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Effects of phytolithic rice-straw biochar, soil buffering capacity and pH on silicon bioavailability

  • Zimin LiEmail author
  • Dácil Unzué-Belmonte
  • Jean-Thomas Cornelis
  • Charles Vander Linden
  • Eric Struyf
  • Frederik Ronsse
  • Bruno Delvaux
Regular Article

Abstract

Aims

Supplying phytolith-rich biochar in agrosystems increases soil pH, CEC and nutrient availability, adding to the impact of Si uptake on plant growth. Here we studied this specific impact as influenced by soil properties, and assessed the role of phytoliths to provide plant available Si.

Methods

We used a young Cambisol and a highly weathered, poorly buffered, desilicated Nitisol. The biochars were produced from rice plants respectively enriched (Si+) and depleted (Si-) in Si. They had identical pH and nutrient contents, but largely differed in Si content (51.3 g Si kg−1 in Si + vs 0.3 g Si kg−1 in Si-). We compared their effects to that of wollastonite (CaSiO3) on the biomass and mineralomass of wheat plants in a soil:solution:plant device. The contents of soil bioavailable Si and biogenic Si were assessed through an original CaCl2 kinetic extraction and the DeMaster Na2CO3 alkaline dissolution, respectively.

Results

The DeMaster technique dissolved Si from phytolith as well as from wollastonite. The soil buffering capacity (cmolc kg−1) was 31 in the Cambisol and 0.2 in the Nitisol. An identical supply of phytolithic biochar increased pH from 4.5 to 4.8 in the Cambisol, and from 4.8 to 7.4 in NI. It further increased the content of bioavailable Si (from 55 to 97 mg kg−1 in the Cambisol, and 36 to 209 mg kg−1 in the Nitisol), as well as plant Si uptake, biomass and Si mineralomass. That increase was largest in the Nitisol.

Conclusions

The DeMaster technique did not specifically quantify the phytolith pool. This pool was the main source of plant available Si in both the Cambisol and Nitisol amended with phytolithic biochar. At identical phytolithic Si supply, however, soil pH and soil buffering capacity controlled the transfer of Si in the soil-plant system, which was largest in the poorly buffered Nitisol. The effect of phytolithic biochar on Si bioavailability was depending on soil constituents and properties, and thus on soil type.

Keywords

Biochar Phytolith Si bioavailability pH Soil buffering capacity 

Notes

Acknowledgements

We thank A. Iserentant and C. Givron for laboratory assistance (UCL), and M. Capelle for technical advice (UCL), as well as M. Pala for biochar preparation (Ghent University). Z. Li is supported by the ‘Fonds Spécial de Recherche’ of the UCL in 2014-2015 and the ‘Fonds National de la Recherche Scientifique’ (FNRS) of Belgium in 2015-2019. D.U.B would like to thank BELSPO for funding the project SOGLO (The soil system under global change, P7/24). We thank the reviewers for their helpful comments to improve the manuscript, and the Editor-in-Chief for his pertinent advices. All authors contributed to paper writing and revision.

Compliance with ethical standards

Conflict of interest

The authors declare that there are no conflicts of interest.

Supplementary material

11104_2019_4013_MOESM1_ESM.docx (111 kb)
ESM 1 (DOCX 111 kb)

