(1 吉林大学地球科学学院, 吉林 长春130061; 2 黑龙江省地质矿产局,黑龙江 哈尔 滨150036)
第一作者简介薄军委, 男, 1990年生, 硕士研究生, 研究方向为成矿规律与成矿预测 。 Email: bojunwei@126.com
**通讯作者杨言辰, 男, 1965年生, 教授, 主要从事矿床学与矿产勘查等方 面研究。 Email: yyc@jlu.edu.cn
收稿日期2015_04_17
改回日期2016_03_15
本文得到中国地质调查局地质调查项目(编号: 1212011120342、12120113098300)的资助
(1 College of Earth Sciences, Jilin University, Changchun 130061, Jilin, China; 2 Bureau of Geology and Mineral Resource
of Heilongjiang Province, Harbin 1500 36, Heilongjiang, China)
小兴安岭_张广才岭是东北地区重要的Pb_Zn_Ag_Cu_Mo多金属成矿带,矽卡岩型矿床在该成
矿带分布最广(韩振新等,2004)。该成矿带先后经历了加里东期、海西期—印支期、燕
山
期多期次构造岩浆活动及成矿作用,造就了成矿带内丰富的矿产资源,在时间上可分为3个
主成矿期:早寒武世成矿期(小西林热水喷流型铅锌矿床);早燕山成矿期(霍吉河、鹿鸣
斑岩型矿床,翠宏山、二股东山、响水河、徐老九沟矽卡岩型矿床);晚燕山成矿期(东安
浅成低温热液型矿床)(陈静,2011;唐臣等,2011;马芳芳等,2012;杨言辰等,2012;
黄维平,2013;郝宇杰等,2013;陈贤等,2014)。近年来,在成矿带中段
发现了白岭铜锌矿床、弓棚子铜锌钨矿床、五道岭钼铁矿床、苏家围子铁锌钼矿床、闹枝沟
铁矿床等数个矽卡岩型矿床,使得滨东地区成为该成矿带上重要的Cu_Mo_Pb_Zn_Fe矿集区。
前人对该成矿带的斑岩型矿床成矿系统的研究相对深入(葛文春等,2007;时永明等,2007
;侯增谦等,2009;李林山等,2009;韩振哲等,2010;杨言辰等,2012;Zeng et al.,2
012;Zhou et al.,2013;2015),而对成矿带内的矽卡岩型矿床研究相对较薄弱,多集中
于对矿床地质特征及找矿方向的研究(刘宏,2006;杨凤喜等,2007;任殿举等,2010;于
崇波,2011;史鹏会,2012;史鹏会等,2012;江峰等,2012;唐铭君,2012;刘玉,2013
;李海洋,2013),缺少成岩成矿时代、岩石成因等方面的研究,在一定程度上影响了区内
的找矿工作。
白岭铜锌矿床位于滨东矿集区,杨凤喜等(2007)、江峰等(2012)对该矿床的地质特征进 行了总结,确定其成因类型为矽卡岩型矿床,但缺乏对与成矿相关的岩体地球化学、成岩 时代及其形成的构造背景的研究。因此,本文对与成矿相关的岩体正长花岗斑岩进行了LA_I CP_MS锆石U_Pb定年及地球化学特征的系统研究,以期对成矿机制等问题进行阐述和论证 。
白岭矽卡岩型铜锌矿床位于黑龙江省滨东地区,地处兴蒙造山带东段,小兴安岭_张广才岭 成矿带中部,该成矿带东部以牡丹江断裂为界与佳木斯地块接壤,北部以黑河_嫩江_贺根山 断裂为界与兴安地块相接(尹冰川等,1997)(图1a)。该区具有多块体拼合属性及复杂的 演化历史,先后经历了古生代晚期松嫩地块沿贺根山_嫩江_黑河断裂与兴安_额尔古纳联合 地块的拼贴,古生代末期华北克拉通与上述块体聚合,以及佳木斯地块沿牡丹江断裂与兴蒙 造山带内已联合的块体拼合(葛文春等,2007;褚少雄等,2012)。
区域上经历了多期次多阶段强烈的岩浆活动,主要分为4个期次: 新元古代花岗闪长岩、二
长花岗岩(Rb_Sr、Sm_Nd同位素年龄为672~614 Ma;许文良等,1994a)、加里东期混染花
岗岩、钾长花岗岩、二长花岗岩、花岗闪长岩(Rb_Sr、Sm_Nd、Pb_Pb同位素年龄为460~40
0 Ma;许文良等,1994b)、印支期钾长_碱长花岗岩(Rb_Sr、K_Ar同位素年龄为235~180
Ma;许文良,1994b)、燕山期石英闪长岩_花岗闪长岩_花岗斑岩组合(尹冰川等,1997)
,多期次的岩浆活动为该区成矿提供了优越的岩浆条件。
区域上的地层主要为寒武系碎屑岩_碳酸盐岩、奥陶系火山_沉积建造、泥盆系—二叠系酸性 火山碎屑岩_熔岩,中生代以陆相火山沉积和碎屑沉积为主。寒武系碎屑岩_碳酸盐岩建造为 该区大中型接触交代型矿床的主要赋矿层(赵寒冬,2009)。
白岭铜锌矿床位于滨绥断裂南侧,一撮毛岩体的东北部(图1b)。一撮毛岩体呈岩株状侵位
于二叠系上统五道岭组地层,被侏罗系上统帽儿山组覆盖。地表形态为不规则的椭圆形,长
10
km,宽8 km,出露面积约80 km2。岩体内部为粗粒碱长花岗岩,过渡相为似斑状碱长花
