Citation: | Zongyu Chen, Guanghui Zhang, Zhenlong Ni, Jixiang Qi, Yunju Nan. Isotopic Stratification and Its Implications in Groundwater of Northern China. Journal of Earth Science, 2001, 12(3): 249-257. |
The contents of D, 8O, 3H and 14C, distinctive in shallow and deep Quaternary aquifers beneath northern China, reflect differences in average paleoclimatic conditions between the Holocene and the last glacial period in Pleistocene.Groundwater in deep confined aquifer was recharged during the last glacial period.The depletions of δ(D) and δ(18O) of this water, 4×10-3-16×10-3 and 1×10-3-2×10-3 when compared with the shallow water recharged in Holocene, suggest that the annual mean temperature was lower in the last glacial period than that in the Holocene.The continental gradient of D and 18O found in old groundwater is essentially similar to that in Holocene, suggesting that the atmospheric circulation did not undergo substantial changes over northern China for the past 30 000 years in spite of the changes in the temperature.Groundwater isotopic stratification indicates three different recharge mechanisms and the influence of modern hydrological circulation, which are very important for the understanding of the continental hydrological circulation and the sustainable development of groundwater resources.
Allison G B, Barnes C J, Hughes M W, et al, 1984. The Effect of Climate and Vegetation on Oxygen-18 and Deuterium Profiles in Soils. In: Isotope Hydrology1983. Vienna: International Atomic Energy Agency. 105-125 |
An Z, Wu X, Lu Y, et al, 1990. A Preliminary Study on the Paleoenvironment Change of China during the Last 20, 000 Years. In: Liu T, ed. Loss, Quaternary Geology and Global Change, Part II. Beijing: Science Press. 1-26(in Chinese) |
Anderson M L, Kavvas M L, Mierzwa M D, 2001. Probabilistic/Ensemble Forecasting: A Case Study Using Hydrologic Response Distributions Associated with El Nino/Southern Oscillation (ENSO). Journal of Hydrology, 249(1-4): 134-147 |
Andrews J N, Fontes J F, Dodo A, et al, 1994. The Evolution of Alkaline Groundwater in the Continental Intercalaire Aquifer of the Irhazer Plain, Niger. Water Resources Research, 30: 45-61 |
Bath A H, Edmunds W M, Andrews J N, 1979. Paleoclimatic Trends Deduced from the Hydrochemistry of a Triassic Sandstone Aquifer, the United Kingdom. In: Isotope Hydrology 1978, Vol. Ⅱ. Vienna: International Atomic Energy Agency. 545-568 |
Chen M, 1997. The Water Resources Related with Quaternary Basin Systems in Arid Area of Northwest China. Quaternary Sciences, 2: 97-104(in Chinese) |
Chen W, 1992. The Environmental Evolution during the Last 40kaB.P. in North China Plain. Beijing: Press of Science and Technology. 195(in Chinese) |
Chen Z, Zhang G, Xu J, 1998. Paleoclimate Record Deduced from Groundwater and Climate Change Implications of Groundwater Resources in North China. Acta Geoscientia Sinica, 19: 338-345(in Chinese) |
Claassen H C, 1986. Late-Wisconsinan Paleohydrology of the West Central Amargosa Desert, Nevada, USA. Chemical Geology, 58: 311-323. |
Craig, 1961. Isotopic Variations in Meteoric Waters. Science, 133: 1702-1703 |
Dansgaard W, 1964. Stable Isotopes in Precipitation. Tellus, 16: 436-468 |
Davidson M R, Airey P L, 1982. The Effect of Dispersion on the Establishment of a Paleoclimatic Record from Groundwater. Journal of Hydrology, 58: 131-147 |
Dray M, Gonfiantini R, Zuppi G M, 1983. Isotopic Composition of Groundwater in the Southern Sahara. In: Palaeoclimates and Palaeowaters: A Collection of Environmental Isotope Studies, Panel Proceedings Series. Vienna: International Atomic Energy Agency. 187-199 |
Dutton A R, 1995. Groundwater Isotopic Evidence for Paleorecharge in U.S. High Plain Aquifers. Quaternary Research, 43: 221-231 |
Edmunds W M, Wright E P, 1979. Groundwater Recharge and Palaeoclimate in the Sirte and Kufra Basins, Libya. Journal of Hydrology, 40: 215-243 |
Fontes J C, Stute M, Schiosser P, et al, 1993. Aquifers as Archives of Paleoclimate. EOS Trans AGU, 74: 21-22 |
Geyh M A, 1980. Interpretation of Environmental Isotopic Groundwater Data: Arid and Sem-i Arid Zones. In: Arid Zone Hydrology: Investigations with Isotope Techniques. Vienna: International Atomic Energy Agency |
