2014
DOI: 10.1177/0278364914536939
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Identification and active exploration of deformable object boundary constraints through robotic manipulation

Abstract: Robotic motion planning algorithms for manipulation of deformable objects, such as in medical robotics applications, rely on accurate estimations of object deformations that occur during manipulation. An estimation of the tissue response (for off-line planning or real-time on-line re-planning), in turn, requires knowledge of both object constitutive parameters and boundary constraints. In this paper, a novel algorithm for estimating boundary constraints of deformable objects from robotic manipulation data is p… Show more

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Cited by 11 publications
(9 citation statements)
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“…Later, Khalil et al [ 15 ] used stereoscopic vision to build a 3D surface mesh from contours and colour in order to discover the deformation of non-rigid objects, and Leeper et al [ 16 ] used a low-cost stereo sensor mounted on the gripper to estimate grasp poses and to choose the best one according to a cost function based on points cloud features. More recently, Boonvisut et al [ 17 ] proposed an algorithm for the identification of the boundaries of deformable tissues, and to use it for both offline and online planning in robot-manipulation tasks. Moreover, Calli et al [ 18 ] presented a dataset to test method for manipulation tasks.…”
Section: Related Workmentioning
confidence: 99%
“…Later, Khalil et al [ 15 ] used stereoscopic vision to build a 3D surface mesh from contours and colour in order to discover the deformation of non-rigid objects, and Leeper et al [ 16 ] used a low-cost stereo sensor mounted on the gripper to estimate grasp poses and to choose the best one according to a cost function based on points cloud features. More recently, Boonvisut et al [ 17 ] proposed an algorithm for the identification of the boundaries of deformable tissues, and to use it for both offline and online planning in robot-manipulation tasks. Moreover, Calli et al [ 18 ] presented a dataset to test method for manipulation tasks.…”
Section: Related Workmentioning
confidence: 99%
“…In [13,14], they propose learning strategies based on demonstrations to get more adaptability in the system and improve the manipulation performance. In [15], boundary constraints of the deformable objects are also studied through identification and exploration of the objects. Sensory data can also be used to categorize and classify the objects depending on the values obtained while interacting with them [16].…”
Section: Introductionmentioning
confidence: 99%
“…Limited solutions yet exist for the automated classification of deformable objects in accordance with different materials they can be made of, forming classes of elastic, plastic, elasto-plastic, or rigid objects, each category calling for different handling strategies. The characterization generally involves the approximate identification of elastic parameters of a formal model, often a mass-spring model [6,11], a finite-element (FEM) representation [6,12,13], or an elaborate surface mesh model [14,15]. Parameters are typically estimated by comparing the real and simulated object subject to interaction and aiming to minimize the differences between the two.…”
Section: Introductionmentioning
confidence: 99%