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Reconstructing the response of C3 and C4 plants to decadal-scale climate change during the late Pleistocene in Southern Illinois using isotopic analyses of calcified rootlets

Published online by Cambridge University Press:  20 January 2017

Hong Wang  and
Sallie E. Greenberg
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Abstract

The δ13C and δ18O values of well-preserved carbonate rhizoliths (CRs) provide detailed insights into changes in the abundance of C3 and C4 plants in response to approximately decadal-scale changes in growing-season climate. We performed stable isotope analyses on 35–40 CRs sampled at 1-cm intervals from an 18-cm-thick paleosol formed in southern Illinois during Wisconsin interstadial 2. Minimum δ13C values show little variation with depth, whereas maximum values vary dramatically, and average values show noticeable variability; maximum δ18O values vary less than the minimum δ18O values. These findings indicate that a diverse and stable C3 flora with a limited number of C4 grass species prevailed during this interval, and suggest that the maximum growing-season temperatures were relatively stable, but minimum growing-season temperatures varied considerably. Two general patterns characterize the relationships between the δ13C and δ18O values obtained from the 1-cm samples. In some cases, low δ13C values correspond to low δ18O values and high δ13C values correspond to high δ18O values, suggesting that cooler growing-season temperatures favored C3 and warmer growing-season temperatures favored C4 plants. In other cases, low δ13C values correspond to high δ18O values, likely suggesting that wetter growing-season conditions were favorable to C3 plants. The high density of well-preserved CRs in this paleosol provides a unique opportunity to study detailed ecological responses to high-resolution variability in growing-season climate.

Keywords

Carbonate rhizolithsStable isotope ratiosC3 and C4 plantsWisconsin interstadial 2Southern Illinois
Type
Research Article
Information
Quaternary Research , Volume 67 , Issue 1 , January 2007 , pp. 136 - 142
Copyright
University of Washington

