Weld characterization and residual stress measurements for TC-128B steel plate

Journal of Pressure Vessel Technology, Transactions of the ASME

Volumn 124, Issue 4, 2002, Pages 405-414

  Sutton, M A ^a   Abdelmajid, I ^a   Zhao, W ^a   Wang, D ^b   Hubbard, C ^b  

^a The Department of Mechanical Engineering   (United States)

^b OAK RIDGE NATIONAL LABORATORY   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

CRACK PROPAGATION; FATIGUE OF MATERIALS; FRACTURE; NEUTRON DIFFRACTION; PLATES (STRUCTURAL COMPONENTS); RESIDUAL STRESSES; SHEAR STRESS; TANK CARS; WELDING; YIELD STRESS;

STEEL PLATES;

WELDED STEEL STRUCTURES;

EID: 0036860805     PISSN: 00949930     EISSN: None     Source Type: Journal    
DOI: 10.1115/1.1487878     Document Type: Article

References (18)

1. Transportation Research Board, 1993, "Ensuring Railroad Tank Car Safety," SR-243.
2. McKeighan, P.C., Warke, R.W., and Cardinal, J.W., 2001, "End-of Life Structural Teardown of Welded Tank Car Stub Sills," 43rd MWSP Conf. Proc., ISS, Vol. XXXIX, pp. 849-860.
3. McKeighan, P.C., Smith, K.B., and Cardinal, J.W., 1997, "Load Interaction Effects in Coupon Fatigue Tests Using a Railroad Tank Car Spectrum," Rail Transportation 1997, ASME, RTD-Vol. 13, D.H. Stone, ed., pp. 33-41.
4. Smith, K.B., Cardinal, J.W., and McKeighan, P.C., 1997, "Stub-Sill Tank Car Damage Tolerance Analysis Full-Scale Validation Test," Rail Transportation 1997, ASME, RTD-Vol. 13, D.H. Stone, ed., pp. 43-48.
5. Cardinal, J.W., McKeighan, P.C., and Hudak, Jr., S.J., 1998, "Damage Tolerance Analysis of Tank Car Stub Sill Cracking," Final Report, SwRI Project No. 06-6965.
6. Garcia, G., 1998, "Tank Car Nondestructive Evaluation," Draft Final Report, FRA Task Order No. 116, Transportation Technology Center, Inc., Sept.
7. Larson, R.K., Florom, R.L., and Rajkumar, B.R., 1992, "Residual Stress Measurements of Retrofitted Tank Car Weldments," DOT/FRA/ORD-92-05.
8. Pellini, W.S., 1983, "Feasibility Analysis for Tank Car Applications of New Microalloyed and Controlled Rolled Steels-Description of Fracture Properties and Comparisons with Steels in Present Use," AAR - R - 543.
9. Hicho, G.E., and Harne, D.E., 1991, "Mechanical Properties and Fracture Toughness of AAR TC-128B Steel in the Normalized, and Normalized and Stress Relieved Conditions," NISTIR 4660.
10. Hicho, G.E., Zahoor, A., Fields, R.J., and de Wit, R., 1993, "Fracture Mechanics Evaluation of Railroad Tank Cars Containing Circumferential Cracks," NISTIR 5179.
11. Gurney, T.S., 1968, Fatigue of Welded Structures, Cambridge Press.
12. Potter, J.M., and McHenry, H.I., 1990, "Fatigue and Fracture Testing of Weldments," ASTM STP 1058.
13. Krawitz, A.D., 1990, "Residual Stress Analysis with Neutrons," Proc. of Mat. Res. Soc., 166, pp. 281-292.
14. Forman, R.G., et al., 2000, "Fatigue Crack Growth Computer Program," NASGRO, Version 3.05, NASA-JSC, Apr.
15. Zhao, W., Sutton, M.A., and Newman, J.C., 1997, "K3D-A Program for Determining Stress Intensity Factors for Surface and Corner Cracks from a Hole," ASTM STP 1321.
16. Militaru, D., and Dong, R., 1997, "Dynamic Structural Characterization of Stub Sill Tank Cars Utilizing ADAMS and ANSYS Simulation Models," NRC-Canada Report CSTT-RYV-TR-010.
17. Koopman, R., and Militaru, D., 1997, "Tank Car Derailment Analysis," NRC-Canada Report CSTT-RYV-CTR-25.
18. Standard Test Methods for Determining Average Grain Size, 1996, Annual Book of ASTM Standards, Vol. 03.01, 226-248.