小兴安岭—张广才岭成矿带铅锌多金属矿成矿规律和区域成矿模式
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引用本文:吕长禄,郝正平,张文龙,黄凡.2026.小兴安岭—张广才岭成矿带铅锌多金属矿成矿规律和区域成矿模式[J].地球学报,47(4):837-852.
DOI:10.3975/cagsb.2025.081711
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作者单位E-mail
吕长禄 黑龙江省自然资源调查院 lcl51111@163.com 
郝正平 黑龙江省自然资源调查院  
张文龙 黑龙江省自然资源调查院  
黄凡 中国地质科学院矿产资源研究所, 深地探测与矿产勘查全国重点实验室, 自然资源部成矿作用与资源评价重点实验室 hfhymn@163.com 
基金项目:本文由中国矿产地质志项目(编号: DD20221695)资助。
中文摘要:小兴安岭—张广才岭成矿带位于吉黑成矿省, 是黑龙江省重要的金属成矿带之一, 赋存了黑龙江省72%的铅锌矿产地和80%的铅锌矿资源储量。本文通过对小兴安岭—张广才岭成矿带铅锌多金属矿资料的整理, 总结了铅锌多金属矿的成矿特征, 认为铅锌矿的赋存地层主要为下—中寒武统铅山组和中二叠统土门岭组, 是一套以古生界正常沉积岩为主的海相火山-沉积建造; 成矿时代主要是早—中寒武世和晚三叠—早侏罗世, 分别形成海相火山-沉积型铅锌矿床和矽卡岩型铅锌多金属矿床, 海相火山-沉积型铅锌矿床遭受晚三叠—早侏罗世岩浆热液的改造形成叠加改造型矿床。其中, 叠加改造型矿床的成矿元素种类比较简单, 以铅锌独立矿床为主, 而矽卡岩型矿床的成矿元素种类比较复杂, 常与铁、钨、钼、铜等高温元素共生。共生矿产种类对矿床成因具有重要的指示意义, 叠加改造型主要反映原始沉积成矿特征, 而矽卡岩型主要反映了岩浆热液成矿特征。综合小兴安岭—张广才岭成矿带铅锌多金属矿成矿特征, 提出了早期火山-沉积作用成矿物质聚集和晚期岩浆作用成矿物质再富集的二阶段复合成矿模式, 较合理地解释了小兴安岭—张广才岭成矿带高中低温成矿元素复杂共生的成矿现象。
中文关键词:小兴安岭—张广才岭成矿带  铅锌矿床  成因类型  叠加改造型  矽卡岩型
 
Metallogenic Regularity and Regional Metallogenic Model of Lead-zinc Polymetallic Deposits in the Lesser Xing’an Range–Zhangguangcai Range Metallogenic Belt
Abstract:The Lesser Xing’an Range–Zhangguangcai Range metallogenic belt, located within the Jilin–Heilongjiang metallogenic province, is one of the most significant metal metallogenic belts in Heilongjiang province. It hosts 72% of the lead-zinc mineral occurrences and 80% of the lead-zinc resource reserves in the province. In this study, data on lead-zinc polymetallic deposits within the belt were compiled, and their metallogenic characteristics were summarized. The lead-zinc deposits are primarily hosted in the Lower–Middle Cambrian Qianshan Formation and Middle Permian Tumenling Formation, both of which belong to marine volcanic-sedimentary sequences dominated by Paleozoic normal sedimentary rocks. The main metallogenic epochs were the Early–Middle Cambrian and the Late Triassic–Early Jurassic, which formed marine volcanic-sedimentary-type lead-zinc deposits and skarn-type lead-zinc polymetallic deposits, respectively. The marine volcanic-sedimentary lead-zinc deposits were subsequently overprinted by Late Triassic–Early Jurassic magmatic-hydrothermal fluids, forming superimposed reformation-type deposits. The superimposed reformation-type deposits exhibit relatively simple metallogenic elements that predominantly form independent lead-zinc deposits, whereas skarn-type deposits display complex elemental associations that often coexist with high-temperature elements such as iron, tungsten, molybdenum, and copper. The nature of coexisting minerals provides critical genetic insights: the superimposed reformation-type reflects primary sedimentary mineralization, whereas the skarn-type indicates formation through magmatic-hydrothermal processes. Integrating the metallogenic features of the belt, this study proposes a two-stage composite metallogenic model involving early volcanic-sedimentary material accumulation followed by late magmatic re-enrichment. This model effectively explains the complex coexistence of high-, medium-, and low-temperature metallogenic elements in the Lesser Xing’an Range–Zhangguangcai Range metallogenic belt.
keywords:Lesser Xing’an Range–Zhangguangcai Range metallogenic belt  lead-zinc deposits  genetic types  superimposed reformation type  skarn type
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