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Estimating Turnover of Soil Organic Carbon Fractions Based on Radiocarbon Measurements

Published online by Cambridge University Press:  18 July 2016

Sander Bruun ,
Johan Six ,
Lars S Jensen  and
Keith Paustian
Sander Bruun*
Affiliation:
Department of Agricultural Sciences, The Royal Veterinary and Agricultural University, Thorvaldsensvej 40, DK-1871 Frederiksberg C, Denmark
Johan Six
Affiliation:
Department of Agronomy and Range Science, University of California-Davis, Davis, California 95616, USA. Natural Resource Ecology Laboratory, Colorado State University, Fort Collins, Colorado 80523, USA.
Lars S Jensen
Affiliation:
Department of Agricultural Sciences, The Royal Veterinary and Agricultural University, Thorvaldsensvej 40, DK-1871 Frederiksberg C, Denmark
Keith Paustian
Affiliation:
Natural Resource Ecology Laboratory, Colorado State University, Fort Collins, Colorado 80523, USA.
*
Corresponding author. Email: sab@kvl.dk.
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Abstract

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In this paper, we examine 3 different models used to estimate turnover of soil organic carbon (SOC) fractions using radiocarbon measurements: one conventional carbon dating model and two bomb 14C models. One of the bomb 14C models uses an atmospheric 14C record for the period 22,050 BC to AD 2003 and is solved by numerical methods, while the other assumes a constant 14C content of the atmosphere and is solved analytically. The estimates of SOC turnover obtained by the conventional 14C dating model differed substantially from those obtained by the bomb 14C models, which we attribute to the simplifying assumption of the conventional 14C model that the whole SOC fraction is of the same age. The assumptions underlying the bomb 14C models are more applicable to SOC fractions; therefore, the calculated turnover times are considered to be more reliable. We used Monte Carlo simulations to estimate the uncertainties of the turnover times calculated with the numerically solved 14C model, accounting not only for measurement errors but also for uncertainties introduced from assumptions of constant input and uncertainties in the 14C content of the CO2 assimilated by plants. The resulting uncertainties depend on systematic deviations in the atmospheric 14C record for SOC fractions with a fast turnover. Therefore, the use of the bomb 14C models can be problematic when SOC fractions with a fast turnover are analyzed, whereas the relative uncertainty of the turnover estimates turned out to be smaller than 30% when the turnover time of the SOC fractions analyzed was longer than 30 yr, and smaller than 15% when the turnover time was longer than 100 yr.

Type
Articles
Information
Radiocarbon , Volume 47 , Issue 1 , 2005 , pp. 99 - 113
Copyright
Copyright © 2005 by the Arizona Board of Regents on behalf of the University of Arizona 

