The paper presents the fatigue life for axial load and rotating bending for S355J2+C structural steel. The tests were carried out on standard testing machine Instron 8874 (axial load) and a rotating bending test stand. The analytical models calculating the fatigue life at bending load to the fatigue life at axial load were verified.
REFERENCES
1.
PN-EN 1993-1-9
, Eurokod 3: Designing steel structures. Part 1-9: Fatigue
(2007
).2.
A. F.
Hobbacher
, IIW document IIW-1823-07 recommendations for fatigue design of welded joints and components (International Institute of Welding
, 2008
).3.
S.
Kocańda
and J.
Szala
, Basis of calculation of fatigue
[in Polish] (Wydawnictwo Naukowe PWN
, Warsaw
, 1997
).4.
M.
Kocak
, S.
Webster
, J.
Janosch
, J. A.
Ainsworth
and R. R.
Koers
, FITNET Fitness-for-Service PROCEDURE – FINAL DRAFT MK7
(2006
).5.
H. J.
Grover
, S. A.
Gordon
and L. R.
Jackson
, The Fatigue of Metals and Structures
(1954
).6.
H. A.
Philipp
, Einfluß von Querschnittsgröße und Querschnittsform
, (Forsch. Auf Dem Gebiete Des Ingenieurwesens
, 13
, 1942
) pp. 99
–111
.7.
P.
Strzelecki
and T.
Tomaszewski
, Analysis of axial load and bending load effects on the fatigue life
, (AIP Conference Proceedings
, 2018
) pp. 020019
.8.
H.
Wentzel
and X.
Huang
, Experimental characterization of the bending fatigue strength of threaded fasteners
(International Journal of Fatigue
, 72
, 2015
) pp. 102
–108
.9.
H.
Özdeş
, M.
Tiryakioğlu
and P. D.
Eason
, On estimating axial high cycle fatigue behavior by rotating beam fatigue testing: Application to A356 aluminum alloy castings
(Materials Science and Engineering: A
, 697
, 2017
), pp. 95
–100
.10.
A.
Esin
, A method for correlating different types of fatigue characteristic
(International Journal of Fatigue
, 2
, 1980
), pp. 153
–158
.11.
Y. L.
Lee
, J.
Paw
, B.
Hathaway
, Richard and E. B.
Mark
, Fatigue Testing and Analysis - Theory and Practice
(Elsevier Butterworth–Heinemann
, 2005
).12.
C. M.
Sonsino
, Course of SN-characteristics especially in the high-cycle fatigue regime with regard to component design and safety
(International Journal of Fatigue
, 29
, 2007
), pp. 2246
–2258
.13.
S. S.
Manson
and U.
Muralidharan
, Fatigue life prediction in bending from axial fatigue information
(Fatigue & Fracture of Engineering Materials & Structures
, 9
, 1987
), pp. 357
–372
.14.
W.
Weibull
, A statistical theory of the strength of materials
(R. Swedish Inst. Eng. Res.
, 151
, 1939
).15.
H. P.
Gaenser
, Some notes on gradient, volumetric and weakest link concepts in fatigue
, Computational Materials Science
, 44
, 2008
), pp. 230
–239
.16.
B.
Van Hooreweder
, P.
Sas
, R.
Boonen
, D.
Moens
and F.
De Coninck
, Experimental investigation of scaling laws for mechanical fatigue behaviour
(Proc. 8th Natl. Congr. Theor. Appl. Mech
., 2009
), pp. 659
–663
.17.
P.
Strzelecki
and J.
Sempruch
, Experimental verification of the analytical method for estimated S-N characteristic in limited fatigue life
(Materials Science Forum
, 726
, 2012
), pp. 11
–16
.18.
ISO-1099
, Metallic materials – Fatigue testing – Axial force-controlled method
(Geneva
, 2006
).19.
ISO-1143
, Metallic materials – Rotating bar bending fatigue testing
(Geneva
, 2010
).20.
ISO-12107
, Metallic materials – fatigue testing – statistical planning and analysis of data
(Geneva
, 2012
).21.
T.
Górecki
, Basics of statistics with examples in R
(in Polish) (Wydawnictwo BTC
, Legionowo
, 2011
).22.
Y.
Murakami
, Material defects as the basis of fatigue design
(International Journal of Fatigue
, 41
, 2012
), pp. 2
–10
.23.
T.
Tomaszewski
, J.
Sempruch
and T.
Piątkowski
, Verification of selected models of the size effect based on high-cycle fatigue testing on mini specimens made of EN AW-6063 aluminum alloy
(Journal of Theoretical and Applied Mechanics
, 52
, 2014
), pp. 883
–894
.
This content is only available via PDF.
© 2019 Author(s).
2019
Author(s)
