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Investigation of the effect of pre-sowing electrical stimulation of winter rapeseed on its spectral-luminescent properties

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Warianty tytułu
PL
Wpływ przedsiewnej stymulacji elektrycznej rzepaku ozimego na jego właściwości spektralno-luminescencyjne
Języki publikacji
EN
Abstrakty
EN
The samples of rapeseed oil obtained by dissolving ground rapeseed in hexane (chemical extraction method) were studied. Portion of sample seeds was left unthreatened as the reference, another was treated by an electrostatic field at intensity of E = (0,5 ÷ 2,5) kV/cm and t = 30c. The behavior of fluorophores of solutions of rapeseed oil in hexane, namely, tocopherol, phenol, fatty acids, vitamins and pigments provided information on the chemical composition and cell structure of the studied seeds. It was established that the fluorophores of solutions of rapeseed oil in hexane prepared from unthreatened seeds and seeds treated at an electrostatic field intensity of E = (0,5 ÷ 2,5) kV/cm and t = 30c are characterized by identical spectral-luminescent properties. The spectral-luminescent properties of phenols, tocopherols, fatty acids, vitamins and pigments of rapeseed oil obtained from the untreated and treated seed, were identical, regardless of the modes of its pre-sowing treatment. Presowing electric treatment of rapeseed by an electrostatic field in this mode does not cause changes in the chemical composition and structure of the cell, its fatty acid composition and the content of vitamins and pigments.
PL
Badano próbki oleju rzepakowego otrzymanego przez rozpuszczenie zmielonych nasion rzepaku w heksanie (metoda ekstrakcji chemicznej). Część próbek nasion pozostawiono bez naprężeń jako referencyjną, inną poddano działaniu pola elektrostatycznego o natężeniu E = (0,5 ÷ 2,5) kV/cm i t = 30c. Zachowanie się fluoroforów roztworów oleju rzepakowego w heksanie, tj. tokoferolu, fenolu, kwasów tłuszczowych, witamin i pigmentów dostarczyło informacji o składzie chemicznym i budowie komórkowej badanych nasion. Ustalono, że fluorofory roztworów oleju rzepakowego w heksanie sporządzonych z nasion niezagrożonych i nasion traktowanych polem elektrostatycznym o natężeniu E = (0,5 ÷ 2,5) kV/cm i t = 30c charakteryzują się identycznymi właściwościami spektralno-luminescencyjnymi. Właściwości spektralno-luminescencyjne fenoli, tokoferoli, kwasów tłuszczowych, witamin i barwników oleju rzepakowego uzyskanego z nasion nietraktowanych i traktowanych elektrycznie były identyczne, niezależnie od sposobu ich przedsiewnej obróbki. Przedsiewna obróbka elektryczna nasion rzepaku polem elektrostatycznym w tym trybie nie powoduje zmian w składzie chemicznym i strukturze komórki, składzie kwasów tłuszczowych oraz zawartości witamin i barwników.
Rocznik
Strony
79--83
Opis fizyczny
Bibliogr. 25 poz., rys.
Twórcy
  • Lviv National Agrarian University, Vol. Velykogo str., 1, 80381 Dubliany, Ukraine
  • Lviv National Agrarian University, Vol. Velykogo str., 1, 80381 Dubliany, Ukraine
  • Lviv National Agrarian University, Vol. Velykogo str., 1, 80381 Dubliany, Ukraine
  • Petro Vasylenko National Technical University of Agriculture, Educational and Research Institute of Mechanotronics and Management Systems, 44, Alchevskih St., Kharkiv, 8100, Ukraine
  • University of Science and Technology in Bydgoszcz, Profesora Sylwestra Kaliskiego 7, 85-796 Bydgoszcz, Poland
  • University of Agriculture in Krakow, Balicka Av. 116B, 30-149 Cracow, Poland
Bibliografia
  • [1] Rudnyk-Ivashhenko O.I., Shovkun O.O., and Ivanycka A.P., 2014. Biochemical properties of new varieties of rape (in Ukrainian). Field studies and protection of rights to plant varieties, 4, 29-33.
  • [2] Isaev A.V., 2016. Effective regimes of pre-sowing treatment of rape seeds in the electromagnetic field of ultrahigh frequency (in Russian). Thesis Cand. Tech. Sci. 05.20.02. Electrotechnologies and electrical equipment in agriculture. Krasnoyarsk, 149.
  • [3] Vojnov G., Golovach A. 2011. The effectiveness of microwave pre-sowing treatment of seeds of winter rape (in Russian), Agrarian econom,. Minsk., 4, 55-59.
  • [4] Pietruszewski S., Muszyński S., and Dziwulska A. 2007. Electromagnetic fields and electromagnetic radiation as noninvasive externalstimulants for seeds (selected methods and responses. Int. Agrophys. 21(1), 95–100.
