Recorded results
Verified COGs, previews and Python examples. No service or API key required.
Explore the exampleAUREON / API DOCS
Open-source inference for multimodal and generative Earth models.
PLATFORM AVAILABILITY
Verified COGs, previews and Python examples. No service or API key required.
Explore the exampleLocal segmentation and generation through Python, CLI and an authenticated API. See supported workloads below.
Explore the libraryHosted jobs and contact inquiries are not yet open.
Contact usRELEASE / DEVELOPMENT
The GitHub release now provides Best e09e710c and its matching source. Current-wheel TerraMind tile/scene/HTTP acceptance and earlier KAO-TerraMind receipts keep their distinct scopes.
Open the releaseThe single package e09e710c9e9ace17b7bf2214d8c9eff2c4ed605a7d45e8c4e649b672f6f88a64 includes scene and service features. Its original Best run and lifecycle execute directly, with no model subprocess adapter.
Installed-wheel acceptance passed 26 calls across original comparison, four-tile scene, local HTTP and private Cloud, with exact FP32 output and COG/provenance. This is not a new competitor benchmark or general production qualification.
A separate 14-call diagnostic retained exact FP32 parity and graph/reuse. Timing pairs changed direction; it establishes neither a new speedup nor a repeatable feature/performance trade-off. The selected package is unchanged.
The numerical origin is 0fa5ef2b. The historical comparison table below retains its original workload and archive identity. GitHub downloads now contain this exact wheel; original assets remain available as historical records. Hosted inference and PyPI remain closed.
Original measured profile and scopeThe installed Torch 2.10 SDK passes its native-reference check on the real 192 × 192 Sentinel-2 crop. The earlier source acceptance separately verifies exact FP32 latent, decoded output, mask and RNG state, COG read-back and allocator release.
linear_backscatter · COG + provenance[copgen] dependencies and pinned constraints. Explicit profile selection; two selected VAEs; one route. COP-GEN-Beta remains separate.S1RTC is distinct from TerraMind’s S1GRD output. This is execution-fidelity acceptance, not a speedup comparison or scientific-quality evaluation. Other routes remain unqualified.
The earlier six-call Torch 2.6 and two-call Torch 2.10 source acceptances retain their own scopes. No cross-version equality is claimed. The latest installed SDK check followed a launcher-overlay correction; the failed attempt remains recorded. The interface is included in Best; these earlier COP-GEN acceptance receipts are not new qualification of the current archive.
The selected runtime uses the preserved graph/reuse numerical path. This is not a claim of identical full-pipeline speed. Development candidates and retired fused-batching experiments are not alternate recommended installs; their evidence is retained.
Any-to-any remains an architecture direction, not universal route support. The published generation route remains TerraMind 1.0 base: S2L2A → synthetic S1GRD. Hosted inference remains closed.
INTERFACES / QUALIFICATION
These interfaces are present in the current source and Best package. Installed-model and performance acceptance remain specific to the named artifact and route. The install guide below selects the current Best wheel.
CPU suites cover COP-GEN contracts, raster/loopback delivery with a fixture engine, and actual upstream random-weight integration. The installed-model checks above qualify only their named routes. No public endpoint or automatic model download is enabled.
ENGINE / EXECUTION
Python, CLI and the local async API share the inference core. Adapters own tokenization, sampling and decoding; the delivery layer preserves spatial metadata and output provenance.
These mechanisms describe implemented paths. Their combined measured result belongs to the original benchmark workload, not every model or development build.
MODEL FAMILIES
Local support. Each family defines its inputs, outputs and runtime limits.
SEGMENTATION / LOCAL SUPPORT
Sentinel-2 to a class-map COG. This example uses variant B.
| Variant | Configuration | Workflow availability |
|---|---|---|
| KAO-TerraMind A | UperNet 256 decoder. Same architecture as B, different trained weights. | Prior local full-reference acceptance. No new v0.1.0 or GPU-container qualification. |
| KAO-TerraMind B | UperNet 256 decoder. The variant used for this guide. | Recorded scene, verified COGs and runnable download examples. |
| KAO-TerraMind C | Wider UperNet 512 decoder. A separate checkpoint. | Prior local full-reference acceptance. No new v0.1.0 or GPU-container qualification. |
The final alpha wheel passed one B512 guarded-v3 HTTP job against the retained reference. Earlier full-reference, 512/ROI/4096 guarded and GPU-container checks keep their own artifact scope. A/C retain earlier-artifact full-reference evidence. No quality ranking is implied.