References

Agnelli, A, Trumbore, SE, Corti, G, Ugolini, FC. 2002. The dynamics of organic matter in rock fragments in soil investigated by 14C dating and measurements of 13C. European Journal of Soil Science 53(1):147–59.Google Scholar
Anderson, DW, Paul, EA. 1984. Organo-mineral complexes and their study by radiocarbon dating. Soil Science Society of America Journal 48(2):298–301.Google Scholar
Baisden, WT, Amundson, R, Cook, AC, Brenner, DL. 2002. Turnover and storage of C and N in five density fractions from California annual grassland surface soils. Global Biogeochemical Cycles 16(4):1117.CrossRefGoogle Scholar
Balesdent, J. 1987. The turnover of soil organic fractions estimated by radiocarbon dating. The Science of the Total Environment 62:405–8.Google Scholar
Balesdent, J, Girardin, C, Mariotti, A. 1993. Site-related δ13C of tree leaves and soil organic matter in a temperate forest. Ecology 74(6):1713–21.CrossRefGoogle Scholar
Balesdent, J, Guillet, B. 1982. Les datations par le 14C des metières organiques des sols. Science du Sol 2:93–112.Google Scholar
Balesdent, J, Mariotti, A. 1996. Measurement of soil organic matter turnover using 13C natural abundance. In: Boutton, TW, Yamasaki, SI, editors. Mass Spectrometry of Soils. New York: Marcel Dekker. p 83–111.Google Scholar
Barrette, L, Lasalle, P, Martel, Y, Samson, C. 1980. Variations of 14C in oats grown from 1957 to 1978 in Québec. Radiocarbon 22(2):410–4.Google Scholar
Baxter, MS, Walton, A. 1971. Fluctuations of atmospheric carbon-14 concentrations during the past century. Proceedings of the Royal Society of London, Series A 321:105–27.Google Scholar
Bird, M, Santrùcková, H, Lloyd, J, Lawson, E. 2002. The isotopic composition of soil organic carbon on a north-south transect in western Canada. European Journal of Soil Science 53(3):393–403.Google Scholar
Bol, RA, Harkness, DD, Huang, Y, Howard, DM. 1999. The influence of soil processes on carbon isotope distribution and turnover in the British uplands. European Journal of Soil Science 50(1):41–51.Google Scholar
Burchuladze, AA, Chudy, M, Eristavi, IV, Pagava, SV, Povinec, P, Sivo, A, Togonidze, GI. 1989. Anthropogenic 14C variations in atmospheric CO2 and wines. Radiocarbon 31(3):771–6.Google Scholar
Campbell, CA, Paul, EA, Rennie, DA, McCallum, KJ. 1967. Applicability of the carbon-dating method of analysis to soil humus studies. Soil Science 104(3): 217–24.Google Scholar
Chen, Q, Sun, Y, Shen, C, Peng, S, Yi, W, Li, Z, Jiang, M. 2002. Organic matter turnover rates and CO2 flux from organic matter decomposition of mountain soil profiles in the subtropical area, south China. Catena 49(3):217–29.CrossRefGoogle Scholar
Cherkinsky, OA, Brovkin, VA. 1993. Dynamics of radiocarbon in soils. Radiocarbon 35(3):363–7.Google Scholar
Dai, K, Fan, CY. 1986. Bomb-produced 14C content in tree rings grown at different latitudes. Radiocarbon 28(2A):346–9.Google Scholar
Dai, K, Qian, Y, Fan, CY. 1992. Bomb-produced 14C in tree rings. Radiocarbon 34(3):753–6.Google Scholar
Damon, PE, Peristykh, AN. 2000. Radiocarbon calibration and application to geophysics, solar physics, and astrophysics. Radiocarbon 42(1):137–50.CrossRefGoogle Scholar
Druffel, ERM, Griffin, S. 1995. Radiocarbon in tropospheric CO2 and organic materials from selected Northern Hemisphere sites. Radiocarbon 37(3):883–8.Google Scholar
Ehleringer, JR, Buchmann, N, Flanagan, LB. 2000. Carbon isotope ratios in belowground carbon cycle processes. Ecological Applications 10(2):412–22.Google Scholar
Geyh, MA, Benzler, JH, Roeschmann, G. 1971. Problems of dating Pleistocene and Holocene soils by radiometric methods. In: Yaalon, , editor. Paleopedology. Jerusalem: Israel University Press. p 63–75.Google Scholar
Gilet-Blein, N, Marien, G, Evin, J. 1980. Unreliability of 14C dates from organic matter of soils. Radiocarbon 22(3):919–29.Google Scholar
Goodsite, ME, Rom, W, Heinemeier, J, Lange, T, Ooi, S, Appleby, PG, Shotyk, W, van der Knaap, WO, Lohse, C, Hansen, TS. 2001. High-resolution AMS 14C dating of post-bomb peat archives of atmospheric pollutants. Radiocarbon 43(2B):495–515.Google Scholar
Harkness, DD, Harrison, AF, Bacon, PJ. 1991. The potential of bomb-14C measurements for estimating soil organic matter turnover. In: Wilson, WS, editor. Advances in Soil Organic Matter Research: The Impact on Agriculture and the Environment. Colchester: Royal Society of Chemistry. p 239–51.Google Scholar
