Devices for Mobility and Manipulation for People with Reduced Abilities
CRC Press – 2014 – 232 pages
The development and application of assistive technology can help those with reduced abilities improve their quality of life and reduce their dependence on others. Written in layman’s terms, Devices for Mobility and Manipulation for People with Reduced Abilities provides research and information on assistive technologies for non-technical people. While it highlights various mobility and manipulative technologies, with the exception of specific examples within the text, it keeps technical terminology, equations, and software details to a minimum. It presents technical material in a digestible way for people with reduced abilities as well as for their caregivers.
Each chapter covers a specific technology, and starts with a general introduction of that technology, followed by the technical details and an assessment from the user’s viewpoint. This includes the user benefits and suitability, cost, reliability, and required infrastructure. The chapter also provides illustrations or photographs of the devices, and identifies shortcomings, current research related to the technology, and possible development opportunities. Each chapter provides the range of specifications for the equipment and includes a list of manufacturers.
This book provides clinicians, users, and engineers with the details of different technologies, and also includes a guide to the technology that underpins each of these devices, making it easier for people to understand the devices. References are also included for scientists, designers, and other tech-savvy professionals interested in further information.
Technical descriptions and specifications
Description of Smart wheelchairs
Autonomous Wheelchairs over 20 years
Details of the Wheelchair Control and Command System
Descriptions of Smart Walkers
Interface Design Description of Smart Walkers
Navigation and Localization
Other Features of Smart Walkers
Detail design of Smart Walker – UFES Example
Assistive Technologies for Developing Cognitive Skills
Features of ADCS
Measuring the success of ADCS
Example of ADCS-
Upper limb Prosthesis Devices
Current Prosthetic devices
Teodiano Freire Bastos-Filho received his degree in electrical engineering from the Universidade Federal do Espírito Santo, Vitória, Brazil, in 1987, and his Ph.D. in physical sciences from the Universidad Complutense de Madrid, Madrid, Spain, in 1994. He is with the Department of Electrical Engineering, Universidade Federal do Espírito Santo, Vitória, Brazil, and the Brazilian National Council for Scientific and Technological Development (CNPq). His research interests include signal processing, rehabilitation robotics, and assistive technologies.
Dinesh K Kumar received his PhD from IIT Madras, and his PhD in biomedical engineering from IIT Delhi and AIIMS, Delhi. He is professor and leader of biomedical engineering at RMIT University, Melbourne, Australia. He has published over 330 refereed papers in the field, and his interests include muscle control, affordable diagnostics, and human computer interface. He is an editor of multiple journals, chairs a range of conferences related to biomedical engineering, and in his spare time enjoys walking in nature.
Sridhar Poosapadi Arjunan received his B.Engg degree in electronics and communication from University of Madras, India in 2000; M.Engg degree in communication systems from Madurai Kamaraj University, India in 2002; and his PhD in biomedical signal processing from RMIT University, Australia in 2009. He is currently a post-doctoral research fellow with Biosignals Lab at RMIT University. He is a recipient of RMIT SECE Research Scholarship (2006-08), CASS Australian Early Career Researcher grant (2010), and Australia-India ECR fellowship (2013). His major research interests include biomedical signal processing, rehabilitation study, fractal theory, and human computer interface applications.