Review on influence,removal and chemical analysis of sulfur in nickel-based superalloy
ZHANG Yong1, YU Yingjie1, WANG Yanchen2, WANG Huaming3, LI Yao4, BAO Zhichao*4
1. Liaoning Academy of Materials,Shenyang 110167,China; 2. Guangdong Huaao Alloy New Materials Co.,Ltd.,Jiangmen 529727,China; 3. Hongxing Iron & Steel Co.,Ltd.,Jiuquan Iron and Steel Group Corporation,Jiayuguan 735100,China; 4. AECC Shenyang Liming Aero-engine Co.,Ltd.,Shenyang 110043,China
Abstract:The content of sulfur in nickel-based superalloy significantly affects its high temperature property. However, there are few reports about this in China especially the excellent oxidation resistance of ultra-low sulfur. Meanwhile, the corresponding smelting and quality monitoring system have been not established. Therefore, the related studies at abroad were systemically summarized in this paper. Firstly, the influences of sulfur on high temperature property especially high temperature mechanical property and high temperature oxidation resistance were introduced. It was found that when the mass fraction of sulfur was reduced to 0.3 μg/g, the oxidation layer was stably adhered and the oxidation resistance was improved significantly. Then, the approaches of inhibiting sulfur were introduced, including the decrease of sulfur content by hydrogen reduction, the addition of rare earth elements, and desulfuration with calcium oxide. The content of sulfur could be greatly reduced by the former method, but the sample size was usually small, which was mainly used for experiment research. The latter two methods could effectively remove sulfur and there were some reports on industrial production. Finally, the chemical analysis methods of sulfur were summarized. The isotope dilution mass spectrometry and glow discharge mass spectrometry have been widely used for the detection of ultra-low sulfur. Moreover, secondary ion mass spectrometry, glow discharge mass spectrometry and glow discharge optical emission spectrometry have been widely used for the distribution analysis of sulfur.
张庸, 于英杰, 王颜臣, 王化明, 李瑶, 鲍智超. 镍基高温合金中硫的影响、去除以及化学分析评述[J]. 冶金分析, 2024, 44(9): 27-34.
ZHANG Yong, YU Yingjie, WANG Yanchen, WANG Huaming, LI Yao, BAO Zhichao. Review on influence,removal and chemical analysis of sulfur in nickel-based superalloy. , 2024, 44(9): 27-34.
[1] 郭建亭.高温合金材料学[M].北京:科学出版社,2008. [2] Bar-Cohen,Yoseph.High temperature materials and mechanisms[M].Boca Raton:CRC Press,2014. [3] SUN Chao,HUANG Rongfang,GUO Jianting,et.al.Sufur distribution in K24 cast nickel-base superalloy and its influence on mechanical properties[J].High Temperature Technology,1988,6(3):145-148. [4] 周兰章,郭建亭.微量硫对K4169合金组织与性能的影响[J].金属学报,1995,31(6):261-265. ZHOU Lanzhang,GUO Jianting.Effects of sulphur content on microstructure and mechanical properties of alloy K4169[J].Acta Metallurgica Sinica,1995,31(6):261-265. [5] 陈少峰.硫对镍基单晶高温合金组织和力学性能的影响[D].沈阳:沈阳工业大学,2021. [6] CHEN Shaofeng,SHENG Naicheng,FAN Shigang,et al.Effect of sulfur on microstructures and solidification characteristics of a nickel-base single crystal superalloy[J].Metals and Materials International,2022,28(12):2962-2971. [7] Harris K,Wahl J B.Developments in superalloy castability and new applications for advanced superalloys[J].Materials Science and Technology,2009,25(2):147-153. [8] Sidorov V V,Yakimovich P V,Alekseev A V.Refining complexly alloyed molten nickel from sulfur impurity to less than 1 ppm during vacuum melting[J].Metallurgist,2020,64(1):61-66. [9] Harris K.Low sulfur nickel-base single crystal superalloy with PPM additions of lanthanum