INDUSTRIAL ROBOTICS • ENGINEERING DEMONSTRATOR • IP CANDIDATE

Buyer Technical & IP Dossier

Flexible Line Recovery Robot is a proposed physical/software architecture for recovering disordered flexible lines in a constrained, observable environment and moving them toward an organized output state.

What is being developed

Controlled recovery field

A shallow chamber creates a repeatable workspace instead of asking a conventional arm to solve an unconstrained pile.

Distributed handling

Independent compliant modules can acquire, slide, create slack, separate, transfer and release local line sections.

Line-state representation

The controller tracks endpoints, segments, crossings, loops, tension class, module ownership and verified state.

Closed-loop recovery

Actions are executed, physically checked, committed only after verification, or rolled back to a verified state.

Proposed system loop

OBSERVE → MAP → SELECT ACTION → EXECUTE → VERIFY → COMMIT / ROLLBACK → ORGANIZE

IP boundary under investigation

The current investigation is not based on broad claims of cable untangling. Robotic cable untangling, recovery actions, RGB-D perception and industrial cable error recovery are already established research areas. Recent work continues to demonstrate autonomous error recovery for industrial cable routing. citeturn0search0

The narrower candidate combination being documented is: constrained recovery chamber + distributed compliant handling + topology/tension line-state + slack-first action selection + physical-response verification + verified-state rollback + alternate action + controlled organization output.

This page describes an IP candidate and engineering architecture. It does not establish novelty, patentability, freedom to operate, or legal protection. A professional patent search, claim chart, inventor review and freedom-to-operate analysis are required before any filing or commercial commitment.

Evidence status

Area	Current evidence	Next evidence required
Architecture	Documented software, mechanism, control and safety architecture	Engineering review
Software behavior	Interactive browser simulation and fault-injection scenarios	Measured prototype trials
Physical mechanism	Prototype build specification and BOM	Bench prototype
Recovery performance	Not physically validated	Repeatable test dataset
IP position	Boundary matrix and prior-art landscape	Professional patent/claim review

Buyer development path

Stage 1 — Bench

Build one handling module and a small recovery field. Validate sensing, compliant acquisition and controlled slack creation.

Stage 2 — Multi-module

Add transfer between modules and test crossings, loops, failed grasps and recovery actions.

Stage 3 — Pilot

Run representative cable/cord/rope classes, collect repeatability data and integrate organization output.

Stage 4 — Productization

Engineer production mechanics, safety functions, controls, serviceability and application-specific tooling.

Technical materials

Product demonstration · Recovery simulation · Prototype build specification · Control package · Prototype BOM · Test protocol · IP boundary matrix · Prior-art landscape