References

  1. Alexandre A, Meunier J-D, Colin F, Koud J-M (1997) Plant impact on the biogeochemical cycle of silicon and related weathering processes. Geochim Cosmochim Acta 61:677–682CrossRefGoogle Scholar
  2. Bartoli F, Wilding L (1980) Dissolution of biogenic opal as a function of its physical and chemical properties. Soil Sci Soc Am J 44:873–878CrossRefGoogle Scholar
  3. Belanger RR (1995) Soluble silicon: its role in crop and disease management of greenhouse crops. Plant Dis 79:329–336CrossRefGoogle Scholar
  4. Berthelsen S, Noble AD, Garside AL (2001) Silicon research down under: past, present, and future. In Studies in Plant Science, vol 8. Elsevier, pp 241–255Google Scholar
  5. Biederman LA, Harpole WS (2013) Biochar and its effects on plant productivity and nutrient cycling: a meta-analysis. GCB Bioenergy 5:202–214CrossRefGoogle Scholar
  6. Chao T, Sanzolone R (1992) Decomposition techniques. J Geochem Explor 44:65–106CrossRefGoogle Scholar
  7. Chapman HD (1965) Cation-exchange capacity. In: Black CA et al. (eds) Methods of soil analysis. Part 2, Chemical and microbiological properties. Agronomy, Madison, pp. 891-901Google Scholar
  8. Cornelis JT, Delvaux B (2016) Soil processes drive the biological silicon feedback loop. Funct Ecol 30:1298–1310CrossRefGoogle Scholar
  9. Cornelis J-T, Titeux H, Ranger J, Delvaux B (2011) Identification and distribution of the readily soluble silicon pool in a temperate forest soil below three distinct tree species. Plant Soil 342:369–378CrossRefGoogle Scholar
  10. Corrales I, Poschenrieder C, Barceló J (1997) Influence of silicon pretreatment on aluminium toxicity in maize roots. Plant Soil 190:203–209CrossRefGoogle Scholar
  11. Datnoff LE, Heckman JR (2014) Silicon fertilizers for plant disease protection. World Fertilizer CongressGoogle Scholar
  12. Delstanche S, Opfergelt S, Cardinal D, Elsass F, André L, Delvaux B (2009) Silicon isotopic fractionation during adsorption of aqueous monosilicic acid onto iron oxide. Geochim Cosmochim Acta 73(4):923–934CrossRefGoogle Scholar
  13. DeMaster DJ (1981) The supply and accumulation of silica in the marine environment. Geochim Cosmochim Acta 45:1715–1732CrossRefGoogle Scholar
  14. Epstein E (1994) The anomaly of silicon in plant biology. Proc Natl Acad Sci 91:11–17CrossRefGoogle Scholar
  15. Exley C (1998) Silicon in life: a bioinorganic solution to bioorganic essentiality. J Inorg Biochem 69:139–144CrossRefGoogle Scholar
  16. Farmer VC (1982) Significance of the presence of allophane and imogolite in Podzol Bs horizons for podzolization mechanisms: a review. Soil Sci Plant Nutr 28(4):571–578CrossRefGoogle Scholar
  17. Fraysse F, Pokrovsky OS, Schott J, Meunier J-D (2006) Surface properties, solubility and dissolution kinetics of bamboo phytoliths. Geochim Cosmochim Acta 70:1939–1951CrossRefGoogle Scholar
  18. Fraysse F, Pokrovsky OS, Schott J, Meunier J-D (2009) Surface chemistry and reactivity of plant phytoliths in aqueous solutions. Chem Geol 258:197–206CrossRefGoogle Scholar
  19. Garrels RM, Christ CL (1965) Solutions, minerals, and equilibria. Harper Row, New York, p. 46Google Scholar
  20. Gérard F, Mayer K, Hodson M, Ranger J (2008) Modelling the biogeochemical cycle of silicon in soils: application to a temperate forest ecosystem. Geochim Cosmochim Acta 72:741–758CrossRefGoogle Scholar
  21. Glaser B, Lehmann J, Zech W (2002) Ameliorating physical and chemical properties of highly weathered soils in the tropics with charcoal–a review. Biol Fertil Soils 35(4): 219–230Google Scholar
  22. Guntzer F, Keller C, Poulton PR, McGrath SP, Meunier J-D (2012) Long-term removal of wheat straw decreases soil amorphous silica at Broadbalk, Rothamsted. Plant Soil 352:173–184CrossRefGoogle Scholar
  23. Hardy B, Cornelis JT, Houben D, Lambert R, Dufey JE (2016) The effect of pre-industrial charcoal kilns on chemical properties of forest soil of Wallonia, Belgium. Eur J Soil Sci 67:206–216CrossRefGoogle Scholar
  24. Haynes RJ (2014) A contemporary overview of silicon availability in agricultural soils. J Plant Nutr Soil Sci 177:831–844CrossRefGoogle Scholar