GENERATION / LOCAL SUPPORT
All-valid 224 × 224 S2L2A → synthetic S1GRD. FP32, 8 token steps, 10 diffusion steps. The final alpha wheel passed one local HTTP generation job with seed 17 and exact retained-reference parity. Earlier library, two-seed and GPU-container checks belong to their recorded artifacts.
Synthetic output is not a sensor measurement. Other sizes, modalities and scientific accuracy remain unverified.
QUICKSTART / v0.1.0
Linux x86_64 or WSL2 · Python 3.12 · NVIDIA GPU for explicit model execution.
Public alpha v0.1.0 · Available on GitHub.
OPEN SOURCE / v0.1.0
Get the wheel, source archive, dependency locks and first-result guide from the GitHub release.
Local inference is available. Hosted API access is not yet open.
Model weights and imagery are not included.
Download the Best wheel and matching source from GitHub. Models, imagery, credentials and CUDA drivers are supplied separately. The release identity manifest binds the exact bytes. Original release files remain historical assets; the current recommended wheel is e09e710c9e9ace17b7bf2214d8c9eff2c4ed605a7d45e8c4e649b672f6f88a64.
The direct URL uses ordinary dependency resolution. For the tested pinned generation stack, follow the source-lock instructions below.
python -m pip install "https://github.com/LeChiffreVol2/aureon/releases/download/v0.1.0/aureon_inference-0.1.0-py3-none-any.whl#sha256=e09e710c9e9ace17b7bf2214d8c9eff2c4ed605a7d45e8c4e649b672f6f88a64"Both the original alpha and Best use version 0.1.0. Use a new environment and compare SHA-256; a version-only upgrade can retain the earlier wheel.
Download and verify the matching source archive SHA-256 586682c5e404da145ad99ac917f284fc45e49aef759f48283a2995903a2be02a, then use its locks. Do not install the historical scene/cu130 stack into this generation environment.
tar -xzf aureon_inference-0.1.0.tar.gz
python3.12 -m venv "$HOME/aureon-best-env"
. "$HOME/aureon-best-env/bin/activate"
python -m pip install --require-hashes -r aureon_inference-0.1.0/packaging/lock-bootstrap-generation.txt
python -m pip install --require-hashes --no-build-isolation -r aureon_inference-0.1.0/packaging/lock-generation-linux-py312-cu128.txt
python -m pip install --no-index --no-deps ./aureon_inference-0.1.0-py3-none-any.whl
python -m pip check
aureon-engine check --environment generationThese are installation commands, not inference. KAO-TerraMind full-reference routes use the optional scene-legacy dependencies in the dependency guide. Frozen source documentation retains some earlier release-status wording; current release notes identify the published files.
FIRST RESULT
Follow the asset and input quickstart, then the resident and whole-scene workflow. Model execution is explicit. TerraMind produces synthetic S1GRD with grid and provenance; it is not a radar observation.
Retained acceptance on this exact Best wheel covers 26 TerraMind calls across native tiles, a four-tile scene, local HTTP and private local dispatch, with exact FP32 output. Earlier KAO-TerraMind B/A/C receipts retain their artifact-specific scopes. This release update adds no model run or benchmark.
LOCAL API
Use the authenticated local service guide for upload → submit → status → verified COG/provenance. The selected TerraMind HTTP executor is base-generation/scene scoped; Backbone and TiM use their SDK/CLI contracts. The public website does not run an inference service.
SETUP CHECKS
Verify wheel and source hashes, use the matching dependency profile, and run aureon-engine doctor for explicit model-asset checks. Installation and help do not download weights or run a model. Preserve the job ID after an observation timeout; inspect status before resubmitting. Hosted inference and PyPI remain closed.
