Circular cylinder wakes and vortex-induced vibrations

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A review of recent studies on vortex-induced vibrations of long slender cylinders (2012, methodology): “…number of studies summarized in the comprehensive reviews of Griffin and Ramberg (1982), Khalak and Williamson (1999), Blackburn et al. (2001), Sarpkaya (2004), Williamson and Govardhan (2004), Gabbai and Benaroya (2005), Sumner (2010), Bearman (2011) and in the book of Paı̈doussis et al. (2011).”
Flow-induced vibrations of a rotating cylinder (2013, background): “The maximum amplitude of VIV responses is generally of the order of one cylinder diameter; it is, however, influenced by structural properties (e.g. mass-damping parameter) and by the Reynolds number (Re) (Bearman 2011), and it can reach two diameters at Re≈ 105 (Raghavan & Bernitsas 2011).”
Mechanism of frequency lock-in in vortex-induced vibrations at low Reynolds numbers (2015, background): “For a comprehensive review of the research on various aspects of VIV, one can refer to Sarpkaya (2004), Williamson & Govardhan (2004) and Bearman (2011).”
Modelling of coupled cross-flow/in-line vortex-induced vibrations using double Duffing and van der Pol oscillators (2012, background): “Although a basic mechanism of the VIV occurrence is well known (Blevins, 1990) and VIV-related subjects have been extensively investigated (Bearman, 2011; Sarpkaya, 2004; Williamson and Govardhan, 2004), a completely reliable simulation model for predicting the associated fluid-structure interaction”