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486 lines
15 KiB
Text
TY - RPRT
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AU - Arny Laean
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AU - OpenAI GPT-5.5 Thinking
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TI - Biomechanical Pressure-Cavitation-Vibration Model Catalog v0.2
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PY - 2026
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PB - Working research notes
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AB - Working review catalog of pressure gradients, cavitation, shockwave propagation, hydrodynamic vibration, lateral-line sensing, suction, jetting, hydraulic actuation, osmotic projectiles, and Burgers-style shock smoothing.
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UR - sandbox:/mnt/data/biomechanical_pressure_cavitation_vibration_models_v0_2.md
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N1 - Generated May 3, 2026. Working file; not peer reviewed.
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ER -
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TY - JOUR
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AU - Michel Versluis
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AU - Barbara Schmitz
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AU - Anna von der Heydt
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AU - Detlef Lohse
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TI - How snapping shrimp snap: through cavitating bubbles
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JO - Science
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JF - Science
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PY - 2000
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VL - 289
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SP - 2114
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EP - 2117
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UR - https://consensus.app/papers/details/a5289f80ad015bda9bcc7c257ed30875/?utm_source=chatgpt
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N1 - Rayleigh-Plesset-type model for snapping-shrimp cavitation bubble dynamics and emitted sound.
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ER -
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TY - JOUR
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AU - P. Koukouvinis
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AU - C. Bruecker
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AU - M. Gavaises
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TI - Unveiling the physical mechanism behind pistol shrimp cavitation
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JO - Scientific Reports
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JF - Scientific Reports
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PY - 2017
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VL - 7
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UR - https://consensus.app/papers/details/ab6a32e60764588285afe125e7422ed4/?utm_source=chatgpt
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N1 - Immersed-boundary and homogeneous-equilibrium cavitating-flow model for pistol-shrimp claw closure.
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ER -
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TY - JOUR
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AU - Sheila N. Patek
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AU - Wyatt L. Korff
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AU - Roy L. Caldwell
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TI - Biomechanics: Deadly strike mechanism of a mantis shrimp
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JO - Nature
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JF - Nature
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PY - 2004
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VL - 428
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SP - 819
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EP - 820
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UR - https://consensus.app/papers/details/2ed3cf95d4265360aa5824349c29f9ca/?utm_source=chatgpt
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N1 - Spring-latch strike mechanism and cavitation during mantis-shrimp impact.
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ER -
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TY - JOUR
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AU - Sheila N. Patek
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AU - Roy L. Caldwell
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TI - Extreme impact and cavitation forces of a biological hammer: strike forces of the peacock mantis shrimp Odontodactylus scyllarus
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JO - Journal of Experimental Biology
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JF - Journal of Experimental Biology
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PY - 2005
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VL - 208
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SP - 3655
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EP - 3664
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UR - https://consensus.app/papers/details/70b2cfb495bc505a82605c4c789a1904/?utm_source=chatgpt
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N1 - Force measurements separating impact and cavitation-collapse force peaks.
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ER -
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TY - JOUR
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AU - S. Patek
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TI - The power of mantis shrimp strikes: interdisciplinary impacts of an extreme cascade of energy release
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JO - Integrative and Comparative Biology
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JF - Integrative and Comparative Biology
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PY - 2019
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UR - https://consensus.app/papers/details/7582ec60b68f53c8a8aa5c4294513b43/?utm_source=chatgpt
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N1 - Review of spring loading, ultrafast strike mechanics, and cavitation implosion cascade.
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ER -
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TY - JOUR
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AU - S. Cox
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AU - D. Schmidt
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AU - Y. Modarres-Sadeghi
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AU - S. Patek
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TI - A physical model of the extreme mantis shrimp strike: kinematics and cavitation of Ninjabot
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JO - Bioinspiration & Biomimetics
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JF - Bioinspiration & Biomimetics
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PY - 2014
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VL - 9
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UR - https://consensus.app/papers/details/27f597eab8bb5b2cb3544cb089bddfd7/?utm_source=chatgpt
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N1 - Physical model isolating kinematic predictors of cavitation inception.