岗
岩、中细粒碱长花岗岩,边缘相为正长花岗斑岩、细粒碱长花岗岩,呈似同
心环
状,正长花
岗斑岩分布在一撮毛岩体边缘,呈北东向在地表出露,为一撮毛岩体岩浆演化后期产物。
矿床围岩为二叠系下统土门岭组的砂板岩、粉砂岩、板岩夹大理岩透镜体和二叠系上统五道
岭组的流纹岩、流纹质角砾熔岩、流纹质凝灰熔岩、流纹质凝灰岩、安山岩、安山质凝灰角
砾熔岩、安山质凝灰岩等(图1c)。矿区内出露的侵入岩为正长花岗斑岩(图2a)、闪长玢
岩、煌斑岩等。白岭铜锌矿床已控
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图 1大地构造位置图(a, 据薄军委等,2015修改)、区域地质简图(b, 据唐铭君 ,2012修改)及白岭铜锌矿床
地质图(c) 1—第四系冲积物; 2—二叠系上统安山质凝灰岩; 3—二叠系上统流纹质凝灰岩; 4—二 叠系上统流纹岩; 5—二叠系下统板岩; 6—二叠系上统五道岭组流纹岩、碎屑岩和砂岩; 7—二叠系下统玉泉组大理岩、灰岩; 8—二叠系下统土门岭组砂质板岩、粉砂岩; 9—石 炭系 上统杨
木岗组; 10—早侏罗世正长花岗斑岩; 11—早侏罗世花岗岩; 12—早侏 罗世花岗 岩(花岗斑岩); 13—矽卡岩; 14—断裂; 15—国界线;
16—地质界线; 17 —矿床所在大地构造位置; 18—见矿钻孔及编号; 19—采样位置
F1—西拉木伦长春断裂; F2—敦化_密山断裂; F3—伊通_依兰断裂; F4—牡丹江断裂 ; F5—贺根山_黑河断裂; F6—塔源_喜桂图断裂
①一撮毛铜矿点; ②—白岭铜锌多金属矿床; ③—苏家围子铁锌矿床; ④—石发铁锌矿 床; ⑤—二道岭黄铁矿床; ⑥—五道岭钼矿床;
⑦—小河口铁铜矿化点; ⑧—天成窑 铁矿点
Fig. 1Tectonic location map (a, modified after Bo et al., 2015), regional geo logical map (b, modified after Tang
et al., 2010) and geological map of the B ailing copper_zinc deposit (c)
1—Quaternary alluvium; 2—Andesitic tuff in Upper Permian; 3—Rhyolitic tuff in Upper Permian; 4—Rhyolite in Upper Permian; 5—Slate in Lower Permian; 6—Rhyo lite, clastic rocks and sandstone of Wudaoling in Upper Permian; 7—Marble and l imestone of Yuquan Group in Lower Permian; 8—Sandy slate and siltstone of Tumen gling Group in Lower Permian; 9—Yangmugang Group of Upper Carboniferous; 10—Syenogranite porphyry in Early Jurassic; 11—Granite in Early Ju rassic; 12—Granite (syenogranite_porphyry) in Early Jurassic; 13—Skarn; 14—F ault; 15—National boundaries; 16—Geological boundary; 17—Tectonic loc ation of the deposit; 18—Ore_intersecting drill hole and its serial
number; 19—Sampling lo cation F1—Xilamulun_Changchun fault; F2—Dunhua_Mishan fault; F3—Yitong_Yilan fault; F4—Mudanjiang fault; F5—Hegenshan_Heihe fault;
F6—Tayuan_Xiguitu fault ①—Yizuomao copper ore spot; ②—Bailing copper deposit; ③—Sujiaweizi iron_z inc deposit; ④—Shifa iron_zinc deposit; ⑤—Erdaoling pyrite deposit; ⑥—Wu daoling molybdenum deposit; ⑦—Xiaohekou iron_copper mineralized spot; ⑧—Tian chengyao iron ore spot
