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黄金科学技术 ›› 2021, Vol. 29 ›› Issue (2): 184-199.doi: 10.11872/j.issn.1005-2518.2021.02.157

• 矿产勘查与资源评价 • 上一篇    

胶东夏甸金矿床成因:流体包裹体及同位素证据

李逸凡1,2(),李洪奎3(),韩学林3,耿科3,张玉波3,陈国栋3   

  1. 1.山东科技大学土木工程与建筑学院,山东 青岛 266510
    2.潍坊学院建筑工程学院,山东 潍坊 261061
    3.山东省地质科学研究院,自然资源部金矿成矿过程与资源利用重点实验室,山东省金属矿产成矿地质过程与 资源利用重点实验室,山东 济南 250013
  • 收稿日期:2020-09-01 修回日期:2021-01-26 出版日期:2021-04-30 发布日期:2021-05-28
  • 通讯作者: 李洪奎 E-mail:windy11011@sina.com;lhklhk126@126.com
  • 作者简介:李逸凡(1986-),女,山东昌乐人,博士研究生,从事地质工程及岩土学等教学科研工作。windy11011@sina.com
  • 基金资助:
    国家自然科学基金项目“山东招远—平度断裂带夏甸金矿深部成矿特征研究”(41572068);国家重点研发计划项目“胶西北地区深部构造格架研究——依托于深部反射地震”(2016YFC0600107-5);国家公益性行业科研专项“胶东招平断裂带深部特征与金矿成矿过程研究”(201511029);“招平断裂带中段深部金矿成矿理论、找矿方法与成矿预测”(2017CXGC1605);山东省泰山学者建设工程专项联合资助

Genesis of Xiadian Gold Deposit in Jiaodong:Evidence from Fluid Inclusions and Isotopes

Yifan LI1,2(),Hongkui LI3(),Xuelin HAN3,Ke GENG3,Yubo ZHANG3,Guodong CHEN3   

  1. 1.College of Civil Engineering and Architecture,Shandong University of Science and Technology,Qingdao 266510,Shandong,China
    2.College of Architecture and Civil Engineering,Weifang University,Weifang 261061,Shandong,China
    3.Shandong Geological Sciences Institute,Key Laboratory of Gold Mineralization Processes and Resources Utili-zation,The Ministry of Land and Resources,Shandong Key Laboratory of Geological Processes and Resource Utilization in Metallic Minerals,Jinan 250013,Shandong,China
  • Received:2020-09-01 Revised:2021-01-26 Online:2021-04-30 Published:2021-05-28
  • Contact: Hongkui LI E-mail:windy11011@sina.com;lhklhk126@126.com

摘要:

为探讨夏甸金矿床成矿流体性质和来源,对该金矿-740~-820 m中段Ⅶ号矿体金矿石样品进行包裹体和S、H、O稳定同位素测定。夏甸金矿包裹体类型以富液体包裹体为主,其次为富气体包裹体和H2O-CO2三相包裹体,气液相比一般为10%~15%,VCO2LCO2LCO2LH2O相态占比较少;均一温度为72~342 ℃,主要集中在140~280 ℃之间,峰值为200 ℃;盐度[w(NaCl)]为0.5%~15.0%,主要集中在1.0%~7.0%之间;压力为61~541 MPa,平均压力为321.5 MPa;Ⅱ、Ⅲ成矿阶段的数据表明,夏甸金矿成矿温度、盐度和压力随着成矿阶段的推进而逐渐降低。包裹体物质成分主要为CO2、H2O和CH4δDH2O平均值为 -56.45‰,δOH2O平均值为11.67‰,变化范围窄,黄铁矿δ34SV-CDT值变化范围为+6‰~+8.1‰,平均值为 +7.04‰。富CO2包裹体、纯CO2包裹体和CO2-H2O包裹体是夏甸金矿床在主成矿期捕获的主要包裹体类型,而H2O溶液包裹体则主要出现在成矿晚期阶段,其成矿流体表现为温度中等、H2O-CO2-NaCl的较低盐度体系,并经历了流体相分离作用。H、O同位素特征表明主成矿期流体主要来自于壳源型花岗岩岩浆水,并有大气降水的加入,S同位素则指示硫源主要来自于胶东结晶基底岩系。

关键词: 包裹体, 稳定同位素, 矿床成因, 成矿物质来源, 夏甸金矿, 胶东地区

Abstract:

