Estimated Photosynthetic Activity from Its Electrical Impedance Spectroscopy
Keywords:
active photosynthetic lights, chlorophyll pigment, electrical impedance spectroscopy, inactive photosynthetic lights, model of Cole, Photosynthesis, non-photochemical phase, photochemical phase.Abstract
We study the photosynthetic activity from the electrical impedance spectroscopy in darkness and in light, using the Cole’s model. The used lights active photosynthetic are red, blue and yellow. This analysis shows that the photochemical phase with active photosynthetic lights are characterized by a decrease of the extra chlorophyll space resistance. The non-photochemical phase is characterized by an almost constant or increase of the extra chlorophyll space resistance. We also observe a vertical o?set at the spectrometric curves of bio impedance, implying a difference in electrical activity in darkness and inactive photosynthetic lights respectively. However, the green light is found to be inactive, since the photosynthetic activity is the same as in darkness.
References
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[22] Hong-Wen, Feng-Bin Song, Xian-Can Zhu, Shu-Yuan Tang, ‘’Photosynthesis, chlorophyll ?uorescence and non-structural carbohydrates changes in husk leaves of maize in black soils region of Northeast China’’ Journal of Agricultural Reseach Vol.5(9), pp 785-791, 2010
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[2] V.V. Gortchakov and I.V. Petruck ‘’ Méthodologie de l’analyse ´electrophysique de l’adaptation des plantes aux conditions du milieu’’. Journal de l’Université de Russie, de l’Amitié des peuples, Moscou ; Série agriculture vol. pp 70-77, 1979
[3] I.E. Gounar, PanishkmineL.A., F.F.Tikhonov ‘’ Activité bio électrique du tournesol et de la tomate sur quelques types de pathogénéité’’. Journal de l’académie agricole de Moscou. Vol. pp. 3-8 1994
[4] D Waldho?, B Furch and W.J. Junk. ‘’ Fluorescence parameters, chlorophyll concentration, and anatomical features as indicator for food adaptation of an abundant tree species in central Amazonia: Symmeriapaniculata’’. Environ. Exp.Bot.vol 48 pp.225-235,2002.
[5] N Mallick,.and Mohn, F.H . ‘’Use of chlorophyll ?uorescence in metal-stress research: a case study with the green microalga Scenedesmus’’. E Cotox. Environ Safe. vol.55 pp 64-69, 2003.
[6] U.Rascher, MLiebig, U. Lu¨ttge, ‘’Evaluation of instant light-response curves of chloro- phyll ?uorescence param`eters obtained with a portable chlorophyll ?uorescence on site in the ?eld’’. Plant cell Environ.23: 1397-1405, 2000.
[7] U Schreiber, W Belger and C Neubaue . ‘’Chlorophyll ?uorescence as a noninstructive indicator
for rapid assessment of in vivo photosynthesis’’. In: Schulze, E.D., Caldwell, M.M. (eds) E
écophysiology of photosynthesis. Springer, New York, pp 49-70, 1994
[8] S.H. Kim, D.C. Gitz, R.C.Sicher, J.T.Baker, D.J.Timlin and V.R. Reddy ,’’ Temperature dependence ofgrowth, development, and photosynthesis in maize under elevated CO2,’’. J. Plant physiol.vol.61 PP 224-236, 2007
[9] R.J. Horst, T. Engelsdorf, U.Sonnesuald, and Voll. ‘’Infection of maize leaves with ustilagomayelis prevents establishment of photosynthesis’’. J. Plant Physiol. Vol.165 pp 18-19, 2008
[10] F. Anthony, Collings and Christ Critchley, ‘’Arti?cial photosynthesis From Basic Biology to industrial Application’’ pp17.
