Study of available boron retention capacity in soils by functional membranes with polyol chains

Estudio de la capacidad de retención de boro disponible en suelos mediante membranas funcionales con cadenas de polioles

Published 2016-08-19

Open | Download
PDF FLIP HTML PDF (Spanish) FLIP HTML (Spanish)
How to Cite
Vera, M., Combatt Caballero, E., & Palencia, M. (2016). Study of available boron retention capacity in soils by functional membranes with polyol chains. Sour Topics, 19(1), 96-105. https://doi.org/10.21897/rta.v19i1.728
doi

https://doi.org/10.21897/rta.v19i1.728
Dimensions
PlumX
license
Creative Commons License

This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License.

Myleidi Vera
Universidad del Valle, Cali, Colombia.
Enrique Combatt Caballero
Universidad de Córdoba, Montería, Colombia
Manuel Palencia
Universidad del Valle, Cali, Colombia.
Show authors biography
The objective of this work was to study the phytoavailable boron retention capacity by functional membranes, based in N-methyl-D-glucamine, from aqueous extracts of soil samples using the hot water method. For that, membranes with boron retention capacity were constructed via interpenetrating polymer networks and evaluated at different chemical environment (boric acid solutions at different values of pH: 5.0, 7.0 and 9.0 and aqueous extracts by hot water method from three soils with different acidity). It was concluded that retention capacity of membranes is function of groups -OH added and is affected strongly by pH, presence of Al3+ and weakly by ionic species. Results suggest that these materials can be used potentially for correlation of boron contents, of crops in ideal field conditions, with analytical response obtained at laboratory level.

Article visits 748 | PDF visits

Downloads

Download data is not yet available.
  1. Agarwal, S., Greiner, A. and Wendorff, J. 2013. Functional materials by electrospinning of polymers. Progress in Polymer Science. 38: 963-991.
  2. Ahmad, W., Zia, M., Malhi, S. and Niaz, A. 2012. Boron Deficiency in soils and crops: a review. Crop Plant. p77-114.
  3. Aubert, H. and Pinta, M. 1977. Trace elements in soils. Elsevier Scientific, Amsterdam. 395p.
  4. Blevins, D. and Lukaszewski, K.1998. Boron in plant structure and function, Annual Reviews Plant Physiology Plant Molecular Biology. 49: 481-500.
  5. Bonilla, I. and Bolaños, L. 2009. Mineral Nutrition for Legume-Rhizobia Symbiosis: B,Ca, N, P, S, K, Fe, Mo, Co, and Ni: A Review, Journal Sustaintable Agricultural Environment. p253-274.
  6. Chaudhary, Y. and Shukla, L. 2004. Evaluation of extractantes for predicting availability of boron to mustard in arid soils of India. Communication in Soil Science Plant Analysis. 35: 267-283.
  7. Dembitsky, M. 2005. Contemporary aspects of boron: chemistry and biological applications. Elsevier B. V., Amsterdam. 593p.
  8. Handreck, K. 1990. Methods of assessing boron availability in potting media with special reference to toxicity. Communication in Soil Science Plant Analysis. 21: 2265-2280.
  9. Instituto Geografico Agustin Codazzi (IGAC). 2006. Métodos analíticos del laboratorio de suelos. VI Edición. Bogotá, Subdirección de Agrología.
  10. Lvov, Y. and Abdullayev, E. 2013. Functional polymer–clay nanotube composites with sustained release of chemical agentss. Progress in Polymer Science. 38: 1690-1719.
  11. McGreehan, S., Topper, K. and Naylor, D. 1989. Sources of variation in hot water extraction and colorimetric determination of soil boron, Communication Soil Science and Plant Analysis. 20: 1777-1786.
  12. Navarro, S. and Navarro, G. 2003. Química agrícola: El suelo y los elementos químicos esenciales para la vida vegetal. 2a ed. Mundi-prensa, Barcelona. 487 p.
  13. Palencia, M., Vera, M. and Combatt, M. 2014. Polymer networks based in (4-vinylbenzyl)-N-methyl-D-glucamine supported on microporous polypropylene layers with retention boron capacity. Journal of Applied Polymer Science, 131. DOI: 10.1002/app.40653
  14. Polat, H., Vengosh, A., Pankratov, I. and Polat, M. 2004. A new methodology for removal of boron from water by coal and fly ash, Desalination. 164: 173-188.
  15. Reid, R. 2010. Can we really increase yields by making crop plants tolerant to boron toxicity?. Plant Science. 178: 9-11.
  16. Rivas, B., Pereira, E., Palencia, M. and Sánchez, J. 2011. Water-soluble functional polymers in conjunction with membranes to remove pollutant ions from aqueous solutions, Progress in Polymer Science. 36: 294-322.
  17. Roig, A, López, F. and Hernández, F. 1996. Application of azomethine-H method to the determination of boron in workplace atmospheres from ceramic factories, Journal of Analytical Chemistry. 356: 103-106.
  18. Sah, R. and Brown, P. 1997. Boron determination - a review of analytical methods, Microchemical Journal. 56: 285-304. Ulbricht, U. 2006. Advanced functional polymer membranes, Polymer. 47: 2217- 262
Tutorials

Autors:

How send article?

Evaluator pair

How to evaluate an article?

Perfil de Google Scholar

Most read in the last 30 days

Keywords

QR code

Sistema OJS 3.4.0.3 - Metabiblioteca |