Establishing Translational Research Pipelines for Smart Devices
Establishing Translational Research Pipelines for Smart Devices
The development of a translational research path has traditionally been a haphazard approach, filtering technologies so that the ‘best of breed’ may ultimately succeed. The conversion ratio of brilliant ideas to useful devices remains suboptimal, as many ‘fail to progress’. The reality of developing biotechnology transfer and Knowledge Transfer (KT) generally, is that the ability of multidisciplinary teams (MDT) to assimilate and then act upon information is becoming the rate limiting step for the building of complex projects. The model proposed here considers both the biological aspects of Life Sciences (LS) and the establishment of Technology Readiness for its implementation.
By offering a sustainable generic structure for the assimilation and transfer of technologies, at a rate supported by the individual teams, the potential is for a standalone system able to accommodate clinical research and governance needs. The construction of a "signature", which reflects the current state of development, and through the rate progress of translation, and development of these technologies, potentially allows us to draw comparisons across different multidisciplinary environments, so as to ensure that adequate resources are allocated to assure their interoperability within agreed timescales.
A case example applying this process to the development of a ‘force sensing’ lightweight hand rim for manual wheelchairs allowed for the kinematic data to be compared with Electromyographic (EMG muscle patterning) data. This demonstrates that this strategic approach can be operationalized. By mapping the EMG signals from the basic science experiments through to clinical evaluation, the groundwork for assuring rapid integration of approaches for the afferent arm of novel ‘autosensing’ FES technologies. This integrates with work practices across disciplines, so as to create a potential ‘template’ for integration into Standard Operating Procedures (SOPs). These accommodate established ‘Good Laboratory Practice’ (GLP) and also can meet the requirements for governance of the translational research framework.
Industrialization, Knowledge Transfer, Electromyography, Wavelet analysis, Biomechanics, Muscle synergy, Rehabilitation, Principal Component Analysis, Governance
Grange, Simon
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Qi, Liping
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Frank, Cy
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Ferguson-Pell, Martin
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Holloway, Catherine
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Taylor, Stephen
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Wills, Gary
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Tyler, Nick
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9 September 2012
Grange, Simon
964762ac-15ed-4c0b-8193-9f9824fc7cbc
Qi, Liping
503c99fb-d36c-4fb6-b408-75066849b163
Frank, Cy
68b93013-9de7-48be-8a6d-c7d59dcf3aee
Ferguson-Pell, Martin
da8168ca-bc60-40ac-ab63-81190490622d
Holloway, Catherine
e8cccb43-6f80-4df5-b369-e9f8c6e30dc4
Taylor, Stephen
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Wills, Gary
3a594558-6921-4e82-8098-38cd8d4e8aa0
Tyler, Nick
fd4056f1-4302-40bc-8596-6cfaf8e56cbd
Grange, Simon, Qi, Liping, Frank, Cy, Ferguson-Pell, Martin, Holloway, Catherine, Taylor, Stephen, Wills, Gary and Tyler, Nick
(2012)
Establishing Translational Research Pipelines for Smart Devices.
IFESS 2012 conference; Smart Machines – Neural Evolution, Banff, Alberta, Canada.
5 pp
.
Record type:
Conference or Workshop Item
(Paper)
Abstract
The development of a translational research path has traditionally been a haphazard approach, filtering technologies so that the ‘best of breed’ may ultimately succeed. The conversion ratio of brilliant ideas to useful devices remains suboptimal, as many ‘fail to progress’. The reality of developing biotechnology transfer and Knowledge Transfer (KT) generally, is that the ability of multidisciplinary teams (MDT) to assimilate and then act upon information is becoming the rate limiting step for the building of complex projects. The model proposed here considers both the biological aspects of Life Sciences (LS) and the establishment of Technology Readiness for its implementation.
By offering a sustainable generic structure for the assimilation and transfer of technologies, at a rate supported by the individual teams, the potential is for a standalone system able to accommodate clinical research and governance needs. The construction of a "signature", which reflects the current state of development, and through the rate progress of translation, and development of these technologies, potentially allows us to draw comparisons across different multidisciplinary environments, so as to ensure that adequate resources are allocated to assure their interoperability within agreed timescales.
A case example applying this process to the development of a ‘force sensing’ lightweight hand rim for manual wheelchairs allowed for the kinematic data to be compared with Electromyographic (EMG muscle patterning) data. This demonstrates that this strategic approach can be operationalized. By mapping the EMG signals from the basic science experiments through to clinical evaluation, the groundwork for assuring rapid integration of approaches for the afferent arm of novel ‘autosensing’ FES technologies. This integrates with work practices across disciplines, so as to create a potential ‘template’ for integration into Standard Operating Procedures (SOPs). These accommodate established ‘Good Laboratory Practice’ (GLP) and also can meet the requirements for governance of the translational research framework.
Text
IFESS_SGrange_revised.pdf
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More information
Published date: 9 September 2012
Venue - Dates:
IFESS 2012 conference; Smart Machines – Neural Evolution, Banff, Alberta, Canada, 2012-09-09
Keywords:
Industrialization, Knowledge Transfer, Electromyography, Wavelet analysis, Biomechanics, Muscle synergy, Rehabilitation, Principal Component Analysis, Governance
Organisations:
Electronic & Software Systems
Identifiers
Local EPrints ID: 348694
URI: http://eprints.soton.ac.uk/id/eprint/348694
PURE UUID: 5626b3a0-2d2d-4a14-985c-5626d93f455d
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Date deposited: 16 Feb 2013 11:06
Last modified: 15 Mar 2024 02:51
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Contributors
Author:
Simon Grange
Author:
Liping Qi
Author:
Cy Frank
Author:
Martin Ferguson-Pell
Author:
Catherine Holloway
Author:
Stephen Taylor
Author:
Gary Wills
Author:
Nick Tyler
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