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Overall, the discussions highlight the groundbreaking nature of the magnetic robotic device, with examples such as mentions of its ability to navigate complex blood vessels, improve stroke treatment, and its successful testing in models and live animals. The tone is enthusiastic and forward-looking, emphasizing the potential to revolutionize medical procedures and save lives.
Most discussions praise the research, emphasizing its novelty and potential, indicating strong agreement.
Posts consistently show high curiosity and excitement about the technological advancements, reflecting high interest.
Many discussions include detailed descriptions of the device's functions, applications, and implications, demonstrating deep engagement.
The widespread enthusiasm and references to improving stroke treatment and endovascular procedures show the perceived high impact of this innovation.
A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through millimeter-sized arteries. Learn more in @SciRobotics: https://t.co/vm5YflrDEd https://t.co/Wwdwyvzce7
おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーションの成功によって実証 https://t.co/0aXcCgJUCF https://t.co/PGTHh09yaA
Another step forward in endovascular techniques! A magnetically steered continuum robot navigates tortuous blood vessels, from the aortic arch to millimeter-sized brain arteries. Successfully tested in human vasculature models and live pig vessels. DOI 10.1126/scirobotics.adh0298 https://t.co/L4TRNHtgxv
A method involving a magnetically operated articulated continuum robotic catheter could potentially improve care for acute ischemic strokes by enabling efficient navigation within tortuous networks of blood vessels. Read more in Science #Robotics: https://t.co/j9XYfF2fPZ https://t.co/73zd22YNii
Better treatment of strokes: Brad Nelson, Professor at the Multi-Scale Robotics Lab, works on magnetically steered microrobots for brain surgery. A helical structure improves catheter guidance
A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through millimeter-sized arteries. @ETH_en Learn more in Science #Robotics: https://t.co/w9dFVdS4yA https://t.co/2UulbdEdUQ
In this episode, we explore innovative interventions for climate change behaviors and their effectiveness, based on a study involving nearly 60,000 participants. We also discuss advances in technologies, such as…
Treating vascular diseases in the brain requires access to the affected region inside the body. This innovative magnetically controlled robotic device improves navigation through complex blood vessels using a rotating…
This video demonstrates a highly dexterous magnetic robotic device designed to improve access to brain blood vessels. It uses rotational movement and a helical surface to navigate complex and tortuous pathways, showing…
Treating vascular diseases in the brain requires access to the affected region inside the body. This robotic device improves navigation through complex blood vessels using magnetic control and a rotating helical…
RT @angie_h2020: The advantage of a robotic magnetic catheter in acute ischemic stroke treatment ➖Dexterous helical magnetic robot for impr…
RT @angie_h2020: The advantage of a robotic magnetic catheter in acute ischemic stroke treatment ➖Dexterous helical magnetic robot for impr…
RT @angie_h2020: The advantage of a robotic magnetic catheter in acute ischemic stroke treatment ➖Dexterous helical magnetic robot for impr…
The advantage of a robotic magnetic catheter in acute ischemic stroke treatment ➖Dexterous helical magnetic robot for improved endovascular access. Read more: https://t.co/WdMD1hS9nl @SciRobotics
Swiss
SWISS INNOVATION Swiss researchers developed a magnetic robot capable of reaching blood clots quickly and remotely, making the cover of the February 2024 issue of the renowned science magazine. Credit: Marco Rosasco Photography https://t.co/qngGquqkXS @swisstech https://t.co/izgA6Pj0Qm
Swiss researchers developed a magnetic robot capable of reaching blood clots quickly and remotely, making the cover of the February 2024 issue of the renowned @ScienceMagazine . https://t.co/EefHFYysFr
#Swiss researchers developed a magnetic robot capable of reaching blood clots quickly and remotely, making the cover of the February 2024 issue of the renowned Science Magazine. Read more
