Synopsis of Social media discussions
Analysis of the discussions reveals a focus on the innovative aspects of the new keratin-based shape-memory materials, with examples like highlights on recycling wool and creating novel bioengineering structures. Words like 'shown,' 'recycle,' and 'build' convey both optimism and recognition of significant technological breakthroughs, reflecting positive engagement with the article's implications.
Agreement
Moderate agreementMost posts express positive reactions, highlighting the innovative nature of the material and its potential applications, indicating general agreement with the significance of the research.
Interest
High level of interestThe discussions show high curiosity and enthusiasm, especially emphasizing recycling and new possibilities in bioengineering, reflecting strong interest.
Engagement
Moderate level of engagementCommenters reference specific features like shape-memory and recycling, suggesting moderate to deep involvement with the tech and implications.
Impact
Moderate level of impactThe posts hint at meaningful advancements, such as building new structures from recycled wool and sustainable materials, implying potential influence for future research or industry applications.
Social Mentions
YouTube
2 Videos
2 Posts
9 Posts
Blogs
10 Articles
News
33 Articles
Metrics
Video Views
1,082
Total Likes
30
Extended Reach
544,925
Social Features
56
Timeline: Posts about article
Top Social Media Posts
Posts referencing the article
Bioinspired Shape-Memory 3D-Printed Keratin Scaffolds
Researchers developed a keratin-based material with long-range molecular order that enhances shape-memory properties through hydration, enabling scalable production of biocompatible 3D-printed structures for bioengineering and smart textiles.
Bioinspired Keratin-Based Shape-Memory Fibers for Smart Materials
Researchers developed a keratin-based material with long-range molecular order that enhances shape-memory properties through hydration. This bioinspired, hierarchically structured material transforms via α-helix to β-sheet transition, enabling scalable production for bioengineering and smart textiles.
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RT @mustafaoguler: A bioinspired and hierarchically structured shape-memory material @NatureMaterials https://t.co/5EvQeKniUV
view full postNovember 11, 2020
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The Mata Lab
@Mata_Lab (Twitter)RT @mustafaoguler: A bioinspired and hierarchically structured shape-memory material @NatureMaterials https://t.co/5EvQeKniUV
view full postNovember 10, 2020
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Gary Beane
@pollinus66 (Twitter)RT @mustafaoguler: A bioinspired and hierarchically structured shape-memory material @NatureMaterials https://t.co/5EvQeKniUV
view full postNovember 10, 2020
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Mustafa O. Guler
@mustafaoguler (Twitter)A bioinspired and hierarchically structured shape-memory material @NatureMaterials https://t.co/5EvQeKniUV
view full postNovember 10, 2020
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Global Academy Jobs
@AcademyJobs (Twitter)RT @DrFrancoisChung: Wool-like material can remember and change shape: « With this project, we have shown that not only can we recycle wool…
view full postSeptember 10, 2020
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François Chung
@DrFrancoisChung (Twitter)Wool-like material can remember and change shape: « With this project, we have shown that not only can we recycle wool but we can build things out of the recycled wool that have never been imagined before. » @hseas #keratin #clothes #bioengineering https://t.co/pZHIC5tHQF
view full postSeptember 10, 2020
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Carlos F. Ceballos-González
@CarCeballos10 (Twitter)A bioinspired and hierarchically structured shape-memory material https://t.co/SgIccvkM8j
view full postSeptember 5, 2020
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PlaMatSu
@PlaMatSU (Twitter)RT @ChemistryNews: A bioinspired and hierarchically structured shape-memory material https://t.co/9AFmLEDkYf https://t.co/CevMaVsFx8
view full postSeptember 1, 2020
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Chemistry News
@ChemistryNews (Twitter)A bioinspired and hierarchically structured shape-memory material https://t.co/9AFmLEDkYf https://t.co/CevMaVsFx8
view full postAugust 31, 2020
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Abstract Synopsis
- Researchers developed a keratin-based material with long-range molecular order, enhancing shape-memory properties through hydration.
- The material's actuation mechanism relies on the transition of keratin from α-helix to β-sheet structures, leading to stronger and biocompatible outputs.
- The process involves extracting keratin from animal hair and applying shear stress for self-organization, allowing for scalable production of shape-memory fibers and 3D-printed structures for use in bioengineering and smart textiles.
Journal_of_Tissuescience_and_Engineering
@tissuescience (Twitter)