Crevier Marie-Charlotte, Richard Martin, Rittenhouse D Matheson, Roy Pierre-Olivier, Bédard Stéphane
Victhom Human Bionics Inc., Saint-Augustin-de-Desmaures, QC, Canada.
Biomed Mater. 2007 Mar;2(1):S1-6. doi: 10.1088/1748-6041/2/1/S01. Epub 2007 Mar 2.
In pursuing the development of bionic devices, Victhom identified a need for technologies that could replace current motorized systems and be better integrated into the human body motion. The actuators used to obtain large displacements are noisy, heavy, and do not adequately reproduce human muscle behavior. Subsequently, a project at Victhom was devoted to the development of active materials to obtain an artificial exomuscle actuator. An exhaustive literature review was done at Victhom to identify promising active materials for the development of artificial muscles. According to this review, metal hydrides were identified as a promising technology for artificial muscle development. Victhom's investigations focused on determining metal hydride actuator potential in the context of bionics technology. Based on metal hydride properties and artificial muscle requirements such as force, displacement and rise time, an exomuscle was built. In addition, a finite element model, including heat and mass transfer in the metal hydride, was developed and implemented in FEMLAB software.
在追求仿生设备的发展过程中,维克托姆公司认识到需要能够取代当前电动系统并更好地融入人体运动的技术。用于获得大位移的致动器噪音大、重量重,并且不能充分再现人体肌肉行为。随后,维克托姆公司的一个项目致力于开发活性材料以获得人造外肌致动器。维克托姆公司进行了详尽的文献综述,以确定用于开发人造肌肉的有前景的活性材料。根据该综述,金属氢化物被确定为用于人造肌肉开发的有前景的技术。维克托姆公司的研究重点是在仿生技术背景下确定金属氢化物致动器的潜力。基于金属氢化物的特性以及诸如力、位移和上升时间等人造肌肉要求,制造了一个外肌。此外,还开发了一个包括金属氢化物中传热和传质的有限元模型,并在FEMLAB软件中实现。