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
Swiss researchers developed a magnetic robot capable of reaching blood clots quickly and remotely, making the cover of the February 2024 issue of the renowned @ScienceMagazine. Read more
RT @eszmun: @Kasix909 https://t.co/F5s4ICg65w Jestem po kilkudziesieciu miniudarach ale nie dałbym sobie zrobić takiego zabiegu trombolizy,…
@Kasix909 https://t.co/F5s4ICg65w Jestem po kilkudziesieciu miniudarach ale nie dałbym sobie zrobić takiego zabiegu trombolizy, nawet jakbym mial ubezpieczenie zdrowotne i pieniadze na zabiegi,ale nie mam się co zastanawiać skoro nigdy nie będę miał takiej szansy w darwinizmie spolecznymPL
‘‘Bilimde Bu Hafta’’ köşemiz 18/02/2024 - 24/02/2024 1-Manyetik Robotlar İle Tıkalı damarlar Açmak Mümkün https://t.co/TrenoiLra1 https://t.co/8MGDjzsIWt
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
RT @ScienceMagazine: A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through milli…
A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through millimeter-sized arteries. Learn more in @SciRobotics: https://t.co/vm5YflrDEd https://t.co/Wwdwyvzce7
Artery-navigating robot could help treat strokes https://t.co/nVSjwIyq30
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
Better treatment of strokes: Brad Nelson, Professor at the Multi-Scale Robotics Lab, works on magnetically steered microrobots for brain surgery. A helical structure improves catheter guidance
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
RT @CeoImed: おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーショ…
おおお！！！ ｢磁場を用いた血管内治療ロボット｣ Science ･ 磁気的で操縦される多関節カテーテルを開発 ･ 大動脈弓からミリメートルサイズの脳動脈までのナビゲーションが可能に ･ 人間の血管構造のモデルや生きたブタの血管内でのナビゲーションの成功によって実証 https://t.co/0aXcCgJUCF https://t.co/PGTHh09yaA
Magnetic robotic catheter devised to efficiently treat ischemic strokes | The cutting-edge https://t.co/V7BkRR8m6S #science #engineering #catheter #strokes #device #surface
RT @S_Pesch: Another step forward in endovascular techniques! A magnetically steered continuum robot navigates tortuous blood vessels, from…
RT @S_Pesch: Another step forward in endovascular techniques! A magnetically steered continuum robot navigates tortuous blood vessels, from…
RT @SciRobotics: A method involving a magnetically operated articulated continuum robotic catheter could potentially improve care for acute…
RT @S_Pesch: Another step forward in endovascular techniques! A magnetically steered continuum robot navigates tortuous blood vessels, from…
RT @S_Pesch: Another step forward in endovascular techniques! A magnetically steered continuum robot navigates tortuous blood vessels, from…
A method involving a magnetically operated articulated continuum robotic catheter could potentially improve care for acute ischemic strokes by enabling efficient navigation within tortuous networks of blood vessels. Read more in Science #Robotics: https://t.co/j9XYfF2fPZ https://t.co/73zd22YNii
RT @S_Pesch: Another step forward in endovascular techniques! A magnetically steered continuum robot navigates tortuous blood vessels, from…
RT @S_Pesch: Another step forward in endovascular techniques! A magnetically steered continuum robot navigates tortuous blood vessels, from…
Dexterous helical magnetic robot for improved endovascular access | Science Robotics https://t.co/Jf7zSzMJiK "device enabled successful endovascular navigation from the aorta to millimeter-sized cranial arteries in vivo"
Another step forward in endovascular techniques! A magnetically steered continuum robot navigates tortuous blood vessels, from the aortic arch to millimeter-sized brain arteries. Successfully tested in human vasculature models and live pig vessels. DOI 10.1126/scirobotics.adh0298 https://t.co/L4TRNHtgxv
Fascinating from @ETH_en: Dexterous helical magnetic robot for improved endovascular access | Science Robotics https://t.co/HFvpmpX57G
Dexterous helical magnetic robot for improved endovascular access | Science Robotics https://t.co/1O65a0nd0Q?
A new design for a highly dexterous magnetically operated robotic catheter can propel itself efficiently through millimeter-sized arteries. @ETH_en Learn more in Science #Robotics: https://t.co/w9dFVdS4yA https://t.co/2UulbdEdUQ