Synopsis of Social media discussions
The overall tone suggests a positive reception, with users describing the research as a 'high-energy' breakthrough and referencing its potential to revolutionize robotic movement and energy storage. Phrases like 'could someday help robots' and 'potential application' demonstrate a forward-looking perspective, while mentions of supramolecular nanostructures and energy density reflect interest in the scientific innovations involved.
Agreement
Moderate agreementMost discussions acknowledge the significance of the research, highlighting its potential applications and advancements.
Interest
Moderate level of interestThe posts express curiosity about the technology, especially its use in robotics and energy storage.
Engagement
Moderate level of engagementSeveral discussions reference specific mechanisms and potential impacts, indicating moderate deep engagement.
Impact
Moderate level of impactThe group perceives the research as impactful, with mentions of future applications like robotic muscles and energy systems.
Social Mentions
YouTube
2 Videos
11 Posts
Blogs
5 Articles
News
24 Articles
Metrics
Video Views
118,344
Total Likes
443
Extended Reach
273,483
Social Features
42
Timeline: Posts about article
Top Social Media Posts
ACS Central Science
#ASAP by @zhenanbao & team @StanfordEng
They report an approach to achieve a high energy density shape memory polymer based on the formation of strain-induced supramolecular nanostructures, which immobilize stretched chains to store entropic energy: https://t.co/EXtDeabPIo https://t.co/wEIiJ46ddD
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ACS Central Science
Shape-memory polymers designed in view of thermomechanical energy storage and conversion systems
Check out #FirstRxns https://t.co/KheypzhwDN by Andreas Lendlein & Matthias Heuchel @HereonHelmholtz on research https://t.co/c8sdr2lAS4 by @zhenanbao & co-workers! https://t.co/sMHHVKnsvx
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Learn AI
High-energy shape memory polymer could someday help robots flex their muscles https://t.co/ZwdZEXPgSq via @YouTube
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MedicalFeed
High-energy shape memory polymer could someday help robots flex their muscles https://t.co/lVtfm1tCBQ via @YouTube
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Rob Field, PVC Science, UEA
RT @ACSCentSci: #ASAP by @zhenanbao & team @StanfordEng
They report an approach to achieve a high energy density shape memory polymer base…
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Posts referencing the article
Innovative Shape Memory Plastic Mimics Muscle Function for Robotics
Scientists at Stanford developed a new shape memory polymer that acts like a muscle, lifting objects 5000 times its weight when heated. This low-cost, lightweight material has potential for robotics, wearable devices, and healthcare applications.
May 24, 2025
117,713 views
Advanced Shape Memory Polymer Enhances Robotic Muscle Flexibility
This research introduces a new type of shape memory polymer that can store much more energy (up to 1.96 MJ/m³) than previous versions by forming strain-induced supramolecular nanostructures, which help trap stretched chains in a highly elongated state. When heated, these nanostructures break, allowing the polymer to recove
September 10, 2021
632 views
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Shape-memory polymers designed in view of thermomechanical energy storage and conversion systems Check out #FirstRxns https://t.co/KheypzhwDN by Andreas Lendlein & Matthias Heuchel @HereonHelmholtz on research https://t.co/c8sdr2lAS4 by @zhenanbao & co-workers! https://t.co/sMHHVKnsvx
view full postOctober 8, 2021
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Takuya Ichise
@tichise (Twitter)人工筋肉になる形状記憶ポリマー。 https://t.co/uQEupz44dJ
view full postSeptember 24, 2021
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Learn AI
@TamilTechNews (Twitter)High-energy shape memory polymer could someday help robots flex their muscles https://t.co/ZwdZEXPgSq via @YouTube
view full postSeptember 17, 2021
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Rob Field, PVC Science, UEA
@Rob_Field_Lab (Twitter)RT @ACSCentSci: #ASAP by @zhenanbao & team @StanfordEng They report an approach to achieve a high energy density shape memory polymer base…
view full postSeptember 16, 2021
3
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Will Henderson
@hendersonwill94 (Twitter)RT @ACSCentSci: #ASAP by @zhenanbao & team @StanfordEng They report an approach to achieve a high energy density shape memory polymer base…
view full postSeptember 16, 2021
3
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Mustafa O. Guler
@mustafaoguler (Twitter)RT @ACSCentSci: #ASAP by @zhenanbao & team @StanfordEng They report an approach to achieve a high energy density shape memory polymer base…
view full postSeptember 16, 2021
3
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ACS Central Science
@ACSCentSci (Twitter)#ASAP by @zhenanbao & team @StanfordEng They report an approach to achieve a high energy density shape memory polymer based on the formation of strain-induced supramolecular nanostructures, which immobilize stretched chains to store entropic energy: https://t.co/EXtDeabPIo https://t.co/wEIiJ46ddD
view full postSeptember 16, 2021
9
3
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MedicalFeed
@MedicalFeed (Twitter)High-energy shape memory polymer could someday help robots flex their muscles https://t.co/lVtfm1tCBQ via @YouTube
view full postSeptember 10, 2021
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Smart Materials Lab
@materials_lab (Twitter)Low cost shape memory polymer with potential application in artificial robotic muscles and many more. https://t.co/NO6Pxbzo4T
view full postSeptember 9, 2021
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いなんず
@inanzu (Twitter)1立方センチあたり17.6Jの運動エネルギーを保持ってのがすごい https://t.co/sMigL3WbZm
view full postSeptember 8, 2021
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Ordo Fraterna Fibonacci
@OrdoFibonacci (Twitter)High Energy Density Shape Memory Polymers Using Strain-Induced Supramolecular Nanostructures https://t.co/NcgNisj1rm
view full postSeptember 8, 2021
Abstract Synopsis
- This research introduces a new type of shape memory polymer that can store much more energy (up to 1.96 MJ/m³) than previous versions by forming strain-induced supramolecular nanostructures, which help trap stretched chains in a highly elongated state.
- When heated, these nanostructures break, allowing the polymer to recover its original shape and release stored energy.
- This approach significantly boosts energy density while maintaining excellent shape recovery and fixity, opening new possibilities for the practical use of shape memory polymers in high-energy applications.]
ACS Central Science
@ACSCentSci (Twitter)