A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in stretchable battery designs. https://t.co/GqOuMop8Eh @ScienceAdvances https://t.co/BGlGE3EoSt
Make it flow from solid to liquid: Redox-active electrofluids for intrinsically stretchable batteries.
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Apr 2025 – Jun 2025Where it's discussed
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News74 articles
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X / Twitter47 posts
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Facebook3 posts
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Blogs3 articles
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Bluesky1 posts
AI synopsis
What people are saying
Several discussions emphasize the novel features of fluid-state batteries, with phrases like 'overcomes the need to compromise' and 'can take any shape' indicating strong enthusiasm about the advancements. The use of terms such as 'transform' and 'next-generation' in posts further illustrates the tone of excitement and forward-thinking that permeates these conversations.
The discussions overwhelmingly reflect support for the conclusions drawn in the publication, highlighting its innovative contributions.
The posts express a high level of curiosity, drawing attention to the unique attributes of fluid-state batteries.
Many posts reference technical aspects and potential applications, indicating a moderate level of engagement with the content.
Users generally perceive the implications of this research as significant for the future of wearable technology and electronics.
Abstract in brief
- High-capacity stretchable batteries are essential for advanced wearables, needing to be both long-lasting and adaptable to the human body.
- Existing designs struggle with rigidity when increasing active material, resulting in poor flexibility.
- This new concept uses fluid electrodes, allowing for high capacity without stiffening, and demonstrates great performance with excellent capacity retention and mechanical durability.
Top posts
Most liked on X and BlueskyA new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in stretchable battery designs. https://t.co/GqOuMop8Eh @ScienceAdvances https://t.co/auzAdlibTa
A fluid battery that can take any shape… https://t.co/26c9r8oN8F
#Linköping University has developed a fluid battery using conductive plastics and lignin, allowing it to take any shape. This innovation could transform electronics design and sustainability. @ScienceAdvances https://t.co/PRq28vXojo https://t.co/9BGOfsRvyh
A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in stretchable battery designs. https://t.co/K3v9gSQsOe https://t.co/maKFksCc91
Check out our fluid batteries that can take any shape to power next-generation wearable electronics! https://t.co/AOKpQqweYt https://t.co/zvJCDhSU5A
All mentions
Innovative Fluid Battery: Shape-Shifting Energy Solution
Revolutionary fluid battery technology developed by scientists at Linkping University allows for flexible, shape-shifting energy solutions. This battery utilizes fluid-like electrodes made from eco-friendly materials…
Innovative Stretchable Batteries for Wearable Technology
High-capacity stretchable batteries are essential for advanced wearables. This video explores how new fluid electrode designs allow for increased capacity without compromising flexibility, demonstrating excellent…
夢があるな Make it flow from solid to liquid: Redox-active electrofluids for intrinsically stretchable batteries | Science Advances https://t.co/ALuTBDUEm2
@JanPhi0511HD Hier ist das Paper dazu: https://t.co/OyjhIVZK2e
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in stretchable battery designs. https://t.co/jVIFcjaUZ9 https://t.co/rnKmTfGjYn
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in stretchable battery designs. https://t.co/GqOuMop8Eh @ScienceAdvances https://t.co/auzAdlibTa
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceMagazine: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in stretchable battery designs. https://t.co/GqOuMop8Eh @ScienceAdvances https://t.co/BGlGE3EoSt
RT @KlasTybrandt: Check out our fluid batteries that can take any shape to power next-generation wearable electronics! https://t.co/AOKpQqw…
RT @BrianRoemmele: A fluid battery that can take any shape… https://t.co/26c9r8oN8F
RT @ScienceAdvances: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
RT @ScienceAdvances: A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in st…
A new fluid-state battery overcomes the need to compromise between conductive capacity and electrode flexibility in stretchable battery designs. https://t.co/K3v9gSQsOe https://t.co/maKFksCc91
RT @KlasTybrandt: Check out our fluid batteries that can take any shape to power next-generation wearable electronics! https://t.co/AOKpQqw…
Check out our fluid batteries that can take any shape to power next-generation wearable electronics! https://t.co/AOKpQqweYt https://t.co/zvJCDhSU5A
The study has been published in the journal Science Advances: "Make it flow from solid to liquid: Redox-active electrofluid for intrinsically stretchable batteries" www.science.org/doi/10.1126/... DOI: 10.1126/sciadv.adr9010
RT @BrianRoemmele: A fluid battery that can take any shape… https://t.co/26c9r8oN8F
RT @BrianRoemmele: A fluid battery that can take any shape… https://t.co/26c9r8oN8F
RT @BrianRoemmele: A fluid battery that can take any shape… https://t.co/26c9r8oN8F
RT @BrianRoemmele: A fluid battery that can take any shape… https://t.co/26c9r8oN8F
A fluid battery that can take any shape… https://t.co/26c9r8oN8F
Make it flow from solid to liquid: Redox-active electrofluids for intrinsically stretchable batteries https://t.co/zvFc5Tvb9A
「固体の電極を、液体に変えた」次世代のウェアラブルデバイス❕
RT @TechXplore_com: #Linköping University has developed a fluid battery using conductive plastics and lignin, allowing it to take any shape…
Make it flow from solid to liquid: Redox-active electrofluids for intrinsically stretchable batteries • Science Advances https://t.co/jg97qIKwIn https://t.co/hffULIFMb1
RT @TechXplore_com: #Linköping University has developed a fluid battery using conductive plastics and lignin, allowing it to take any shape…
RT @TechXplore_com: #Linköping University has developed a fluid battery using conductive plastics and lignin, allowing it to take any shape…
RT @TechXplore_com: #Linköping University has developed a fluid battery using conductive plastics and lignin, allowing it to take any shape…
RT @TechXplore_com: #Linköping University has developed a fluid battery using conductive plastics and lignin, allowing it to take any shape…
RT @TechXplore_com: #Linköping University has developed a fluid battery using conductive plastics and lignin, allowing it to take any shape…
RT @TechXplore_com: #Linköping University has developed a fluid battery using conductive plastics and lignin, allowing it to take any shape…
#Linköping University has developed a fluid battery using conductive plastics and lignin, allowing it to take any shape. This innovation could transform electronics design and sustainability. @ScienceAdvances https://t.co/PRq28vXojo https://t.co/9BGOfsRvyh