  25. Haynes RJ (2017) The nature of biogenic Si and its potential role in Si supply in agricultural soils. Agric Ecosyst Environ 245:100–111CrossRefGoogle Scholar
  26. Haynes RJ (2019) What effect does liming have on silicon availability in agricultural soils? Geoderma 337:375–383CrossRefGoogle Scholar
  27. Haynes RJ, Belyaeva O, Kingston G (2013) Evaluation of industrial wastes as sources of fertilizer silicon using chemical extractions and plant uptake. J Plant Nutr Soil Sci 176:238–248CrossRefGoogle Scholar
  28. Haysom M, Chapman L (1975) Some aspects of the calcium silicate trials at Mackay. ProceedingsGoogle Scholar
  29. Henriet C, Draye X, Oppitz I, Swennen R, Delvaux B (2006) Effects, distribution and uptake of silicon in banana (Musa spp.) under controlled conditions. Plant Soil 287:359–374CrossRefGoogle Scholar
  30. Henriet C, Bodarwé L, Dorel M, Draye X, Delvaux B (2008a) Leaf silicon content in banana (Musa spp.) reveals the weathering stage of volcanic ash soils in Guadeloupe. Plant Soil 313:71–82CrossRefGoogle Scholar
  31. Henriet C, De Jaeger N, Dorel M, Opfergelt S, Delvaux B (2008b) The reserve of weatherable primary silicates impacts the accumulation of biogenic silicon in volcanic ash soils. Biogeochemistry 90:209–223CrossRefGoogle Scholar
  32. Herbillon A (1986) Chemical estimation of weatherable minerals present in the diagnostic horizons of low activity clay soils. Proceedings of the 8th International Clay Classification Workshop: Classification, Characterization and Utilization of Oxisols (part 1)[Beinroth, FH, Camargo, MN and Eswaran (ed)][39–48](Rio de Janeiro, 1986)Google Scholar
  33. Hinsinger P (1998) How do plant roots acquire mineral nutrients? Chemical processes involved in the rhizosphere. Adv Agron 64:225–265CrossRefGoogle Scholar
  34. Houben D, Sonnet P, Cornelis J-T (2014) Biochar from Miscanthus: a potential silicon fertilizer. Plant Soil 374:871–882CrossRefGoogle Scholar
  35. IUSS (2014) World reference base for soil resources 2014 international soil classification system for naming soils and creating legends for soil maps. FAO, RomeGoogle Scholar
  36. Jeffery S, Verheijen FG, Van Der Velde M, Bastos AC (2011) A quantitative review of the effects of biochar application to soils on crop productivity using meta-analysis. Agric Ecosyst Environ 144:175–187CrossRefGoogle Scholar
  37. Jones L, Handreck K (1965) Studies of silica in the oat plant. Plant Soil 23:79–96CrossRefGoogle Scholar
  38. Keeping MG (2017) Uptake of silicon by sugarcane from applied sources may not reflect plant-available soil silicon and total silicon content of sources. Front Plant Sci 8:760CrossRefGoogle Scholar
  39. Keeping MG, Miles N, Rutherford RS (2017) Liming an acid soil treated with diverse silicon sources: effects on silicon uptake by sugarcane (Saccharum spp. hybrids). J Plant Nutr 41:273–287Google Scholar
  40. Keller C, Guntzer F, Barboni D, Labreuche J, Meunier J-D (2012) Impact of agriculture on the Si biogeochemical cycle: input from phytolith studies. Compt Rendus Geosci 344:739–746CrossRefGoogle Scholar
  41. Kelly EF (1990) Methods for extracting opal Phytoliths from soil and plant material. Document of the Department of Agronomy, Colorado State UniversityGoogle Scholar
  42. Kittrick, J. A. (1977). Mineral equilibria and the soil system. In: Dixon JB and Weed SB (eds) Minerals in Soil Environments. Soil Sci Soc Am, pp. 1–25Google Scholar
  43. Klotzbücher T, Marxen A, Vetterlein D, Schneiker J, Türke M, van Sinh N, Manh NH, van Chien H, Marquez L, Villareal S (2015) Plant-available silicon in paddy soils as a key factor for sustainable rice production in Southeast Asia. Basic Appl Ecol 16:665–673Google Scholar
  44. Klotzbücher T, Marxen A, Jahn R, Vetterlein D (2016) Silicon cycle in rice paddy fields: insights provided by relations between silicon forms in topsoils and plant silicon uptake. Nutr Cycl Agroecosyst 105:157–168CrossRefGoogle Scholar
  45. Klotzbücher T, Klotzbücher A, Kaiser K, Merbach I, Mikutta R (2018) Impact of agricultural practices on plant-available silicon. Geoderma 331:15–17CrossRefGoogle Scholar