Harrison, K, Broecker, W. 1993. A strategy for estimating the impact of CO2 fertilization on soil carbon storage. Global Biogeochemical Cycles 7(1):69–80.Google Scholar
Hsieh, YP. 1993. Radiocarbon signatures of turnover rates in active soil organic carbon pools. Soil Science Society of America Journal 57(4):1020–2.Google Scholar
Hsieh, YP. 1996. Soil organic carbon pools of two tropical soils inferred by carbon signatures. Soil Science Society of America Journal 60(4):1117–21.CrossRefGoogle Scholar
Jenkinson, DS, Rayner, JH. 1977. The turnover of soil organic matter in some of the Rothamsted classical experiments. Soil Science 123(5):298–305.Google Scholar
Knapp, AK, Smith, MD. 2001. Variation among biomes in temporal dynamics of aboveground primary production. Science 291(5503):481–4.Google Scholar
Kromer, B, Manning, SW, Kuniholm, PI, Newton, MW, Spurk, M, Levin, I. 2001. Regional 14CO2 offsets in the troposphere: magnitude, mechanisms, and consequences. Science 294(5551):2529–32.Google Scholar
Levin, I, Kromer, B. 1997. Twenty years of atmospheric 14CO2 observations at Schauinsland station, Germany. Radiocarbon 39(2):205–18.CrossRefGoogle Scholar
Levin, I, Kromer, B, Schoch-Fisher, H, Bruns, M, Münnich, M, Berdau, D, Vogel, JC, Münnich, KO. 1985. 25 years of tropospheric 14C observations in central Europe. Radiocarbon 27(1):1–19. (Data online: http://cdiac.esd.ornl.gov/trends/co2/cent.htm.)Google Scholar
Libby, WF. 1952. Radiocarbon Dating. Chicago: University of Chicago Press. 124 p.Google Scholar
Magid, J, Gorissen, A, Giller, K. 1996. In search of the elusive “active” fraction of soil organic matter: three size-density fractionation methods for tracing the fate of homogeneously 14C-labeled plant materials. Soil Biology and Biochemistry 28(1):89–99.Google Scholar
Martel, YA, Paul, EA. 1974. The use of radiocarbon dating of organic matter in the study of soil genesis. Soil Science Society of America Proceedings 38(3):501–6.Google Scholar
Olsson, IU, Possnert, G. 1992. 14C activity in different sections and chemical fractions of oak tree rings, AD 1938–1981. Radiocarbon 34(3):757–67.Google Scholar
Paul, EA, Campbell, CA, Rennie, DA, McCallum, KJ. 1964. Investigations of the dynamics of soil humus utilizing carbon dating techniques. Proceedings of the 8th International Congress of Soil Science 3:201–8.Google Scholar
Perrin, RMS, Willis, EH. 1964. Dating of humus podzols by residual radiocarbon activity. Nature 202(4928): 165–6.Google Scholar
Scharpenseel, HW, Schiffmann, H. 1977. Radiocarbon dating of soils: a review. Zeitschrift für Pflanzenernährung und Bodenkunde 140(2):159–74.Google Scholar
Sohi, SP, Mahieu, N, Arah, JRM, Powlson, DS, Madari, B, Gaunt, JL. 2001. A procedure for isolating soil organic matter fractions suitable for modeling. Soil Science Society of America Journal 65(4):1121–8.Google Scholar
Stuiver, M, Braziunas, TF. 1998. Anthropogenic and solar components of hemispheric C-14. Geophysical Research Letters 25(3):329–32.Google Scholar
Stuiver, M, Polach, HA. 1977. Discussion: reporting of 14C data. Radiocarbon 19(3):355–63.Google Scholar
Stuiver, M, Quay, PD. 1981. Atmospheric 14C changes resulting from fossil fuel CO2 release and cosmic ray flux variability. Earth and Planetary Science Letters 53:349–62.CrossRefGoogle Scholar
Stuiver, M, Reimer, PJ, Bard, E, Beck, JW, Burr, GS, Hughen, KA, Kromer, B, McCormac, G, van der Plicht, J, Spurk, M. 1998. IntCal98 radiocarbon age calibration, 24,000–0 cal BP. Radiocarbon 40(3):1041–83. (Data online: http://www.dur.ac.uk/a.r.millard/calibration.html).Google Scholar
Tans, PP, de Jong, AFM, Mook, WG. 1979. Natural atmospheric 14C variation and the Suess effect. Nature 280: 826–8.Google Scholar
Tauber, H. 1967. Copenhagen radiocarbon measurements VIII. Geographic variation in atmospheric 14C activity. Radiocarbon 9:246–56.Google Scholar
Trumbore, SE. 1993. Comparison of carbon dynamics in tropical and temperate soils using radiocarbon measurements. Global Biogeochemical Cycles 7(2):275–90.Google Scholar
Trumbore, SE, Chadwick, OA, Amundson, R. 1996. Rapid exchange between soil carbon and atmospheric carbon dioxide driven by temperature change. Science 272: 393–6.Google Scholar
Trumbore, SE, Zheng, S. 1996. Comparison of fractionation methods for soil organic matter 14C analysis. Radiocarbon 38(2):219–29.Google Scholar
Vogel, JC. 1970. Groningen radiocarbon dates IX. Radiocarbon 12(2):444–71.Google Scholar