Mechanisms of anguilliform locomotion in fishes studied using simple three-dimensional physical models
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[1] George V Lauder,et al. Undulatory locomotion of flexible foils as biomimetic models for understanding fish propulsion , 2014, Journal of Experimental Biology.
[2] S. Kuratani,et al. Identification of vertebra-like elements and their possible differentiation from sclerotomes in the hagfish , 2011, Nature communications.
[3] R. Åke Norberg,et al. Delta-wing function of webbed feet gives hydrodynamic lift for swimming propulsion in birds , 2003, Nature.
[4] A. Blight. THE MUSCULAR CONTROL OF VERTEBRATE SWIMMING MOVEMENTS , 1977 .
[5] George V Lauder,et al. Hydrodynamics of C-Start Escape Responses of Fish as Studied with Simple Physical Models. , 2015, Integrative and comparative biology.
[6] George V. Lauder,et al. Robotic Models for Studying Undulatory Locomotion in Fishes , 2011 .
[7] Rajat Mittal,et al. The effect of fin ray flexural rigidity on the propulsive forces generated by a biorobotic fish pectoral fin , 2010, Journal of Experimental Biology.
[8] John O Dabiri,et al. Suction-based propulsion as a basis for efficient animal swimming , 2015, Nature Communications.
[9] John O. Dabiri,et al. On the estimation of swimming and flying forces from wake measurements , 2005, Journal of Experimental Biology.
[10] Lauder,et al. Locomotor forces on a swimming fish: three-dimensional vortex wake dynamics quantified using digital particle image velocimetry. , 1999, The Journal of experimental biology.
[11] Melina E. Hale,et al. Functions of fish skin: flexural stiffness and steady swimming of longnose gar, Lepisosteus osseus , 1996, The Journal of experimental biology.
[12] M. Koehl,et al. Using physical models to study the gliding performance of extinct animals. , 2011, Integrative and comparative biology.
[13] A. Cohen,et al. Wake structures behind a swimming robotic lamprey with a passively flexible tail , 2012, Journal of Experimental Biology.
[14] Chun Wai Liew,et al. Go reconfigure: how fish change shape as they swim and evolve. , 2010, Integrative and comparative biology.
[15] Sandra Nauwelaerts,et al. Propulsive force calculations in swimming frogs II. Application of a vortex ring model to DPIV data , 2005, Journal of Experimental Biology.
[16] Silas Alben. Optimal flexibility in flapping appendages , 2008 .
[17] B. Jayne. Swimming in constricting (Elaphe g. guttata) and nonconstricting (Nerodia fasciata pictiventris) colubrid snakes , 1985 .
[18] J. Dabiri. Note on the induced Lagrangian drift and added-mass of a vortex , 2006, Journal of Fluid Mechanics.
[19] Gillis,et al. Anguilliform locomotion in an elongate salamander (Siren intermedia): effects of speed on axial undulatory movements , 1997, The Journal of experimental biology.
[20] Thelma L. Williams,et al. Strategies for swimming: explorations of the behaviour of a neuro-musculo-mechanical model of the lamprey , 2015, Biology Open.
[21] T. Winegard,et al. Diverse anguilliform swimming kinematics in Pacific hagfish (Eptatretus stoutii) and Atlantic hagfish (Myxine glutinosa) , 2015 .
[22] J. H. Long. Muscles, Elastic Energy, and the Dynamics of Body Stiffness in Swimming Eels' , 1998 .
[23] J. Videler,et al. How the body contributes to the wake in undulatory fish swimming: flow fields of a swimming eel (Anguilla anguilla). , 2001, The Journal of experimental biology.
[24] M. Triantafyllou,et al. Oscillating foils of high propulsive efficiency , 1998, Journal of Fluid Mechanics.
[25] G. Lauder,et al. The hydrodynamics of eel swimming , 2004, Journal of Experimental Biology.
[26] SWIMMING FISH AND FISH-LIKE MODELS: THE HARMONIC STRUCTURE OF UNDULATORY WAVES SUGGESTS THAT FISH ACTIVELY TUNE THEIR BODIES , 1999 .
