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Mashup Score: 18Polymerizable rotaxane hydrogels for three-dimensional printing fabrication of wearable sensors - Nature Communications - 1 year(s) ago
While hydrogels find applications in wearable sensors and electronic skins, they are prone to fatigue fractures upon deformation cycling. Xiong et al. report the synthesis of conductive polymerizable rotaxane hydrogels, exhibiting large fatigue resistance, for 3D printable flexible sensors.
Source: NatureCategories: General Medicine News, Latest HeadlinesTweet
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Mashup Score: 0Engineers at UBC get under the skin of ionic skin - 2 year(s) ago
In the quest to build smart skin that mimics the sensing capabilities of natural skin, ionic skins have shown significant advantages. They’re made of flexible, biocompatible hydrogels that use ions to carry an electrical charge. These hydrogels can generate voltages when touched, but scientists did not clearly understand how — until a team of researchers at UBC devised a unique experiment,…
Source: EurekAlert!Categories: General Medicine News, Latest HeadlinesTweet-
Engineers devised a unique experiment to understand #hydrogels, which may help create potential new applications for ionic skins @UBC #sensors #voltage https://t.co/R7yPxzi4U2
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Mashup Score: 0Recent progress in the field of Artificial Organs - 3 year(s) ago
Click on the article title to read more.
Source: Wiley Online LibraryCategories: Latest Headlines, TransplantationTweet-
RT @ArtifOrgans: Update on recent progress in the field of #ArtificialOrgans👇 https://t.co/GTTZRuCCwG #Hydrogels #TissueEngineering #Magnet…
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Mashup Score: 15Electrically programmable adhesive hydrogels for climbing robots - 3 year(s) ago
Although there have been notable advances in adhesive materials, the ability to program attaching and detaching behavior in these materials remains a challenge. Here, we report a borate ester polymer hydrogel that can rapidly switch between adhesive and nonadhesive states in response to a mild electrical stimulus (voltages between 3.0 and 4.5 V). This behavior is achieved by controlling the…
Source: Science RoboticsCategories: Future of Medicine, Latest HeadlinesTweet-
New #hydrogels use mussel-inspired adhesion to switch stickiness on and off. #Robots with these hydrogels pasted to their "feet" could climb upward on completely vertical and inverted surfaces. Learn more from @SciRobotics: https://t.co/ypBGkh3WAU https://t.co/S3WTH79SvM
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Mashup Score: 70Electrically programmable adhesive hydrogels for climbing robots - 3 year(s) ago
Although there have been notable advances in adhesive materials, the ability to program attaching and detaching behavior in these materials remains a challenge. Here, we report a borate ester polymer hydrogel that can rapidly switch between adhesive and nonadhesive states in response to a mild electrical stimulus (voltages between 3.0 and 4.5 V). This behavior is achieved by controlling the…
Source: Science RoboticsCategories: Future of Medicine, Latest HeadlinesTweet-
New #hydrogels use mussel-inspired adhesion to switch stickiness on and off. #Robots with these hydrogels pasted to their "feet" could climb upward on completely vertical and inverted surfaces. Learn more from @SciRobotics: https://t.co/ypBGkh3WAU https://t.co/4Z6vra2wjU
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Mashup Score: 12Electrically programmable adhesive hydrogels for climbing robots - 3 year(s) ago
Although there have been notable advances in adhesive materials, the ability to program attaching and detaching behavior in these materials remains a challenge. Here, we report a borate ester polymer hydrogel that can rapidly switch between adhesive and nonadhesive states in response to a mild electrical stimulus (voltages between 3.0 and 4.5 V). This behavior is achieved by controlling the…
Source: Science RoboticsCategories: Future of Medicine, Latest HeadlinesTweet-
New #hydrogels constructed by Xiamen University researchers use mussel-inspired adhesion to switch stickiness on and off. #Robots with these hydrogels pasted to their "feet" could climb upward on completely vertical and inverted surfaces: https://t.co/LY9KHrYm9q https://t.co/dtbeSN4lwo
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Mashup Score: 0Self-propelled hydrogels that glide on water - 3 year(s) ago
Active hydrogels with dynamic wettability move spontaneously on the surface of water like a common water strider.
Source: Science RoboticsCategories: Future of Medicine, Latest HeadlinesTweet-
Read "Self-propelled #hydrogels that glide on water," a commentary by @DutOfficial scientists on new water strider-inspired #hydrogels that can self-propel without any external stimuli: https://t.co/mBQ7cnB7Hx #robotics
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Mashup Score: 3
At ENDO 2021, the first time the Endocrine Society’s annual conference has gone all-virtual, a live Presidential Plenary on March 20 will feature a pair of presentations on the latest developments in basic tissue engineering. Endocrine News speaks with Andrés J. Garcia, PhD, about his session, “Synthetic Hydrogels as Engineered Niches in Regenerative Medicine.” …
Source: Endocrine NewsCategories: Endocrinology, Latest HeadlinesTweet-
#ENDO2021 Preview - A live Presidential Plenary on March 20 will feature the latest developments in basic tissue engineering. Andrés J. Garcia, PhD, highlights his session, “Synthetic #Hydrogels as Engineered Niches in Regenerative Medicine.” https://t.co/t0SDueWJp1
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Mashup Score: 4New Cartilage Grown Using Magnetic Fields and Hydrogels - 4 year(s) ago
Using a magnetic field and hydrogels, a team of researchers in the Perelman School of Medicine at the University of Pennsylvania have demonstrated a new possible way to rebuild complex body tissues. The new approach can be used to generate living tissues for implantation to fix localized cartilage defects, and may one day be extended to generate living joint surfaces.
Categories: Future of Medicine, Latest HeadlinesTweet-
Researchers at .@PennMedicine Grow New Cartilage Using Magnetic Fields and Hydrogels. Learn more: https://t.co/QkwwyuRLS2 #regenerativemedicine #hydrogels https://t.co/cndH2VwywG
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Mashup Score: 1New Cartilage Grown Using Magnetic Fields and Hydrogels - 4 year(s) ago
Using a magnetic field and hydrogels, a team of researchers in the Perelman School of Medicine at the University of Pennsylvania have demonstrated a new possible way to rebuild complex body tissues. The new approach can be used to generate living tissues for implantation to fix localized cartilage defects, and may one day be extended to generate living joint surfaces.
Categories: Future of Medicine, Latest HeadlinesTweet-
Researchers at .@PennMedicine Grow New Cartilage Using Magnetic Fields and Hydrogels. Learn more: https://t.co/Na2ZR2oPKC #regenerativemedicine #hydrogels https://t.co/LVEqN9ztTd
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Xiong et al. report the synthesis of conductive polymerizable rotaxane #hydrogels, exhibiting large fatigue resistance, for 3D printable #wearable #sensors #GettingApplied https://t.co/G8oPnbMgeH