  • [5] Pushkina N.V., Ljubeckij N.V., and Karpovich V.A. 2014 Modified method of presowing microwave treatment of seeds (in Russian). News of Science and Technology, 2(21), 36-40.
  • [6] Miernik A., Kiełbasa P., Findura P., Byrska K. 2021. Influence of the constant electric field on the photon emission characteristics of selected utility cultivars of the Camellia plant. Journal of Physics - Conference Series, 1782, 1-8.
  • [7] Popardowski E., Miernik A., Dróżdż T., Tabor S., Kiełbasa P. 2020. Efekt krótkotrwałej ekspozycji bakterii Gram-dodatnich i Gramujemnych na działanie zmiennego pola elektromagnetycznego, Przegląd Elektrotechniczny, 96 (2), 129-132.
  • [8] Kontorina I.S., Rubcova E.I. 2013. Presowing treatment of seeds of agricultural crops in an environmentally friendly way (impulsive electric field) (in Russian). Modern science-intensive technologies, 8(2), 203-205.
  • [9] Bingi V.N., Savin A.V. 2003. Physical problems of the action of weak fields on biological systems (in Russian), Uspekhi Fizicheskikh Nauk, 173, 265-300.
  • [10] Ivanov E.G., Chavachina E.E., and Gavrilova A.A., 2018. Stimulation of wakening of the seeds and development of plants of a rape by means of acoustic cavitation (in Russian), Vestnik NGIJeI., 2(81), 53-64.
  • [11] Rybiński W. 2001. Influence of laser beams combined with chemomutagen (MNU) on the variability of traits and mutation frequency in spring barley. Int. Agrophys. 15(2), 115–119.
  • [12] Shmigel V.V. 2004. Separation and stimulation of seeds in an electric field (in Russian). Diss. Doc. tech. sciences. Specialty 05.20.02. Electrification of agricultural production. Kostroma, 405.
  • [13] Osincev E.G. 2009. A study of the process of separation of whole and microinjured cereal seeds in an electric field (in Russian). Thesis Cand. Tech. Sci. 05.20.02. Elecro-technology and electrical equipment in agriculture. Chelyabinsk, 129.
  • [14] Kovalyshyn S., Shvets O. 2011. Application of electric field of corona discharge during pre-sowing treatment of winter rape seeds. Motrol: Motorization and power industry in agriculture. Commision of motorization and power industry in agriculture. Lublin-Rzeszow, 13D, 276-284.
  • [15] Kovalyshyn S. 2016. Study of structural changes in cells of the stimulated seed sprouts. International Agrophysics, 30, 545- 550.
  • [16] Adams DS., and Levin M., 2013. Endogenous voltage gradients as mediators of cell-cell communication: strategies for investigating bioelectrical signals during pattern formation. Cell and Tissue Research, 352, 95-122.
  • [17] Yelovskaya N. 2017. Physiological and biochemical features of the reaction of tetraploid buckwheat to a low-intensity electromagnetic effect. (in Russian). Materials of the International Scientific Forum Youth in Science and Creativity, 629-630.
  • [18] Gorlenko N.I. 2006. On the mechanism of activation of biological objects by the magnetic field (in Russian), Biofizika, 51 (4), 767-768.
  • [19] Azharonok V.V. 2009. The influence of high frequency electromagnetic treatment of seed legumes on their sowing quality and productivity (in Russian), Electronic processing of materials, 4, 76-86.
  • [20] Molotkov D.I. 1989. Obtaining of mutations in winter wheat by means of the electromagnetic field. (in Russian). Primenenie nizkonergeticheskih fizicheskih faktorov v biologii i s/h. Tez. dokl. Vsenar. nauchnoj konferencii. Kirov, 82-83.
  • [21] Dupuy N., Le Dreau Y., Ollivier D. 2005. Origin of french virgin olive oil registered designation of origins predicted by chemometric analysis synchronous excitation-emission fluorescence spectra. Journal of agricultural and food chemistry, 53 (24), 9361-9368.
  • [22] Zandomeneghi M., Carbonaro L., Caffarata C. 2005. Fluorescence of vegetable oils: olive oils. Journal of Agricultural and Food Chemistry, 53 (3), 759-766.
  • [23] Kacheishvili S.V. 2000. Substantiation of parameters of treatment of seeds of cereal crops in the electrostatic field (in Russian). Diss. Cand. tech. sciences. Specialty 05.20.02. Electrification of agricultural production, Zernograd, 121.
  • [24] Mohammad E. Khosroshahi. 2018. Effect of temperature on optical properties of vegetable oils. Optics and photonics journal, 8, 247-263.
  • [25] Saleem M., and Naveed A. 2018. Characterization of canola oil extracted by differentmethods using fluorescence spectroscopy, PLoS ONE. Collection 13(12): e0208640
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-bd05b619-2529-4024-a500-73574f2db327
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