Plant and Soil

, Volume 370, Issue 1–2, pp 615–623 | Cite as

Occluded C in rice phytoliths: implications to biogeochemical carbon sequestration

  • Zimin Li
  • Zhaoliang Song
  • Jeffrey F. Parr
  • Hailong Wang
Regular Article

Abstract

Aims

Carbon (C) bio-sequestration within the phytoliths of plants, a mechanism of long-term biogeochemical C sequestration, may play a major role in the global C cycle and climate change. In this study, we explored the potential of C bio-sequestration within phytoliths produced in cultivated rice (Oryza sativa), a well known silicon accumulator.

Methods

The rice phytolith extraction was undertaken with microwave digestion procedures and the determination of occluded C in phytoliths was based on dissolution methods of phytolith-Si.

Results

Chemical analysis indicates that the phytolith-occluded C (PhytOC) contents of the different organs (leaf, stem, sheath and grains) on a dry weight basis in 5 rice cultivars range from 0.4 mg g−1 to 2.8 mg g−1, and the C content of phytoliths from grains is much lower than that of leaf, stem and sheath. The data also show that the PhytOC content of rice depends on both the content of phytoliths and the efficiency of C occlusion within phytoliths during rice growth. The biogeochemical C sequestration flux of phytoliths in 5 rice cultivars is approximately 0.03–0.13 Mg of carbon dioxide (CO2) equivalents (Mg-e-CO2) ha−1 year−1. From 1950 to 2010, about 2.37 × 108 Mg of CO2 equivalents might have been sequestrated within the rice phytoliths in China. Assuming a maximum phytoliths C bio-sequestration flux of 0.13 Mg-e-CO2 ha−1 year−1, the global annual potential rate of CO2 sequestrated in rice phytoliths would approximately be 1.94 × 107 Mg.

Conclusions

Therefore rice crops may play a significant role in long-term C sequestration through the formation of PhytOC.

