Citation: | Yu-sheng Wan, Shou-jie Liu, Hang-qiang Xie, Chun-yan Dong, Yuan Li, Wen-qian Bai, Dun-yi Liu, 2018. Formation and evolution of the Archean continental crust of China: A review, China Geology, 1, 109-136. doi: 10.31035/cg2018011 |
The mainland of China is composed of the North China Craton, the South China Craton, the Tarim Craton and other young orogenic belts. Amongst the three cratons, the North China Craton has been studied most and noted for its widely-distributed Archean basement rocks. In this paper, we assess and compare the geology, rock types, formation age and geochemical composition features of the Archean basements of the three cratons. They have some common characteristics, including the fact that the crustal rocks prior to the Paleoarchean and the supracrustal rocks of the Neoarchean were preserved, and Tonalite-Trondhjemtite-Granodiorite (TTG) magmatism and tectono-magmatism occurred at about 2.7 Ga and about 2.5 Ga respectively. The Tarim Craton and the North China Craton show more similarities in their early Precambrian crustal evolution. Significant findings on the Archean basement of the North China Craton are concluded to be: (1) the tectonic regime in the early stage (>3.1 Ga) is distinct from modern plate tectonics; (2) the continental crust accretion occurred mostly from the late Mesoarchean to the early Neoarchean period; (3) a huge linear tectonic belt already existed in the late Neoarchean period, suggesting the beginning of plate tectonics; and (4) the preliminary cratonization had already been completed by about 2.5 Ga. Hadean detrital zircons were found at a total of nine locations within China. Most of them show clear oscillatory zoning, sharing similar textures with magmatic zircons from intermediate-felsic magmatic rocks. This indicates that a fair quantity of continental material had already developed on Earth at that time.
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Distribution map of the three major cratons in China (modified from Zhang JX et al., 2013). NCC: North China Craton; SCC: South China Craton; TC: Tarim Craton; CAOB: Central Asian Orogenic Belt; WKO: Western Kunlun Orogen; QO: Qilianshan Orogen; QDO: Qinling-Dabie Orogen; SO: Sulu Orogne; HO: Himalayan Orogen.
Early Precambrian geological map of the North China Craton (modified from Wan YS et al., 2017). The map shows the spatial distribution of supracrustal rocks and TTG rocks prior to the early Neoarchean, as well as the wide distribution of late Neoarchean supracrustal rocks and TTG rocks in the North China Craton. Red ellipse: supracrustal rocks; blue triangle: TTG rocks. Ar1: Eoarchean (3.6-4.0 Ga); Ar2: Paleoarchean (3.2-3.6 Ga); Ar3: Mesoarchean (2.8-3.2 Ga); Ar41: early Neoarchean (2.6-2.8 Ga).
Geological map of the Anshan area modified from Wan YS et al., (2012a). BC: Baijiafen Complex; DC: Dongshan Complex; SC: Shengousi Complex; and GC: Guodishan Complex.
Field photos of Archean supracrustal rocks in the North China Craton.
Geological map of western Shandong (modified from Wan YS et al., 2010). Band A: late Neoarchean crustally-derived granite belt; Band B: early Neoarchean ancient rock belt; Band C: late Neoarchean juvenile rock belt.
Field photos of Archean TTG rocks in the North China Craton.
An-Ab-Or diagram of the Archaean TTG An-Ab-Or diagram of the Archean TTG rocks in the North China Craton (modified from Wan YS et al., 2017).
Yb-La/Yb diagram of Archean TTG rocks in the North China Craton (modified from Wan YS et al., 2017). Original diagram is from Moyen Moyen JF, (2011). Shadow areas: potassic granitic rocks; black line: high-pressure TTG; gray line: medium pressure TTG; and dashed line: low-pressure TTG.
Zircon age histogram of early Precambrian metamorphic basement in the North China Craton (modified after Wan YS et al., 2015a).
Nd-Hf isotopic composition of Archean rocks in the North China Craton (modified from Wan YS et al., 2015a).
Early Precambrian rock distribution of the Yangtze Block and its surrounding areas. Modified from Zhao G and Cawood PA(2012).