Gold ore fluid inclusions and S, H and O stable isotopes from -740~-820 m middle section of ore body VII in Xiadian gold deposit were measured to study the ore-forming fluid properties and sources.The fluid inclusions are mainly liquid rich inclusions, followed by gas rich inclusions and H2O-CO2 three-phase inclusions. The gas-liquid ratio is generally 10~15, and VCO2LCO2 and LCO2LH2O phases are less. The average temperature is 72~342 ℃, mainly concentrated in 140~280 ℃, with a peak value of 200 ℃. The salinity of [w(NaCl)] is 0.5%~15.0%, mainly concentrated in 1.0%~7.0%. The pressure is 61~541 MPa, and the average value is 321.5 MPa. The data of Ⅱ and Ⅲ metallogenic stages indicate that the temperature, salinity and pressure of the Xiadian gold deposit decrease gradually with the change of the mineralization stage. The fluid inclusions are mainly composed of CO2, H2O and CH4. The average value of δDH2O is -56.45 ‰, and the average value of δOH2O is 11.67‰, with narrow range of variation. The range of pyrite δ34SV-CDT value is +6‰~ +8.1‰, and the average value is +7.04‰. The inclusions rich in CO2, pure CO2 and CO2-H2O are the main inclusion types captured in the main metallogenic stage of Xiadian gold deposit, while the inclusions of H2O solution mainly appear in the late stage of mineralization. The ore-forming fluid is characterized by medium temperature, low salinity system with H2O-CO2-NaCl, and has experienced fluid phase separation. The H-O isotopic characteristics show that the main metallogenic stage ore-forming fluid mainly comes from magmatic water of crustal granite, with the addition of atmospheric precipitation. The S isotopic characteristics indicate that the sulfur source mainly comes from the crystalline basement rock system in Jiaodong area.

Key words: fluid inclusion, stable isotope, genesis of ore deposit, ore-forming material source, Xiadian gold mine, Jiaodong area

中图分类号: 

  • P618.51

图1

夏甸金矿床大地构造位置图1.新生界;2.中生界;3.新元古界;4.古元古界;5.太古宇;6.早白垩世伟德山花岗岩;7.早白垩世郭家岭花岗闪长岩;8.晚侏罗世中细粒二长花岗岩;9.中侏罗世文登花岗岩;10.三叠纪花岗岩;11.新元古代二长花岗岩;12.古元古代中基性侵入岩;13.太古宙TTG质花岗岩;14.中酸性岩脉;15.地质界线、角度不整合界线及平行不整合界线;16.断层;17.大型原生金矿;18.中型原生金矿;19.小型原生金矿"

图2

夏甸金矿床544勘查线地质剖面图1.晚侏罗世玲珑二长花岗岩;2.新太古代英云闪长岩;3.斜长角闪岩;4.碎粉岩;5.绢英岩化花岗质碎裂岩;6.黄铁绢英岩;7.花岗质碎裂岩;8.闪长玢岩;9.断层泥及断裂面;10.地质界线;11.金矿体;12.片麻理"

图3

含金黄铁矿石英脉流体包裹体显微照片(a)被黄铁矿包围的石英中含较多两相和三相H2O-CO2包裹体;(b)流体包裹体大小一般为5~10 μm,呈浑圆、椭圆、豆荚和负晶形等形状;(c)混浊—半透明石英(QzI),含有极细小的单液相、两相H2O±CO2包裹体,大小多在3 μm以下;石英(QzII)裂隙中分布有富气相、富液相H2O±CO2包裹体和单液相H2O包裹体,大小多为1~5 μm;(d)混浊—半透明石英的放大照Qz-石英;Py-黄铁矿;Ser-绢云母"

表1

夏甸金矿床流体包裹体显微测温、盐度和压力统计结果"