  46. Koning E, Epping E, Van Raaphorst W (2002) Determining biogenic silica in marine samples by tracking silicate and aluminium concentrations in alkaline leaching solutions. Aquat Geochem 8:37–67CrossRefGoogle Scholar
  47. Korndörfer GH, Coelho NM, Snyder GH, Mizutani CT (1999) Avaliação de métodos de extração de silício em sols cultivados com arroz de sequeiro. Rev Bras Cienc Solo 23(1):101–106CrossRefGoogle Scholar
  48. Laird DA, Fleming P, Davis DD, Horton R, Wang B, Karlen DL (2010) Impact of biochar amendments on the quality of a typical Midwestern agricultural soil. Geoderma 158:443–449CrossRefGoogle Scholar
  49. Lehmann J, Joseph S (2015) Biochar for environmental management: science, technology and implementation. Science and technology. Earthscan, LondonCrossRefGoogle Scholar
  50. Lehmann J, da Silva JP Jr, Steiner C, Nehls T, Zech W, Glaser B (2003) Nutrient availability and leaching in an archaeological Anthrosol and a Ferralsol of the Central Amazon basin: fertilizer, manure and charcoal amendments. Plant and Soil 249:343–357CrossRefGoogle Scholar
  51. Li Z, Delvaux B, Yans J, Dufour N, Houben D, Cornelis J-T (2018) Phytolith-rich biochar increases cotton biomass and silicon-mineralomass in a highly weathered soil. J Plant Nutr Soil Sci 181:537–546CrossRefGoogle Scholar
  52. Liang YC, Ma TS, Li FJ, Feng YJ (1994) Silicon availability and response of rice and wheat to silicon in calcareous soils. Commun Soil Sci Plant Anal 25:2285–2297CrossRefGoogle Scholar
  53. Liang B, Lehmann J, Solomon D, Kinyangi J, Grossman J, O'neill B, Skjemstad J, Thies J, Luizao F, Petersen J (2006) Black carbon increases cation exchange capacity in soils. Soil Sci Soc Am J 70:1719–1730CrossRefGoogle Scholar
  54. Liang Y, Sun W, Zhu Y-G, Christie P (2007) Mechanisms of silicon-mediated alleviation of abiotic stresses in higher plants: a review. Environ Pollut 147:422–428CrossRefGoogle Scholar
  55. Liang Y, Nikolic M, Bélanger R, Gong H, Song A (2015) Silicon in agriculture: from theory to practice. Springer, NetherlandsCrossRefGoogle Scholar
  56. Liu X, Zhang A, Ji C, Joseph S, Bian R, Li L, Pan G, Paz-Ferreiro J (2013) Biochar’s effect on crop productivity and the dependence on experimental conditions—a meta-analysis of literature data. Plant Soil 373:583–594CrossRefGoogle Scholar
  57. Liu X, Li L, Bian R, Chen D, Qu J, Wanjiru Kibue G, Pan G, Zhang X, Zheng J, Zheng J (2014) Effect of biochar amendment on soil-silicon availability and rice uptake. J Plant Nutr Soil Sci 177:91–96CrossRefGoogle Scholar
  58. Lucas Y (2001) The role of plants in controlling rates and products of weathering: importance of biological pumping. Annu Rev Earth Planet Sci 29:135–163CrossRefGoogle Scholar
  59. Lucas Y, Luizao F, Chauvel A, Rouiller J, Nahon D (1993) The relation between biological activity of the rain forest and mineral composition of soils. Science 260:521–523CrossRefGoogle Scholar
  60. Ma JF, Takahashi E (2002) Soil, fertilizer, and plant silicon research in Japan. Elsevier, AmsterdamGoogle Scholar
  61. Ma JF, Tamai K, Yamaji N, Mitani N, Konishi S, Katsuhara M, Ishiguro M, Murata Y, Yano M (2006) A silicon transporter in rice. Nature 440:688–691CrossRefGoogle Scholar
  62. McKeague J, Cline M (1963) Silica in soil solutions: II. The adsorption of monosilicic acid by soil and by other substances. Can J Soil Sci 43:83–96CrossRefGoogle Scholar
  63. Meunier JD, Colin F, Alarcon C (1999) Biogenic silica storage in soils. Geology 27:835–838CrossRefGoogle Scholar
  64. Meunier J, Guntzer F, Kirman S, Keller C (2008) Terrestrial plant-Si and environmental changes. Mineral Mag 72:263–267CrossRefGoogle Scholar
  65. Meunier JD, Sandhya K, Prakash NB, Borschneck D, Dussouillez P (2018) pH as a proxy for estimating plant-available Si? A case study in rice fields in Karnataka (South India). Plant Soil 432(1–2):143–155CrossRefGoogle Scholar
  66. Miles N, Manson AD, Rhodes R, Van Antwerpen R, Weigel A (2014) Extractable silicon in soils of the south African industry and relationships with crop uptake. Commun Soil Sci Plant Anal 45:2949–2958CrossRefGoogle Scholar