[11] V. Pal, O.P. Thakur, and R.K Dwivedi ‘’ E?ect of co-substitution of La/Li on structure, microstructure, dielectric and piezoelectric behavior of Bi0:5 N a0:5T iO3 ceramics’’ Indian J Plant Phys.2014
[12] N. Kumi, A. Ghosh and A. Bhattacharjee ‘’Investigation of structural and electrical transport mechanism of SnO2 with Al dopants ‘’ Indian J Plant Phys. 2014
[13] N Melagiriyappa, M Veena, A. Somashekarappa, G.J.Shankaramurthy and H.S.Jayanna ‘’Dielectric behavior and ac electrical conductivity in Samarium Substituted Mg-Ni ferrites ‘’Indian J Plant Phys. 2014
[14] O¨ Tamer, D Avci, C Ario¸ C¸ g? lu A and Y.A. Atalay, ‘’ theoretical study on structural, spectroscopic, electronic and electric properties of 4-chloro 4-nitrostilbene’’ Indian J Plant Phys.2014
[15] N. Monika, D.P. Aneta, .and A.F. Zbigniew, .’’ Impedance Analysis of Complex Formation Equilibra in phosphatidylcholine Bilayers containing Decylamine’’. Cell Biochem Biophys, vol.61, pp145-155, 2001
[16] J.J. Ackmann and M.A. Seitz ‘’ Methodes of complex impédance measurements in biologicaltissues.CRC ‘’critical Review in Biomedical Engineering vol.11 pp 281-311, 1948 [17] T.Repo and M.I.N. Zhang ‘’Modeling woody plant tissues using a distributed electrical circuit’’Journal of Experimental Botany vol. 44, pp 977-992, 1993
[18] T. Repo, P. Hiekkala, T. Hietala and L. Tahvanainen , ‘’Intracellular resistance correlates with initial stage of frost hardening in willow (Salix viminalis)’’ physiological plantarum, vol. 101 pp 627-634, 1997
[19] H.Schwan, ‘’the practical success of impedance techniques from an historical perspective’’. In: Riu J.P., Rosell J, Bragos R, Casas ´o, eds. Electrical bioimpedance methods: applications to medicine and biotechnology. Annals of New York Academy of Sciences vol. 873, pp 1-12, 1999.
[20] Ambang Zachée, Amougou Akoa, V.V. Gorthakov,.’’ Action des pesticides sur les propriétéesélectriques passives des tissus de la pomme de terre’’. Ann. de la Fac. des sciences Univ. deYaound´e I S´erie ; SC. de la Nat. et de la vie, vol 25 N?2, pp 75-78, 2003.
[21] Xing Liu ‘’Electrical Impedance Spectroscopy Applied in plant physiology Studies’’. Master ofEngineering. RMIT University, 2006
[22] Hong-Wen, Feng-Bin Song, Xian-Can Zhu, Shu-Yuan Tang, ‘’Photosynthesis, chlorophyll ?uorescence and non-structural carbohydrates changes in husk leaves of maize in black soils region of Northeast China’’ Journal of Agricultural Reseach Vol.5(9), pp 785-791, 2010
[23] Sverre Grimnes and OrjanGrottemMartinsen. ‘’Bioimpedance and Bioelectricity Basics’’ .Ed. Elsevier Ltd.2008 pp303.
[24] Laarabi Said ‘’E?et des conditions stressantes aériennes et souterraines sur l’impédance electrique foliaire de jeunes plantes’’. Thèse Doctorat ES-Sciences (Doctorat d’Etat). Université Mohammed V-Agdal, pp33, 2006.
[25] Sellers, P.J.Canopy, ‘’ re?ectance, photosynthesis and transpiration’’. International Journal of Remote Sensing, vol. 6:8, pp. 1335-1372, 1985.
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Published
2015-07-31
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Mbezi, M. T., Fouda, H. P. E., Tabi, C. B., & Kofané, T. C. (2015). Estimated Photosynthetic Activity from Its Electrical Impedance Spectroscopy. American Scientific Research Journal for Engineering, Technology, and Sciences, 13(1), 178–193. Retrieved from https://asrjetsjournal.org/index.php/American_Scientific_Journal/article/view/842
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