Robotic Manipulation
Robots use vision, control software, and robotic arms to pick, place, move, inspect, and operate equipment in production and lab workflows.
Business impact
- Throughput — Ginkgo says its lab runs day and night and uses 100+ RACs, which indicates higher continuous workflow capacity.
- Manual labor required — The cases point to robotic handling of tasks that would otherwise require people, including sample transport, part placement, and maintenance work.
- Task completion speed — Araceli says Endeavor images a 1536-well plate in under four minutes, and Stellantis uses vision guidance to speed robot pick-and-place operations.
Data requirements
- Images from cameras and 3D vision systems (image) — Used to locate objects and read instruments in the robotic workflows.
- Machine-learning data and knowledge databases (tabular) — ALIAS uses machine learning software and access to knowledge gained by other installations.
- Lab imaging data (image) — Ginkgo and Araceli use high-content imaging data for analysis and quality checks.
AI methods and techniques
- Computer vision — Used to locate parts, read cockpit instruments, and analyze images as the robot works.
- Machine learning — Used to learn how to operate aircraft controls and support robot guidance.
- Real-time analysis — Used in the lab workflow to check imaging results as each well is captured and flag issues immediately.
- 3D vision — Used at Stellantis to locate cylinder heads on pallets and guide robot motion.
Industries
Real-world evidence
6 documented case studies on record.
Companies using this: Stellantis, DARPA, Aurora Flight Sciences, BMW, Ginkgo Bioworks, NASA.
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