AUREON USE CASE / LAND-COVER SEGMENTATION
Available now · Recorded outputs
Explore an audited Thailand scene processed with KAO-TerraMind B. Download the original COGs, verify their hashes and open them in GIS.
"""Download the published recorded result; no model or service is started."""
import hashlib
import json
from pathlib import Path
from urllib.request import urlopen
from uuid import uuid4
BASE = "https://aureon-foundation.vercel.app"
def fetch(path, limit):
with urlopen(BASE + path, timeout=30) as response:
data = response.read(limit + 1)
if len(data) > limit:
raise ValueError("Response exceeded its expected size")
return data
def main():
receipt = json.loads(fetch("/examples/thailand/receipt.json", 65536))
assert receipt["schema"] == "aureon.public_recorded_result.v1"
verified = {}
for name in ("class_map.tif", "valid_mask.tif"):
item = receipt["artifacts"][name]
path = "/examples/thailand/" + name
if item["url"] != path or not 0 < item["bytes"] <= 16 * 1024 * 1024:
raise ValueError("Unexpected artifact declaration")
data = fetch(path, item["bytes"])
if (len(data) != item["bytes"] or
hashlib.sha256(data).hexdigest() != item["sha256"]):
raise ValueError("Verification failed: " + name)
verified[name] = data
output = Path("aureon-example-" + uuid4().hex[:8])
output.mkdir(exist_ok=False)
for name, data in verified.items():
(output / name).write_bytes(data)
print("Verified:", name)
(output / "receipt.json").write_text(json.dumps(receipt, indent=2))
print("Results:", output)
return output
if __name__ == "__main__":
main()
Downloads recorded COGs to a new directory and verifies their hashes. No inference is run.
02 / INPUT CONTRACT
Validated internally · Input reference
Align twelve Sentinel-2 L2A bands in this order:
B01 B02 B03 B04 B05 B06 B07 B08 B8A B09 B11 B12
| Requirement | Contract |
|---|---|
| Grid | Common CRS, transform, resolution and dimensions across bands and mask. |
| Radiometry | Explicit surface-reflectance units and verified offset handling. The recorded scene uses surface reflectance × 10,000. |
| Validity | Keep source NoData and validity separate from predicted classes. |
| Preprocessing | Normalize once; 224 × 224 windows, stride 168. Blend logits on the source grid before class selection. |
| Submission | The tested job contract accepts a registered scene ID. It is not an arbitrary GeoTIFF upload endpoint. |
Inference uses all twelve bands. RGB is display-only.
03 / INFERENCE API
Validated internally · No public inference endpoint
This reference documents the earlier registered-scene API behind the recorded result. Use the download example to inspect its outputs. The current Engine API supports authenticated local upload → submit → status → verified artifacts, with one model/task per service. This is not its upload quickstart.
/v1/jobsSubmit a registered scene{
"scene_id": "your-registered-scene"
}Use a bearer token from your operator and an Idempotency-Key per submission. Retry uncertain outcomes with the same key and payload. This website does not issue credentials.
{
"job": {
"job_id": "<job-id>",
"status": "queued"
},
"reused": false
}/v1/jobs/<job-id>Track the jobPoll for completed, failed or cancelled. Completed jobs include artifact paths, sizes and SHA-256 hashes. Verify each download.
| Artifact | Purpose |
|---|---|
class_map.tif | Categorical prediction, georeferenced and ready for GIS. |
valid_mask.tif | The valid-pixel footprint on the same grid. |
provenance.json | Input, preprocessing and output identities. |
job.json | Execution record and numerical checks. |
Public downloads contain both original COGs and a curated receipt.
04 / USE THE OUTPUT
Available now · Run with downloaded files
Open class_map.tif in QGIS with categorical styling. Apply valid_mask.tif before analysis. The Python example uses NumPy and Rasterio to check grids and count valid pixels.
