用于缝合线自动化的 MPC

IF 3.4 Q2 ENGINEERING, BIOMEDICAL
Pasquale Marra;Sajjad Hussain;Marco Caianiello;Fanny Ficuciello
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引用次数: 0

摘要

机器人辅助手术(RAS)需要有效的控制策略,以确保安全和精确,同时在缝合和组织操作等任务中尊重机器人的物理极限。模型预测控制(MPC)具有处理复杂动态系统、预测未来响应和执行约束的固有能力,非常适合这些任务。在本文中,通过将操作空间轨迹映射到关节空间,同时确保符合系统运动学约束和安全要求,MPC 被用于自动执行缝合缝线任务。为满足缝合子任务期间的不同要求,使用了两种不同的目标函数及其相应的约束集。建议的框架使用 ACADO 工具包来解决最优控制问题(OCP),并使用 ROS 将 ACADO 与 CoppeliaSim/DVRK 连接起来。通过在CoppeliaSim中的模拟和DVRK上的实时实验验证,我们的方法在模拟中实现了小于1mm/4 ^{\circ }$的位置/方位精度,而在实际实施中的误差规范约为1.9mm$,这证实了它在自动缝合任务中的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
MPC for Suturing Stitch Automation
Robot-assisted surgery (RAS) requires effective control strategies to ensure safety and accuracy while respecting the physical limits of the robot during tasks such as suturing and tissue manipulation. Model Predictive Control (MPC), with its inherent capability to handle complex dynamic systems, predict the future response and enforce constraints, is well-suited for these tasks. In this paper, MPC is employed to automate the suturing stitch task by mapping the operational space trajectory to the joint space while ensuring compliance with system kinematics constraints and safety requirements. To address varying requirements during suturing sub-tasks, two different objective functions and their corresponding constraint sets are used. The proposed framework is implemented using the ACADO toolkit to solve the Optimal Control Problem (OCP) and ROS to connect ACADO to CoppeliaSim/DVRK. Validation through simulations in CoppeliaSim and real-time experiments on the DVRK demonstrated that our approach achieved a positional/orientational accuracy of less than $1mm/4 ^{\circ }$ in simulations, and an error norm of approximately $1.9mm$ in real world implementations, confirming its effectiveness in automating suturing task.
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CiteScore
6.80
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