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ER -
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TY - JOUR
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AU - M. Muller
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AU - J. Osse
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AU - J. Verhagen
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TI - A quantitative hydrodynamical model of suction feeding in fish
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JO - Journal of Theoretical Biology
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JF - Journal of Theoretical Biology
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PY - 1982
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VL - 95
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SP - 49
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EP - 79
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UR - https://consensus.app/papers/details/a3231ef45ee35fa7b6675b726a50bbe2/?utm_source=chatgpt
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N1 - Unsteady hydrodynamical model of suction feeding with pressure and velocity equations.
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ER -
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TY - JOUR
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AU - P. Wainwright
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AU - S. Day
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TI - The forces exerted by aquatic suction feeders on their prey
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JO - Journal of The Royal Society Interface
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JF - Journal of The Royal Society Interface
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PY - 2007
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VL - 4
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SP - 553
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EP - 560
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UR - https://consensus.app/papers/details/8a962a2f34bd55b8baeedaee011dc8dc/?utm_source=chatgpt
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N1 - Mathematical model showing pressure-gradient force can dominate drag and acceleration reaction.
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ER -
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TY - JOUR
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AU - R. Holzman
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AU - D. Collar
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AU - R. Mehta
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AU - P. Wainwright
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TI - An integrative modeling approach to elucidate suction-feeding performance
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JO - Journal of Experimental Biology
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JF - Journal of Experimental Biology
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PY - 2012
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VL - 215
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SP - 1
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EP - 13
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UR - https://consensus.app/papers/details/3abd50c82cf454debc183ad4c3a37cf9/?utm_source=chatgpt
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N1 - Suction-Induced Force Field model integrating morphology, kinematics, ram, and fluid mechanics.
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ER -
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TY - JOUR
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AU - M. R. Drost
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AU - M. Muller
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AU - J. W. M. Osse
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TI - A quantitative hydrodynamical model of suction feeding in larval fishes: the role of frictional forces
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JO - Proceedings of the Royal Society of London. Series B. Biological Sciences
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JF - Proceedings of the Royal Society of London. Series B. Biological Sciences
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PY - 1988
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VL - 234
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SP - 263
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EP - 281
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UR - https://consensus.app/papers/details/973637c711b95c0a9853b3d24e0ebe7c/?utm_source=chatgpt
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N1 - Larval fish suction-flow model with friction, power, energy, and prey escape paths.
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ER -
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TY - JOUR
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AU - S. Yaniv
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AU - D. Elad
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AU - R. Holzman
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TI - Suction feeding across fish life stages: flow dynamics from larvae to adults and implications for prey capture
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JO - Journal of Experimental Biology
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JF - Journal of Experimental Biology
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PY - 2014
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VL - 217
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SP - 3748
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EP - 3757
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UR - https://consensus.app/papers/details/2bdd171c3f6b5a7484db2f37ca59eb93/?utm_source=chatgpt
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N1 - Computational scaling model of suction flows across ontogeny.
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ER -
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TY - JOUR
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AU - Krishnamoorthy Krishnan
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AU - A. Nafi
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AU - R. Gurka
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AU - R. Holzman
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TI - The hydrodynamic regime drives flow reversals in suction-feeding larval fishes during early ontogeny
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JO - Journal of Experimental Biology
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JF - Journal of Experimental Biology
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PY - 2020
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VL - 223
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UR - https://consensus.app/papers/details/2370371afe265e07a8bddf649159f3d0/?utm_source=chatgpt
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N1 - Numerical model explaining in-and-out prey movement via flow reversal.
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ER -
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TY - JOUR
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AU - C. Marshall
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AU - K. Kovacs
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AU - C. Lydersen
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TI - Feeding kinematics, suction and hydraulic jetting capabilities in bearded seals (Erignathus barbatus)
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JO - Journal of Experimental Biology
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JF - Journal of Experimental Biology
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PY - 2008
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VL - 211
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SP - 699
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EP - 708
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UR - https://consensus.app/papers/details/1f77eea741bd5ae389ad1cf99ff91885/?utm_source=chatgpt
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N1 - Measured suction and hydraulic jetting pressures in bearded seals.
