Happy to share our recent work published in JACS: Kinetic Locking of pH-Sensitive Complexes for Mechanically Responsive Polymer Networks https://t.co/ShQ1hXTsDr
Our work on supramolecular conductive hydrogels was published in Advanced Materials @AdvPortfolio. Our new material is highly conductive (~6 S/cm), highly stretchable (>1000%), very soft (~10kPa), and rehydratable.
新しい導電性ハイドロゲル材料の開発に成功しました。本材料は80%以上が水なのに、海水の百倍電気を流し、元の十倍以上に伸ばせ、豆腐と同じくらい柔らかく、わかめのように乾いたり水に戻したりできます。
This is a collaboration with @SJKONeill, @OScherman, @GeorgeMalliaras, @AgetsumaM, and @motozyme. Supported by @JST_ASPIRE@JST_Kisokenkyu@jsps_sns. Open Access!
https://t.co/XZHBSLOenD
Stretch your imagination and your battery! This blue jelly is actually a hydrogel battery🔋Stephen O'Neill from the @OScherman
group tests its limits.
https://t.co/WAwEDRSXAA
A paper in Nature describes the development of intrinsically stretchable polymer diodes that can operate at wireless communication frequencies, for use in skin-like wearable electronics https://t.co/WTcb1faRWq
Yay! Our work with @SimiaoNiu and @zhenanbao is published in @Nature! "High-frequency and intrinsically stretchable polymer diodes" https://t.co/ghTLCNUedQ
Researchers have developed a jelly-like material that acts like an ultra-hard, shatterproof glass when compressed and can completely recover to its original shape, despite its high water content, according to a @NatureMaterials paper. https://t.co/hwZMVBpqC6
Check out my latest research in highly compressible glass-like supramolecular polymer works @NatureMaterials! Tremendous thanks to my great mentor @OScherman and amazing collaborators @Stevieoneill21 @jadeamccune at @ChemCambridge!
https://t.co/fDuPaIdLKS