Computational models to dertermine fluiddynamical transients due to condensation induced water hammer (CIWH)

References

1 Joukowsky, N.: Über den hydraulischen Stoss in Wasserleitungsröhren, (transl.: On the hydraulic hammer in water supply pipes). Mémoires de l'Académie Impériale des Sciences de St.-Pétersbourg, Series 8, 9 (1898) 1–71 (Im Detail lautet die Bezeichnung: Serie 8, Volume 9, Heft 5, Seiten 1–71)Suche in Google Scholar

2 Van Duyne, D. A.; Merilo, M. (Editors): Water Hammer Prevention Mitigation, and Accomodation. Electric Power Research Institute (EPRI), Final Report, NP-6766, Vol. 1–6, Research Project 2856–03 (1992)Suche in Google Scholar

3 Electric Power Research Institute (EPRI): GenericLetter 96–06 Waterhammer Issues Resolution. Final Report, Palo Alto (2002)Suche in Google Scholar

4 Bergant, A.; Simpson, A. R.; Tijsseling, A. S.: Water hammer with column separation; A historical review. Journal of Fluids and Structures22 (2006) 135–17110.1016/j.jfluidstructs.2005.08.008Suche in Google Scholar

5 Strubelj, L.; Ézsöl, Gy.; Tiselj, I.: Direct contact condensation induced transition from stratified to slug flow. Nuclear Engineering and Design240 (2010) 266–27410.1016/j.nucengdes.2008.12.004Suche in Google Scholar

6 CIWA-Project, Web-Page, http://www.tu-harburg.de/ciwa.htmlSuche in Google Scholar

7 Van Duyne, D. A.; Merilo, M. (Editors): Water Hammer Handbook for Nuclear Plant Engineers and Operators. Electric Power Research Institute (EPRI), TR-106438 (1996)Suche in Google Scholar

8 Griffith, P.: Screening Reactor Steam/Water Piping Systems for Water Hammer. NUREG/CR-6519, Massachusetts Institute of Technology (1997)10.2172/527558Suche in Google Scholar

9 Bjorge, R. W.; Griffith, P.: Initiation of water hammer in horizontal and nearly horizontal pipes containing steam and subcooled water. ASME Journal Heat Transfer, 106 (1983) 835–84010.1115/1.3246760Suche in Google Scholar

10 Chun, M.-H.; Yu, S.-O.: A parametric study and guide chart to avoid condensation-induced water hammer in a horizontal pipe. Nuclear Engineering and Design, 201 (2000) 239–25710.1016/S0029-5493(00)00280-6Suche in Google Scholar

11 Sung, C.-K.; Chun, M.-H.: Onset Slugging Criterion Based on Singular Points and Stability Analyses of Transient One-Dimensional Two-Phase Flow Equations of Two-Fluid Model. Journal of the Korean Nuclear Society28 (1996) 299–310Suche in Google Scholar

12 Tiselj, I.; et al.: WAHALoads – Two-Phase Flow Water Hammer Transients and Induced Loads on Materials and structures of Nuclear Power Plants. JSI-Report, IJS-DP-8841, Rev. Mar-04., Ljubljana, (2004)Suche in Google Scholar

13 Neuhaus, T.; Schaffrath, A.: Tripartite Mass Transfer Model: Development, Implementation in DYVRO, Verification and Validation. Kerntechnik, 77, 2 (2012) 115–121Suche in Google Scholar

14 Downar-Zapolski, P.; Bilicki, Z.; Bolle, L.; Franco, J.: The non-equilibrium relaxation model for one-dimensional flashing liquid flow. International Journal of Multiphase Flow22 (1996) 473–48310.1016/0301-9322(95)00078-XSuche in Google Scholar

15 Lemmonier, H.: An attempt to apply the homogeneous relaxation model to the WAHA-loads benchmark tests with interaction with the mechanical structure. CEAT3.3-D61-200302, WAHALoads project deliverable D61 (2002)Suche in Google Scholar

16 Mills, A. F.: Heat Transfer. 2^nd Edition, Prentice Hall (1999)Suche in Google Scholar

17 Gale, J.; Tiselj, I.: WAHA (Water Hammer) computer code, The Practical Application of Surge Analysis for Design and Operation. Proceedings of the 9^th International Conference on Pressure Surges, Vol. 2, Chester, UK, 24–26 March 2004, 619–632Suche in Google Scholar

18 Barna, I. F.; Imre, A. R.; Baranyai, G.; Ézsöl, Gy.: Experimental and theoretical study of steam condensation induced water hammer phenomena. Nuclear Engineering and Design, 240 (2010) 146–15010.1016/j.nucengdes.2009.09.027Suche in Google Scholar

19 Tannehill, J. C.; Anderson, D. A.; Pletcher, R. H.: Computational Fluid Mechanics and Heat Transfer. 2^nd Edition (1997) Taylor & Francis.Suche in Google Scholar

20 Laney, C. B.: Computational Gasdynamics. Cambridge University Press (1998)10.1017/CBO9780511605604Suche in Google Scholar

21 Ferziger, J. H.; Peric, M.: Computational Methods for Fluid Dynamics. 3^rd rev. Edition, Springer, Berlin, Heidelberg, New York (2002)10.1007/978-3-642-56026-2Suche in Google Scholar

22 Prasser, H.-M.; Ézsöl, Gy.; Baranyai, G.; Sühnel, T.: Spontaneous water hammers in a steam line in case of cold water ingress. Multiphase Science and Technology, 20 (2008) 265–28910.1615/MultScienTechn.v20.i3-4.30Suche in Google Scholar

23 Lerchl, G.; Augustregesilo, H.: ATHLET User's Manual, ATHLET Mod 2.0, Cycle A. Gesellschaft für Anlagen- und Reaktorsicherheit mbH (GRS) (2003)Suche in Google Scholar

24 Information System Laboratories, RELAP5/MOD3.3 Code Manual. NUREG/CR-5535, Vol. 1 – 8 (2001)Suche in Google Scholar

25 Giot, M. et al.: Two-Phase Flow Water Hammer Transients and Induced Loads on Materials and Structures of Nuclear Power Plants (WAHALoads). Final Report (2004)Suche in Google Scholar

26 ANSYSCFX, http://www.ansys.comSuche in Google Scholar

27 OpenFOAM, http://www.openfoam.comSuche in Google Scholar

28 CGNS, CFD General Notation System, Version 2.5, http://cgns.sourceforge.netSuche in Google Scholar

29 OpenMPI, Message Passing Interface, http://www.open-mpi.orgSuche in Google Scholar

30 Mahaffy, J.: Development of Best Practice Guidelines for CFD in Nuclear Reactor Safety, Nuclear Engineering and Design42 (2010) 377–381Suche in Google Scholar

31 Menter, F. et al.: CFD Best Practice Guidelines for CFD Validation for Reactor Safety Applications. 5^th EURATOM Framework Programme, ECORA, Contract No. FIKS-CT-2001–00154, European Commission (2002)Suche in Google Scholar

32 Bestion, D. et al.: Recommendation on Use of CFD Codes for Nuclear Reactor Safety Analysis. 5^th EURATOM Framework Programme, ECORA, Contract No. FIKS-CT-2001-00154, European Commission (2004)Suche in Google Scholar