A new robotic crawler is being developed for inspection of large aircraft external surfaces. The Multifunction Automated Crawling System ( M A C S ) has been designed and fabricated to carry miniature instrumentation to perform a wide variety of tasks while being attached to an aircraft's surface. The immediate application of M A C S is inspection of the exterior of large military aircraft such as the C-5. Various inspection payload modules could be incorporated onto the M A C S crawler to perform the desired inspections. M A C S employs ultrasonic motors f o r mobility and suctioncups for surface adherence. M A C S has two legs for linear motion and a rotation element for turning, enabling any simultaneous combination of motion from linear to rotation about a central axis.

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Robotic systems in manufacturing applications commonly assume known object geometry and appearance. This simplifies the task for the 3D perception algorithms and allows the manipulation to be more deterministic. However, those approaches are not easily transferable to the agricultural and food domains due to the variability and deformability of natural food. We demonstrate an approach applied to poultry products that allows picking up a whole chicken from an unordered bin using a suction cup gripper, estimating its pose using a Deep Learning approach, and placing it in a canonical orientation where it can be further processed. Our robotic system was experimentally evaluated and is able to generalize to object variations and achieves high accuracy on bin picking and pose estimation tasks in a real-world environment.

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