分析 编号岩矿名称矿化阶段赋存矿物类型大小 /μm气液比/%Th,CO2/℃Th,tot/℃盐度[w(NaCl)]/%压力/MPa
范围均值(n范围均值(n范围均值(n范围均值(n
XD011黄铁矿化石英脉QzH2×4~6×125~3590~221152(25)1.4~13.58.18(25)
H-C6×1210~1528.615112.81285
XD012矿化石英脉QzH2×4~6×135~80119~254176(26)1.23~14.87.89(26)
XD019矿化石英脉QzH2×4~5×145~80120~260170(19)1.02~6.453.96(21)
XD023矿化石英脉QzH2×4~6×910~90141~268185(21)0.43~13.453.19(21)
CJ003黄铁绢英岩QzH2×4~6×1010~15105~238190(30)3.52~14.066.31(30)
CJ006黄铁矿化石英脉QzH2×5~6×1410~15119~241185(26)5.71~6.456.12(26)
H-C4×8~6×103027.0~28.827.9(2)242~265253(2)7.61~7.787.75(2)247~281264(2)
CJ007黄铁绢英岩QzH2×4~4×510~15201~257229(21)0.43~4.442.71(21)
CJ008黄铁绢英岩QzH2×3~5×710~20131~195163(15)3.71~6.205.1(15)
H-C3×55030.22947.61215
CJ009金属硫化物 石英脉QzH2×3~4×610~3590~259179(18)4.80~6.595.91(18)
H-C5×72029.32505.72246
CJ011黄铁绢英岩QzH2×5~5×610~80125~281188(18)4.98~8.666.07(18)
H-C3×44030.43957.61349
CJ013黄铁矿化石英脉QzH2×5~4×810~25159~218192(21)3.52~9.445.47(21)
H-C3×5~4×820~6025.9~30.828.1(3)224~298256(3)3.58~6.795.08(3)127~397264(3)

图4

不同矿石类型均一温度直方图"

图5

夏甸金矿床不同矿石类型盐度直方图"

图6

夏甸金矿床含金硫化物石英脉盐度直方图"

表2

夏甸矿区不同矿石类型压力统计"

矿床名称岩矿石名称压力/MPa资料来源
夏甸金矿黄铁矿化石英脉281,247本文
黄铁矿黄铜矿化石英脉281,247,397本文
黄铁绢英岩346,335,344,118,248,71,65,121,124,441,452,215本文
黄铁矿化条带状角闪绿片岩432,539本文
钾化碎裂花岗岩433,438,437,327,321,319本文
玲珑金矿钾化花岗岩350,235,240王炳成(1994)
玲珑金矿Ⅰ黄铁矿石英脉521杜心君等(1988)
玲珑金矿Ⅱ硫化物石英脉329杜心君等(1988)
玲珑金矿Ⅲ灰色石英脉246杜心君等(1988)
玲珑金矿Ⅳ石英方解石脉153杜心君等(1988)
台上金矿黄铁绢英岩541杜心君等(1988)

图7

夏甸金矿包裹体拉曼分析图谱(a)1 281、1 384峰为CO2,2 912峰为CH4,3 433峰为H2O;(b)、(c)1 279、1 384峰为CO2"

表3

夏甸金矿Ⅶ号矿体H、O同位素分析结果"

样品编号矿石类型成矿阶段测试对象δD矿物/‰温度/℃δDH2O/‰δOH2O/‰
XD-wd-1黄铁绢英岩石英-105.7175-49.9211.9
XD-wd-2黄铁绢英岩石英-113.8240-58.0211.3
XD-wd-4黄铁矿化石英脉后期石英-118.2240-62.4211.1
XD-wd-5黄铁绢英岩石英-129.0240-73.2212.2
XD-wd-6绢英岩化花岗质碎裂岩石英-102.0240-46.2210.7
DY-wd-1黄铁绢英岩石英-110.3240-54.5212.4
DY-wd-2黄铁绢英岩石英-108.7240-52.9210.4
DY-wd-4黄铁绢英岩石英-109.0240-53.2212.4
DY-wd-5黄铁绢英岩石英-113.4240-57.6211.1

表4

夏甸金矿Ⅶ号矿体S同位素分析结果"

样品编号矿石类型成矿阶段测试对象δ34SV-CDT/‰
XD-wd-1黄铁绢英岩黄铁矿8.1
XD-wd-2黄铁绢英岩黄铁矿8.0
XD-wd-3黄铁绢英岩黄铁矿7.3
XD-wd-4黄铁矿化石英脉黄铁矿6.8
XD-wd-5黄铁绢英岩黄铁矿7.5
DY-wd-1黄铁绢英岩黄铁矿7.1
DY-wd-2黄铁绢英岩黄铁矿6.9
DY-wd-3黄铁绢英岩化花岗质 碎裂岩黄铁矿6.3
DY-wd-4黄铁绢英岩黄铁矿6.8
DY-wd-5黄铁绢英岩黄铁矿6.0

图8

夏甸金矿床δD-δ18OH2O图解"

图9

夏甸金矿床S同位素组成"

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