Developing an Exoskeleton Test Plan for the TALOS Program

Authors

  • Andres Martinez Department of Systems Engineering United States Military Academy West Point, NY
  • Alexander Velazquez Department of Systems Engineering United States Military Academy West Point, NY
  • Aaron Yoshizuka Department of Systems Engineering United States Military Academy West Point, NY
  • Ryan Clark Department of Systems Engineering United States Military Academy West Point, NY
  • Vikram Mittal Department of Systems Engineering United States Military Academy West Point, NY

DOI:

https://doi.org/10.37266/ISER.2016v4i2.pp156-162

Abstract

As America’s global adversaries increase their capabilities on the battlefield, US military forces must enhance warfighter’s survivability, lethality, and mobility. These needs can be met by augmenting warfighters with additional equipment. The increased use of equipment, however, creates an additional need for an exoskeleton that can support the added equipment, while also augmenting the warfighter’s mobility. Traditionally, exoskeletons have had acceptance issues related to poor operational mobility. USSOCOM is building the Tactical Assault Light Operator Suit (TALOS) as the next generation of these armored exoskeletons.  This paper explains the methodology for developing a test plan to ensure adequate mobility for the warfighter wearing the TALOS system. Operational missions were decomposed into tasks which were further broken down into individual movements.  Motion capture data was used to determine the angles and angular velocities imposed on relevant joints during these movements. This information was mapped to a set of exercises that were then compiled into a test plan, which can be used during the testing phase to ensure proper mobility for operators utilizing the system.

References

Body Digital Image. (2016). Danrotary.com 3D Character Artist. Retrieved from: http://www.danroarty.com/jfk2.jpg

Burch, G. (2001). An Examination of Land Warrior's Contribution to Combat Power on the Battlefield. Carlisle Barracks, PA: U.S. Army War College.

Carnegie Mellon University. (2016). CMU Graphics Lab - Motion Capture Library. Retrieved from: http://mocap.cs.cmu.edu/

CYBERDYNE. (2015). The World's First Cyborg-type Robot "HAL®". Retrieved from: http://www.cyberdyne.jp/english/products/HAL/

Leslie, M. (2012). The next generation of exoskeletons. A Magazine of the IEEE Engineering in Medicine and Biology Society, 3(4), 56-61.

The O&P EDGE. (2011). West Point Cadets Build Exoskeleton. Retrieved from:

http://www.oandp.com/articles/NEWS_2011-05-04_01.asp

Schechter, E. (2014). DARPA Is Getting Closer to an Iron Man Suit. Retrieved from:

http://www.popularmechanics.com/military/research/a11673/the-iron-man-suit-in-real-life-is-coming-darpa-17493769/

Stars and Stripes. (2014). Special Ops Chief McRaven Expects ‘Iron Man’ Suit by 2018. Retrieved from:

http://www.stripes.com/news/special-ops-chief-mcraven-expects-iron-man-suit-by-2018-1.266995

U.S. Army. (2012). The Army Physical Readiness Program (PRT). Washington, D.C.: Government Printing Office.

Published

2016-11-12

How to Cite

Martinez, A., Velazquez, A., Yoshizuka, A., Clark, R., & Mittal, V. (2016). Developing an Exoskeleton Test Plan for the TALOS Program. Industrial and Systems Engineering Review, 4(2), 156-162. https://doi.org/10.37266/ISER.2016v4i2.pp156-162

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