Crossref Citations
This article has been cited by the following publications. This list is generated based on data provided by
Crossref.
Hunt, J. C. R.
1981.
Some connections between fluid mechanics and the solving of industrial and environmental fluid-flow problems.
Journal of Fluid Mechanics,
Vol. 106,
Issue. -1,
p.
103.
1984.
The aerodynamics of hovering insect flight. IV. Aerodynamic mechanisms.
Philosophical Transactions of the Royal Society of London. B, Biological Sciences,
Vol. 305,
Issue. 1122,
p.
79.
Furber, S. B.
1985.
The effect of very low axial clearances on the performance of an axial-flow compressor stage.
Journal of Fluid Mechanics,
Vol. 159,
Issue. -1,
p.
477.
Spedding, G. R.
and
Maxworthy, T.
1986.
The generation of circulation and lift in a rigid two-dimensional fling.
Journal of Fluid Mechanics,
Vol. 165,
Issue. -1,
p.
247.
Kliss, M.
Somps, C.
and
Luttges, M.W.
1989.
Stable vortex structures: A flat plate model of dragonfly hovering.
Journal of Theoretical Biology,
Vol. 136,
Issue. 2,
p.
209.
Tsutahara, Michihisa
and
Kimura, Takeyoshi
1989.
Pump Technology.
p.
177.
KARAGOUNIS, T.
MAXWORTHY, T.
and
SPEDDING, G.
1989.
Generation and control of separated vortices over a delta wing by means of leading edge flaps.
Ro, Ki-Deok
and
Ahn, Soo Whan
2001.
Numerical analysis of ship’s propulsion mechanism of two-stage Weis-Fogh type by discrete vortex method.
KSME International Journal,
Vol. 15,
Issue. 11,
p.
1548.
Triantafyllou, M.S.
Techet, A.H.
and
Hover, F.S.
2004.
Review of Experimental Work in Biomimetic Foils.
IEEE Journal of Oceanic Engineering,
Vol. 29,
Issue. 3,
p.
585.
CROWDY, DARREN
2009.
The spreading phase in Lighthill's model of the Weis-Fogh lift mechanism.
Journal of Fluid Mechanics,
Vol. 641,
Issue. ,
p.
195.
Ro, Ki-Deok
Cheon, Jung-Hui
and
Kim, Won-Cheol
2009.
Performance Improvement of Weis-Fogh Type Ship's Propulsion Mechanism Using Spring Type Elastic Wing.
Journal of the Korean Society of Marine Engineering,
Vol. 33,
Issue. 1,
p.
52.
Tchieu, A. A.
Crowdy, D.
and
Leonard, A.
2010.
Fluid-structure interaction of two bodies in an inviscid fluid.
Physics of Fluids,
Vol. 22,
Issue. 10,
Ro, Kideok
2010.
Performance Improvement of Weis-Fogh Type Ship’s Propulsion Mechanism Using a Wing Restrained by an Elastic Spring.
Journal of Fluids Engineering,
Vol. 132,
Issue. 4,
Du, Lin
Sun, Xiaofeng
and
Yang, Vigor
2012.
Application of Unsteady Vortex Lift in Turbomachinery.
Ro, Ki-Deok
Zhu, Baoshan
and
Tsutahara, Michihisa
2012.
Unsteady flow field numerical calculations of a ship’s rotating Weis-Fogh-type propulsion mechanism with the advanced vortex method.
Journal of Mechanical Science and Technology,
Vol. 26,
Issue. 2,
p.
437.
Ro, Kideok
and
Zhu, Baoshan
2013.
Numerical Calculation of Unsteady Flow Fields: Feasibility of Applying the Weis-Fogh Mechanism to Water Turbines.
Journal of Fluids Engineering,
Vol. 135,
Issue. 10,
Ro, Ki Deok
2014.
Calculation of Hydrodynamic Characteristics of Weis-Fogh Type Water Turbine Using the Advanced Vortex Method.
Transactions of the Korean Society of Mechanical Engineers B,
Vol. 38,
Issue. 3,
p.
203.
Du, Lin
Sun, Xiaofeng
and
Yang, Vigor
2016.
Generation of Vortex Lift Through Reduction of Rotor/Stator Gap in Turbomachinery.
Journal of Propulsion and Power,
Vol. 32,
Issue. 2,
p.
472.
Du, Lin
Sun, Xiaofeng
and
Yang, Vigor
2016.
Vortex-Lift Mechanism in Axial Turbomachinery with Periodically Pitched Stators.
Journal of Propulsion and Power,
Vol. 32,
Issue. 2,
p.
486.
SAKAMOTO, Masahiko
and
TSUTAHARA, Michihisa
2017.
Application of the Weis-Fogh mechanism to a ship propulsion system (Analysis based on the two-dimensional potential flow on the opening and closing stages).
Journal of Fluid Science and Technology,
Vol. 12,
Issue. 2,
p.
JFST0017.