Huang C, 1998. Changes of Environment. Beijing: Science Press. 209 |
Hugo A L, Juan B V, Richard V, et al, 1996. Global Warming and the Hydrologic Cycle. Journal of Hydrology, 174(1-2): 83-127 |
Jacobson G, Calf G E, Jankowski J, et al, 1989. Groundwater Chemistry and Palaeocharge in the Amadeus Basin, Central Australia. Journal of Hydrology, 109: 237-266 |
Karen P B, Dara E, 2001. Basin Hydrologic Response Relations to Distributed Physiographic Descriptions and Climate. Journal of Hydrology, 247(3-4): 169-182 |
Kong Z, Du N1980. Vegetational and Climatic Changes in the Past 30, 000-1000Years in Beijing. Acta Botanica Sinica, 22: 330-338(in Chinese) |
Larry V B, James W B, Michael K, et al, 1996. Climatic and Hydrologic Oscillation in the Owens Lake Basin. Science, 274: 746-749 |
Li W, Zhou H, Zhou Y, 1995. Groundwater Flow System in Typical Arid Area, of Northwestern China. Beijing: Seismological Press. 179(in Chinese) |
Li X, Chang P, Gao W, 1994. A Study on the Distribution and Environment Isotope of Underground Water in the Weihe Plain-Evidence from Baiying Sources Region of Water. Acta Geoscientia Sinica, 1-2: 177-188(in Chinese) |
Liu C, Wang P, Zhou L, 1997. The Environment Significance of H, O, C and Cl Isotopic Composition in Groundwater of Hebei Plain. Earth Science Frontiers, 4: 267-274(in Chinese) |
Michael C M, Michael H C, 1999. Groundwater Formation of Martian Valleys. Nature, 397: 589-591 |
Phillips F M, Peeters L A, Tansey M K, et al, 1986. Paleoclimatic Inferences from an Isotopic Investigation of Groundwater in the Central San Juan Basin, New Mexico. Quaternary Research, 26: 179-193 |
Plummer L N, 1993. Stable Isotope Enrichment in Paleowaters of the Southeast Atlantic Coastal Plain, United States. Science, 262: 2016-2020 |
Rozanski K, 1985. Deuterium and Oxygen-18in European Groundwaters-Links to Atmospheric Circulation in the Past. Chemical Geology, 52: 349-363 |
Rozanski K, Arans-Aragnas L, Gonfiantini R, 1992. Relation between Long-Term Trends of Oxygen-18Isotope Composition of Precipitation and Climates. Science, 258: 91-984 |
Shao Y, 1989. Geochemistry of Environmental Isotopes of Groundwater in Hohhot Basin, Inner Mongolia. Engineering Reconnaissance, 4: 41-43(in Chinese) |
Sonntag C, Klitzsch E, Lohnert P, et al, 1979. Paleoclimatic Information from Deuterium and Oxygen-18in C-14Dated North Saharian Groundwaters; Groundwater Formation in the Past. In: Isotope Hydrology1978. Vienna: International Atomic Agency. 569-581 |
Stute M, Deak J, 1989. Environmental Isotope Study (14C, 1C3, 1O8, D, Noble Gasses) on Deep Groundwater Circulation Systems in Hungary with Reference to Paleoclimate. Radiocarbon, 31: 902-918 |
Stute M, Schlosser P, 1993. Principles and Applications of the Noble Gas Paleothermometer. In: Swart P K, Lonhman K C, Mckenzie J, et al, eds. Climate Change in Continental Isotopic Records. Geophysical Monograph, 78: 89-100 |
Stute M, Schlosser P, Clark J F, et al, 1992. Paleotemperatures in Southwestern United States Derived from Noble Gasses in Groundwater. Science, 256: 1000-1003 |
Vogel J C, 1970. Carbon-14Dating of Groundwater. In: Isotope Hydrology 1970. Vienna: IAEA. 225-239 |
Wagenbach D, 1989. Environmental Records in Alpine Glaciers. In: Oeschger H, Langway Jr C C, eds. The Environmental Record in Glaciers and Ice Sheets. New York: John Wiley and Sons. 69-83 |
Wang D, 1996. Tempora-l Spatial Distribution and Environmental Effect of δD and δ18O in Precipitation of China. In: Qu H, Xu N, eds. Proceedings of Environmental Geoscience Facing the Twenty-First Century. Beijing: Petroleum Industrial Press. 200-207(in Chinese) |
Zhang M, Qi J, 1993. Application of Environmental Isotopes on Exploration of Groundwater Resources in Baiyang. In: Qu H, Xu N, eds. Advance on Isotope Hydrogeology in China. Tianjin: Tianjin University Press. 174-179(in Chinese) |
Zhang Z, Zhang H, Sun J, et al, 1984. Environmental Isotope Study Related to Groundwater Age, Flow System and Saline Water Origin in Quaternary Aquifer of Hebei Plain. Hydrogeology and Engineering Geology, 4: 1-6(in Chinese) |