and yttrium:USA,US9150944B2[P].2015-10-6. [10] Gheno T,Monceau D,Oquab D,et al.Characterization of sulfur distribution in Ni-based superalloy and thermal barrier coatings after high temperature oxidation:A SIMS analysis[J].Oxidation of Metals,2010,73(s1-2):95-113. [11] Smith M A,Frazier W E,Pregger B A.Effect of sulfur on the cyclic oxidation behavior of a single crystalline,nickel-base superalloy[J].Materials Science & Engineering A,1995,203(1-2):388-398. [12] Smialek J L.Oxidation resistance and critical sulfur content of single-crystal superalloys[J].Transactions of the ASME,1998,120:370-374. [13] Smialek J L.Origins of a low-sulfur superalloy Al2O3 scale adhesion map[J].Crystals,2021,60(11):1-12. [14] Smialek J L.Invited review paper in commemoration of over 50 years of oxidation of metals:Alumina scale adhesion mechanisms:A retrospective assessment[J].Oxidation of Metals,2022,97:1-50. [15] Joh Y,Utada S,Osawa M,et al.Effect of sulfur on creep strength of Ni-base single-crystal superalloy,TMS-1700[J].Materials Transactions,2016,57(8):1305-1308. [16] Sidorov V V,Min P G,Kablov D E.Desulfurization of single-crystal nickel superalloys with vacuum melting[J].Metallurgist,2017,61(5-6):400-405. [17] Sidorova V V,Kablov D E,Min P G.The effect of sulfur and phosphorus impurities on the long-term strength of single crystals of the ZhS36-VI alloy under testing on the basis of up to 1 000 hours[J].Inorganic Materials:Applied Research,2019,10(4):802-805. [18] 赵云松,赵婷婷,张迈,等.S元素对镍基高温合金及其涂层组织和性能的影响研究进展[J].航空材料学报,2021,41(3):96-110. ZHAO Yunsong,ZHAO Tingting,ZHANG Mai,et al.Research progress of effect of S element on microstructure and properties of Ni based superalloy and coating[J].Journal of Aeronautical Materials,2021,41(3):96-110. [19] LIU Chenguang,XU Huan,ZHANG Hui,et al.Research progress of the effects of trace S element on the microstructure of cast nickel-base superalloys[C]//E3S Web of Conferences.[S.l.]:EDP Sciences,2021. [20] ZHAN Xin,WANG Dong,ZHANG Zongpeng,et al.Effect of trace sulfur on the hot corrosion resistance of Ni-base single crystal superalloy[J].Corrosion Science,2023,224:111528. [21] 张庸,李瑶,郑立春,等.高频燃烧红外吸收法测定金属材料中碳和硫的研究进展[J].冶金分析,2022,42(6):18-29. ZHANG Yong,LI Yao,ZHENG Lichun,et al.Research progress in determination of carbon and sulfur in metals by high frequency combustion infrared absorption method[J].Metallurgical Analysis,2022,42(6):18-29. [22] Smialek J L.The effect of hydrogen annealing on the impurity content of alumina-forming alloys[J].Oxidation of Metals,2001,55(1-2):75-86. [23] Smialek J L.Diffusional limits of superalloy desulfurization by hydrogen annealing[J].Metallurgical and Materials Transcations A,2021,52:2698-2701. [24] Sidorov V V,Rigin V E,Min P G,et al.Removal of a sulfur impurity from complex nickel melts in vacuum[J].Russian Metallurgy,2015,57(6):910-915. [25] Sidorov V V,Min P G,Folomeikin Yu I,et al.Influence of the rate of filtration of a complexly alloyed nickel melt through a foam-ceramic filter on the sulfur impurity content in the metal[J].Russian Metallurgy,2015,57(6):487-489. [26] Ford D A,Fullagar K P L,Bhangu H K,et al.Improved performance rhenium containing single crystal alloy turbine blades utilizing ppm levels of the highly reactive elements lanthanum and yttrium[J].Journal of Engineering for Gas Turbines & Power,1999,121(1):138-143. [27] Smialek J L,Pint B A.Optimizing scale adhesion on single crystal superalloys[J].Materials Science Forum Vols,2001(369-372):459-466. [28] Leyland S P,Edmonds I M,Irwin S,et al.The distribution and retention of yttrium and lanthanum in cast single crystal superalloys[C]//Superalloys 2016:Proceedings of the 13th International Symposium on Superalloys.