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图 2白岭铜锌矿床黄铁矿化矽卡岩、正长花岗斑岩照片
a. 正长花岗斑; b. 阳起石矽卡岩; c. 黄铁矿化碳酸盐化阳起石矽卡岩; d. 针状 阳起石矽卡岩; e. 正长花岗斑岩;
f. 正长花岗斑岩
Act—阳起石; Cal—方解石; Kfs—钾长石; Pl—斜长石; Py—黄铁矿; Qtz—石英; Ep—绿帘石
Fig. 2Pyritized skarn and syenogranite_porphyry photographs in the Bailing cop per_zinc deposit
a. Syenogranite_porphyry; b. Actinolite skarn; c. Pyritization and carbonatizati on actinolite skarn; d. Acicular actinolite skarn;
e. Syenogranite_porphyry; f. Syenogranite_porphyry
Act—Actinolite; Cal—Calcite; Kfs—K_feldspar; Pl—Plagioclase; Py—Pyrite; Q tz—Quartz; Ep—Epidote
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凝灰岩接触带矽卡岩和层 间矽卡岩中,以大理岩层间矿体为主。矿石组构为浸染状构造,以交代结构 为主,矿石矿物主要为磁铁矿、闪锌矿、黄铜矿,其次为黄铁矿、白铁矿、赤铁矿,少量的 闪锌矿、辉钼矿 、斑铜矿、辉铜矿、铜蓝,矿石矿物多沿石榴子石裂隙充填分布。矿化和蚀变特征均显示该 矿 床具有矽卡岩型矿床的属性(图2b、c、d)。围岩蚀变主要为硅化、角岩化、矽卡岩化、绿 帘石化、绿泥石化、碳酸盐化、绢云母化、高岭土化,与成矿关系密切的蚀变为硅化、矽卡 岩化、绿帘石化。
锆石分选由河北省诚信地质服务有限公司完成,并在双目镜下反复挑选,选取晶型相对完好 、包裹体少、无裂隙的锆石,锆石制靶、透射光图像、发射光图像、阴极发光图像采集及锆 石U_Pb同位素分析均在西北大学大陆力学国家重点实验室完成。锆石样品测定中采用30 μm 的激光束斑,剥蚀时间35 s。数据测试使用德国Lambda Physik公司生产的ComPex102型ArF 准分子激光器(波长193 nm)和Shield Torch的Agilient 7500a ICP_MS仪器,用高纯的He 气作为剥蚀物质的载体,用人工合成硅酸盐物质NIT610进行仪器最优化,用哈佛大学国际标 准锆石91500分馏校正,年龄计算和谐和图的绘制用Isoplot3.0(2006)程序。
主量元素、微量元素测试工作均在中国地质科学院应用地球化学重点开放实验室完成。主量 元素使用熔片法X_射线荧光光谱法(XRF)测试,分析准确度和精度优于5%;微量元素及稀 土元素利用酸溶法制备样品,使用等离子体质谱法(ICP_MS)测试,分析准确度和精度优于 10%;烧失量采用重量法(GR)测试;Fe2O3、FeO采用容量法(VOL)测试,As、Sb采用 氢化物_原子荧光光谱法(HG_AFS)测试。
CSC_1样品锆石的粒度90~260 μm,主要为短柱状,少部分呈长柱状,除CSC_1_19号测试点 的206Pb/238U表面年龄与其对应的207Pb/ 235U表面年龄存在较大 误差外,其余19个测试点的数据具有较好的谐和性(图5)。样品20个测点的206 Pb/238U表面年龄主要集中在171~179 Ma之间,测定锆石的w(U)为 129×10-6~1806×10-6,w(Th)为107×10-6~553×10 -6,Th/U比值为0.3~1.1(表1),明显大于变质锆石的Th/U比值(<0.1, Hermann et al., 2001),大部分锆石具有明显的岩浆震荡环带(图6),为典型的岩浆锆石。
2个样品的锆石测试点206Pb/238U年龄与207Pb/ 235U年龄在误差允许范围内一致,在206Pb/238U_ 207Pb/235U谐和图(图3、5)中分析点均落在谐和线及其附近。实 验 结果显示可将白岭 铜锌矿床正长花岗斑岩(BL_12)锆石年龄划分为2组(图3):第一组锆石加权年龄为(189 .0±2.6) Ma(MSWD=0.72, n=5);第二组锆石加权年龄为(177.7±1.5) Ma (MSWD=0.80, n=15)、谐和年龄为(178.2±1.5) Ma(MSWD=1.11, n=15 )。CSC_1样品锆石年龄亦分为2组(图5):第一组只有1颗锆石,获得的锆石20 6Pb/238U年龄为(196±3) Ma;第二组锆石加权年龄为(175.6± 1.3) Ma(MSWD=1.9, n=19),谐和年龄为(177.0±2.1) Ma(MSWD=1.4, n=19)。