Keywords

Carbon sequestration PhytOC Phytolith Rice 

References

  1. Alvarez J, Datnoff LE (2001) The economic potential of silicon for integrated management and sustainable rice production. Crop Prot 20:43–48CrossRefGoogle Scholar
  2. Anthoni PM, Freibauer A, Kolle O, Schulze E (2004) Winter wheat carbon exchange in Thuringia, Germany. Agr For Meteorol 121:55–67CrossRefGoogle Scholar
  3. Baker G (1961) Opal phytoliths and adventitious mineral particles in Wheat dust. CSIRO, MelbourneGoogle Scholar
  4. Baker G, Jones LHP, Wardro ID (1961) Opal phytoliths and mineral particles in the rumen of sheep. Aust J Agric Res 12:462–471CrossRefGoogle Scholar
  5. Bao SD, Yang XR, Li XQ, Zhang MJ (1996) The effect of wheat yields on silicon nutrition and the zinc silicon fertilizer in calcareous soils. Soil 6:311–315 (In Chinese)Google Scholar
  6. Bartoli F (1985) Crystallochemistry and surface properties of biogenic opal. J Soil Sci 36:335–350CrossRefGoogle Scholar
  7. Bartoli F, Wilding LP (1980) Dissolution of biogenic opal as a function of its physical and chemical properties. Soil Sci Soc Am J 44:873–878CrossRefGoogle Scholar
  8. Bowdery D (2007) Phytolith analysis: sheep, diet and fecal material at Ambathala Pastoral Station, Queensland, Australia. In: Madella M, Débora Z (eds) Plant, people and places–recent studies in phytolith analysis. Oxbow, OxfordGoogle Scholar
  9. Cao ZH, Zhang HC (2004) Phosphorus losses to water from lowland rice fields under rice-wheat double cropping system in the Tai Lake region. Environ Geochem Health 26:229–236PubMedCrossRefGoogle Scholar
  10. Cao ZH, Ding JL, Hu ZY, Knicker H, Kögel-Knabner I, Yang LZ, Yin R, Lin XG, Dong YH (2006) Ancient paddy soils from the Neolithic age in China’s Yangtze River Delta. Naturwissenschaften 93:232–236PubMedCrossRefGoogle Scholar
  11. Cao ZH, Yang LZ, Lin XG, Hu ZY, Dong YH, Zhang GY et al (2007) Morphological characteristics of paddy fields, paddy soil profile, phytoliths and fossil rice grain of the Neolithic age in Yangtze River Delta. Acta Pedologica Sin 44:839–847 (In Chinese)Google Scholar
  12. Chen JG, Zhang YZ, Zeng XB, Zhou WJ, Zhou J (2008) Effect of long-term various fertilization on exchangeable Ca and Mg, and available S and Si contents in paddy soils. Ecol Environ 17:2064–2067Google Scholar
  13. China Sannong Data NetWork (CSDN) (2011) http://www.sannong.gov.cn
  14. China Soil Scientific Database (CSSD) (2012) http://mirror.soil.csdb.cn/page/showItem. vpage?id = cn. csdb. soil. taxonomy. cst Yagang/
  15. Clark DA (2002) Are tropical forests an important carbon sink? Reanalysis of the long-term plot data. Ecol Appl 12:3–7CrossRefGoogle Scholar
  16. Ding TP, Ma GR, Shui MX, Wan DF, Li RH (2005) Silicon isotope study on rice plants from Zhejiang Province, China. Chem Geol 218:41–50CrossRefGoogle Scholar
  17. DOE (2008) International Energy Outlook 2008 Energy Information Administration Office of Integrated Analysis and Forecasting. US. Department of Energy, Washington, DCGoogle Scholar
  18. Epstein E (1994) The anomaly of silicon in plant biology. Proc Natl Acad Sci USA 91:11–17PubMedCrossRefGoogle Scholar
  19. Epstein E (1999) Silicon. Annu Rev Plant Physiol Plant Molec Biol 50:641–644CrossRefGoogle Scholar
  20. Epstein E (2001) Silicon in plants: facts vs. concepts. In: Datnoff LE, Snyder GH, Korndorger GH (eds) Silicon in agriculture). Elsevier Science B.V, Amsterdam, pp 1–15CrossRefGoogle Scholar
  21. Falkowski P, Scholes RJ, Boyle E, Canadell J, Canfield D, Elser J, Gruber N, Hibbard K, Högberg P, Linder S, Mackenzie FT, Moore B III, Pedersen T, Rosenthal Y, Seitzinger S, Smetacek V, Steffen W (2000) The global carbon cycle: a test of our knowledge of earth as a system. Science 290:291–296PubMedCrossRefGoogle Scholar
  22. Fang JY, Guo ZD, Piao SL, Chen AP (2007) Terrestrial vegetation carbon sinks in China, 1981–2000. Sci China Ser D-Earth Sci 50:1341–1350CrossRefGoogle Scholar
  23. Field CB (2001) Plant physiology of the “Missing” carbon sink. Plant Physiol 125:25–28PubMedCrossRefGoogle Scholar
  24. Gifford RM (1994) The global carbon cycle: a viewpoint on the missing sink. Aust J Plant Biol 21:1–15CrossRefGoogle Scholar
  25. Harrison K, Broecker W, Bonani G (1993) A strategy for estimating the impact of CO2 fertilization on soil carbon storage. Global Biogeochem Cy 7:69–80CrossRefGoogle Scholar