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References

Andrews, J.A., Harrison, K.G., Matamala, R., and Schlesinger, W.H. Separation of root respiration from total soil respiration using carbon-13 labeling during free-air carbon dioxide enrichment (FACE). Soil Science Society of America Journal 63, (1999). 1429–1435.CrossRefGoogle Scholar
Balsam, W.L., Deaton, B.C., and Damuth, J.E. Evaluating optical lightness as a proxy for carbonate content in marine sediment cores. Marine Geology 161, (1999). 141–153.Google Scholar
Balsam, W.L., Ji, J.F., and Chen, J. Climatic interpretation of the Luochuan and Lingtai loess sections, China, based on changing iron oxide mineralogy and magnetic susceptibility. Earth and Planetary Science Letters 223, (2004). 335–348.Google Scholar
Beck, J.W., Richards, D.A., Edwards, R.L., Silverman, B.W., Smart, P.L., Donahue, D.J., Hererra-Osterheld, S., Burr, G.S., Calsoyas, L., Jull, A.J.T., and Biddulph, E. Extremely large variations of atmospheric 14C concentration during the last glacial period. Science 292, (2001). 2453–2458.CrossRefGoogle ScholarPubMed
Becze-Deak, J., Langohr, R., and Verrecchia, E.P. Small scale secondary CaCO3 accumulations in selected sections of the European loess belt. Morphological forms and potential for paleoenvironmental reconstruction. Geoderma 76, (1997). 221–252.Google Scholar
Bjorkman, O., and Berry, J. High-efficiency photosynthesis. Scientific American 229, (1973). 80–93.Google Scholar
Cerling, T.E. The stable isotopic composition of soil carbonate and its relationship to climate. Earth and Planetary Science Letters 71, (1984). 229–240.CrossRefGoogle Scholar
Cerling, T.E., and Quade, J. Stable carbon and oxygen isotopes in soil carbonates. Swart, P.K. et al. Climate Change in Continental Isotopic Records. American Geophysical Union, Geophysical Monograph vol. 78, (1993). 217–231.Google Scholar
Chapman, M.R., and Shackleton, N.J. What level of resolution is attainable in a deep-sea core? Results of a spectrophotometer study. Paleoceanography 13, (1998). 311–315.Google Scholar
Chen, J., Ji, J.F., Balsam, W.L., Chen, Y., Liu, L.W., and An, Z.S. Characterization of the Chinese loess–paleosol stratigraphy by whiteness measurement. Palaeogeography, Palaeoclimatology, Palaeoecology 183, (2002). 287–297.CrossRefGoogle Scholar
Commission Internationale de l'Eclairage (CIE), (1978). Recommendations on uniform color spaces, color difference and psychometric color terms: Paris, CIE, Colorimetry. Publication 15, Supplement 2. 21 p.Google Scholar
Coplen, T.B., Kendall, C., and Hopple, J. Comparison of stable isotope reference samples. Nature 302, (1983). 236–238.Google Scholar
Daniels, R.B., Handy, R.L., and Simonson, G.H. Dark-colored bands in the thick loess of western Iowa. Journal of Geology 68, (1960). 450–458.Google Scholar
Dansgaard, W. Stable isotopes in precipitation. Tellus 16, (1964). 436–468.CrossRefGoogle Scholar
Deines, P., Langmuir, D., and Harmon, R.S. Stable carbon isotope ratios and the existence of a gas phase in the evolution of carbonate ground waters. Geochimica et Cosmochimica Acta 38, (1974). 1147–1164.CrossRefGoogle Scholar
Ehleringer, J.R., and Monson, R.K. Evolutionary and ecological aspects of photosynthetic pathway variation. Annual Review of Ecology Systematics 24, (1993). 411–439.Google Scholar
Ekblad, A., and Högberg, P. Natural abundance of 13C in CO2 respired from forest soils reveals speed of link between tree photosynthesis and root respiration. Oecologia 127, (2001). 305–308.Google Scholar
Farquhar, G.D., O'Leary, M.H., and Berry, J.A. On the relationship between carbon isotope discrimination and the intercellular carbon dioxide concentration in leaves. Australian Journal of Plant Physiology 9, (1982). 121–137.Google Scholar
Fox, D.L., and Koch, P.L. Tertiary history of C4 biomass in the Great Plains, USA. Geology 31, (2003). 809–812.Google Scholar
Gile, L.H., Peterson, F.F., and Grossman, R.B. Morphological and genetic sequences of carbonate accumulation in desert soils. Soil Science 101, (1966). 347–360.Google Scholar
Gill, R.A., and Jackson, R.B. Global patterns of root turnover for terrestrial ecosystems. New Phytologist 147, (2000). 13–31.Google Scholar
Grootes, P.M., Stuiver, M., White, J.W.C., Johnsen, S., and Jouzel, J. Comparison of oxygen isotope records from the GISP2 and GRIP Greenland ice cores. Nature 366, (1993). 552–554.CrossRefGoogle Scholar
Gruger, E. Pollen and seed studies of Wisconsinan vegetation in Illinois U.S.A.. Geological Society of America Bulletin 83, (1972). 2715–2734.Google Scholar
Hattersley, P.W. The distribution of C3 and C4 grasses in Australia in relation to climate. Oecologia 57, (1983). 113–128.Google Scholar
Huang, Y., Street-Perrott, F.A., Metcalfe, S.E., Brenner, M., Moreland, M., and Freeman, K.H. Climate change as the dominant control on glacial–interglacial variations in C3 and C4 plant abundance. Science 293, (2001). 1647–1651.Google Scholar
Jaillard, B., Guyon, A., and Maurin, A.F. Structure and composition of calcified roots, and their identification in calcareous soils. Geoderma 50, (1991). 197–210.Google Scholar
Ji, J.F., Balsam, W., and Chen, J. Mineralogic and climatic interpretations of the Luochuan loess section (China) based on diffuse reflectance spectrophotometry. Quaternary Research 56, (2001). 23–30.Google Scholar
King, J.E. Pollen analysis of some Farmdalian and Woodfordian deposits, central Illinois. Follmer, L.R. et al. Wisconsinan, Sangamonian, and Illinoian Stratigraphy in central Illinois: Illinois State Geological Survey Guidebook vol. 13, (1979). 109–113.Google Scholar
Kitagawa, H., and van der Plicht, J. Atmospheric radiocarbon calibration to 45,000 yr B.P. Late glacial fluctuations and cosmogenic isotope production. Science 279, (1998). 1187–1190.Google Scholar
Klappa, C.F. Rhizoliths in terrestrial carbonates: classification, recognition, genesis and significance. Sedimentology 27, (1980). 613–629.CrossRefGoogle Scholar
Kosir, A. Microcodium revisited: root calcification products of terrestrial plants on carbonaterich substrates. Journal of Sedimentary Research 74, (2004). 845–857.CrossRefGoogle Scholar
Liutkus, C.M., Wright, J.D., Ashley, G.M., and Sikes, N.E. Paleoenvironmental interpretation of lake-margin deposits using δ 13C and δ 18O results from early Pleistocene carbonate rhizoliths, Olduvai Gorge, Tanzania. Geology 33, (2005). 377–380.Google Scholar
Monger, H.C., Daugherty, L.A., and Gile, L.H. A microscopic examination of pedogenic calcite in an Aridisol of southern New Mexico. Occurrence, Characteristics, and Genesis of Carbonate, Gypsum, and Silica Accumulations in Soils, SSSA Special Publication vol. 26, (1991). 37–60.Google Scholar
O'Leary, M.H. Carbon isotope fractionation in plants. Phytochemistry 20, (1981). 553–567.Google Scholar
Porter, S.C. High-resolution paleoclimatic information from Chinese eolian sediments based on grayscale intensity profiles. Quaternary Research 53, (2000). 70–77.Google Scholar
Raich, J.W., and Schlesinger, W.H. Global carbon dioxide flux in soil respiration and its relationship to vegetation and climate. Tellus 44B, (1992). 81–99.CrossRefGoogle Scholar
Rozanski, K., Araguas-Araguas, L., and Gonfiantini, R. Isotopic patterns in modern global precipitation. Swart, P., Lohmann, K., Mckenzie, C., and Savin, J. Climate Change in Continental Isotopic Records. Geophysical Monographs 78, (1993). 1–36.Google Scholar
Ruhe, R.V., Miller, G.A., and Vreeken, W.J. Paleosol, loess sedimentation and soil stratigraphy. Yaalon, D.H. Paleopedology Origin, Nature and Dating of Paleosols. (1971). Israel University Press, Jerusalem. 41–60.Google Scholar
Wang, H., Ambrose, S.H., and Fouke, B.W. Evidence of long-term seasonal climate forcing in rhizolith isotopes during the last glaciation. Geophysical Research Letters 31, (2004). L13203 Google Scholar
Wang, H., and Follmer, L.R. Proxy of monsoon seasonality in carbon isotope from paleosols of the southern Chinese Loess Plateau. Geology 26, (1998). 987–990.Google Scholar
Wang, H., Follmer, L.R., and Liu, C.-L.J. Isotope evidence of paleo-ENSO cycles in the loess–paleosol record in the Central USA. Geology 28, (2000). 771–774.Google Scholar
Wang, H., Hughes, R.E., Steele, J.D., Lepley, S.W., and Tian, J. Correlation of climate cycles in middle Mississippi Valley loess and Greenland ice. Geology 31, (2003). 179–182.2.0.CO;2>CrossRefGoogle Scholar