[S.l.]:TMS (The Minerals,Metals & Materials Society),2016. [29] Utada Satoshi,Joh Yuichiro,Osawa Makoto,et al.High temperature properties of a single crystal superalloy PWA1484 directly recycled after turbine blade use[C]//Superalloys 2016:Proceedings of the 13th International Symposium on Superalloys.[S.l.]:TMS(The Minerals, Metals & Materials Society),2016. [30] Utada Satoshi,Joh Yuichiro,Osawa Makoto,et al.Creep property and phase stability of sulfur-doped Ni-base single-crystal superalloys and effectiveness of CaO desulfurization[J].Metallurgical and Materials Transactions A,2018,49(9):4031-4043. [31] Sugiyama Takuya,Utada Satoshi,Yokokawa Tadaharu,et al.Oxidation resistance improvement of Ni-base single-crystal superalloy melted in a CaO crucible[J].Metallurgical and Materials Transactions A,2019,50(8):3903-3911. [32] Watanabe Kazuo.Determination of sulfur in nickel-base alloys and alloy steels by isotope dilution mass spectrometry[J].Analytica Chimica Acta,1975,80(1):117-123. [33] Watanabe Kazuo.Accurate determination of sulfur in steels and certain heat-resisting alloys by isotope dilution mass spectrometry[J].Talanta.1979,26:251-253. [34] Chieux Marion,Duhamel Ce′cilie,Molins Re′gine.Sulfur localization in NiPtAl/superalloy systems after high temperature isothermal oxidation[J].Oxidation of Metals,2014,81:115-125. [35] D′Souza N,Liu F,Irwin S.The effect of high temperature thermal cycling on near-surface sulphur partitioning in gamma and gamma prime phases and its implications on sulphur segregation in coated Ni-base superalloys[J].Oxidation of Metals,2016,85:369-389. [36] BAI Mingwen,JIANG Haibo,CHEN Ying.Migration of sulphur in thermal barrier coatings during heat treatment[J].Materials and Design,2016,97:364-371. [37] WANG Yongqing,Smialek J L,MARC Suneson.Oxidation behavior of Hf-modified aluminide coatings on inconel 718 at 1 050 ℃[J].Journal of Coating Science and Technology,2014,1(1):25-45. [38] Yun D W,Seo S M,Jeong H W,et al.The cyclic oxidation behaviour of Ni-based superalloy GTD-111 with sulphur impurities at 1 100 ℃ [J].Corrosion Science,2015,90:392-401. [39] Kang Dong-Soo,Lee Hyungsoo,Yun Dae Won.Influence of trace amounts of sulfur on the microstructure and mechanical properties of directionally solidified Ni-based superalloy GTD-111[J].Korean Journal of Metals And Materials,2022,60(10):782-792. [40] Swadada R,Swadzda L,Wiedermann J,et al.Characterization of alumina scales grown on a 2nd generation single crystal Ni superalloy during isothermal oxidation at 1 050,1 100 and 1 150 ℃[J].Oxidation of Metals,2014,82:195-208. [41] Kawagishi Kyoko,Tabata Chihiro,Sugiyama Takuya,et al.Suppression of sulfur segregation at scale/substrate interface for sixth-generation single-crystal Ni-base superalloy[C]//Superalloys 2020.[S.l.]:TMS(The Minerals, Metals & Materials Society),2020. [42] Tabata Chihiro,Kawagishi Kyoko,Uzuhashi JUN.Quantitative analysis of sulfur segregation at the oxide substrate interface in Ni-base single crystal superalloy[J].Scripta Materialia,2021,194:113616. [43] Evans H E.Predicting oxide spallation from sulphur contaminated oxide metal interfaces[J].Oxidation of Metals,2013,79:3-14. [44] Decrescente Michael A,Bornstein Norman S,Smeggil John G.Oxidation resistant superalloys containing low sulfur levels:USA,4895201[P].1990-01-23. [45] Tubbs B K,Smialek J L.Effect of sulfur removal on scale adhesion to PWA 1480[J].Metallurgical and Materials Transactions