182 / 352
178
2.
Guide to the implementation of directives based on the New Approach and the Global
Approach, European Commission Directorate – General for Enterprise and Industry, Danish
Technological Institute – DTI, (2000).
3.
Pravilnik o tehničkim zahtevima za opremu pod pritiskom, Službeni glasnik –Official journal
L 181, (1997) (in Serbian). (Regulation of technical requirements for pressure equipment)
4.
Arsić, M., Kurai, J., Aleksić, V., “
European pressure equipment directive and non-destructive
examinations in structure integrity assessment
“, International Conference „Pressure equipment
sector in Europe and the reflections in The Republic of Macedonia“- Quality assurance and
integrity assessment, Skopje, (2005), pp. 35-42.
5.
Hertzberg, R.W., „
Deformation and Fracture Mechanics of Engineering Materials
“, John
Wiley & Sons, New York, (1996).
6.
Sedmak, A., „
Primena mehanike loma na integritet konstrukcija
“, Univerzitet u Beogradu,
Mašinski fakultet, Beograd, (2003). (in Serbian) (The application of fracture mechanics to
structural integrity)
7.
Burdekin, F.M., Dawes, M.G., „
Practical Use of Linear Elastic and Yielding Fracture
Mechanics with Particular Reference in Pressure Vessels
“, Proc. of the Institute of Mechanical
Engineering Conference, London, (1971), pp 28-37.
8.
Japan Welding Engineering Society Standard "Method of Assessment for Flaws in Fusion
Welded Joints with respect to Brittle Fracture and Fatigue Crack Growth"; WES 2805, (1997).
9.
Schwalbe, K.H. et al, EFAM ETM 97 „Method for assessing the significance of crack-like
defects in engineering structures“, GKSS report, Geesthacht, Germany, (1997).
10. Kumar, V., German, M.D., Shih, C.F., „An engineering approach for elastic-plastic fracture
mechanics analysis“, Report EPRI, NP-1931, RP 1237-1, General Electric, Schenectady, (1981).
11. Erdogan, P., Ratvani, M.M., Irwin, G., „Fracture Propagation in a Cylindrical Shell Con-
taining an Initial Flaw“, Lehigh University, Research Report, (1974).
12. King, R.B., "
Elastic-plastic analysis of surface flaw Using a Simplified Line-spring Model
",
Eng. Fracture Mech. 18, (1983), pp. 217-231.
13. Aleksić V., Arsić M., Sedmak S.: “
A methodology approach in modelling and calculating the
strength of a mobile pressure vessel by finite element method
”, VII Int. science meeting on
achievements in the power and machine industry DEMI 2005, Banja Luka, (2005), pp. 29- 34.
14. Petrovski, B., „
Određivanje preostale nosivosti suda pod pritiskom sa površinskom prslinom
“,
doktorska disertacija, Tehnološko-metalurški fakultet, Beograd, (1985). (in Serbian) (Residual
strength assessment of a pressure vessel with surface crack)
15. D.T.Rid, „
Analiza mehanike loma i krive dopuštenih veličina greški za površinske prsline u
cevovodima
“, III letnja škola mehanike loma, Aranđelovac, (1984). (in Serbian) (Fracture
mechanics analysis and curves of allowable defect sizes for surface cracks in pipelines)
16. Aleksić, V., Arsić, M., „
Procena čvrstoće zavarenih spojeva na tankim cilindričnim ljuskama
oslabljenim aksijalnom prslinom, modifikovanom REI metodom
“, Procesna tehnika, 1/ 2002,
pp. 123 – 126. (in Serbian) (Assessment of welded joint strength on thin cylindrical shells
weakened by axial crack, applying REI model)
17. Adžiev, T., “Contributions in the research of residual stress effects on the fracture resistance of
welded structure with a crack” (in Macedonian), Doctoral thesis, Faculty of Mechanical
Engineering, University of Skopje, (1988).
18. Adžiev, T., “
Zaostali naponi od zavarivanja – uticaj na ponašanje posude pod pritiskom sa
prslinom”
, IFMASS 6, GOŠA-TMF, (1994), p. 127. (in Serbian) (Residual stresses from
welding – effect on the behaviour of a pressure vessel with crack)
19. Sedmak, A., Burzić, Z., Aleksić, V.: “
Inženjerske metode za proračun parametara mehanike
loma zavarenij spojeva
”, IFMASS 7, TMF-JSZ-GOŠA, 2000, p. 305. (in Serbian).
(Engineering methods for calculating fracture mechanics parameters of welded joints)