  26. Hart DM, Humphreys GS (1997) Plant opal phytoliths: an Australian perspective. Quatern Aust 15:17–25Google Scholar
  27. Intergovernmental Panel on Climate Change (IPCC) (2007) Climate change 2007: the scientific basis. Cambridge University Press, UKCrossRefGoogle Scholar
  28. International Rice Research Institute (IRRI) (2011) http://beta.irri.org/
  29. Jones L, Handreck K (1967) Silica in soils, plants and animals. Adv Agron 19:107–149CrossRefGoogle Scholar
  30. Jones LHP, Milne AA (1963) Studies of silica in the oat plant. Plant Soil XVIII:207–220CrossRefGoogle Scholar
  31. Korndorfer GH, Lepsch I (2001) Effect of silicon on plant growth and crop yield. In: Datnoff LE, Snyder GH, Korndorfer GH (eds) Silicon in agriculture. Elsevier Science B V, AmsterdamGoogle Scholar
  32. Kosten S, Roland F, Da Motta Marques DML, Van Nes EH, Mazzeo N, Stemberg LDSL, Scheffer M, Cole JJ (2010) Climate-dependent CO2 emissions from lakes. Global Biogeochem Cy 24. doi:10.1029/2009GB003618
  33. Kroger N, Lorenz S, Brunner E, Sumper M (2002) Self-assembly of highly phosphorylated silaffins and their function in biosilica morphogenesis. Science 298:584–586PubMedCrossRefGoogle Scholar
  34. Liang Y, Hua H, Zhu YG, Cheng C, Romheld V (2006) Importance of plant species and external silicon concentration to active silicon uptake and transport. New Phytol 172:63–72PubMedCrossRefGoogle Scholar
  35. Lin XG, Yin R, Zhang HY, Huang JF, Chen RR, Cao ZH (2004) Changes of soil microbiological properties caused by land use changing from rice-wheat rotation to vegetable cultivation. Environ Geochem Health 26:119–128PubMedCrossRefGoogle Scholar
  36. Lu RK (2000) Methods for soil and agrochemical analysis. China Agriculture Press, BeijingGoogle Scholar
  37. Ma JF, Takahashi E (2002) Amsterdam: Elsevier Science; Soil, fertilizer, and plant silicon research in Japan, 1st edn. Elsevier Science, AmsterdamGoogle Scholar
  38. Ma JF, Tamai K, Ichii M, Wu K (2002) A rice mutant defective in active Si uptake. Plant Physiol 130:2111–2117PubMedCrossRefGoogle Scholar
  39. Matichenkov V, Calvert D, Snyder G (1999) Silicon fertilizers for citrus in Florida. Proc Fla State Hort Soc 112:5–8Google Scholar
  40. McKenzie N, Ryan P, Fogarty P, Wood J (2000) Sampling, measurement and analytical protocols for carbon estimation in soil, litter and coarse woody debris, Australian Greenhouse Office, National Carbon Accounting System, Technical Report no 14:1–42Google Scholar
  41. Mecfel J, Hinke S, Goedel WA, Marx G, Fehlhaber R, Bǎucker E, Wienhaus O (2007) Effect of silicon fertilizers on silicon accumulation in wheat. J Plant Nutr Soil Sci 170:769–772CrossRefGoogle Scholar
  42. Mulholland SC, Prior CA (1993) AMS radiocarbon dating of phytoliths. In: Pearsall DM, Piperno DR (eds) MASCA research papers in science and archaeology. University of Pennsylvania, Philadelphia, pp 21–23Google Scholar
  43. Murphy D (2002) Fundamentals of light microscopy and electronic imaging. A John Wiley & Sons, Inc., 121 ppGoogle Scholar
  44. National Bureau of Statistics of China (NBSC) (2011) http://www.stats.gov.cn/
  45. Oldenburg CM, Torn MS, DeAngelis KM, Ajo-Franklin JB, Amundson RG, Bernacchi CJ, et al. (2008) Biologically enhanced carbon sequestration: Research needs opportunities. Report on the Energy Biosciences Institute Workshop on Biologically Enhanced Carbon Sequestration, October 29 2007, Berkeley, CA, LBNL–713EGoogle Scholar
  46. Parr JF (2006) Effect of fire on phytolith coloration. Geo-archaeology 21:171–185Google Scholar
  47. Parr JF, Sullivan LA (2005) Soil carbon sequestration in phytoliths. Soil Biol Biochem 37:117–124CrossRefGoogle Scholar
  48. Parr JF, Sullivan LA (2011) Phytolith occluded carbon and silica variability in wheat cultivars. Plant Soil 342:165–171CrossRefGoogle Scholar
  49. Parr JF, Dolic V, Lancaster G, Boyd WE (2001) A microwave digestion method for the extraction of phytoliths from herbarium specimens. Rev Palaeobot Palynol 116:203–212CrossRefGoogle Scholar
  50. Parr JF, Sullivan LA, Quirk R (2009) Sugarcane phytoliths: encapsulation and sequestration of a long-lived carbon fraction. Sugar Tech 11:17–21CrossRefGoogle Scholar
  51. Parr JF, Sullivan LA, Chen B, Ye G, Zheng W (2010) Carbon bio-sequestration within the phytoliths of economic bamboo species. Global Change Biol 16:2661–2667CrossRefGoogle Scholar
