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Discussions demonstrate high interest and engagement through phrases like 'inspired scientists to create' and 'passive maneuvering,' highlighting fascination with the biomimetic design. The tone suggests that many see this as a groundbreaking step in robotic mobility, reflecting strong acknowledgment of its potential impact.
Most discussions acknowledge the scientific innovation and applaud the biomimetic approach inspired by ripple bugs.
Discussions reveal high curiosity about the novel fans and their potential applications, indicating strong interest.
Participants reference the mechanics of the elastocapillary fans, robot designs, and implications for future technology, showing deep engagement.
Many posts suggest that this research could revolutionize tiny robotics and aquatic movement control, emphasizing its significant potential.
Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a new Science study, researchers describe “Rhagobot,” a water-walking robot inspired by this feature. Learn more: https://t.co/Pv0MSx4csj https://t.co/BsbpUy1C4d
Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a new Science study, researchers describe “Rhagobot,” a water-walking robot inspired by this feature. Learn more: https://t.co/Pv0MSx4csj https://t.co/wOIwe4sIk1
> Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots https://t.co/stvYFHlDhu
https://t.co/jwvh0YVnRy
#ScienceMag Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots www.science.org/doi/10.1126/... flat-ribbon fan balances collapsibility during leg recovery with rigidity during drag-based propulsion, enabling full-body 96° turns in 50 milliseconds.
#ScienceMag Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots https://t.co/Bze5JCqURg flat-ribbon fan balances collapsibility during leg recovery with rigidity during drag-based propulsion, enabling full-body 96° turns in 50 milliseconds. https://t.co/ZasuKfQ2Hi
Ripple bugs use specialized flat-ribbon fans for quick and efficient movement in streams. Inspired by this, researchers developed a robot with similar fans that mimic natural movement, improving agility and control in…
Researchers from UC Berkeley, Georgia Tech, and Ajou University developed a tiny robot inspired by ripple bugs' flat-ribbon fans. These fans enable rapid, agile movement in fast streams without additional energy…
Discover the future of robotics inspired by nature. Ultrafast elastocapillary fans in ripple bugs enable quick, efficient movement and sharp turns.
Ripple bugs use flat-ribbon fans on their legs to move efficiently in turbulent water, changing shape without muscles. Researchers developed a robot mimicking this mechanism, enabling rapid, controlled movement on water…
#grabstract of the day Turns out those ripple bugs have tiny fans in their legs that automatically deploy and propel them to glide over the water. This inspired scientists to create lightning-fast robots. https://t.co/1DBjfMIInc https://t.co/OmOITTOLt2
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
https://t.co/jwvh0YVnRy
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a new Science study, researchers describe “Rhagobot,” a water-walking robot inspired by this feature. Learn more: https://t.co/Pv0MSx4csj https://t.co/BsbpUy1C4d
#ScienceMag Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots https://t.co/Bze5JCqURg flat-ribbon fan balances collapsibility during leg recovery with rigidity during drag-based propulsion, enabling full-body 96° turns in 50 milliseconds. https://t.co/ZasuKfQ2Hi
#ScienceMag Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots www.science.org/doi/10.1126/... flat-ribbon fan balances collapsibility during leg recovery with rigidity during drag-based propulsion, enabling full-body 96° turns in 50 milliseconds.
#ScienceMag Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots https://www.science.org/doi/10.1126/science.adv2792 flat-ribbon fan balances collapsibility during leg recovery with rigidity during drag-based propulsion, enabling full-body 96° turns in 50 milliseconds.
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
RT @ScienceMagazine: Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a ne…
Ripple bugs use a special fan-like structure on their middle legs to speed and steer through turbulent waters. In a new Science study, researchers describe “Rhagobot,” a water-walking robot inspired by this feature. Learn more: https://t.co/Pv0MSx4csj https://t.co/wOIwe4sIk1
> Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots https://t.co/stvYFHlDhu
Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots | Science Rhagovelia ripple bugs use specialized middle-leg fans with a flat-ribbon architecture to navigate the surfaces of fast-moving streams. We show that the fan’s directional stiffness enables fast, passive…
Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots | Science www.science.org/doi/10.1126/...
Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots | Science Rhagovelia ripple bugs use specialized middle-leg fans with a flat-ribbon architecture to navigate the surfaces of fast-moving streams. We show that the fan’s directional stiffness enables fast, passive…
Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots | Science https://t.co/5rHtFEu3Rk
V. Ortega-Jimenez, et al., Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots. bioRxiv 2024.11.15.623609 (2024). https://t.co/m1rAERFO1p
Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots https://www.biorxiv.org/content/10.1101/2024.11.15.623609v1
Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots https://www.biorxiv.org/content/10.1101/2024.11.15.623609v1
Ultrafast elastocapillary fans control agile maneuvering in ripple bugs and robots https://t.co/0S1EOyWfTE #biorxiv_biophys
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