Please wait a minute...
中国腐蚀与防护学报  1981, Vol. 1 Issue (3): 48-63    
  研究报告 本期目录 | 过刊浏览 |
用穆斯堡尔谱学等方法研究低合金钢在海水中锈层的相组成
马如章;吴继勋;计桂泉;章佩群;吴卫芳
北京钢铁学院;北京钢铁学院;中国科学院高能物理所;中国科学院高能物理所;中国科学院高能物理所
A Study of the Phase Cemponents of Rust Layers Fomed on Low-Alloy Steels in Sea Water
Ma Ruzhang Wu Jixun (The Beijin University of Iron and Steel Technology)Ji Guiquan Zhang Peiqun Wu Weifang (Institute of Physics of High Energy; Academsa Sinica)
全文: PDF(1404 KB)  
摘要: 本工作用穆斯堡尔谱学等方法对几种钢的海水锈层进行了分析研究。主要分析了锈层的相组成。宏观观察表明以硅铬铜镍为合金元素的C—4钢内锈层比较致密,较厚、较坚硬、连成较大的板状块。而以锰钛为主要合金元素的C—2钢的内锈层较薄、不均匀、较脆,甚至有时不能连成一块。穆斯堡尔谱学、X线、红外吸收光谱、热差分析,都说明内锈层的主要组成相是针铁石(α—FeOOH),其颗粒的线度尺寸约为3×10~2。电子探针的锈层微区域成份分析表明、铬、铜、镍各元素在内锈层中都有富集。而锰元素与此相反,不但没有富集、反而有所消失。钛的富集情况不明显。根据本文研究结果,可以得出以下初步看法:①低合金钢中的少量合金成分对锈层中的物相组成没有明显的影响;②各合金元素在内锈层中富集与否可能影响内锈层的致密度及厚度,从而影响耐蚀性;③锈层中的物相有微晶而不是非晶质的。内锈层中主要组成物粒度已小到使其表现为超顺磁状态,在液氮温度显示反铁磁性状态。
Abstract:A study of the rust layers fomed on low-alloy steels in sea water was made by using Mossbauer spectroscopy, X-ray diffraction, infrared absorption spectroscopy and DTA. The influences of alloying elements on the morphology of rust layers, the effect of enrichment of various alloying elements in the inner rust layer on corrosion resistance, and the crystallography of Jrust layers were discussed.
收稿日期: 1981-06-25     

引用本文:

马如章;吴继勋;计桂泉;章佩群;吴卫芳. 用穆斯堡尔谱学等方法研究低合金钢在海水中锈层的相组成[J]. 中国腐蚀与防护学报, 1981, 1(3): 48-63.
. A Study of the Phase Cemponents of Rust Layers Fomed on Low-Alloy Steels in Sea Water. J Chin Soc Corr Pro, 1981, 1(3): 48-63.

链接本文:

https://www.jcscp.org/CN/      或      https://www.jcscp.org/CN/Y1981/V1/I3/48

[1] 门智,渡边:防蚀技术,Vol.25,173(1976)
[2] J. Petersen: Werks. u. Korros., Vol. 28, 743(1977)
[3] 玉田明宏,谷村昌幸:防蚀技术,Vol.1,No.11. 513(1972)
[4] 小若正论,钻川光夫,长野博夫:金属,Vol.21,No.2,185(1976)
[5] 汤川宪一;金属材料,Vol.19,94(1977)
[6] Inovye, K. Iohimuya, K, Kaneko, T. Ishikara, Corrosion Sci. Vol. 16, No. 8, 507(1976)
[7] R. Bruno, A. Tamba. G. Bombara: Corrosion, Vol. 29, 95 (1973)
[8] 三浞俊平等:防蚀技术,Vol、23,17-27(1974)
[9] 下平三郎:日本金屑学会会报,Vol、16,No.9,615(1977)
[10] W. A. Schultze, C. J, Vander Wekken: Brit. Corr. J., Vol. 11, No. 1, 18(1976)
[11] 武钢研究所:海水用钢的腐蚀锈层结构,(1978)
[12] 井上胜也:化学工业,Vol.27,571(1974)
[13] G. V. Loseva, V. V. Murashko, A. V. Polosin, Chemical Abs, 80, 152308, Heopzah. Mat. Tour, No. 3, 473(1974)
[14] N. Yamamoto, Y. Endoh, H. Takaki, J. Phys. Soc. Japan, Vol. 19, 1744 (1964)
[15] G. W. Simmons, H. Leidheiser Jr., Application of Mossbauer Spectroscopy, Vol. 1, ed. by R. L. Cohen, Academic Press, New York(1976)
[16] M. J. Graham, M. Cohen, Corrosion, Vol. 32, No. 11, 432(1976)
[17] H. Kufsch et al, Neue Hutte, No. 19, 303(1974)
[18] T. Peer et al., Radiochem. Radioanal. Letters, Vol. 33, No. 4, 265(1978)
[19] 荒木透等:铁钢腐蚀学,153(1972) .
[20] J. E. Moreira et al., Anal. Chem. Acta, Vol. 63, 295(1973)
[21] P. O. Voznyuk et al., Sov. Phys. Solidstate, Vol. 15, 1296 (1973)
[22] T. Isikawa et al., Bull. Chem. Soc. Japan, Vol. 46, 2665(1973)
[23] C. Janot., L'Effet Mossbauer et Application. dans Phys. Solid et Met. Physo 223-225(1972)
[24] D. W. Collins et al., Mossbauer Effect Methodology, Vol. 3, 103-122(1967)
No related articles found!