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一种基于压电电机的微致动器产生的用于连续颌骨牵张的牵张器。

A piezoelectric motor-based microactuator-generated distractor for continuous jaw bone distraction.

作者信息

Park Jong-Tae, Lee Jae-Gi, Kim Soo-Yeon, Kim Gyu-Hag, Hu Kyung-Seok, Cha Jung-Yul, Kim Hyung Jun, Kim Hee-Jin

机构信息

Division in Anatomy and Developmental Biology, Department of Oral Biology, Human Identification Research Center, Brain Korea 21 Project, Yonsei University College of Dentistry, Seoul, South Korea.

出版信息

J Craniofac Surg. 2011 Jul;22(4):1486-8. doi: 10.1097/SCS.0b013e31821d196b.

Abstract

Distraction osteogenesis is widely applied to correct oral and maxillofacial deformities, and intermittent distraction protocols have been used in various clinical applications. There are many challenges for continuous distraction of the jaw bone such as when using hydraulic motors and motor-driven plates. The size of the motor is critical to the ability to miniaturize the complete distractor system, and the importance of size makes it difficult to extrapolate the results of animal models to the clinical situation. This study developed a microactuator-generated distractor (MAGD) for continuous jaw bone distraction. The MAGD system consists of control software based on Microsoft Windows and a Squiggle piezoelectric motor. The system allows various intermittent and continuous distraction protocols to be simply selected using the control software. The maximum force of the laboratory-scale MAGD is 3 N, and the device is ready for adoption in small-animal distraction models such as the rat and mouse. The MAGD needs further refinement before it can be applied to humans, but a fully implanted MAGD system will reduce soft-tissue complications resulting from exposure of the extraoral component. Moreover, the MAGD will support the patient's social activities and require only minimal cooperation from the patient.

摘要

牵张成骨术被广泛应用于矫正口腔颌面部畸形,间歇牵张方案已在各种临床应用中使用。在颌骨连续牵张方面存在许多挑战,例如在使用液压马达和电动板时。马达的尺寸对于使整个牵张器系统小型化的能力至关重要,而尺寸的重要性使得难以将动物模型的结果外推至临床情况。本研究开发了一种用于颌骨连续牵张的微驱动器产生式牵张器(MAGD)。MAGD系统由基于微软视窗的控制软件和一个Squiggle压电马达组成。该系统允许使用控制软件简单地选择各种间歇和连续牵张方案。实验室规模的MAGD的最大力为3 N,该装置已准备好在大鼠和小鼠等小动物牵张模型中应用。MAGD在应用于人类之前需要进一步改进,但完全植入的MAGD系统将减少因口外部件暴露而导致的软组织并发症。此外,MAGD将支持患者的社交活动,并且只需要患者极少的配合。

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