EFFECT OF HIGH VOLTAGE ON THE DEVELOPMENT OF THE PLANT TISSUE
Eliška Hutová
xhutov00@stud.feec.vutbr.czBrno University of Technology, DTEE FEEC (Czechia)
Petr Marcoň
Brno University of Technology, DTEE FEEC (Czechia)
Karel Bartušek
Institute of Scientific Instruments, ASCR (Czechia)
Abstract
In our experiment the electrical parameters that affect early somatic embryos (ESEs) were investigated. High voltage was generated by a special high voltage generator. High voltages ranging from 5 to 20 kV and frequency of 1 Hz were applied longitudinal and transversal directly on the Petri dish with 2 days old ESEs of Picea abies for periods of 3 hours every day. One Petri dish was placed directly on top of the high voltage generator and on the other Petri dish were fixed two copper plates for transmission of high voltage. Petri dishes were exposed to high voltage for 14 days. After this time, the influence of high voltage was evaluated. To evaluate the experiment were used biological and chemical methods, which confirmed the changes in the growth of ESEs.
Keywords:
early somatic embryos, high voltage, Picea abiesReferences
Blackman V. H., Legg A. T.: Pot culture experiments with an electric discharge. J. Agric. Sci. 14, 1924, 268–273.
Google Scholar
Blackman V. H.: Field experiments in electroculture. J. Agric. Sci. 14, 1924, 240–267.
Google Scholar
Chiabrera A., Bianco B.: The role of the magnetic field in the EM interaction with the ligand binding. Mechanistic approaches to interactions of electric and electromagnetic fields with living systems. 1987, 79–95.
Google Scholar
Conti R., Nicolini P., Cerretelli P., Margonato V., Veicsteinas A., Floris C.: ENEL’s research activity on possible biological effects of 50 Hz electro-magnetic fields – Results and plans of a large research programme. Alta Freq 58, 1989, 395–402.
Google Scholar
Davies M. S.: Effects of 60 Hz electromagnetic fields on early growth in three plant species and a replication of previous results. Bioelectromagnetics 17, 1996, 154–161.
Google Scholar
Ellis H., Turner E. R.: The effects of electricity on plant growth. Sci. Pro. Oxf. 65, 1978, 395–407.
Google Scholar
Goldsworthy A.: Electrostimulation of cells by weak electric currents. Electrical manipulation of cells. New York: Chapman & Hall. 1996, 249–272.
Google Scholar
Hepler P. K., Wayne R.: Calcium and plant cell development. Ann Rev Plant Physiol 38, 1985, 397–439.
Google Scholar
Hodges T. K., Mitchell C. A.: Influence of High Intensity Electric Fields on Yield of Sweet Corn and Dent Corn 1982. American Electric Power Service Corporation, North Liberty, Indiana, 1984.
Google Scholar
Jones D., McLeod B.: Electromagnetic cell stimulation. In: Electrical manipulation of cells. New York: Chapman & Hall. 1996, 223–247.
Google Scholar
Karcz W., Burdach Z.: The effects of electric field on the growth of intact seedling and coleoptile segments of Zea mays L. Biol. Plant 37, 1995, 391–397.
Google Scholar
Lednev L. L.: Possible mechanism for the influence of weak magnetic fields on biological systems. Bioelectromagnetics 12, 1990, 71–75.
Google Scholar
Liboff A. R., McLeod B. R.: Kinetics of channelized membrane ions in magnetic fields. Bioelectromagnetics 9, 1987, 39–51.
Google Scholar
Marcon, P., Fiala, P., Steinbauer, M., Cap, M.: Special High Voltage Function Generator. PIERS ONLINE vol. 7, num. 6., 2011, 547-550.
Google Scholar
Müller A.: Mögliche Auswirkungen elektromagnetischer Felder auf die Vegetation. Diploma paper, Agricultural University Vienna, 1990.
Google Scholar
Phirke P. S., Kubde A. B., Umbarkar S. P.: 1996. The influence of magnetic field on plant growth. Seed. Sci. Technol. 24, 1996, 375–392.
Google Scholar
Plätzer K., Obermeyer G., Bentrup F.W.: AC fields of low frequency and amplitude stimulate pollen tube growth possibly, 1996.
Google Scholar
Potts M. D., Parkinson W. C., Nooden L. D.: Raphanus sativus and electromagnetic fields. Bioelectrochem Bioenerg 44, 1997, 131–140.
Google Scholar
Raleigh R. J.: Joint HVDC Agricultural Study: Final Report. Oregon State University, Portland, Oregon, 1988.
Google Scholar
Rathore K. S., Goldsworthy A.: Electrical control of shoot regeneration in plant tissue cultures. Bio. Technol. 3, 1985, 1107– 1109.
Google Scholar
Rogers L. E., Beedlow P. A., Carlile D. W., Gano K. A.: Environmental Studies of a 1100 kV Prototype Transmission Line. An Annual Report for the 1983 Study Period. Batelle Pacific Northwest Laboratories, Portland, Oregon, 1984.
Google Scholar
Schnepf E.: Cellular polarity. Ann. Rev. Plant. Physiol. 37, 1986, 23–47.
Google Scholar
Smith S. D., McLeod B. R., Liboff A. R., Cooksey K. E.: Calcium cyclotron resonance and diatom motility. Bioelectromagnetics 8, 1987, 215–227.
Google Scholar
Vlachova Hutova, E., Bartusek, K., Fiala, P.: The Influence of a Magnetic Field on the Behaviour of the Quantum Mechanical Model of Matter. In PIERS 2014 Guangzhou Proceedings. Progress in Electromagnetics, 2014, 1847–1851.
Google Scholar
Vlachova Hutova, E., Bartusek, K., Mikulka, J.: Study of the Influence of Magnetic Fields on Plants Tissues. In Proceedings of PIERS 2013 in Taipei. Progress in Electromagnetics, 2013, 57–60.
Google Scholar
Zhang H., Hashinaga F.: Effects of high electric fields on the germination and early growth of some vegetable seeds. J. Jpn. Soc. Hort. Sci. 66, 1997, 347–352.
Google Scholar
Authors
Petr MarcoňBrno University of Technology, DTEE FEEC Czechia
Authors
Karel BartušekInstitute of Scientific Instruments, ASCR Czechia
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