  52. Pearsall DM (1989) Paleoethnobotany: a handbook of procedures. Academic, LondonGoogle Scholar
  53. Perry CC, Williams RJP, Fry SC (1987) Cell wall biosynthesis during silicification of grass hairs. J Plant Physiol 126:437–448CrossRefGoogle Scholar
  54. Piperno DR (1988) Phytolith analysis: an archaeological and geological perspective. Academic, LondonGoogle Scholar
  55. Prasad V, Strömberg CAE, Alimohammadian H, Sahni A (2005) Dinosaur coprolites and the early evolution of grasses and grazers. Science 310:1177–1180PubMedCrossRefGoogle Scholar
  56. Sangster AG, Parry DW (1981) Ultrastructure of silica deposits in higher plants. In: Simpson TL, Volcani BE (eds) Silicon and siliceous structures in biological systems. Springer, New York, pp 383–407CrossRefGoogle Scholar
  57. Schimel D (1995) Terrestrial ecosystems and the carbon cycle. Global Change Biol 1:77–91CrossRefGoogle Scholar
  58. Schlesinger WH (1997) Biogeochemistry: an analysis of global change. Academic, New YorkGoogle Scholar
  59. Skjemstad JO, Spouncer LR, Beech A (2000) Carbon conversion factors for historical soil carbon data. 15, CSIRO Land and Water, AdelaideGoogle Scholar
  60. Song ZL, Liu HY, Si Y, Yin Y (2012a) The production of phytoliths in China’s grasslands: implications to the biogeochemical sequestration of atmospheric CO2. Global Change Biol 18:3647–3653CrossRefGoogle Scholar
  61. Song ZL, Wang HL, Strong PJ, Li ZM, Jiang PK (2012b) Plant impact on the coupled terrestrial biogeochemical cycles of silicon and carbon: Implications for biogeochemical carbon sequestration. Earth Sci Rev 319–331Google Scholar
  62. Strömberg CAE (2004) Use phytolith assemblages to reconstruct the origin and spread of grass-dominated habitats in the great plains of North America during the late Eocene to early Miocene. Paleogeogr Paleoclimatol Paleoecol 207:239–275CrossRefGoogle Scholar
  63. Walkley A, Black IA (1934) An examination of the Degtjareff method for determining soil organic matter, and a proposed modification of the chromic acid titration method. Soil Sci 37:29–38CrossRefGoogle Scholar
  64. Wang SM, Zhang CH, Hu FX, Zeng K, Zhang WH, Wang WJ (2008) The quantitative analysis of rice aboveground biomass and net primary productivity. Chinese Agr Sci Bull 24:201–205 (In Chinese with English abstract)Google Scholar
  65. Wilding LP (1967) Radiocarbon dating of biogenetic opal. Science 156:66–67PubMedCrossRefGoogle Scholar
  66. Wilding LP, Drees LR (1974) Contributions of forest opal and associated crystalline phases to fine silt and clay fractions of soils. Clay Clay Miner 22:295–306CrossRefGoogle Scholar
  67. Wilding LP, Brown RE, Holowaychuk N (1967) Accessibility and properties of occluded carbon in biogenetic opal. Soil Sci 103:56–61CrossRefGoogle Scholar
  68. Zhang YL, Yu L, Liu MD, Yu N (2008) Silicon liberation characteristics of soil and its effect factors after applying slag mucks I Relationships between Calcium, Magnesium, Iron and Aluminium and Silicon liberation. Chinese J Soil Sci 39:722–725 (In Chinese)Google Scholar
  69. Zhang WJ, Wang XJ, Xu MG, Huang SM, Peng C (2010) Soil organic carbon dynamics under long-term fertilizations in arable land of northern China. Biogeosciences 7:409–425CrossRefGoogle Scholar
  70. Zheng Y, Matsui A, Fujiwara H (2003) Phytoliths of rice detected in the Neolithic sites in the valley of the Taihu Lake in China. Env Archaeol 8:177–184CrossRefGoogle Scholar
  71. Zuo XX, Lü HY (2011) Carbon sequestration within millet phytoliths from dry-farming of crops in China. Chinese Sci Bull 56:3451–3456CrossRefGoogle Scholar

Copyright information

© Springer Science+Business Media Dordrecht 2013

Authors and Affiliations

  • Zimin Li
    • 1
  • Zhaoliang Song
    • 1
    • 2
    • 3
    • 4
  • Jeffrey F. Parr
    • 5
  • Hailong Wang
    • 1
    • 2
  1. 1.School of Environmental and Resource SciencesZhejiang A & F UniversityLin’anChina
  2. 2.Zhejiang Provincial Key Laboratory of Carbon Cycling in Forest Ecosystems and Carbon SequestrationZhejiang A & F UniversityLin’anChina
  3. 3.Laboratory for Earth Surface ProcessesMinistry of EducationPekingChina
  4. 4.College of Urban and Environmental SciencesPeking UniversityPekingChina
  5. 5.Southern Cross GeoScienceSouthern Cross UniversityLismoreAustralia

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