Towards a Nitinol Actuator for an Active Surgical Needle

Author:

Datla Naresh V.1,Honarvar Mohammad1,Nguyen Tuan M.1,Konh Bardia1,Darvish Kurosh1,Yu Yan2,Dicker Adam P.2,Podder Tarun K.3,Hutapea Parsaoran1

Affiliation:

1. Temple University, Philadelphia, PA

2. Thomas Jefferson University, Philadelphia, PA

3. East Carolina University, Greenville, NC

Abstract

Surgical needles, for safe and accurate percutaneaous interventions, need to be navigated accurately through the tissue and placed precisely at the targets. A novel active needle, using Nitinol wires as actuators, has been proposed to navigate the needle within the tissue. In this design, when temperature of Nitinol wire was increased by Joule heating, the material undergoes a phase transformation that produces relatively large actuating forces and strains. Using both experimental and numerical simulations, the force-temperature response of the Nitinol wires were characterized. The results indicate that increasing the applied current decreases the response time to reach maximum force, but increases the maximum temperature reached. Therefore, the chosen applied current should be high enough to produce sufficient actuation force and shorter response time, but not too high such that the lower actuator temperatures are maintained to minimize tissue damage.

Publisher

American Society of Mechanical Engineers

Cited by 10 articles. 订阅此论文施引文献 订阅此论文施引文献,注册后可以免费订阅5篇论文的施引文献,订阅后可以查看论文全部施引文献

1. Design and evaluation of shape memory alloy‐actuated active needle using finite element analysis and deflection tracking control in soft tissues;The International Journal of Medical Robotics and Computer Assisted Surgery;2023-07-24

2. Robotic hand using smart material: Nitinol;PROCEEDINGS OF THE INTERNATIONAL CONFERENCE ON ENGINEERING RESEARCH AND APPLICATION 2022 (ICERA 2022);2023

3. Finite Element Studies of Needle–Tissue Interactions for Percutaneous Procedures1;Journal of Medical Devices;2015-09-01

4. Flexure-Based Active Needle for Enhanced Steering Within Soft Tissue;Journal of Medical Devices;2015-08-06

5. X-ray Diffraction Investigations of Shape Memory NiTi Wire;Journal of Materials Engineering and Performance;2015-06-18

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