Hao-Shu Tang
Chinese Academy of Sciences
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Featured researches published by Hao-Shu Tang.
Archive | 2016
Yan-Jing Chen; Hao-Shu Tang
In this chapter, we review the early Paleoproterozoic sedimentary records in North China Craton (NCC) and elsewhere in the world. We also propose a sequence framework for the subprime events happened in sedimentary sphere, biosphere, hydrosphere and atmosphere during the period of 2.5 to 1.8 Ga, and give an introduction to the Great Oxidation Event (GOE). These events are characteristic of the GOE, and are assigned to two main stages: (1) the early-stage hydrosphere oxidation (2.5–2.3 Ga), represented by the precipitation of the banded iron formations (BIFs), and (2) the late-stage atmospheric oxygenation (2.3–1.8 Ga), indicated by sediments of thick carbonate strata with 2.22–2.06-Ga δ13Ccarb positive excursion (Lomagundi Event), 2.25–1.95 Ga red beds, as well as the disappearance of BIFs at ca 1.8 Ga and prevail of black shales at 2.0–1.7 Ga. The 2.29–2.25-Ga Huronian Glaciation Event (HGE) demonstrated that the Earth’s superficial system oxidation had entered from hydrosphere into atmosphere. The 2.3-Ga turnpoint is a better Archean-Proterozoic boundary in Geological Time Chart.
Acta Geologica Sinica-english Edition | 2013
Kunyue Ling; Xiao-Qing Zhu; Zhonggang Wang; Tao Han; Hao-Shu Tang; Wenyi Chen
The bauxites in central Guizhou are hosted by the Lower Carboniferous Jiujialu Formation. Geochemistrial characteristics of the Lindai bauxite deposit indicate that the underlying Shilengshui Formation dolomite is the precursor rock of mineral resources. Weathering simulation experiments show that Si is most likely to migrate with groundwater, the migration rate of which is several magnitude higher than Al and Fe under nature conditions (pH=3–9). The neutral and acid non-reducing condition is the most conducive to the Al rich and Si removal, while the acid reducing conditions is the most conducive to the Al rich and Fe removal. In the process of bauxite formation, coal beds overlying the Al-bearing rock series or other rock formation rich in organic materials can produce acid reducing groundwater, which are important for the bauxite formation. Finally, propose the metallogenic model of the bauxite in central Guizhou Province and put forward three new words which are “original bauxite material”, “bauxite material” and “original bauxite”.
Archive | 2016
Hao-Shu Tang; Yan-Jing Chen; Kaiyue Li; Weiyu Chen; Xiao-Qing Zhu; Kunyue Ling; Xiaohui Sun
This chapter compiles the geology and geochronology of numerous ores, including graphite, phosphorite, the Lake Superior type BIFs, marble, boron, magnesite, and lead-zinc deposits, hosted in 2.5–1.8 Ga stata from the North China Craton (NCC) and elsewhere, and thereby provides insights into understanding the mineralization of the early Paleoproterozoic metallogenic explosion in NCC. These mineralized records, accompanied with the blooms of biological photosynthesis (indicated by graphite, phosphorite deposits, organics in black shale), suggested different mineralizations, which responded to different stages of dramatic Earth’s environmental changes characteristic of the Great Oxidation Event (GOE). These changes includes that the early-stage hydrosphere oxidation (2.5–2.3 Ga), indicated by numerous development of the Lake Superior type BIFs; through the turnpoint from hydrosphere to atmosphere oxidation (2.3–2.25 Ga), indicated by the 2.29–2.25 Ga Huronnian Glaciation Event (HGE) and devoid of Rand-type Au–U deposits, to the late-stage atmospheric oxygenation, followed by 2.25–1.8 Ga sediments of thick-bedded carbonates strata and related deposits (e.g., marble, magnesite, boron, and lead-zinc deposits), the 2.25–1.95 Ga red beds, 2.22–2.06 Ga δ13Ccarb positive excursion (Lomagundi/Jatulian Event), as well as the prevail of black shales at 2.0–1.7 Ga and disappear of BIFs at ca. 1.8 Ga.
Gondwana Research | 2011
Hao-Shu Tang; Yan-Jing Chen; Guang Wu; Yong Lai
Precambrian Research | 2013
Hao-Shu Tang; Yan-Jing Chen; M. Santosh; Hong Zhong; Tao Yang
Geoscience frontiers | 2013
Hao-Shu Tang; Yan-Jing Chen
Ore Geology Reviews | 2014
Xiao-Hua Deng; Yan-Jing Chen; Jun-Ming Yao; Leon Bagas; Hao-Shu Tang
Geological Journal | 2013
Hao-Shu Tang; Yan-Jing Chen; M. Santosh; Hong Zhong; Guang Wu; Yong Lai
Ore Geology Reviews | 2015
Kunyue Ling; Xiao-Qing Zhu; Hao-Shu Tang; Zhonggang Wang; Hui-Wen Yan; Tao Han; Wenyi Chen
Ore Geology Reviews | 2014
Xiaohui Sun; Xiao-Qing Zhu; Hao-Shu Tang; Qian Zhang; Taiyi Luo