THESIS
2019
xi, 60 pages : illustrations (some color) ; 30 cm
Abstract
In this thesis, a complete software pipeline integrated with a set of novel robotic manipulation
techniques for simple gripping devices is devised and implemented. This work has been motivated by a variety of applications in industrial product packaging scenarios, which require picking objects of small thickness from unstructured piles placed on a flat
supporting ground and proceeding to other subsequent tasks such as carton folding and packaging after picking. Desirable robotic solutions is expected to be robust, stable and
easily deployable with minimalistic hardware settings applicable. The challenge of the
effective solution to these tasks relates to design complete end-to-end software architecture
that appropriately integrate multiple components incorporating both perception a...[
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In this thesis, a complete software pipeline integrated with a set of novel robotic manipulation
techniques for simple gripping devices is devised and implemented. This work has been motivated by a variety of applications in industrial product packaging scenarios, which require picking objects of small thickness from unstructured piles placed on a flat
supporting ground and proceeding to other subsequent tasks such as carton folding and packaging after picking. Desirable robotic solutions is expected to be robust, stable and
easily deployable with minimalistic hardware settings applicable. The challenge of the
effective solution to these tasks relates to design complete end-to-end software architecture
that appropriately integrate multiple components incorporating both perception and
execution.
This work proposes an end-to-end pipeline for addressing a range of packaging-related
tasks, which is implemented by a simple conventional parallel-jaw gripper installed on industrial
robot arms with multiple sensing modalities. The robotic techniques include key
manipulation primitives featuring in-hand manipulation that we call tilt-and-pivot manipulation
and other non-prehensile manipulation. The result is an autonomous integrated
system for (1) picking thin objects from unordered bin, (2) performing other relevant
object handling tasks, which constitutes complete and complex manipulation tasks, (3)
performing collision check in simulation environment; which are validated with extensive
verification through experiments.
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