Review: Low transformation temperature weld filler for tensile residual stress reduction
暂无分享,去创建一个
[1] Seung Jin Oh,et al. Effects of microstructure and residual stress on fatigue crack growth of stainless steel narrow gap welds , 2010 .
[2] T. F. Volynova,et al. Brittleness of α, ε, and γ solid solutions of Fe-Mn alloys , 1979 .
[3] G. Farrahi,et al. The effect of shot peening on fatigue life of welded tubular joint in offshore structure , 2012 .
[4] T Dahle,et al. Design fatigue strength of TIG-dressed welded joints in high-strength steels subjected to spectrum loading , 1998 .
[5] Lixing Huo Yufeng Zhang Dongpo Wang Hongyang Jing Wenxian Wang. New Developed Welding Electrode for Improving the Fatigue Strength of Welded Joints , 2009 .
[6] Shuichi Nakamura,et al. Effect of Oxygen Content on Toughness in High Strength Weld Metal , 2010 .
[7] Lixing Huo,et al. Investigation of the fatigue behaviour of the welded joints treated by TIG dressing and ultrasonic peening under variable-amplitude load , 2005 .
[8] A. Kromm,et al. Determination of Residual Stresses in Low Transformation Temperature (LTT -) Weld Metals using X-ray and High Energy Synchrotron Radiation , 2009 .
[9] A. Ohta,et al. Superior fatigue crack growth properties in newly developed weld metal , 1999 .
[10] Thomas Sourmail,et al. Critical assessment of models for predicting the Ms temperature of steels , 2005 .
[11] A. Kromm,et al. Characterizing PHASE TRANSFORMATIONS of different LTT alloys and their effect on RESIDUAL STRESSES and COLD CRACKING , 2011 .
[12] A. P. Gulyaev,et al. A Comparison Of The Visual Effects Of Two Transform Domain Encoding Approaches , 1979 .
[13] W. Wenxian,et al. Ultrasonic Peening and Low Transformation Temperature Electrodes used for Improving the Fatigue Strength of Welded Joints , 2004 .
[14] H. Bhadeshia,et al. Comparison of alloying concepts for Low Transformation Temperature (LTT) welding consumables , 2010 .
[15] H. Bhadeshia,et al. Some phase transformations in steels , 1999 .
[16] H. Bhadeshia,et al. The Effects of Filler Metal Transformation Temperature on Residual Stresses in a High Strength Steel Weld , 2009 .
[17] Jian Lu,et al. Handbook of Measurement of Residual Stresses , 1995 .
[18] W. Blows,et al. Temperature. , 2018, Nursing times.
[19] S. J. Maddox,et al. Fatigue strength of welded structures , 1991 .
[20] H. Bhadeshia,et al. Transformation Temperatures and Welding Residual Stresses in Ferritic Steels , 2007 .
[21] C. Capdevila,et al. Analysis of effect of alloying elements on martensite start temperature of steels , 2003 .
[22] Horst-Hannes Cerjak,et al. Mathematical Modelling of Weld Phenomena 7 , 2004 .
[23] Young Hoon Moon,et al. Investigation of residual stress and post weld heat treatment of multi-pass welds by finite element method and experiments , 2004 .
[24] K. Anami,et al. Improving Fatigue Strength by Additional Welding with Low Temperature Transformation Welding Electrodes , 2001 .
[25] K. Hiraoka,et al. Analysis of Martensite Transformation Behavior in Welded Joint of Low Transformation-Temperature Materials , 2007 .
[26] H. Bhadeshia,et al. Stainless steel weld metal designed to mitigate residual stresses , 2009 .
[27] Gregory B Olson,et al. Kinetics of F.C.C. → B.C.C. heterogeneous martensitic nucleation—I. The critical driving force for athermal nucleation , 1994 .
[28] K. Nikbin,et al. Effect of low transformation temperature weld filler metal on welding residual stress , 2010 .
[29] T. Shimoyama,et al. Welding of Maraging Steels , 1967 .
[30] H. Bhadeshia,et al. Design of weld fillers for mitigation of residual stresses in ferritic and austenitic steel welds , 2011 .
[31] J. Bolton,et al. The mechanical properties of α-phase low-carbon Fe-Mn alloys , 1971 .
[32] P. F. Morris,et al. Prediction of martensite start temperature using artificial neural networks , 1996 .
[33] O. Watanabe,et al. Fatigue Strength Improvement of Box Welded Joints by Using Low Transformation Temperature Welding Material. , 2000 .
[34] H. Bhadeshia,et al. Characterizing Phase Transformations and Their Effects on Ferritic Weld Residual Stresses with X-Rays and Neutrons , 2008 .
[35] H. Bhadeshia. Phase transformations contributing to the properties of modern steels , 2010 .
[36] T. Siewert,et al. Cruciform fillet welded joint fatigue strength improvements by weld metal phase transformations , 2008 .
[37] Shuvra Das,et al. Residual Stress and Distortion , 2003 .
[38] K. Hiraoka,et al. Development of new low transformation temperature welding consumable to prevent cold cracking in high strength steel welds , 2007 .
[39] L. Karlsson,et al. Development of matching composition supermartensitic stainless steel welding consumables , 1999 .
[40] Marc Thomas,et al. Residual stress characterization in low transformation temperature 13%Cr-4%Ni stainless steel weld by neutron diffraction and the contour method , 2010 .