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ER -
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TY - JOUR
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AU - M. Krieg
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AU - K. Mohseni
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TI - Transient Pressure Modeling in Jetting Animals
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JO - Journal of Theoretical Biology
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JF - Journal of Theoretical Biology
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PY - 2020
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UR - https://consensus.app/papers/details/a341291c0def51bb85754da84d07114a/?utm_source=chatgpt
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N1 - Circulation-based transient pressure model for jellyfish, squid, and dragonfly larvae.
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ER -
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TY - JOUR
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AU - B. Gemmell
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AU - S. Colin
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AU - J. Costello
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AU - J. Dabiri
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TI - Suction-based propulsion as a basis for efficient animal swimming
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JO - Nature Communications
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JF - Nature Communications
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PY - 2015
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VL - 6
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UR - https://consensus.app/papers/details/32f59065f0a65b23bb13efd5050093b6/?utm_source=chatgpt
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N1 - PIV and pressure reconstruction showing low-pressure suction contribution to animal swimming.
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TY - JOUR
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AU - J. Costello
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AU - S. Colin
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AU - B. Gemmell
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AU - J. Dabiri
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AU - E. Kanso
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TI - A fundamental propulsive mechanism employed by swimmers and flyers throughout the animal kingdom
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JO - Journal of Experimental Biology
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JF - Journal of Experimental Biology
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PY - 2023
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VL - 226
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UR - https://consensus.app/papers/details/d17c3176baa15e5fad968e6c7659dee1/?utm_source=chatgpt
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N1 - Commentary on suction forces around flexible propulsors.
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ER -
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TY - JOUR
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AU - A. James
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AU - K. Morison
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AU - S. Todd
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TI - A mathematical model of the defence mechanism of a bombardier beetle
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JO - Journal of The Royal Society Interface
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JF - Journal of The Royal Society Interface
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PY - 2013
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VL - 10
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UR - https://consensus.app/papers/details/8a834e2c692c5df1a9731fe5944a334c/?utm_source=chatgpt
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N1 - Mathematical model of bombardier beetle cyclic/pulsed discharge.
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TY - JOUR
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AU - J. Dean
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AU - D. Aneshansley
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AU - H. Edgerton
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AU - T. Eisner
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TI - Defensive spray of the bombardier beetle: a biological pulse jet
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JO - Science
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JF - Science
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PY - 1990
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UR - https://consensus.app/papers/details/2ba8fb30b08a51b7b19b0eac1e2d9f87/?utm_source=chatgpt
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N1 - Experimental observation of pulsed defensive spray around 500 pulses/s.
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TY - JOUR
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AU - Eric M. Arndt
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AU - Wendy Moore
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AU - Wah-Keat Lee
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AU - Christine Ortiz
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TI - Mechanistic origins of bombardier beetle (Brachinini) explosion-induced defensive spray pulsation
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JO - Science
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JF - Science
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PY - 2015
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VL - 348
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UR - https://consensus.app/papers/details/0a49f03f885e5ba299a461aef9a98a5e/?utm_source=chatgpt
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N1 - Synchrotron x-ray imaging and kinematic models of chamber/vapor dynamics.
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TI - The bombardier beetle and its use of a pressure relief valve system to deliver a periodic pulsed spray
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N1 - Numerical simulations of two-phase ejection and pressure-relief-valve mechanism.
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AU - S. Deban
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AU - U. Mueller
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TI - Suction feeding by small organisms: Performance limits in larval vertebrates and carnivorous plants
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JO - Integrative and Comparative Biology
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JF - Integrative and Comparative Biology
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PY - 2020
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UR - https://consensus.app/papers/details/3359631edb6752d0b3f81247ac2f1bc6ac43ddbee29586/?utm_source=chatgpt
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N1 - Review of small suction feeders and bladderwort elastic recoil/negative-pressure traps.
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TY - JOUR
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AU - G. Chapman
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TI - Versatility of hydraulic systems
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N1 - Classic review of animal hydraulic systems and hydrostatic force transmission.
