不同成矿阶段流体包裹体气相成分的四极质谱测定
Determination of quadrupole mass spectrometer for gaseous composition of fluid inclusionfrom different mineralization stages.
-
摘要: 四极质谱法测定的爆裂温度曲线,可区分出不同成矿阶段群体包裹体温度区间,并分别测定其气相组成。代表不同成矿阶段的包裹体气相组成有明显差异。本研究表明用四极质谱法测定同一样品中不同成矿阶段的包裹体气相组分是可行的,拓宽了成矿流体研究的思路,为研究多期次成矿流体的来源、演化和解译矿床成因提供了新的方法、手段。Abstract: It can be distinguished the temperature range of cluster inclusions from different mineralization stages and can be measured their gaseous composition for burst temperature curve determined by Quadrupole Mass Spectrometer. Various gaseous composition of fluid inclusion represents different mineralization stages. This study concluded that it is feasible for Quadrupole Mass Spectrometer to determine the gaseous composition of fluid inclusion from different mineralization stages in one sample. Hence, it would be widened the researching way and wishes to provide a new method for investigating the origin and evolution of multi-stage ore-forming fluid and interpreting the genesis of deposit.
-
[1] [1]Lu Huanzhang, Guo Dijiang. 2000. Progress and trends of researches on fluid inclusions. Geological Review, 46(4):385-392 (in Chinese with English abstract)
[2] [2]WANG LiJuan, 1998. Analysis and studay of the composition of fluid inclusions. Geological Review, 44(5),496-501 (in Chinese with English abstract)
[3] [3]Masakatsu Sasada, Takayuki Sawaki and Naoto Takeno. 1992. Analysis of fluid inclusion gases from geothermal systems, using a rapid-scanning quadrupole mass spectrometer. Eur. J. Mineral., 4: 895-906
[4] [4]David I. Norman and John A. Musgrave. 1994. N2-Ar-He compositions in fluid inclusinos: Indicatorsof fluid source. Geochimica et Cosmochimica Acta, 58(3):1119-1131
[5] [5]Yoichi Muramatsu, Ryo Komatus, Takayuki Sawaki and Munetake Sasaki. 1997. Gas composition of fluid inclusion from the Mori geothermal reservoir, southwestern Hokkaido, Japan. Resource Geology,47(5):283-291
[6] [6]Joseph R. Graney and Stephen E. Kesler. 1995. Factors affecting gas analysis of inclusion fluid by quadrupole mass spectrometry. Geochimica et Cosmochimica Acta, 59(19):3977-3986
[7] [7]Zhu Heping, Wang Lijuan. 2000. Determining gaseous composition of fluid inclusions with Quadrupole Mass Spectrometer. Science in China, D31(7):586-590 (in Chinese)
[8] [8]Liu Wei, Li XJ and Tan J. 2003. Fluid mixing as the mechanism of formation of the Dajing Cu -Sn-Ag-Pb-Zn ore deposit, Inner Mongolia ― fluid inclusion and stable isotope evidence. Science in China, D46(7) (in press)
[9] [9]Liu Wei, Li XJ, and Deng J. 2003. Sources of ore-forming fluids and metallic materials in the Jinwozi lode gold deposit, eastern Tianshan Mountains of China. Science in China, D46(Supp.) :135-153
[10] [10]卢焕章,郭迪江. 2000. 流体包裹体研究的进展和方向. 地质论评,46(4):385-392
[11] [11]王莉娟. 1998. 流体包裹体成分分析研究. 地质论评,44(5):496-501
[12] [12]朱和平,王莉娟. 2000. 四极质谱测定流体包裹体中的气相成分. 中国科学,D31(7):586-590
[13] [13]刘伟,李新俊,谭俊. 2002. 内蒙古大井铜-锡-银-铅-锌矿床的流体混合作用--流体包裹体和稳定同位素证据. 中国科学,D32(5):405-414
[14] [14]刘伟,李新俊,邓军. 2002. 东天山金窝子石英脉金矿床成矿流体和成矿物质的来源. 中国科学,D32(增刊):105-119
计量
- 文章访问数: 8558
- PDF下载数: 9349
- 施引文献: 0