentinel-1, Sentinel-2 | Copernicus Sentinel data 2018–2021 | Copernicus Sentinel data terms |
| GEDI L2A | Dubayah et al. (2021), https://doi.org/10.5067/GEDI/GEDI02_A.002 | public domain |
| GFCH | Potapov et al. (2021), https://doi.org/10.1016/j.rse.2020.112165 | CC BY |
| HRCH | Lang et al. (2023), https://doi.org/10.1038/s41559-023-02206-6 | CC BY 4.0 |
| GMTCH | Tolan et al. (2024), https://doi.org/10.1016/j.rse.2023.113888 | CC BY 4.0 |
Licence
CC BY 4.0, except the three intl_test/SPC_stack/SPC_chm_* files, which are derived from the GPL-3.0 São Paulo lidar survey and are released under GPL-3.0-only. See LICENSE and LICENSE-GPL-3.0.txt. The weights in weights/ are released under the MIT licence.
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