The term horseshoe vortex is also used in wind engineering to describe the flow pattern created by strong winds around the base of a tall building. This effect is amplified by the presence of a low-rise building just upwind. This effect was studied at the UK Building Research Establishment between 1963 and 1973 and the cause of the effect is described in contemporary wind engineering text books.
In hydrodynamics, a form of horseshoe vortex forms around bluff bodies in the flowing water, for instance around bridge piers. They can cause scouring of bed materials from both upstream and downstream of the pier.
In nature, a horseshoe vortex can cause a horseshoe cloud to form.There are some Notes may help
^ Millikan, Clark B., Aerodynamics of the Airplane, Figure 1.35
^ McCormick, Barnes W., Aerodynamics, Aeronautics, and Flight Mechanics, Chapter 3
^ "Shed Vortex". NASA Glenn Research Center. Retrieved April 11, 2015.
^ McCormick, Barnes W., Aerodynamics, Aeronautics, and Flight Mechanics, Chapter 4
^ McCormick, Barnes W., Aerodynamics, Aeronautics, and Flight Mechanics, Figure 4.21
^ Cook, NJ. The designer's guide to wind loading of building structures, Part 1, Figure 8.7
^ Dargahi, Bijan (1989). "The turbulent flow field around a circular cylinder". Experiments in Fluids. 8: 1–12.doi:10.1007/BF00203058.
^ "An incredibly rare 'horseshoe cloud' was spotted in Nevada and it kept the meme-makers busy". Independent.ie. 12 March 2018. Retrieved 12 March 2018.Also some References could provide some clearifications
References
Anderson, John D. (2007), Fundamentals of Aerodynamics, Section 5.3 (4th ed.), McGraw-Hill, New York NY. ISBN 978-0-07-295046-5
L. J. Clancy (1975), Aerodynamics, Section 8.10, Pitman Publishing Limited, London ISBN 0-273-01120-0
Cook, N.J. (1985), The designer's guide to wind loading of building structures, Part 1, Butterworths, London ISBN 0-408-00870-9
McCormick, Barnes W., (1979), Aerodynamics, Aeronautics, and Flight Mechanics, John Wiley & Sons, Inc. New YorkISBN 0-471-03032-5
Millikan, Clark B., (1941), Aerodynamics of the Airplane, Section 1-6 John Wiley and Sons, Inc., New York
Penwarden, A.D., Wise, A.F.E., (1975) Wind environment around buildings, HMSO, London ISBN 0-11-670533-7.
Piercy, N.A.V. (1944), Elementary Aerodynamics, Article 213, The English Universities Press Ltd., London.
Von Mises, Richard, (1959), Theory of Flight, Chapter IX - section 4, Dover Publications, Inc., New York ISBN 0-486-60541-8
for heat transfer
Then there is a corner vortex that is horseshoe-like vortex formed in the corner between the front side of the VG and the fin. ... The longitudinal vortices can potentially enhance heat transfer with small pressure loss penalty and a better heat transfer effect than that of latitudinal vortices
The term horseshoe vortex is also used in wind engineering to describe the flow pattern created by strong winds around the base of a tall building. This effect is amplified by the presence of a low-rise building just upwind. This effect was studied at the UK Building Research Establishment between 1963 and 1973 and the cause of the effect is described in contemporary wind engineering text books.
In hydrodynamics, a form of horseshoe vortex forms around bluff bodies in the flowing water, for instance around bridge piers. They can cause scouring of bed materials from both upstream and downstream of the pier.
In nature, a horseshoe vortex can cause a horseshoe cloud to form.There are some Notes may help
^ Millikan, Clark B., Aerodynamics of the Airplane, Figure 1.35
^ McCormick, Barnes W., Aerodynamics, Aeronautics, and Flight Mechanics, Chapter 3
^ "Shed Vortex". NASA Glenn Research Center. Retrieved April 11, 2015.
^ McCormick, Barnes W., Aerodynamics, Aeronautics, and Flight Mechanics, Chapter 4
^ McCormick, Barnes W., Aerodynamics, Aeronautics, and Flight Mechanics, Figure 4.21
^ Cook, NJ. The designer's guide to wind loading of building structures, Part 1, Figure 8.7
^ Dargahi, Bijan (1989). "The turbulent flow field around a circular cylinder". Experiments in Fluids. 8: 1–12.doi:10.1007/BF00203058.
^ "An incredibly rare 'horseshoe cloud' was spotted in Nevada and it kept the meme-makers busy". Independent.ie. 12 March 2018. Retrieved 12 March 2018.Also some References could provide some clearifications
References
Anderson, John D. (2007), Fundamentals of Aerodynamics, Section 5.3 (4th ed.), McGraw-Hill, New York NY. ISBN 978-0-07-295046-5
L. J. Clancy (1975), Aerodynamics, Section 8.10, Pitman Publishing Limited, London ISBN 0-273-01120-0
Cook, N.J. (1985), The designer's guide to wind loading of building structures, Part 1, Butterworths, London ISBN 0-408-00870-9
McCormick, Barnes W., (1979), Aerodynamics, Aeronautics, and Flight Mechanics, John Wiley & Sons, Inc. New YorkISBN 0-471-03032-5
Millikan, Clark B., (1941), Aerodynamics of the Airplane, Section 1-6 John Wiley and Sons, Inc., New York
Penwarden, A.D., Wise, A.F.E., (1975) Wind environment around buildings, HMSO, London ISBN 0-11-670533-7.
Piercy, N.A.V. (1944), Elementary Aerodynamics, Article 213, The English Universities Press Ltd., London.
Von Mises, Richard, (1959), Theory of Flight, Chapter IX - section 4, Dover Publications, Inc., New York ISBN 0-486-60541-8
for heat transfer
Then there is a corner vortex that is horseshoe-like vortex formed in the corner between the front side of the VG and the fin. ... The longitudinal vortices can potentially enhance heat transfer with small pressure loss penalty and a better heat transfer effect than that of latitudinal vortices
horseshoe vortex is the name used to identify the vortex created in front of tubes in the channels between two consecutive fins of a heat exchanger. the flow facing the frontal part of tubes change its path and impinging on the fins. As results two vortex are created at both sides of the tube flowing in the same direction of the main flow. that vortex are responsible for the heat transfer enhancement in the area where they are flowing and its intensity is increasing with velocity of the main flow.