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图 3白岭铜锌矿床正长花岗斑岩(BL_12)锆石U_Pb谐和图及加权平均年龄
Fig. 3The concordia age and weighted average ages of zircon U_Pb dating of the syenogranite_porphyry (BL_12) from
the Bailing copper_zinc deposit
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图 4白岭铜锌矿床正长花岗斑岩(BL_12)锆石阴极发光(CL)图像及测试位置
Fig. 4Cathodoluminescence (CL) images of zircons and their measuring positions in the syenogranite_porphyry (BL_12)
from the Bailing copper_zinc deposit
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表 1白岭铜锌矿床正长花岗斑岩LA_ICP_MS锆石U_Pb测试结果
Table 1LA_ICP_MS zircon U_Pb data for the syenogranite_porphyry in the Bailing copper_zinc deposit
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图 5白岭铜锌矿床正长花岗斑岩(CSC_1)锆石U_Pb谐和图及加权平均年龄
Fig. 5The concordia age and weighted average ages of zircon U_Pb dating of the syenogranite_porphyry (CSC_1)
from the Bailing copper_zinc deposit
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图 6白岭铜锌矿床正长花岗斑岩(CSC_1)锆石阴极发光(CL)图像
Fig. 6Cathodoluminescence (CL) images of zircons and their measuring positions in the syenogranite_porphyry (CSC_1)
from the Bailing copper_zinc deposit
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表 2白岭铜锌矿床正长花岗斑岩主量元素分析结果及参数
Table 2Composition and parameters of major elements of the syenogranite_porphy ry in the Bailing copper_zinc deposit
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图 7白岭铜锌矿床正长花岗斑岩TAS图解(a, Middlemost, 1994)及SiO2_K2O图解 (b, Peccerillo et al., 1976)
1—橄榄辉长岩; 2a—碱性辉长岩; 2b—亚碱性辉长岩; 3—辉长闪长岩; 4—闪长岩; 5—花岗闪长岩; 6—花岗岩; 7—硅英岩; 8—二长辉
长岩; 9—二长闪长岩; 10—二长 岩; 11—石英二长岩; 12—正长岩; 13—副长石辉长岩; 14—副长石二长闪长岩; 15 —副长石二长正长
岩; 16—副长正长岩17—副长深成岩; 18—霓方钠岩/磷霞岩/ 粗白榴岩
Fig. 7TAS diagram (a, after Middlemost, 1994) and SiO2_K2O diagram (b, a fter Peccerillo et al., 1976) of the
syenogranite_porphyry in the Bailing copp er_zinc deposit
1—Olive gabbro; 2a—Essexite; 2b—Sub_alkaline gabbro; 3—Gabbro_diorite; 4—Di orite; 5—Granodiorite; 6—Granite; 7—Quartzolite;
8—Monzogabbro; 9—Monzodi or ite; 10—Monzonite; 11—Adamellite; 12—Syenite; 13—Foid gabbro; 14—Foid monzo diorite;
