Li Yang , Wanming Yuan , Jing Yang , Zhidan Zhao , Zhenju Zhou , Mingming Zhao
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引用次数: 0
摘要
本文研究了Chakabeishan地区的锆石和磷灰石裂变径迹数据,重点研究了锂-铍和铌-钽-锂矿床。锆石裂变径迹结果表明,170 ~ 159 Ma年龄组代表锂矿化高峰,153 ~ 137 Ma年龄组与伟晶岩热液期有关。127-106 Ma组标志着热液演化的结束,晚白垩世(100-94 Ma和87-72 Ma)的降温事件与随后的成矿事件有关。磷灰石裂变径迹的热历史模拟结果显示,挖掘过程分为四个阶段:160 ~ 140 Ma (0.86 km)、140 ~ 50 Ma (0.57 km)、50 ~ 15 Ma (0.43 km)和15 Ma (1.43 km),总挖掘厚度为3.29 km。研究还表明,在晚白垩世至始新世(100-41 Ma)期间,察喀贝山的稀有金属成矿热事件与青藏高原北部的稀有金属成矿热事件是耦合的。这种耦合反映了区域构造运动和碰撞引起的广泛的热效应,为稀有金属成矿的时间和成因提供了关键的见解。这些发现强调了锆石和磷灰石裂变径迹法在确定伟晶岩矿床成矿时代中的重要性。
The multi-stage mineralization and uplift of the Li-Be metal ore belt on the northern margin of Qaidam basin in Qinghai province
This study investigates the zircon and apatite fission track data from the Chakabeishan region, focusing on lithium-beryllium and niobium-tantalum-lithium deposits. The zircon fission track results suggest that the age group of 170–159 Ma represents the peak of lithium mineralization, while the 153–137 Ma group is related to the hydrothermal stage of pegmatites. The 127–106 Ma group marks the end of hydrothermal evolution, and cooling events in the Late Cretaceous (100–94 Ma and 87–72 Ma) are associated with subsequent metallogenic events. Thermal history simulations of apatite fission tracks reveal four exhumation stages: 160–140 Ma (0.86 km), 140–50 Ma (0.57 km), 50–15 Ma (0.43 km), and 15 Ma to present (1.43 km), with a total exhumation thickness of 3.29 km. The study also shows that the rare metal metallogenic thermal events in the Chakabeishan are coupled with those in the northern Qinghai-Tibet Plateau, particularly during the Late Cretaceous to Eocene (100–41 Ma). This coupling reflects widespread thermal effects caused by regional tectonic movements and collisions, providing key insights into the timing and genesis of rare metal mineralization. The findings highlight the importance of zircon and apatite fission track methods in determining the metallogenic age of pegmatite deposits.
期刊介绍:
Ore Geology Reviews aims to familiarize all earth scientists with recent advances in a number of interconnected disciplines related to the study of, and search for, ore deposits. The reviews range from brief to longer contributions, but the journal preferentially publishes manuscripts that fill the niche between the commonly shorter journal articles and the comprehensive book coverages, and thus has a special appeal to many authors and readers.