Geological map of the Kongling area(modified form Han Q et al., 2017a).
Age histogram and Hf isotopic composition of zircons from early Precambrian rocks in the Yangtze Block. (a) Pb207/Pb206 age histogram; (b) age-εHf(t) diagram, average continent 176Lu/177Hf value (0.015) is from Griffin WL et al. (2004). Data source: Chen K et al., 2013; Gao S et al., 2011; Guo JL et al., 2014, 2015; Han Q et al., 2017a, b, c; Hu J et al., 2013; Hui B et al., 2017; Li L et al., 2014, 2016; Jiao W et al., 2009; Peng M et al., 2009, 2012; Qiu YM et al., 2000, 2015; Sun M et al., 2008; Wang RM et al., 2009a, b, 2011; Wei JQ et al., 2009; Wei JQ and Wang JX, 2012; Wei JQ and Jing MM, 2013; Wu YB et al., 2002, 2008a 2009, 2014; Xiong Q et al., 2008; Yin C et al., 2013; Zhang SG et al., 2004, 2006a, b, c, 2010; Zheng J et al., 2006; Zhou G et al., 2015.
Simplified early Precambrian geological map of the Tarim Craton (modified from Ge RF et al., 2014a; Zhang JX, et al., 2013; Huang ZY et al., 2017). Ages in regular font are magmatic zircon age, italic are metamorphic zircon age, in brackets are xenocrystic zircon age. Data sources: Cai ZH et al., 2018; Deng XL et al., 2008; Ge RF et al., 2014a, 2015; Gehrels GE, et al., 2003; Guo ZJ et al., 2003; Guo XC et al., 2013; Hu AQ and Wei GJ, 2006; Li HM et al., 2001, Li DP et al.,2007; Long XP et al., 2010, 2011; Lu SN and Yuan GB, 2003; Lu SN et al., 2008; Lu SN, 1992; Mei HL et al., 1998; Shu LS et al., 2011; Xin HT et al., 2013; Zhang CL et al., 2012, 2013; Zhao Y et al., 2013; Zong KQ et al., 2013.
Age histogram and Hf isotopic composition of zircons from early Precambrian rocks in the Tarim Craton. (a) 207Pb/206Pb age histogram compiled from data in Table 2; (b) age-εHf(t) diagram, data are mainly from the Kuruktag and Dunhuang Block, modified from Ge RF et al. (2014a) with updated data from Cai ZH et al. (2018). Average continent 176Lu/177Hf value (0.015) is from Griffin WL et al. (2004).
Growth line of the continental crust in the North China Craton(after Wan YS, 2018a). Different continental crustal growth lines all over the world are shown in the figure, summarized by Cawood PA et al. (2013). a: Goodwin AM, 1996; b: Hurley PM and Rand JR, 1969: c: Allégre CJ and Rousseau D, 1984; d: Condie KC and Aster RC, 2010; e: Belousova EA et al., 2010; f: Taylor SR and McLennan SM, 1985; g: Dhuime B et al., 2012; h: Armstrong RL, 1981.
Records of Archean magmatism in the Baijiafen, Dongshan, Shengousi and Guodishan complexes in the Anshan region. Data are from Liu DY et al.(1992, 2008), Song B et al. (1996), Wan YS et al.(2005, 2012a), Wang YF et al. (2015b), Wu YB et al. (2008a) and Wan Yusheng (unpublished data).
Different tectonic subdivisions of the North China Craton. (a) Wu JS et al. (1998); (b) Zhao GC et al. (2005); (c) Li JH et al. (2002); (d) Zhai MG and Santosh M(2011).
Spatial distribution of ancient blocks in the North China Craton (>2.6 Ga) (afterWan YS et al., 2015a, 2016b). EAT: Eastern Ancient Terrane; SAT: Southern Ancient Terrane; CAT: Central Ancient Terrane. The figure also presents a Neoarchean crustally-derived granite belt (1) and a TTG rock belt (2) in the eastern margin of the EAT and surrounding area.
Spatial distribution of >3.2 Ga rocks and zircons in the mainland of China (after Wan YS et al., 2018).