Engineering service

Spatial Computing Development

Commission a spatial application around a real user task, with explicit scene formats, device support and tracking limitations.

The engagement, plainly

What this service delivers.

A spatial engagement starts with the decision a user needs to make, not a rendering technique. Select a target device, define the interaction and assess whether the available scene assets can support it.

Discuss this service
  1. Task, device and asset audit
  2. Scene ingestion and coordinate checks
  3. Viewer and accessible interaction
  4. Device testing and fallback behaviour

An illustrative starting scope

An illustrative remote-inspection viewer could let an operator navigate a captured scene and open its original photographs. It would not certify dimensions or authorize equipment changes. Tracking loss and missing coverage must remain visible.

Who this is for

  • Product teams building spatial interfaces
  • Operations teams exploring remote visual inspection
  • Training teams evaluating AR/VR workflows

Workflows

  • Scene capture and viewer prototyping
  • Interactive spatial walkthroughs
  • Object-linked information overlays
  • Device-specific AR/VR applications

What we need

  • Target devices and runtime
  • Scene assets and rights to use them
  • User tasks and accessibility needs
  • Tracking, network and privacy constraints

What you receive

Device-specific prototype and compatibility report

Scene ingestion and interaction implementation

Tracking-loss and performance evaluation

Deployment and asset-update instructions

Acceptance and handover

Test loading, sustained frame time, input methods and tracking recovery on the named devices. Agree asset size limits and offline behaviour. Deliver the supported-device list and known blind spots; browser and headset parity is not assumed.

Integration and deployment

Agree scene formats, coordinate units and asset rights. Connect annotations to original images or records rather than treating a rendered scene as ground truth.

Validate the named browser or headset runtime, input methods and resource limits. Test scene loading and provide a non-immersive fallback when appropriate.

Security and human review

Test tracking loss and alignment errors with representative users. Measurement and high-impact decisions require independent verification beyond visual realism.

Boundaries

A visual reconstruction is not a certified measurement

Runtime and input support vary by device

Tracking loss needs an explicit fallback

High-impact decisions require independent verification

Common questions

What teams ask before starting.

Will one application work on every headset and browser?

Not automatically. Graphics features, sensors and controls vary. Start with named target devices, validate the required interactions and provide a non-immersive fallback where appropriate. Expansion is a separately tested scope.

What does a spatial computing development engagement need to begin?

A defined workflow, representative examples, and the relevant integration, deployment, and governance constraints. Typical inputs include target devices and runtime, scene assets and rights to use them, user tasks and accessibility needs, tracking, network and privacy constraints.

How does Alector Lab validate the system?

We agree acceptance criteria, test against representative data, document failure modes, and add regression checks before staged production use.

What should this system not be used for?

A visual reconstruction is not a certified measurement Runtime and input support vary by device Tracking loss needs an explicit fallback High-impact decisions require independent verification

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