mathematical modeling of convection plume over an infinite-length porous source

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A.I. Denisenko (Zaporizhzhya National Technical University, Zaporizhzhya, Ukraine ) Ye.A. Gayev (Institute of Hydromechanics of NASU, Kyiv, Ukraine) Mathematical modeling of convection plume over an infinite-length porous source of heat and moisture

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Kyiv, May 4 -- 15, 2004. NATO Advanced Study Institute. A . I . Denisenko ( Zaporizhzhya National Technical University, Zaporizhzhya, Ukraine ) Ye.A. Gayev ( Institute of Hydromechanics of NASU, Kyiv, Ukraine ). Mathematical modeling of convection plume over an infinite-length porous source - PowerPoint PPT Presentation

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Page 1: Mathematical modeling of convection plume over an infinite-length porous source

A.I. Denisenko (Zaporizhzhya National Technical University, Zaporizhzhya, Ukraine)

Ye.A. Gayev (Institute of Hydromechanics of NASU, Kyiv, Ukraine)

Mathematical modeling of convection plume

over an infinite-length porous source

of heat and moisture

Page 2: Mathematical modeling of convection plume over an infinite-length porous source

Introduction

Page 3: Mathematical modeling of convection plume over an infinite-length porous source
Page 4: Mathematical modeling of convection plume over an infinite-length porous source
Page 5: Mathematical modeling of convection plume over an infinite-length porous source

Spraying Cooling Systemof Zaporizhzhya' Nuclear Power Plant

Page 6: Mathematical modeling of convection plume over an infinite-length porous source

Conclusion

Page 7: Mathematical modeling of convection plume over an infinite-length porous source

References

• 1. Schiller L.• 2. Schlichting G. • 3. Gayev Ye.A. Models of easily penetrable roughness for Nature and Engineering., Kiev,

2004. (to be published in Russian with extended abstract in English)• 4. Finnigan J.J., Brunet Y. Turbulent airflow in forests on flat and hilly terrain. In: Wind and

Trees (Edited by M.P.Coutts and J.Grace). Cambridge University Press, 1995, pp. 3 -- 40.• 5. Britter R.E., Hanna S.R. Flow and Dispersion in Urban Areas. – Annual Review of Fluid

Mechanics, 35, 2003, pp. 469 – 496.• 6. Naot D., Nezu I., Nakagawa H. Hydrodynamic bahaviour of partly vegetated open

channels. // J. of Hydraulic Engineering, pp. 625 -- 633, 1996.• 7. Roach P.J. Computational Fluid Dynamics. Hermosa Publishers, Albuquerque, 1976

• 10. Shikhaliev S.Z. On the Efficiency of Solving of Initial-Boundary Value Problems for Parabolic Equations by Algorithm of Polynomial Acceleration. In: 4th Intern. Conf. on Inform. System, Anal. and Synth., Vol. 2, 1998. Orlando, USA, pp. 386 - 390.