Standardization Of Size, Shape And Concentration Of Nanoparticle For Plant Application

Authors

  • J C Tarafdar Central Arid Zone Research Institute, Jodhpur, Rajasthan, 342 003, India
  • Yujie Xiong Nano Research Facility, Washington University, Campus Box 1180, St. Louis, MO 63130-4899, USA
  • Wei-Ning Wang Department of Energy, Environment and Chemical Engineering, Washington University, St. Louis, MO 63130 - 4899, USA
  • Dong Quin Nano Research Facility, Washington University, Campus Box 1180, St. Louis, MO 63130-4899, USA
  • Pratim Biswas Nano Research Facility, Washington University, Campus Box 1180, St. Louis, MO 63130-4899, USA

DOI:

https://doi.org/10.48165/

Keywords:

Concentration, nanoparticle, shape, size, transportation

Abstract

A number of experiments were conducted to know the optimum size,  shape and concentration of nanoparticles to be sprayed to plants for  better penetration and translocation. Nanoparticles were capable of  penetrating living plant tissues when sprayed on plant leaves, and  migrated from leaves to different parts of plant. The results demonstrated  14.7% nanoparticles loss when sprayed by aerosol technique (using  nebulizer) as compared to 32.5% loss by normal sprayer. Low  concentration (< 5 ppm) of nanoparticles were better absorbed and  translocated through plant leaves. Higher the particle size lower was nanoparticle penetration. Particle size <20 nm may be preferred to spray.  Nanocube proved better shape to be sprayed to plants.  

Downloads

Download data is not yet available.

References

Battke, F., Leopold, K., Maier, M., Schidhaler, U. and Schuster, M. 2008. Palladium exposure of barley uptake and effects. Plant Biology, 10: 272-276.

Carpita, N. 1979. Determination of the pore size of cell walls of living plants. Science, 205: 1144-1148. Corredon, E., Testillano, P.S., Coronado, M.J., Gonzālez-Melendi, P., Fernñandez-Pacheco, R., Marquina, C., Ibarra, M.C., de la Fuente, J.M., Rubiales, D., Pérez-de-Lugue, A. and Risueno, M.C. 2009. Nanoparticle penetration and transport in living pumpkin plants: In situ sub cellular identification. BMC Plant Biology, 9: 45 (doi:10.1186/1471-2229-9-45).

Dietz, Karl-Josef and Herth, S. 2011. Plant nano-toxicolgy. Trends in Plant Science, 16: 582-589. Eichert, T., Kurtz, A., Steiner, U. and Goldbach, H.E. 2008. Size exclusion limits and lateral heterogeneity of the stomatal foliar uptake pathway for aqueaus solutes and water suspended nanoparticles. Physiologia Plantarum, 134: 151-160.

Fabrega, J., Fawcett, S.R., Renshaw, J.C. and Lead, J.R. 2009. Silver nanoparticles impact on bacterial growth: Effect of pH, concentration, and organic matter. Environmental Science Technology, 43: 7285-7290.

Fleischer, A. 1999. The pore size of non graminaceous plant cell walls is rapidly decreased by borate ester cross-linking of the pectic polysaccharide rhamnogalacturonan II. Plant Physiology, 121: 829-838.

Gonzālez-Melendi, P., Fernāndez-Pacheco, R., Coronado, M.J., Corredor, E., Testillano, P.S., Risueno, M.C., Marquina, C., Ibarra, M.R., Rubiales, D and Pérez-de-buque, A. 2008. Nanoparticles as smart treatment delivery systems in plants: Assessment of different techniques of microscopy for their visualization in plant tissues. Annals of Botany, London, 101: 187-195.

Lin, D. and Xing, B. 2007. Phytotoxicity of nanoparticles inhibition and seed germination and root growth. Environmental Pollution, 150: 243-250.

Mahajan, P., Dhoke, S.K., Khanna, A.S. and Tarafdar, J.C. 2011. Effect of nano-ZnO on growth of mung bean (Vigna radiata) and chickpea (Cicer arietinum) seedlings using plant agar method. Applied Biological Research, 13: 54-61.

J.C. Tarafdar et al.

Nel, A., Xia, T., Madler, L. and Li, N. 2006. Toxic potential of materials at the nanolevel. Science, 311: 622-627.

Scott, N. and Chen, H. 2003. Nanoscale Science and Engineering for Agriculture and Food Systems. Cooperative State Research, Education and Extension Service, United States Department of Agriculture, Washington, USA.

Skarabalak, S.E., Chen, J., Sun, Y., Lu, X., Au. L., Cobley, C.M. and Xia, Y. 2008. Gold nanocages: Synthesis, properties and application. Accounts of Chemical Research, 41: 1587-1595. Sun, Y., Mayers, B. and Xia, Y. 2002. Template-engaged replacement reaction: A one-step approach to the large-scale synthesis of metal nano structures with hollow interiors. Nano Letters, 2: 481-485. Schreiber, L. 2011. Transport barriers made of cutin, suberin and associated waxes. Trends in Plant Science, 15: 546-553.

Xiong, Y; Washio, I.; Chen, J., Cai, H., Li, Zhi-Yuon and Xia, Y. Poly (vinyl pyrolidone): A dual functional reductant and stabilizer for the facile synthesis of noble metal nanoplates in aqueous solutions. Langmuir, 22: 8563-8570.

Zhang, Q., Cobley, C., Au, L., Mckiernan, M., Schewartx, A., Wen, L.P., Chen, J. and Xia, Y. 2009. Production of Ag nanocubes on a scale of 0.1 g per batch by protecting the Natts-mediated polyol synthesis with argon. ACS Applied Mater Interface, 1: 2044-2048.

Zhang, L., Hang, F., Lu, S. and Liu, C. 2005. Effect of nano-TiO2 on strength of naturally aged seeds and growth of spinach. Biological Trace Element Research, 105: 83-91.

Published

2012-10-03

How to Cite

Standardization Of Size, Shape And Concentration Of Nanoparticle For Plant Application . (2012). Applied Biological Research, 14(2), 138–144. https://doi.org/10.48165/