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TY - JOUR
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AU - Chun-bao Liu
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AU - Yingjie Wang
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AU - Luquan Ren
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AU - L. Ren
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TI - A Review of Biological Fluid Power Systems and Their Potential Bionic Applications
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TI - Shooting Mechanisms in Nature: A Systematic Review
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JO - PLoS ONE
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JF - PLoS ONE
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PY - 2016
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UR - https://consensus.app/papers/details/0a93123278a156f0a4c0aaca6e156b87/?utm_source=chatgpt
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N1 - Systematic review of biological projectile mechanisms including osmotic shooting in cnidarians.
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TI - Particle motion: the missing link in underwater acoustic ecology
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JF - Methods in Ecology and Evolution
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PY - 2016
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UR - https://consensus.app/papers/details/b2ac0ce4aec85bd4bf2e7a0e9670fbb2/?utm_source=chatgpt
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N1 - Underwater particle motion measurement and relevance for fish/invertebrate acoustic ecology.
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TI - Hydrodynamic stimuli and the fish lateral line
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N1 - Hydrodynamic lateral-line response to minute water motions in flow.
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AU - Julie Goulet
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TI - Object localization through the lateral line system of fish: theory and experiment
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N1 - Hydrodynamic model and experiment for source localization using fish lateral line.
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AU - J. Mogdans
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TI - Sensory ecology of the fish lateral-line system: Morphological and physiological adaptations for the perception of hydrodynamic stimuli
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JF - Journal of Fish Biology
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PY - 2019
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UR - https://consensus.app/papers/details/cd85e9e5b21b55dea761560c21749382/?utm_source=chatgpt
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N1 - Review of lateral-line morphology and hydrodynamic sensing across fish habitats.
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TY - JOUR
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AU - Jacqueline F. Webb
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TI - Structural and functional evolution of the mechanosensory lateral line system of fishes
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JO - Journal of the Acoustical Society of America
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N1 - Review of lateral-line structure/function and low-frequency flow sensing.
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AU - C. J. Erickson
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JO - Animal Behaviour
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AU - N. Goehring
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TI - Percussive Foraging: Stimuli for Prey Location by Aye-Ayes (Daubentonia madagascariensis)
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JO - International Journal of Primatology
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JF - International Journal of Primatology
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N1 - Experimental evidence for interface/cavity cues in aye-aye prey location.
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TY - JOUR
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AU - Nihar Masurkar
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AU - Jiming Kang
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AU - H. Nemati
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AU - Ehsan Dehghan-Niri
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TI - Aye-aye middle finger kinematic modeling and motion tracking during tap-scanning
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JO - Biomimetic Intelligence and Robotics
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JF - Biomimetic Intelligence and Robotics
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PY - 2023
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UR - https://consensus.app/papers/details/80bd94728c1058419a38683438f904af/?utm_source=chatgpt
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N1 - Two-link robotic-arm / kinematic model for aye-aye tap-scanning.
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TY - JOUR
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AU - H. Nemati
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AU - Ehsan Dehghan-Niri
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TI - The acoustic near-field measurement of aye-ayes' biological auditory system utilizing a biomimetic robotic tap-scanning
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JO - Bioinspiration & Biomimetics
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JF - Bioinspiration & Biomimetics
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PY - 2020
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UR - https://consensus.app/papers/details/bf4767c8ab865069b79590d4f3585dde/?utm_source=chatgpt
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N1 - Biomimetic measurement of aye-aye near-field acoustic receiver behavior.
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ER -
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TY - JOUR
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AU - Lin Chen
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AU - H. Xiong
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AU - Xiaohan Sang
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AU - Cheng Yuan
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AU - Xiuquan Li
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AU - Qingzhao Kong
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TI - An innovative deep neural network-based approach for internal cavity detection of timber columns using percussion sound
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JO - Structural Health Monitoring
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JF - Structural Health Monitoring
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PY - 2021
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UR - https://consensus.app/papers/details/15d956b46c5654d68dcdc3c561285a34/?utm_source=chatgpt
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N1 - Percussion-sound model for detecting internal timber cavities.
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ER -
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