The discussions reflect positive reactions, with expressions like 'Congratulations' and 'our new paper,' demonstrating support and recognition of the research achievement. The tone and language indicate enthusiasm for exploring biological mechanisms and their applications in synthetic systems, emphasizing the potential for technological advances based on this work.
AgreementModerate agreement
Most posts express approval or recognition of the research's importance, indicating general agreement with its significance.
InterestHigh interest
Discussions show high interest, with comments highlighting excitement about the ultrafast systems and the application of the mantis shrimp model.
EngagementModerate engagement
Posts include congratulations, mentions of the paper, and praise for the research team, suggesting a moderate level of in-depth discussion.
ImpactModerate impact
The admiration for the model and its potential to advance understanding of ultrafast mechanics imply a moderate perceived impact.
Abstract in brief
The study explores how mantis shrimp and similar systems generate extremely fast, high-acceleration movements by using specialized linkage mechanisms that store and rapidly release elastic energy.
Researchers identified distinct dynamic phases and geometric latching in these linkages, which help control energy transfer and amplify mechanical power, allowing for rapid strikes in both biological and synthetic systems.
The findings are demonstrated through a small-scale mantis shrimp robot, showing velocities over 26 m/s in air and 5 m/s in water, illustrating how adjusting linkage design can optimize high-speed movements and provide insights into biological function.]
Congratulations to our lab and the Impulsive MURI team for the release of our new paper:
A physical model of mantis shrimp for exploring the dynamics of ultrafast systems https://t.co/7UqqMdCUWD
Aug 16, 2021 · 12 likes · 4 shares · 602 followersView post →
This video explores key brain structures in crustaceans, focusing on the recent discovery of the reniform body in stomatopods (mantis shrimps) and its implications for understanding neural circuit evolution in…
The study explores how mantis shrimp generate high-acceleration movements using specialized elastic energy storage linkages. A robotic model demonstrates velocities over 26 m/s in air, providing insights into biological…
RT @patek_lab: Congratulations to our lab and the Impulsive MURI team for the release of our new paper:
A physical model of mantis shrimp f…
Aug 30, 2021 · 4 shares · 4,489 followersView post →
KK
Katsushi Kagaya
@katzkagaya · X
RT @patek_lab: Congratulations to our lab and the Impulsive MURI team for the release of our new paper:
A physical model of mantis shrimp f…
Aug 26, 2021 · 4 shares · 3,718 followersView post →
JD
Josh Gibson, Ph.D.
@DrStrangeAnt · X
RT @patek_lab: Congratulations to our lab and the Impulsive MURI team for the release of our new paper:
A physical model of mantis shrimp f…
Aug 18, 2021 · 4 shares · 1,459 followersView post →
TL
The Patek Lab
@patek_lab · X
Congratulations to our lab and the Impulsive MURI team for the release of our new paper:
A physical model of mantis shrimp for exploring the dynamics of ultrafast systems https://t.co/7UqqMdCUWD
Aug 16, 2021 · 12 likes · 4 shares · 602 followersView post →
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Snapping Behavior of the Shrimp Alpheus californiensis | Science
News
https://doi.org/10.1073/pnas.2026833118 · Crossref. Mark Ilton,; M. Saad Bhamla,; Xiaotian Ma,; Suzanne M. Cox,; Leah L. Fitchett,; Yongjin Kim,; Je-sung Koh, ...