The discussions highlight excitement about the origami robotic arm’s versatility, referencing its biomimetic qualities and medical applications, with phrases like 'promising future' and 'innovative approach' reflecting the positive tone. The tone and content suggest participants are intrigued by both the technical aspects and potential real-world uses, demonstrating interest and moderate engagement.
AgreementModerate agreement
Most discussions acknowledge the innovative nature of the robotic arm, indicating general support or recognition of its significance.
InterestHigh interest
Participants show high curiosity, often mentioning the technology’s features, applications, and potential uses.
EngagementModerate engagement
Comments include references to specific aspects of the research and its implications, showing moderate depth of involvement.
ImpactModerate impact
While some recognize its potential influence, discussions tend to focus on curiosity and technological novelty rather than widespread change, resulting in a moderate impact score.
Abstract in brief
The document describes a stretchable origami robotic arm inspired by octopus arms that can bend, twist, and stretch in all directions, using magnetically controlled Kresling patterns for complex movements.
Smaller systems with multiple units demonstrate higher biomimetic qualities, enabling features like continuous stretching, reconfigurable bending, and multi-axis twisting, which mimic octopus arm functions such as grasping and manipulation.
The technology's non-contact magnetic actuation opens up applications in minimally invasive medical devices like catheters and endoscopes, allowing for precise navigation, sensing, and object manipulation in confined or hard-to-reach environments.]
Discover how origami principles are transforming engineering through deployable structures, metamaterials, and foldable robots that enable advanced solutions in civil engineering, robotics, and healthcare. Dive into the…
... e2110023118, 2021. . URL https://www.pnas.org/doi/ 10.1073/pnas.2110023118. microscopic scale (26), could provide faster and more scalable 3. A. Sydney ...
Academy of Sciences, 2021, 118(36): doi:10.1073/pnas.2110023118. S. Miyashita, S. Guitron, K. Yoshida, et al. Ingestible, controllable, and degradable ...
1 s2.0 S2352431624000543 Main | PDF | Deformation (Engineering ...
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... 10.1073/ [27] T. Wierzbicki, W. Abramowicz, On the crushing mechanics of thin-walled pnas.2110023118. structures, J. Appl. Mech. -T Asme 50 (1983) 727–734 ...