Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling https://t.co/lc4EtTZLsP @JForoughi @SNaficy @uowresearch
Dual high-stroke and high-work capacity artificial muscles inspired by DNA supercoiling.
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Apr 2021 – Mar 2025Where it's discussed
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News17 articles
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X / Twitter15 posts
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Blogs3 articles
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YouTube2 videos
AI synopsis
What people are saying
The group's discussions demonstrate strong interest and recognition of the study's innovative approach, with phrases like 'delighted to be part of this study' and references to 'latest research,' showing enthusiasm. The mention of 'dual high-stroke and high-work capacity' and comparisons to natural muscles emphasize the perceived significance and potential impact of this technology.
Most discussions express excitement and positive acknowledgment of the research's significance, with mentions of how innovative the artificial muscles are.
Participants show high curiosity and enthusiasm, frequently referencing detailed aspects of the study and its implications.
Posts indicate a moderate level of engagement, with some sharing of details and reactions, but limited in-depth analysis.
The discussions highlight the potential transformative role of the research in robotics and biomedical applications, suggesting high future impact.
Abstract in brief
- The research explores using DNA-inspired mechanisms to develop artificial muscles that can deliver both high stroke (movement range) and high work output, overcoming size limitations of traditional mechanical drives.
- By analyzing DNA's natural supercoiling process, the scientists designed composite double-helix fibers that can reversibly twist and untwist through swelling, mimicking DNA's ability to condense and generate mechanical work.
- These optimized fibers can achieve contraction strokes up to 90% and produce a gravimetric work output 36 times greater than natural skeletal muscles, making them a unique type of artificial muscle combining both high stroke and high work capacity.]
Top posts
Most liked on X and Bluesky@GeoffreySpinks For more details about the @SciRobotics paper: https://t.co/Ftw2GIsy7h
Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling reveals the latest research by CAFE’s theme leader Sina Naficy with colleagues from Australian Institute for Innovative Materials. https://t.co/kbEbOK8UKp
Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling https://t.co/a8TTOmjDZM
RT @MarwaEldiwiny: @GeoffreySpinks For more details about the @SciRobotics paper: https://t.co/Ftw2GIsy7h
RT @GeoffreySpinks: Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling https://t.co/lc4EtTZLsP @JForo…
All mentions
DNA-Inspired Artificial Muscles with High Stroke and Work Capacity
This overview describes innovative artificial muscles inspired by DNA supercoiling, capable of high movement range and power output, based on mechanisms that mimic DNA's natural processes for enhanced performance.
DNA-Inspired Artificial Muscles for High Stroke and Work Output
Exploring DNA-inspired mechanisms to develop artificial muscles capable of high stroke and work capacity. The study designs composite fibers mimicking DNA supercoiling to achieve significant contraction and mechanical…
RT @SNaficy: Delighted to be part of this study led by @GeoffreySpinks to develop dual high-stroke and high–work capacity artificial muscle…
RT @MarwaEldiwiny: @GeoffreySpinks For more details about the @SciRobotics paper: https://t.co/Ftw2GIsy7h
RT @MarwaEldiwiny: @GeoffreySpinks For more details about the @SciRobotics paper: https://t.co/Ftw2GIsy7h
@GeoffreySpinks For more details about the @SciRobotics paper: https://t.co/Ftw2GIsy7h
Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling reveals the latest research by CAFE’s theme leader Sina Naficy with colleagues from Australian Institute for Innovative Materials. https://t.co/kbEbOK8UKp
Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling https://t.co/zIsi06xFJv
RT @SNaficy: Delighted to be part of this study led by @GeoffreySpinks to develop dual high-stroke and high–work capacity artificial muscle…
RT @GeoffreySpinks: Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling https://t.co/lc4EtTZLsP @JForo…
RT @SNaficy: Delighted to be part of this study led by @GeoffreySpinks to develop dual high-stroke and high–work capacity artificial muscle…
RT @GeoffreySpinks: Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling https://t.co/lc4EtTZLsP @JForo…
RT @GeoffreySpinks: Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling https://t.co/lc4EtTZLsP @JForo…
RT @GeoffreySpinks: Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling https://t.co/lc4EtTZLsP @JForo…
Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling https://t.co/a8TTOmjDZM
RT @GeoffreySpinks: Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling https://t.co/lc4EtTZLsP @JForo…
Dual high-stroke and high–work capacity artificial muscles inspired by DNA supercoiling https://t.co/lc4EtTZLsP @JForoughi @SNaficy @uowresearch