15—Foid monzosyenite; 16—Foid syenite; 17—Foid plutonite; 18—Tawi te/urtite/italite
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白岭正长花岗斑岩Rb/Sr比值集中于0.38~1.34,大于地壳值(0.35,Taylor et al., 1 995 ),Nb/Ta比值为10.02~14.47(均值11.86),接近于大陆地壳平均值(11,Taylor et al ., 1985),低于地幔平均值(17.5,Sun et al., 1989),极度富集Pb,且亏损Nb、Ti、 P等元素,显示出大陆地壳的化学属性(McDonough et al., 1995)。
综上所述,笔者认为白岭矿区与成矿相关的正长花岗斑岩具有壳源特征,由地壳部分熔融形 成,为一撮毛岩体岩浆演化晚期的产物,属于高分异的I型花岗岩。
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图 8白岭铜锌矿床正长花岗斑岩哈克图解(据Bhatia,1983)
Fig. 8Harker diagram of the syenogranite_porphyry in the Bailing copper_zinc d eposit (after Bhatia, 1983)
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白岭铜锌矿床的矿体产于正长花岗斑岩与中酸性火山岩、大理岩接触带内,以矽卡岩型矿石 为主,正长花岗斑岩与成矿存在直接的时空关系。本次获得白岭正长花岗斑岩的成岩年龄为 (177.7±1.5) Ma~(175.6±1.3) Ma,即早侏罗世。由于迁移富集成矿要经历岩浆 热液从 岩体内部→岩体与围岩接触带→围岩裂隙的客观地质过程,而且矽卡岩型矿 床的铜锌成矿阶段主要发生在石英_硫化物期。
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表 3白岭铜锌矿床岩石样品稀土元素及微量元素分析结果及参数
Table 3Chemical composition of trace elements and REE elements of the syenogra nite_porphyry in the Bailing copper_zinc deposit
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图 9白岭铜锌矿床正长花岗斑岩稀土元素球粒陨石标准化图解(a)及微量元素原始地幔 标准化图解(b)
(球粒陨石和原始地幔值据Sun et al., 1989)
Fig. 9Chondrite_normalized REE patterns (a) and primitive mantle_normalized tr ace elements patterns (b) of the
syenogranite_porphyry in the Bailing copper_z inc deposit (chondrite and primitive_mantle values after Sun et al., 1989)
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图 10白岭铜锌矿床正长花岗斑岩Zr_10000 Ga/Al(a)及Y_10000 Ga/Al图解(b)
Fig. 10Zr_10000 Ga/Al diagram (a) and Y_10000 Ga/Al diagram (b) of syenogran ite_porphyry in the Bailing
copper_zinc deposit
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所以,成矿时间要晚于成岩年龄,推测白岭铜锌矿床的成矿 时代应为早侏罗世晚期,表明在早侏罗世滨东地区存在一期重要的岩浆_成矿事件,且白岭 矿床的成矿时代与小兴安岭_张广才岭成矿带中铜钼矿床的成矿时间(184~167 Ma;图11 )(表4)基本一致。
通过以上对成矿岩体地球化学特征的研究,白岭正长花岗斑岩整体上亏损Nb、Ta、Ti、P等 高场强元素,富集Rb、K等大离子亲石元素,高La/Nb比值 (>2),具有活动大陆边缘岩浆的地球化 学属性(Salters et al., 1991);正长花岗斑岩在Rb_(Y+Nb)和Ta_Yb 构造图解(图12)中,显示出火山弧花岗岩的特征。
