使用弹性体膜和过驱动技术的铁流体可变形反射镜的动态响应

IF 6.7 3区 工程技术 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC International Journal of Optomechatronics Pub Date : 2018-01-02 DOI:10.1080/15599612.2018.1465147
M. Rochette, E. Borra, Jean-Philippe Déry, A. Ritcey
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引用次数: 1

摘要

本文介绍了用电磁驱动器控制的铁流体变形镜的实验结果。使用通过单个致动器的阶跃输入,我们获得了100的稳态稳定时间 太太然而,可以使用不同的过驱动输入组合将其减少到25 ms。还讨论了一种新技术,该技术包括在铁磁流体上铺设一层涂有铝膜的弹性体膜。通过在铁磁流体上添加膜,它将时间响应进一步降低了2倍。此外,薄铝层提高了反射镜的反射率。最后,将薄膜和超速驱动技术相结合,时间响应提高了20倍。数值模拟表明,使用膜和改进的电子器件的铁流反射镜应该达到一毫秒量级的沉降时间。据推测,甚至更低的沉降时间也是可能的。
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Dynamic response of ferrofluidic deformable mirrors using elastomer membrane and overdrive techniques
Abstract The experimental results obtained with a ferrofluidic deformable mirror controlled by electro-magnet actuators are presented here. Using a step input through a single actuator, we obtained a steady-state settling time of 100 ms; however, different combinations of overdrive inputs can be used to decrease it to 25 ms. A new technique which consists of laying down an elastomer membrane, coated with an aluminum film, on the ferrofluid is also discussed. By adding the membrane on the ferrofluid, it further decreases the time response by a factor of 2. Furthermore, the thin aluminum layer improves the reflectivity of the mirror. Finally, using the membrane and the overdrive techniques combined, the time response is improved by a factor of 20. Numerical simulations show that ferrofluidic mirrors using membranes and improved electronics should reach settling times of the order of a millisecond. Presumably, even lower settling times could be possible.
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来源期刊
International Journal of Optomechatronics
International Journal of Optomechatronics 工程技术-工程:电子与电气
CiteScore
9.30
自引率
0.00%
发文量
3
审稿时长
3 months
期刊介绍: International Journal of Optomechatronics publishes the latest results of multidisciplinary research at the crossroads between optics, mechanics, fluidics and electronics. Topics you can submit include, but are not limited to: -Adaptive optics- Optomechanics- Machine vision, tracking and control- Image-based micro-/nano- manipulation- Control engineering for optomechatronics- Optical metrology- Optical sensors and light-based actuators- Optomechatronics for astronomy and space applications- Optical-based inspection and fault diagnosis- Micro-/nano- optomechanical systems (MOEMS)- Optofluidics- Optical assembly and packaging- Optical and vision-based manufacturing, processes, monitoring, and control- Optomechatronics systems in bio- and medical technologies (such as optical coherence tomography (OCT) systems or endoscopes and optical based medical instruments)
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