[41] K. Hiraoka,et al. Atmospheric Corrosion Behavior of High Strength Steel Weld Joints Formed by Low Transformation-Temperature Welding Consumables , 2006 .
[42] R. Farrar,et al. Columnar grain development in C-Mn-Ni low-alloy weld metals and the influence of nickel , 1995, Journal of Materials Science.
[43] Kunihiko Satoh,et al. Thermal Stresses Developed In High-strength Steels Subjected To Thermal Cycles Simulating Weld Heat-affected Zone , 1966 .
[44] E. A. Wilson,et al. The nature of intergranular embrittlement in quenched FeMn alloys , 1978 .
[45] V. Balasubramanian,et al. Assessment of some factors influencing the fatigue life of strength mis-matched HSLA steel weldments , 2004 .
[46] H. Bhadeshia,et al. Changes in toughness at low oxygen concentrations in steel weld metals , 2006 .
[47] Naoyuki Suzuki,et al. Unique fatigue threshold and growth properties of welded joints in a tensile residual stress field , 1997 .
[48] J. Jorge,et al. Microstructural analysis of a single pass 2.25% Cr–1.0% Mo steel weld metal with different manganese contents , 2005 .
[49] O. Watanabe,et al. Fatigue strength improvement of box welds using low transformation temperature welding material. Tripled fatigue strength by post weld heat treatment , 2002 .
[50] Michel Rappaz,et al. Modeling of casting, welding and advanced solidification processes-V : proceedings of the fifth International Conference on Modeling of Casting and Welding Processes, held in Davos Switzerland, September 16-21, 1990 , 1991 .
[51] G. Totten,et al. Handbook of Residual Stress and Deformation of Steel , 2001 .
[52] R. Honeycombe. Steels, Microstructure and Properties , 1982 .
[53] Massoud Malaki,et al. Strength enhancement of the welded structures by ultrasonic peening , 2012 .
[54] Arne Kromm,et al. In Situ Observation of Phase Transformations during Welding of Low Transformation Temperature Filler Material , 2010 .
[55] H. K. D. H. Bhadeshia,et al. Prediction of martensite start temperature of power plant steels , 1996 .
[56] A. Ohta,et al. Fatigue Strength Improvement of Lap Welded Joints by Low Transformation Temperature Welding Wire — Superior Improvement with Strength of Steel , 2003 .
[57] Zuheir Barsoum,et al. Spectrum fatigue of high strength steel joints welded with low temperature transformation consumables , 2009 .
[58] S. Kundu. Transformation strain and crystallographic texture in steels , 2007 .
[59] K. Yao,et al. Study of the effects of stress and strain on martensite transformation: Kinetics and transformation plasticity* , 2000 .
[60] D. P. Koistinen,et al. A general equation prescribing the extent of the austenite-martensite transformation in pure iron-carbon alloys and plain carbon steels , 1959 .
[61] P. F. Parasyuk. Structure and properties of iron-manganese alloys , 1975 .
[62] Wenxian Wang. INVESTIGATION ON PHASE STRESS AND ITS APPLICATION TO IMPROVING FATIGUE STRENGTH OF WELDED JOINTS , 2002 .
[63] S. Zwaag,et al. Determination of Martensite Start Temperature in Engineering Steels Part I. Empirical Relations Describing the Effect of Steel Chemistry , 2000 .
[64] A. Combescure,et al. Numerical simulation of welding induced damage and residual stress of martensitic steel 15-5PH , 2008 .
[65] L. Karlsson,et al. Fatigue properties of longitudinal attachments welded using low transformation temperature filler , 2003 .
[66] Ying Zhang,et al. Cross-sectional mapping of residual stresses in a VPPA weld using the contour method , 2004 .
[67] M. Mochizuki,et al. Analysis of martensite transformation behaviour in welded joint using low transformation temperature welding wire , 2010 .
[68] H. K. D. H. Bhadeshia,et al. Influence of carbon, manganese and nickel on microstructure and properties of strong steel weld metals: Part 2 – Impact toughness gain resulting from manganese reductions , 2006 .
[69] H. K. D. H. Bhadeshia,et al. Developments in martensitic and bainitic steels: role of the shape deformation , 2004 .
[70] Masahito Mochizuki,et al. Angular distortion of fillet welded T joint using low transformation temperature welding wire , 2009 .
[71] Stephen J Maddox,et al. Fatigue design rules for welded structures , 2000 .
[72] L. Svensson,et al. Increasing fatigue life using Low Transformation Temperature (LTT) welding consumables , 2013 .
[73] A. Ohta,et al. Repair of fatigue cracks initiated around box welds using low transformation temperature welding material , 2004 .
[74] Stephen Liu,et al. Effect of Martensite Start and Finish Temperature on Residual Stress Development in Structural Steel Welds , 2008 .
[75] K. Hiraoka,et al. Analysis of martensite transformation behaviour in welded joints of low transformation-temperature materials , 2009 .
[76] Gregory B Olson,et al. Kinetics of F.c.c. → b.c.c. heterogeneous martensitic nucleation-II. Thermal activation , 1994 .
[77] G. Sarkar,et al. Development and comparison of residual stress measurement on welds by various methods , 2004 .
[78] Marc Thomas,et al. Residual stress and microstructure in welds of 13%Cr-4%Ni martensitic stainless steel , 2009 .