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Dexset

— Use Case · Navigation & Scene Understanding

Help robots read the spaces they move through.

Before a robot can act in a space, it has to understand it: layout, obstacles, people, and the way scenes change. dexset builds navigation and scene-understanding datasets from the environments where your robot will operate.

Retail shelf stocking task

Scene capture · Retail aisle

— Capabilities

What navigation datasets capture.

Indoor route capture

Traversals through warehouses, stores, facilities, and homes with route and waypoint metadata.

Obstacle interaction

Static and dynamic obstacles — carts, people, spills, clutter — encountered and navigated in real time.

Spatial layout metadata

Floor plans, zone tags, and landmark annotations that ground video in spatial structure.

Scene segmentation

Pixel-level labels for floors, walls, fixtures, people, and traversable space.

Lighting and clutter variation

The same routes captured across conditions, shifts, and seasons for robust coverage.

Temporal context

Sequential labels that capture how scenes evolve — doors open, people move, layouts change.

— In Scope

Environments covered.

WarehousesRetail floorsOfficesResidential interiorsClinical corridorsIndustrial facilitiesMixed pedestrian spacesOutdoor approaches

— Compliance & Trust

Compliant by design, across every dataset.

From first consent form to final delivery, dexset workflows are built to meet data protection, security, and labor standards across the regions where we capture and the regions where our customers operate.

Informed consent

Every participant is briefed and signs a release before capture begins. Consent records attach to each clip, and withdrawal requests are honored across all delivered versions.

Privacy protection

Face blurring, anonymization, and exclusion zones are applied wherever required. We minimize personal data by design and never collect more than the task brief demands.

Data security

Footage is encrypted in transit and at rest, with role-based access controls, signed delivery URLs, and per-recipient transfer records on every dataset.

Regional compliance

Capture and delivery workflows are designed to align with GDPR and UK GDPR, CCPA/CPRA, PIPL, APPI, and LGPD requirements, with regional data-residency options where needed.

Traceability & audit

Source, consent, capture, environment, and annotation records persist for every dataset, supporting audits that run from raw footage to the exported training file.

Responsible sourcing

Capture operators, demonstrators, and annotators are fairly paid and work under documented, safe conditions — quality data should never come from exploitative labor.

GDPRUK GDPRCCPA / CPRAPIPLAPPILGPDData residency options: EU · US · APAC

— What Teams Say

Trusted by robotics teams.

★★★★★

“The egocentric hand-pose labels are the best we have evaluated. Our grasp success rate improved 18% after one fine-tuning round.”

Priya Raman
Manipulation Lead, AI Robotics Company

★★★★★

“Coverage scoring meant we knew exactly what variation we were missing before training, not after burning a GPU budget on it.”

Sofia Almeida
Perception Engineer, AI Robotics Company

★★★★★

“We sent one task brief and got back a dataset that loaded into our pipeline on the first try. Custom schema, zero rework.”

Marcus Chen
ML Infrastructure Lead, Independent Robotics Vendor

— FAQ

Frequently asked questions.

What navigation data do you collect?

Route traversals through real facilities with waypoint metadata, static and dynamic obstacle encounters, scene segmentation labels, spatial layout annotations, and repeated passes across lighting and clutter conditions.

Warehouses, retail floors, offices, residential interiors, clinical corridors, industrial facilities, and mixed pedestrian spaces — matched to where your robot will actually move.

Pixel-level segmentation for floors, walls, fixtures, people, and traversable space, plus zone tags and landmark annotations that ground each frame in the facility’s spatial structure.

Yes. Sequential labels track doors opening, people moving, and layouts shifting across passes and shifts, giving models the temporal context static maps cannot provide.

What space does your robot move through?

We capture routes and scenes from environments matched to your deployment.