Multimodal data engineering
Ingest robot logs and world data, align clocks and schemas, and turn long recordings into consistent episodes across every modality.
We turn raw robot logs and multimodal world data into structured, scored, searchable training-ready datasets for VLA, robot policy, and spatial intelligence teams.
For teams building physical and multimodal models, deploying autonomous systems across embodiments, or turning real-world data into trusted assets.
Euler turns fragmented sensor streams into one inspectable data system, then carries that system through engineering, certification, annotation, curation, and delivery.
Formats, sensors, annotations, and scale stay connected as one multimodal record.
Native robot logs, dataset stores, and media enter without a one-off rewrite.
Multi-rate streams stay linked as Euler aligns the physical event they describe.
Start with a measured dataset and grow into governed, repeatable data operations.
Physical AI is the sharp edge. The same data layer also serves multimodal model teams, autonomous systems across embodiments, and partners who collect the raw world data those systems depend on.
Teams training world models, VLMs, VLA systems, spatial intelligence, and robot policies need raw multimodal data they can trust before it reaches a model.
Teams operating real-world autonomy need better feedback data from every deployment, across humanoids, vehicles, drones, robots, and industrial systems.
Capture companies, labeling platforms, and data vendors can turn raw multimodal collections into inspectable assets that buyers can evaluate and use.
Whether you train the model, deploy the embodiment, or supply the data, Euler turns raw multimodal evidence into something your next decision can trust.
Euler connects collection, quality evidence, training slices, and deployment feedback in one loop. Teams spend less effort proving the same data twice and more effort improving the model on hardware.
Model iteration waits on cleanup, review, and handoffs.
Budget leaks into rework, duplicate labeling, and low-value compute.
A shorter path from raw logs to a trainable, debuggable slice.
Engineering, labeling, and compute focus on data that can change the model.
These are measured results from public benchmarks, controlled fault tests, and recent anonymous pilots. Each result keeps its method and evidence close enough to inspect.
A recent multimodal pilot ran 392 per-recording checks with 100% required-evidence coverage. One recording was held back for a duplicated timestamp and a 15-frame stream mismatch.
Euler routes every injected timeline and camera fault to review, with AUC 0.90 across fault types while auto-accepting 96% of clean episodes.
Holdout precision 0.723 and recall 0.567 on public ground truth. The production detector was chosen by measurement, not preference.
Agreement between Euler's zero-shot success verdict and DROID's human labels, with zero labeling hours.
Distance between robot datasets versus within one, across four embodiments, with perfect nearest-neighbor purity and no per-dataset tuning. Curation spans all four.
Hybrid retrieval puts the right episode at rank one 87% of the time, over real episodes with relevance taken from human labels.
Share the data, model, deployment, or partnership you have in mind. We will map the most useful place to start with Euler.
Programs and technical ecosystems that strengthen the work behind Euler. Membership does not imply endorsement.
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