The aerodynamic effects of wing rotation and a revised quasi-steady model of flapping flight.

By Sanjay Sane, Michael H. Dickinson. Journal of Experimental Biology, 2002

838 citations recorded by the source corpus.

View Paper: https://www.semanticscholar.org/paper/a0a5ee29bafb97b3e44afc322a53ac5e0429666d

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Citations in the corpus

Aerodynamic and functional consequences of wing compliance (2009, unknown): “forces that either augment or reduce the net force due to translation (Sane 2003; Sane and Dickinson 2002).”
The aerodynamics of insect flight (2003, methodology): “…(Bennett, 1977; Maxworthy, 1979; Spedding and Maxworthy, 1986), delayed stall (Dickinson and Götz, 1993; Ellington et al., 1996), rotational lift (Bennett, 1970; Ellington, 1984d; Dickinson et al., 1999; Sane and Dickinson, 2002) and wing–wake interactions (Dickinson, 1994; Dickinson et al., 1999).”
Influence of wing kinematics on aerodynamic performance in hovering insect flight (2007, background): “The lift-increasing effect of the LEV strongly depends on the kinematics of the flapping wing (Dickinson, Lehmann & Sane 1999; Wang 2000b; Sane & Dickinson 2001, 2002).”
Can Tip Vortices Enhance Lift of a Flapping Wing (2009, background): “Wake capture depends strongly on the wing kinematics [6], and performance of delayed stall is affected seriously by the stability of theLEV [4,7] aswell as theflowparameters such as the Reynolds number [3,8].”
Aerodynamic forces of revolving hummingbird wings and wing models (2004, background): “wing rotation at the ends of half-strokes (to date not quantified, but probably exceeding 90°) indicate high angular velocities and associated rotational contributions to lift production (Ellington, 1984c; Sane & Dickinson, 2002 ).”
State-space representation of the unsteady aerodynamics of flapping flight (2014, unknown): “(6) matches well the experiments of Dickinson et al. [15], Sane and Dickinson [43] and Andersen et al. [2].”
Longitudinal Flight Dynamics of Hovering MAVs/Insects (2014, unknown): “[15], Sane and Dickinson [27], and Andersen et al.”
DISSECTING INSECT FLIGHT (2005, background): “…2002, Ramamurti & Sandberg 2002, Wang et al. 2004a; D. Russell & Z. Wang, in preparation) between experiments and computations, comparison of 2D and 3D systems (Wang et al. 2004a), as well as construction of simple models of fluid forces (Minotti 2002, Pesavento & Wang 2004, Sane & Dickinson 2002).”
Unconventional lift-generating mechanisms in free-flying butterflies (2002, background): “jpg" NDATA ITEM> ]> Flying insects generate forces that are too large to be accounted for by conventional steady-state aerodynamic”
Integrative Model of Drosophila Flight (2008, unknown): “The wing aerodynamics model is based on prior work using a dynamically scaled physical model [19,21,22].”
Time-resolved reconstruction of the full velocity field around a dynamically-scaled flapping wing (2006, methodology): “An example of the latter is the blade element approach (Sane and Dickinson 2002).”
Passive wing pitch reversal in insect flight (2007, background): “models (Wang et al. (2004), Sane & Dickinson (2002) ).”
Aeromechanics of Membrane Wings with Implications for Animal Flight ArnoldSong, ∗ XiaodongTian, † EmilyIsraeli, ‡ RicardoGalvao, § KristinBishop, ¶ SharonSwartz, ∗∗ (2008, background): “Birds, which have been studied extensively, have relatively rigid wings with limited degrees of freedom, whereas insect flight, which occurs at much lower Reynolds numbers, can be characterized by the relatively simple articulated flapping motion of effectively rigid wings [1–3].”
Flapping flight for biomimetic robotic insects: part I-system modeling (2006, unknown): “Depending on the direction of the rotation, the flow circulation causes rotational forces that either add or subtract from the net force due to translation [36], [28], [37].”
Aeromechanics of passive rotation in flapping flight (2010, background): “Experiments that explicitly measure the moment about the rotational axis are likely to be required to better clarify the magnitude and variation of this parameter.”