A Current Review of Human Factors and Ergonomic Intervention With Exoskeletons

A Current Review of Human Factors and Ergonomic Intervention With Exoskeletons

Thomas M. Schnieders, Richard T. Stone
Copyright: © 2021 |Pages: 23
DOI: 10.4018/978-1-7998-3432-8.ch002
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Abstract

Research and development of exoskeletons began as early as the 1960s. Recent advancement in technology has spurred a further research into the field specifically at rehabilitation and human performance augmentation. Human performance augmenting exoskeletons find use in the military, emergency services, industrial and space applications, and training. Rehabilitation exoskeletons assist in posture support and replacing lost function. Exoskeleton research is broadly broken up in this chapter by anthropometry: lower body, upper body, and extremities. The development for various anthropometry has their own unique set of challenges. This chapter provides a brief history, discusses current trends in research, looks at some of the technology involved in development, the potential benefits of using exoskeletons, and looks at the possible future improvements in research.
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Uses And Markets

In today’s market, exoskeletons are broadly placed into two primary functions: (1) rehabilitation and (2) human performance augmentation. The recent surge into exoskeleton design, research, and manufacturing has led to their use into other fields like firefighting, sports, and law enforcement. The number of journal and conference papers covering exoskeletons each year has grown exponentially from just over 100 in 1964 to well over 7,000 in 2016. The number of publications on the term ‘exoskeleton’ is most likely skewed for years prior to the 1990’s where the term was more often associated with the traditional sense of the word – that is, a rigid external covering for some invertebrate animals like arthropods.

Rocon (Rocon, E. et al. 2007) and Harwin (Harwin, W., Leiber, L., Austwick, G., and Dislis, C., 1998) classify rehabilitation robotics (and by extension rehabilitation exoskeletons) into three categories:

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