preprint, 2025
Deformable packages are becoming increasingly prevalent in the logistics and warehouse industry, demanding robotic manipulation strategies that are robust and adaptive. In this work, we present a physics-driven simulation framework that accurately models multi-object deformable packages, capturing package deformations, suction-cup interactions, and internal object dynamics. By leveraging high-fidelity physics, we optimize simulation parameters using real-world trajectory and package deformation data, ensuring an accurate representation of package behavior.
IROS, 2024
Bin-packing is an important problem in the robotic warehouse domain. Traditionally, this problem has been studied only for rigid packages (e.g., boxes or rigid objects). In this work, we tackle the problem of bin-packing with deformable packages that have become a popular choice for fulfillment needs. We present a system that incorporates a dual robot arm bimanual setup, uniquely combining suction and sweeping motions to stably and reliably pack deformable packages in a bin.
Selected Projects
May 2023 - August 2023
We developed a bimanual robotic system that utilized two robots for package handling: one for placing packages into a bin and another for stowing them, achieving an 89% success rate in 100 trials. This system integrated the Yolo v8 object detection model with the MoveIt planning interface for precise package detection and handling. Additionally, I built an offline planning database that generated optimal robotic paths, enhancing the efficiency and reliability of the operation.