台湾的快速扩张和造山沉积物向菲律宾和南中国海弧前盆地和海沟的转移

IF 10.8 1区 地球科学 Q1 GEOSCIENCES, MULTIDISCIPLINARY Earth-Science Reviews Pub Date : 2023-09-01 DOI:10.1016/j.earscirev.2023.104523
Eduardo Garzanti , Kalyani Nayak , Marta Padoan , Giovanni Vezzoli , Alberto Resentini , Sebastien Castelltort , Andrew Tien-Shun Lin , Nathalie Babonneau , Gueorgui Ratzov , Shu-Kun Hsu , Kuo-Fang Huang
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引用次数: 0

摘要

台湾岛是地球上一个由强烈的构造活动、强地震、高起伏和台风通过时的强降水引起的超快速侵蚀的地方,本文综述了台湾岛内外沉积物组成和运输的已知情况。在这里,文献信息与新的岩石学、重矿物、粘土矿物、元素地球化学以及河流砂和河流、陆架和深海泥浆的Sr和Nd同位素地球化学数据相结合,以获得沉积物生成和近海扩散途径的总体概况。台湾冲断带被两个相对边缘的俯冲带所包围,造山碎屑穿过凹凸起伏的地形转移到周围的弧前盆地和深海海沟中。尽管热带气候潮湿,但物理侵蚀是如此之快,以至于砂岩学和粘土矿物学都忠实地反映了烃源岩的岩性。在海岸山脉,中新世吕宋弧安山岩沉积了富含辉石岩和蒙脱石的长石岩屑状火山碎屑沉积物,而石英岩屑砂则是从上覆的上新世-更新世砂岩中回收的。塔南坳杂岩基岩提供含绿泥石和伊利石的石英-岩屑变质碎屑砂和富含绿泥石和伊利石的泥质。板岩带下新生代泥岩形成以持久的ZTR矿物和伊利石为主的岩屑-石英-岩屑变质碎屑砂,而西山丘陵上新生代地层形成以ZTR矿物、石榴石和混合粘土矿物组合为主的循环石英-岩屑-岩-石英沉积碎屑砂。高岭石的稀少、台湾岛两岸沉积物中活动元素的不一致行为,以及地球化学和气候参数之间缺乏相关性,一致表明了一个受风化限制的制度。因此,台湾西部河流沉积物的高风化指数不能归因于目前的条件,而在很大程度上是继承了古近系沉积岩的再循环,这些沉积岩在全球温室气候时期产生于湿润的中国大陆,随后被吸积到台湾冲断带的前缘。利用黏土矿物空间分布特征和地球化学指纹图谱对近海扩散路径进行了追踪。蓝阳河是形成琉球前弧盆地的主要沉积物来源,而花莲河、秀谷兰河和北南河的蒙脱石沉积物则通过花莲河、赤美河和台东河进入琉球海沟。台湾南部的沉积物流入吕宋前弧盆地,经高平河和海底峡谷到达马尼拉海沟。蒙脱石被黑潮从吕宋弧长途运送到北至琉球增生楔、马尼拉增生楔和台南陆架,那里只有少量含高岭石的沉积物是由华南河流提供的。
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Fast-eroding Taiwan and transfer of orogenic sediment to forearc basins and trenches in the Philippine and South China seas

This article reviews what is known about sediment composition and transport within and offshore Taiwan Island, a place on Earth where ultrarapid erosion is induced by strong tectonic activity, powerful earthquakes, high relief, and intense precipitation during the passage of typhoons. Literature information is here integrated with new petrographic, heavy-mineral, clay-mineral, elemental-geochemistry, and Sr and Nd isotope-geochemistry data on river sands and fluvial, shelf, and deep-sea muds to obtain a general overview of sediment generation and offshore dispersal pathways.

The Taiwan thrust belt is bracketed by two opposite-verging subduction zones, and orogenic detritus is transferred across rugged relief to surrounding forearc basins and trenches in the deep sea. Despite humid tropical climate, physical erosion is so fast that both sand petrography and clay mineralogy faithfully reflect the lithology of source rocks. In the Coastal Range, Miocene Luzon Arc andesites shed feldspatho-lithic volcaniclastic sediment rich in pyroxenes and smectite, whereas quartzo-lithic sand is recycled from the overlying Pliocene-Pleistocene sandstones. Basement rocks of the Tananao Complex supply quartzo-lithic metamorphiclastic sand with epidote and amphibole and mud rich in chlorite and illite. Lower Cenozoic mudrocks of the Slate Belt produce lithic to quartzo-lithic metasedimentaclastic sand with durable ZTR minerals and mostly illite, whereas upper Cenozoic strata of the Western Foothills shed recycled quartzo-lithic to litho-quartzose sedimentaclastic sand with ZTR minerals, garnet, and mixed clay-mineral assemblages. Scarce kaolinite, inconsistent behavior of mobile elements in sediment derived from opposite sides of Taiwan Island, and lack of correlation between geochemical and climatic parameters consistently indicate a weathering-limited regime. High weathering indices in sediment of western Taiwan rivers thus cannot be ascribed to present conditions but were largely inherited from recycling of Paleogene sedimentary rocks, generated in humid mainland China at a time of global greenhouse climate and subsequently accreted to the frontal part of the Taiwan thrust belt.

Offshore dispersal pathways are traced by the spatial distribution of clay minerals and geochemical fingerprints. Abundant illite and high 87Sr/86Sr ratio indicate the Lanyang River as a major sediment contributor to the Ryukyu forearc basin, whereas smectite-bearing sediments of the Hualian, Xiuguluan, and Beinan rivers are conveyed to the Ryukyu Trench via the Hualian, Chimei, and Taitung canyons. Sediment from southern Taiwan feeds the Luzon forearc basin and reaches the Manila Trench via the Gaoping River and submarine canyon. Smectite transported long-distance from the Luzon Arc by the Kuroshio Current reaches as far north as the Ryukyu accretionary wedge, the Manila accretionary wedge and the Tainan Shelf, where only a little kaolinite-bearing sediment is supplied by South China rivers.

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来源期刊
Earth-Science Reviews
Earth-Science Reviews 地学-地球科学综合
CiteScore
21.70
自引率
5.80%
发文量
294
审稿时长
15.1 weeks
期刊介绍: Covering a much wider field than the usual specialist journals, Earth Science Reviews publishes review articles dealing with all aspects of Earth Sciences, and is an important vehicle for allowing readers to see their particular interest related to the Earth Sciences as a whole.
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