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A REVIEW OF GEOLOGICAL SURVEY RESEARCH ON WEATHERING CRUST COVERAGE AREAS AT HOME AND ABROAD

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Volume 1, Issue 2, Pp 4-10, 2023

DOI: 10.61784/ajes231206

Author(s)

John Oliver

Affiliation(s)

Large-Scale Scientific Information Systems, Jacobs University, Bremen, Germany.

Corresponding Author

John Oliver

ABSTRACT

By collecting, translating, and studying a large number of domestic and foreign literature on weathering crust research, this article reviewed the current status of weathering crust research and elaborated on the role of red soil in southern China. Progress in causes, eras, environment and climate. In the form of cases, from theory and practice 2. An overview of the geological surveys of weathering crust coverage areas at home and abroad, focusing on successful cases in geology, geophysics, geochemistry, soil, remote sensing, and drilling geological surveys of special geological areas of weathering crust abroad. For example, in order to better serve the weathering crust of special landform areas in my country 1:50,000 geological mapping pilot work.

KEYWORDS

Weathering crust; Southern Chinese red soil; Special landform area; Geophysical and geochemical exploration technology; Geological survey

CITE THIS PAPER

John Oliver. A review of geological survey research on weathering crust coverage areas at home and abroad. Academic Journal of Earth Sciences. 2023, 1(2): 4-10. DOI: 10.61784/ajes231206.

REFERENCES

[1] Rodgers W B, Rogers R E. On the decomposition and partial solu- tion of minerals and rocks by pure water and water charged with carbonic acid. Am J Sci, 1848, 5 : 401-405.

[2] Belt T. The Naturalist in Nicaragua. Chicago: University ofChicago Press, 1874: 326.

[3] Huang Laiming, Shao Mingan, Jia Xiaoxu, etc. Research progress on soil weathering rate measurement methods and its influencing factors. Advances in Earth Sciences, 2016, 31 (10): 1021-1031.

[4]Ollier CD. Deep weathering, groundwater and climate. Geogr Ann: Ser A, Phys Geogr, 1988, 70(4): 285-290.

[5] Huang Zhenyu, Wei Changfu, Zhong Xiaobin, etc. Current status and prospects of research on the influence of hydrochemical environment on rock properties. Journal of Guilin University of Technology, 2013, 33 (2): 290 -296.

[6] Cui Zhijiu, Li Dewen, Wu Yongqiu, etc. About the planation surface. Science Bulletin, 1998, 43(17): 1794-1805.

[7] Li Sha, Li Fuchun, Cheng Liangjuan. Research progress on biological weathering. Minerals and Geology, 2006, 20(6): 577-582.

[8] Zhu Xianfang, Li Xiangyu, Luan Ling. Progress in chemical weathering research. Journal of Capital Normal University: Natural Science Edition, 2010, 31(3): 40-46.

[9] Li Fuchun, Li Sha, Yang Yongzhao, etc. Research progress on weathering products of primary silicate minerals - taking mica and feldspar as examples. Journal of Rock and Mineralogy, 2006, 25(5): 440-448.

[10] Liu Zaihua. The latest progress and prospects of rock weathering carbon sink research. Science Bulletin, 2012, 57(2/3): 95-102.

[11] Li Dewen, Cui Zhijiu, Liu Gengnian. Current status and prospects of weathering crust research. Acta Earth Sinica, 2002, 23(3): 283-288.

[12] Yuan Baoyin, Xia Zhengkai, Li Baosheng, etc. Issues on chronostratigraphy and stratigraphic division of red soil in southern China. Quaternary Research, 2008, 28(1): 1-13.

[13] Sui Shuzhen, Yao Xiaofeng. Quaternary red soil strata in southern China. Quaternary Research, 2000, 20(2): 182-185.

[14] Xu Zemin, Huang Runqiu, Tang Zhengguang, etc. Progress in research on the formation mechanism of laterite overlying carbonate rocks in southern China. Earth and Environment, 2005, 33(4): 29-36.

[15] Chen Xiuling, Li Zhizhong, Jin Jianhui, et al. Research progress on Quaternary red soil in southern China. Journal of Fujian Normal University: Natural Science Edition, 2009, 25 (5): 118 -

124.