  67. Neu S, Schaller J, Dudel EG (2017) Silicon availability modifies nutrient use efficiency and content, C: N: P stoichiometry, and productivity of winter wheat (Triticum aestivum L.). Sci Rep 7:40829Google Scholar
  68. Riotte J, Sandhya K, Prakash NB, Audry S, Zambardi T, Chmeleff J, Buvaneshwari S, Meunier JD (2018) Origin of silica in rice plants and contribution of diatom earth fertilization: insights from isotopic Si mass balance in a paddy field. Plant Soil 423(1–2):481–501CrossRefGoogle Scholar
  69. Rondon MA, Lehmann J, Ramírez J, Hurtado M (2007) Biological nitrogen fixation by common beans (Phaseolus vulgaris L.) increases with bio-char additions. Biol Fertil Soils 43:699–708CrossRefGoogle Scholar
  70. Ronsse F, Van Hecke S, Dickinson D, Prins W (2013) Production and characterization of slow pyrolysis biochar: influence of feedstock type and pyrolysis conditions. GCB Bioenergy 5(2):104–115CrossRefGoogle Scholar
  71. Saccone L, Conley D, Sauer D (2006) Methodologies for amorphous silica analysis. J Geochem Explor 88:235–238CrossRefGoogle Scholar
  72. Sauer D, Saccone L, Conley DJ, Herrmann L, Sommer M (2006) Review of methodologies for extracting plant-available and amorphous Si from soils and aquatic sediments. Biogeochemistry 80:89–108CrossRefGoogle Scholar
  73. Smithson F (1956) Plant opal in soil. Nature 178:107CrossRefGoogle Scholar
  74. Sohi S, Krull E, Lopez-Capel E, Bol R (2010) A review of biochar and its use and function in soil. Adv Agron 105:47–82CrossRefGoogle Scholar
  75. Sommer M, Jochheim H, Höhn A, Breuer J, Zagorski Z, Busse J, Barkusky D, Meier K, Puppe D, Wanner M (2013) Si cycling in a forest biogeosystem–the importance of transient state biogenic Si pools. Biogeosciences 10:4991–5007CrossRefGoogle Scholar
  76. Song Z, Wang H, Strong PJ, Shan S (2014) Increase of available soil silicon by Si-rich manure for sustainable rice production. Agron Sustain Dev 34:813–819CrossRefGoogle Scholar
  77. Thiry M, Quesnel F, Yans J, Wyns R, Vergari A, Theveniaut H, Simon-Coinçon R, Ricordel C, Moreau M-G, Giot D (2006) Continental France and Belgium during the early cretaceous: paleoweatherings and paleolandforms. Bull Soc Geol Fr 177:155–175CrossRefGoogle Scholar
  78. Titeux H, Delvaux B (2009) Experimental study of DOC, nutrients and metals release from forest floors developed under beech (Fagus sylvatica L.) on a Cambisol and a Podzol. Geoderma 148:291–298CrossRefGoogle Scholar
  79. Unzué-Belmonte D, Struyf E, Clymans W, Tischer A, Potthast K, Bremer M, Meire P, Schaller J (2016) Fire enhances solubility of biogenic silica. Sci Total Environ 572:1289–1296CrossRefGoogle Scholar
  80. Vandevenne F, Struyf E, Clymans W, Meire P (2012) Agricultural silica harvest: have humans created a new loop in the global silica cycle? Front Ecol Environ 10:243–248CrossRefGoogle Scholar
  81. Wang M, Wang JJ, Wang X (2018) Effect of KOH-enhanced biochar on increasing soil plant-available silicon. Geoderma 321:22–31CrossRefGoogle Scholar
  82. Xiao X, Chen B, Zhu L (2014) Transformation, morphology, and dissolution of silicon and carbon in rice straw-derived biochars under different pyrolytic temperatures. Environ Sci Technol 48:3411–3419CrossRefGoogle Scholar
  83. Yamato M, Okimori Y, Wibowo IF, Anshori S, Ogawa M (2006) Effects of the application of charred bark of Acacia mangium on the yield of maize, cowpea and peanut, and soil chemical properties in South Sumatra, Indonesia. Soil Sci Plant Nutr 52:489–495CrossRefGoogle Scholar
  84. Yoshida S (1981) Fundamentals of rice crop science. International Rice Research Institute, Los Baños, Laguna, PhilippinesGoogle Scholar

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Authors and Affiliations

  1. 1.Earth and Life Institute, Soil ScienceUniversité catholique de Louvain (UCL)Louvain-La-NeuveBelgium
  2. 2.Ecosystem Management Research Group, Department of BiologyUniversity of AntwerpWilrijkBelgium
  3. 3.BIOSE department, Gembloux Agro-Bio TechUniversity of LiegeGemblouxBelgium
  4. 4.Department of Biosystems Engineering, Faculty of Bioscience EngineeringGhent UniversityGhentBelgium

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