[27] C. Richards,et al. A bio-robotic platform for integrating internal and external mechanics during muscle-powered swimming , 2012, Bioinspiration & biomimetics.
[28] C. A. Pell,et al. Mechanical control of swimming speed: stiffness and axial wave form in undulating fish models , 1995, The Journal of experimental biology.
[29] George V Lauder,et al. Swimming near the substrate: a simple robotic model of stingray locomotion , 2013, Bioinspiration & biomimetics.
[30] Eric D Tytell,et al. The hydrodynamics of eel swimming II. Effect of swimming speed , 2004, Journal of Experimental Biology.
[31] John H. Long,et al. The Importance of Body Stiffness in Undulatory Propulsion , 1996 .
[32] John O Dabiri,et al. An algorithm to estimate unsteady and quasi-steady pressure fields from velocity field measurements , 2013, Journal of Experimental Biology.
[33] Silas Alben,et al. Optimal flexibility of a flapping appendage in an inviscid fluid , 2008, Journal of Fluid Mechanics.
[34] T. Bohr,et al. Vortex wakes of a flapping foil , 2009, Journal of Fluid Mechanics.
[35] Yonatan Munk. Kinematics of swimming garter snakes (Thamnophis sirtalis). , 2008, Comparative biochemistry and physiology. Part A, Molecular & integrative physiology.
[36] R. Shine,et al. Morphological adaptations to marine life in snakes , 2011, Journal of morphology.
[37] Marcus Hultmark,et al. Flowfield measurements in the wake of a robotic lamprey , 2007, Experiments in fluids.
[38] George V. Lauder,et al. Passive mechanical models of fish caudal fins: effects of shape and stiffness on self-propulsion , 2015, Bioinspiration & biomimetics.
[39] Alexander J. Smits,et al. Maximizing the efficiency of a flexible propulsor using experimental optimization , 2014, Journal of Fluid Mechanics.
[40] G. Gillis,et al. Environmental effects on undulatory locomotion in the American eel Anguilla rostrata: kinematics in water and on land , 1998 .
[41] C. C. Lindsey. 1 - Form, Function, and Locomotory Habits in Fish , 1978 .
[42] Peter A. Dewey,et al. Hydrodynamic wake resonance as an underlying principle of efficient unsteady propulsion , 2011, Journal of Fluid Mechanics.
[43] A. Cohen,et al. Interactions between internal forces, body stiffness, and fluid environment in a neuromechanical model of lamprey swimming , 2010, Proceedings of the National Academy of Sciences.
[44] G. Gillis. Patterns of white muscle activity during terrestrial locomotion in the American eel (Anguilla rostrata). , 2000, The Journal of experimental biology.
[45] L Wen,et al. Hydrodynamic investigation of a self-propelled robotic fish based on a force-feedback control method , 2012, Bioinspiration & biomimetics.
[46] George V Lauder,et al. Flexible propulsors in ground effect , 2014, Bioinspiration & biomimetics.
[47] G. Lauder,et al. Escaping the flow: boundary layer use by the darter Etheostoma tetrazonum (Percidae) during benthic station holding , 2011, Journal of Experimental Biology.
[48] S. Vogel. Life in Moving Fluids: The Physical Biology of Flow , 1981 .
[49] Kelsey N. Lucas,et al. Effects of non-uniform stiffness on the swimming performance of a passively-flexing, fish-like foil model , 2015, Bioinspiration & biomimetics.
[50] Peter A. Dewey,et al. Scaling laws for the thrust production of flexible pitching panels , 2013, Journal of Fluid Mechanics.
[51] P Holmes,et al. An elastic rod model for anguilliform swimming , 2006, Journal of mathematical biology.
[52] M. Koehl,et al. Physical modelling in biomechanics. , 2003, Philosophical transactions of the Royal Society of London. Series B, Biological sciences.
[53] M. A. MacIver,et al. Mechanical properties of a bio-inspired robotic knifefish with an undulatory propulsor , 2011, Bioinspiration & biomimetics.
[54] John H Long,et al. The notochord of hagfish Myxine glutinosa: visco-elastic properties and mechanical functions during steady swimming. , 2002, The Journal of experimental biology.