[16] Hu Xuefeng, Cheng Tianfan, Wu Heting. Is it possible that there are multiple cycles of "sedimentation-pedogenesis" in the reticulated red soil in the south? . Science Bulletin, 2003, 48(9): 969 -975.

[17] Zhu Zhaoyu, Wu Yi, Qiu Shifan, etc. The occurrence layers and age issues of the Quaternary reticulate red soil along the coast of South China. Advances in Earth Sciences, 2010, 25 (4): 391 -399.

[18] Li Fengquan, Ye Wei, Zhu Lidong, etc. Types and reticulation of Quaternary reticulated laterite. Journal of Sedimentation, 2010, 28(2): 346-355.

[19] Liu Caicai, Deng Chenglong. Progress in geochronological research on laterite magnetic stratigraphy in southern China. Frontiers of Earth Science, 2011, 18(4): 158-170.

[20] Huang Zhenguo, Zhang Weiqiang. Coupling of climatic and tectonic phases in the laterite period of China. Acta Geographica Sinica, 2000, 55(2): 200-208.

[21] Liu Dongsheng, Shi Yafeng, Wang Rujian, etc. Comparison table of China’s Quaternary strata marked by climate change. Quaternary Research, 2000, 20(2): 108-128.

[22] Xi Chengfan. On the red weathering crust in South China. Quaternary Research, 1991, 11(1): 1-8.

[23] Li Wanneng, Jin Pingwei, Li Lanbin, et al. Research progress on the causes of collapse in red soil hilly areas in southern China. Subtropical Soil and Water Conservation, 2014, 26(3): 30-33, 43.

[24] Yu Jinsong, Jinglei, Wang Qiaolin, et al. Application of mapping and geochemical exploration technology in special geological and landform areas. Journal of Geomechanics, 2016, 22(4): 893-906.

[25] Davy R, Pirajno F, Sanders AJ, et al. Regolith geochemical mapping as an adjunct to geological mapping and exploration; examples from three contiguous Proterozoic basins in Western Australia. J Geochem Explor, 1999, 66(1/2): 37-53.

[26] Talbot DK, Appleton JD, Ball TK, et al. A comparison of field and laboratory analytical methods for radon site investigation[J. J Geochem Explor, 1998, 65(1): 79-90.

[27] Asahara Y, Ishiguro H, Tanaka T, et al. Application of Sr isotopes to geochemical mapping and provenance analysis: The case of Ai- chi Prefecture, central Japan. Appl Geochem, 2006, 21 ( 3) :419-436.

[28] González-lvarez I, Ley -Cooper A Y, Salama W. A geological assessment of airborne electromagnetics for mineral exploration through deeply weathered profiles in the southeast Yilgarn Craton- ic margin, Western Australia. Ore Geol Rev, 2016, 73 : 522 -539.

[29] de Figueiredo Iza E R H, Horbe A M C, Silva A M. Boolean and fuzzy methods for identifying lateritic regoliths in the Brazilian Amazon using gamma-ray spectrometric and topographic data Geoderma, 2016, 269 : 27-38.

[30] Ritz M, Parisot J C, Diouf S, et al. Electrical imaging of lateritic weathering mantles over granitic and metamorphic basement of eastern Senegal, West Africa. J Appl Geophys, 1999, 41 ( 4) :335-344.

[31] Riaza A, Strobl P, Beisl U, et al. Spectral mapping of rock weathe- ring degrees on granite using hyperspectral DAIS 7915 spectrome- ter data. Int J Appl Earth Obs Geoinf, 2001, 3 ( 4 ) : 345 -354.

[32] Bahiru E A, Woldai T. Integrated geological mapping approach and gold mineralization in Buhweju area, Uganda. Ore GeolRev, 2016, 72 : 777-793.

[33] Costantini E A C, Napoli R, D ’Egidio G. Adding information about soils and paleosols to geological maps, through the applica- tion of the“pedostratigraphic level”concept. Quat Int, 2007, 175( 1) : 125 -139.

[34] Harris J R, Grunsky E C. Predictive lithological mapping of Cana- da’s North using random forest classification applied to geophysi- cal and geochemical data. Comput Geosci, 2015, 80 : 9-25.

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