"""Read verified recorded COGs: python read_result.py <result-directory>."""
import sys
from pathlib import Path
import numpy as np
import rasterio
folder = Path(sys.argv[1])
with rasterio.open(folder / "class_map.tif") as classes, \
rasterio.open(folder / "valid_mask.tif") as mask:
assert classes.crs == mask.crs
assert classes.transform == mask.transform
assert classes.shape == mask.shape
prediction = classes.read(1)
valid = (mask.read(1) > 0) & (classes.read_masks(1) > 0)
valid &= prediction != 255
assert np.all(prediction[valid] < 10)
counts = np.bincount(prediction[valid], minlength=10)
print("Grid:", classes.crs, classes.shape)
print("Valid pixels:", int(valid.sum()))
print("Excluded pixels:", int((~valid).sum()))
for class_id, count in enumerate(counts):
print(f"Class {class_id}: {int(count)}")
Run python read_result.py <download-directory>. Expected: 262,143 valid pixels and 1 excluded pixel. Numerical parity verifies execution, not accuracy. Predictions are not ground truth.
CLASS REFERENCE
KAO-TerraMind class order. NoData: 255.
| ID | Class | Recorded pixels |
|---|---|---|
| 0 | Maize | 0 |
| 1 | Sugarcane | 0 |
| 2 | Cassava | 0 |
| 3 | Rice | 56,692 |
| 4 | Other Crops | 140,789 |
| 5 | Water | 30,262 |
| 6 | Trees | 0 |
| 7 | Flooded Veg. | 3,497 |
| 8 | Built Area | 30,900 |
| 9 | Other | 3 |
JOB LIFECYCLE
Validated internally · Engine reference
queued → running → completed. Failed and cancelled jobs do not publish result artifacts. Only queued jobs can be cancelled through DELETE /v1/jobs/<job-id>.
| Response | Next step |
|---|---|
| 401 | Use a valid credential for the intended service. |
| 429 | Respect Retry-After. Retry the same submission with the same idempotency key. |
| Observation timeout | Retain the job ID; stopping observation does not cancel an accepted job. |
| Artifact hash mismatch | Discard the bytes. Do not use or silently save an unverified result. |
Hosted jobs are not yet open. Capacity and service levels are unpublished.
Open consoleMEASUREMENT / 27 OCT 2026
The landing table reports one TerraMind 1.0 base run on an RTX 3070 with 8 GB VRAM: real 224 × 224 Sentinel-2 L2A to synthetic S1GRD, highest FP32, 8 token steps and 10 diffusion steps. Same checkpoint, input and seeds; alternating U–A–A–U.
Full input read/upload through verified saved COG and provenance, using local IPC with serial batch 1 / FIFO 3. The baseline is TerraTorch + native vLLM with an independent TerraMind adapter, corrected conventional I/O and explicit batch-one, in-process and 0.85 reservation overrides. AUREON combines resident execution, encoder reuse, denoiser CUDA graphs and descriptor I/O.
20 logical jobs plus 8 conditioning requests pass exact parity. Each arm contributes 2 sequential and 6 burst observations; all 8 matched warm delivery pairs and both execution orders favor AUREON. Warm worker-hours exclude startup and represent the audited pooled burst workload, not sequential median latency.
The original cost evidence uses 1 THB per machine-hour. Dividing those amounts by that rate gives 0.148807 upstream and 0.118213 AUREON worker-hours per 1,000 jobs. The audit derives this from summed burst windows divided by 6 jobs, scaled by 1,000 / 3,600. At the same hourly rate, normalized cost is 20.56% lower. Multiply worker-hours by your own worker-hour rate; no currency conversion, service price or provider bill is implied. The downloadable source metrics retain their original THB fields.
Elapsed timing uses CLOCK_MONOTONIC_RAW, checked against 1,900 Windows QPC samples. GPU clocks were observed, not locked: the first upstream residency was P0; the remaining residencies were P2. Both orders improve, including P2 versus P2. These are observed results for this configuration, not guaranteed performance on other hardware.
Download metrics and method summary
Exact FP32 parity measures execution fidelity, not the physical accuracy of synthetic SAR. This benchmark measured original Best wheel 0fa5ef2b9440fcc310a17c76f78df52278cbe2d354015be2046a8e4196715c97. The selected integrated e09e710c package has separate functional acceptance; these competitor percentages do not measure that package. The public alpha download and later development qualifications remain separate artifacts; the original competitive table has not been re-benchmarked.