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Plyoq Layup & Fiber Placement Voidra Defect Sensing & NDT Curevo Cure & Consolidation Strandix Laminate & Cure Digital Twin Roboply Robotics & Handling Yieldex Yield & Orchestration Request a pilot
Robotics & Handling

Roboply

Robotic hands for the composites factory — trim, drill, handle, assemble.

Vision-guided autonomous robots for ply handling, tool loading and part movement — plus robotic trimming, drilling and bonding — driven by Isaac perception and coordinated with the rest of the Curelum loop.

PART · TRIM PATH ISAAC PERCEPTION · ±0.1mm
±0.1mm
Trim tolerance
vision-guided
0%
Context-aware
uses defect & placement maps
0
Fixed re-tooling
adapts to part variation
Less manual handling
of hazardous carbon dust
The problem

Why this step condemns parts

Around layup and cure sits a chain of dangerous, precise, craft-bound manual work: ply handling and kitting, tool loading, part movement, and post-cure trimming, drilling and bonding. Carbon dust is hazardous, tolerances are tight on flight-critical parts, and scarce cleared technicians spend hours on repetitive tasks. Fixed automation is brittle and cannot adapt to part variation or the positional data the rest of the factory already senses.

Curelum closes the loop
Robotic hands for the composites factory — trim, drill, handle, assemble.
— Roboply, part of the Curelum autonomy platform
How it works

A closed perceive → decide → act loop

No open-loop hoping. Roboply senses, reasons against the qualified envelope, acts within bounds, and logs every action.

Perceive the part

Isaac-based perception locates the part, its features and its as-built geometry from the shared Curelum context.

Plan the action

Grasp, trim, drill or bond paths are planned against the part’s real geometry and defect map — not a fixed program.

Execute to tolerance

Robots handle, kit, load, move, trim, drill and bond to flight-critical tolerance, adapting to variation.

Coordinate the cell

Actions are sequenced with Plyoq, Curevo and Yieldex so robots act on the same context as the rest of the line.

Capabilities

What Roboply does on the line

Vision-guided handling

Ply handling, kitting, tool loading and part movement, autonomously.

Robotic trim / drill / bond

Post-cure trimming, drilling and bonding to ±0.1mm tolerance.

Context-aware actions

Uses Plyoq placement and Voidra defect maps to adapt in real time.

Safer operations

Removes technicians from hazardous carbon-dust and repetitive tasks.

Isaac + Jetson

GPU perception and grasping on the factory edge.

Action traceability

Every robotic action logged to the part record.

PART · TRIM PATH ISAAC PERCEPTION · ±0.1mm
Read the process

Instrumented, not guessed

Every Roboply readout maps to a real measurement on the floor — tow geometry, cure trajectory, C-scan integrity, or predicted strength. The interface is precision test equipment: numbers you can certify, not a dashboard of vanity charts.

  • Grounded, auditable outputs on every action
  • Bounded control envelopes from the Strandix twin
  • Human-in-the-loop on flight-critical decisions
  • Immutable audit trail for AS9100 / NADCAP
Specifications

Built for the composites floor

Roboply deploys on the factory edge and integrates with the systems you already run, under your security and export controls.

TasksHandling, kitting, tool load, movement, trim, drill, bond
PerceptionIsaac-based vision & grasping
Tolerance±0.1mm on flight-critical features
AdaptationPart-variation aware, no fixed re-tooling
CoordinationShared context with Plyoq, Voidra, Curevo, Yieldex
ComputeJetson factory-edge, Isaac perception
Integrations

Fits your stack, under your controls

AFP / ATL controllers

Autoclave / OOA

Ultrasonic & thermographic NDT

MES / ERP

OPC-UA / OT

Historian & PLM

Assurance first

Trust before autonomy

Roboply runs in shadow, then assist, then bounded autonomy — grounded, auditable, and human-supervised at every airworthiness-critical checkpoint.

FAQ

Questions engineers ask

Do we need new robots?

Roboply drives industrial robot arms with Isaac-based perception; it can work with common robot platforms rather than requiring bespoke hardware.

How is it safer than fixed automation?

It adapts to part variation using shared perception, so it handles real geometry rather than assuming a fixed program, and it removes people from hazardous dust and repetitive tasks.

Does it coordinate with the rest of Curelum?

Yes — it consumes placement and defect context so robots act on the same part timeline as layup, cure and NDT.

Put Roboply on your line

Start with one cell, a hard success metric, and a paid pilot. Prove ROI, then expand across the loop.