白岭铜锌矿床位于小兴安岭_张广才岭成矿带中部,成矿带东部以牡丹江断裂为界与佳木斯 地块接壤,北部以黑河_嫩江_贺根山断裂为界与兴安地块相接。在晚古生代以前,松嫩地块 已 与兴安地块碰撞拼合为一体;晚古生代(445~413 Ma),松嫩地块与佳木斯地块完成碰撞 拼贴(孟恩,2011),中泥盆世松嫩地块和佳木斯地块处于碰撞后伸展环境,到早 二叠世张广才岭地区处于陆内伸展环境,晚古生代
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图 11小兴安岭_张广才岭成矿带早_中侏罗世典型矿床(据许文良等,2013修改)
1—中_新生代沉积盆地; 2—中生代火山岩; 3—晚古生代地层; 4—早古生代地层; 5— 前寒武纪岩石; 6—中生代花岗岩; 7—蛇绿岩;
8—断裂(缝合带); 9—早_中侏罗 世矿床及编号
①—翠宏山矿床; ②—霍吉河矿床; ③—翠岭矿床; ④—鹿鸣矿床; ⑤—松江矿床; ⑥—丘皮沟矿床; ⑦—福安堡矿床; ⑧—大黑山矿床
Fig. 11Typical de posits of the early_middle Jurassic in the Xiao Hing apos;apos;apos;an Mount ains_Zhangguangcai Mountain metallogenic
belt (modified after Xu et al., 2013)
1—Sedimentary basins of Mesozoic_Cenozoic; 2—Volcanic of Mesozoic; 3—Layer of Neopaleozoic; 4—Layer of Early Paleozoic; 5—Rock
of Precambrian; 6—Granite o f Mesozoic; 7—Ophiolite; 8—Fault (suture zone); 9—Deposit of EarlyMiddle Ju rassic and its serial number
①—Cuihongshan deposit; ②—Huojihe deposit; ③—Cuiling deposit; ④—Luming deposit; ⑤—Songjiang deposit; ⑥—Qiupigou deposit;
⑦—Fuanpu deposit; ⑧— Daheishan deposit
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表 4小兴安岭_张广才岭成矿带典型矿床成岩成矿年龄一览表
Table 4Ages of magmatism and mineralization in the Xiao Hing apos;apos;apos;an Mountains_Zhan gguangcai Mountain metallogenic belt
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图 12白岭铜锌矿床正长花岗斑岩Rb_(Y+Nb) (a)及(Ta_Yb) (b)图解(据Pearce et a l., 1984)
Fig. 12Rb_Y+Nb diagram (a) and Ta_Yb diagram (b) of the syenogranite_porphyry in the Bailing copper_zinc deposit
(after Pearce et al., 1984)
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综合上述区域演化背景,笔者认为白岭铜锌矿床的成岩成矿机制与古太平洋板块的俯冲作用 及佳木斯地块与松嫩地块拼合存在直接关系。在古太平洋板块俯冲挤压下,已稳定的小兴安 岭_张广才岭地区由于板块间作用方式的调整而出现短暂的张性环境,即板块俯冲背景下的 挤压向伸展转换的过程,加厚岩石圈发生拆沉作用,诱发深部软流圈地幔上涌和岩浆底侵作 用,加热地壳岩石而发生 部分熔融,岩浆沿构造裂隙上侵,高分异岩浆热液与富钙围岩发生交代作用形成白岭矽卡岩 型矿床。
(2) 与成矿关系密切的正长花岗斑岩形成时代为早侏罗世,一撮毛岩体岩浆房结晶年龄为 196~189 Ma,成矿岩体岩浆上升至地壳浅部的结晶时间为177.7~175.6 Ma,高分异岩浆 就位结晶时间滞后于一撮毛岩体的结晶年龄(13.4 Ma)。
(3) 白岭铜锌矿床形成于古太平洋板块俯冲背景之下,松嫩地块与佳木斯地块拼贴导致小 兴安岭_张广才岭地区地壳加厚,加厚地壳受板块俯冲影响,岩石圈发生拆沉引发深部热液 与物质上涌,受热地壳发生部分熔融,高分异岩浆热液与富钙围岩发生交代作用形成矽卡岩 型矿床,其成矿时代大致为早侏罗世晚期。
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