A,1995,26(2):427-435. [46] Smialek J L,Jayne D T,Schaeffer J C.Effects of hydrogen annealing, sulfur segregation and diffusion on the cyclic oxidation resistance of superalloys:A review[J].Thin Solid Films,1994,253:285-292. [47] Yunus Azakli,Kerem Ozgur Gunduz,Sezgin Cengiz.High-temperature cyclic oxidation behaviour of Pt-rich γ-γ′ coatings.Part I:Oxidation kinetics of coated AM1 systems after very long-term exposure at 1 100 ℃[J].Oxidation of Metals,2021,95:135-156. [48] Sidorov V V,Min P G.Refining a complex nickel alloy to remove a sulfur impurity during vacuum induction melting part I[J].Russian Metallurgy,2014,56(12):982-986. [49] Sidorov V V,Min P G.Refining a complex nickel alloy to remove a sulfur impurity during vacuum induction melting part II[J].Russian Metallurgy,2014,56(12):987-991. [50] Sidorov V V,Rigin V E,Goryunov A V.Highly efficient technologies and modern equipment for obtaining semifinished products made of heat-resistant foundry alloys for use as charge materials[J].Metallurgist,2012,56(5-6):329-335. [51] Goryunov A V,Rigin V E,Sidorov V V.Effect of rare-earth metals on cast high-temperature and corrosion-resistant alloy cleanliness and service properties[J].Metallurgist,2018,62(1-2):156-162. [52] Irvine Jeffrey D,Vogt Russell G,Bierstine Donald L,et.al.Ultra low sulfur superalloy castings and method of making:USA,5922148[P].1999-07-13. [53] Yokokawa Tadaharu,Harada Hiroshi,Kawagishi Kyoko,et al.3 ton melting with CaO desulfurization of Ni-base single crystal superalloy TMS-1700, Simulating a Recycling of Used Turbine Blades[C]//Superalloys 2020.[S.l.]:TMS(The Minerals, Metals & Materials Society),2020. [54] Tabata Chihiro,Kawagishi Kyoko,Uzuhashi JUN,et al.Unveiling the mechanism of improved oxidation resistance for CaO crucible melting using Ni-Al alloy[J].Metallurgical and Materials Transactions A,2022,53:2452-2458. [55] Yuki Kishimoto,Satoshi Utada,TAKETO Iguchi,et al.Desulfurization model using solid CaO in molten Ni-base superalloys containing Al[J].Metallurgical and Materials Transactions B,2020,51:293-305. [56] Takahide Horie,Takaaki Kono,Yuki Kishimoto,et al.Correction to:The effect of CaO-MgO mixture on desulfurization of molten Ni-base superalloy[J].Metallurgical and Materials Transactions B,2021,52:3558-3573. [57] Tabata Chihiro,Kawagishi Kyoko,Yokokawa Tadaharu,et al.Effect of Ca addition on the oxidation resistance of Ni-Al Alloy[J].Metallurgical and Materials Transactions A,2023,54:1937-1945. [58] LIN Chenyu,SHENG Naicheng,FAN Shigang,et al.Effect of rare earth oxides on desulfurization reaction at CaO ceramic surface during smelting of Ni-based superalloy[J].Applied Surface Science,2023,620:156831-156840. [59] Glyn Churchill,Karol Putyera,Viktoria Weinstein,et al.New μs-pulsed DC glow discharge assembly on a fast flow high power source for time resolved analysis in high resolution mass spectrometry[J].Journal of Analytical Atomic Spectrometry,2011,26:2263-2273. [60] Lara Lobo,Beatriz Fernandez,Rosario Pereiro.Depth profile analysis with glow discharge spectrometry[J].Journal of Analytical Atomic Spectrometry,2017,32:920-930. [61] Wang Yongqing,Suneson Marc,Sayre Guy.Synthesis of Hf-modified aluminide coatings on Ni-base superalloys[J].Surface & Coatings Technology,2011(206):1218-1228. [62] Thomas Prohaska,Johanna Irrgeher,Andreas Zitek.Sector field mass spectrometry for elemental and isotopic analysis[M].Cambridge:The Royal Society of Chemistry,2015. [63] Bengtson Arne,Hoffmann Volker,Kasik Martin,et al.Encyclopedia of Analytical Chemistry[M].[S.l.]:John Wiley & Sons,Ltd.,2017.