Dergiler / International Journal of Secondary Metabolite / 2018 / Cilt: 5 - Sayı: 3

Electromagnetic radiation of low intensity as a factor of change of phenolic compounds content

Sayfa
252–258
Yayın Tarihi
2022-10-19
DOI
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⚡ TL;DR(1 Cümlede Hızlı Çıkarım)

The narrow frequency mode with an exposure time of 20 min is preferable to use for most varieties of F. sagittatum.

📌 3 Maddede Bu Makale

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Amaç & Hipotez:The influence of low-intensity electromagnetic radiation (EMR) on the content of phenolic compounds (PC) in plants on different stages of ontogeny is discussed.
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Temel Bulgular & Veri:Microwave EMR in two frequency bands, 53.57-78.33 GHz (wide range mode) and 64.00-66.00 GHz (narrow range mode), has been selected to learn the physical effects on seeds, with a treatment exposure time of 20, 12, or 8 min.
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Sonuç & Katkı:The narrow frequency mode with an exposure time of 20 min is preferable to use for most varieties of F. sagittatum.
🔬Tür:Araştırma Makalesi
📍Kapsam:Genişletilmiş Akademik Örneklem
⚙️Değişkenler:Electromagnetic radiation of microwave range · Calendula officinalis L. · Fagopyrum sagittatum G.

Özet

The influence of low-intensity electromagnetic radiation (EMR) on the content of phenolic compounds (PC) in plants on different stages of ontogeny is discussed. A medicinal plant (Calendula officinalis L.) and agricultural crop Fagopyrum sagittatum G., diploid varieties and tetraploid varieties were chosen as objects of study. Microwave EMR in two frequency bands, 53.57-78.33 GHz (wide range mode) and 64.00-66.00 GHz (narrow range mode), has been selected to learn the physical effects on seeds, with a treatment exposure time of 20, 12, or 8 min. The experiments were conducted under laboratory and field conditions. Treated and control seeds were germinated by 100 pcs in a growth chamber on moistened filter paper at 22–24˚C in the dark and placed on the daylight from the third day. The level of PC in the seedlings was measured with the Folin-Ciocalteu reagent. It was found that in the EMR pretreated C. officinalis seedlings the level of PC is maximal on 14th day of germination. The wide mode treatment for 12 min results in a two-fold increase in the level of PC in juvenile shoots with respect to control. Different constitutional levels of phenolic compounds in the leaves of diploid and tetraploid varieties of F. sagittatum in the most critical phases of ontogeny were found. It is recommended to use EMR with a 12 min exposure time for C. officinalis. The narrow frequency mode with an exposure time of 20 min is preferable to use for most varieties of F. sagittatum.

Abstract

The influence of low-intensity electromagnetic radiation (EMR) on the content of phenolic compounds (PC) in plants on different stages of ontogeny is discussed. A medicinal plant (Calendula officinalis L.) and agricultural crop Fagopyrum sagittatum G., diploid varieties and tetraploid varieties were chosen as objects of study. Microwave EMR in two frequency bands, 53.57-78.33 GHz (wide range mode) and 64.00-66.00 GHz (narrow range mode), has been selected to learn the physical effects on seeds, with a treatment exposure time of 20, 12, or 8 min. The experiments were conducted under laboratory and field conditions. Treated and control seeds were germinated by 100 pcs in a growth chamber on moistened filter paper at 22–24˚C in the dark and placed on the daylight from the third day. The level of PC in the seedlings was measured with the Folin-Ciocalteu reagent. It was found that in the EMR pretreated C. officinalis seedlings the level of PC is maximal on 14th day of germination. The wide mode treatment for 12 min results in a two-fold increase in the level of PC in juvenile shoots with respect to control. Different constitutional levels of phenolic compounds in the leaves of diploid and tetraploid varieties of F. sagittatum in the most critical phases of ontogeny were found. It is recommended to use EMR with a 12 min exposure time for C. officinalis. The narrow frequency mode with an exposure time of 20 min is preferable to use for most varieties of F. sagittatum.

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Bu Makaleye Atıf Yap

SHYSH, S., MAZETS, Z., SHUTAVA, H., SYSHA, O., GORGUN, Y. (2022). Electromagnetic radiation of low intensity as a factor of change of phenolic compounds content. International Journal of Secondary Metabolite, Cilt: 5 - Sayı: 3, 252–258. https://ajindex.com/articles/541691

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Kaynakça (1)

  1. Zaprometov, M.N. (1993). Physiology and biochemistry of flavonoids. J. Physiology of plants, 40(6), 921–931. (in Russian) Gorgun, Y., Mazets, Z., Shysh, S., Elovskaya, N. (2017). Influence of low-intensity electromagnetic radiation on the dynamics of accumulation of phenolic compounds in buckwheat plants tetraploid. «Modern Problems of Natural Science in Science and the Educational Process» Materials of the Republican Scientific and Practical Conference. Minsk (in Russian). Jambazishvili, S.N. (1974). Presowing treatment of seeds of sugar beet by various electrophysical methods and their influence on productivity and quality of root crops: the dissertation author's abstract the candidate of agricultural sciences: 06.01.09, Tbilisi (in Russian) Novikova, G.V. (1980). Substantiation and research of technological process of influence of EMF microwave on seeds of vegetable cultures: the dissertation of the candidate tehn. sciences: 05.20.01., Chelyabinsk (in Russian) Tambiev, A.H., Gusev, M.V., Kirikova, N.N., Beckiy, O.V., Gulaev, U.V. (1986). Stimulation of growth of cyanobacteria by millimeter electromagnetic radiation of low intensiveness. Trade Exibition Microbe-86. XIX Intern. Congr. Microbiol., September 7-13:Abstr. – Manchester, England, 1986. P. 380. Deviatkov, N.D., Golant, M.B., Beckiy, O.V. (1991). Millimeter waves and their role in life processes, Moscow (in Russian) Karpovich, V.A., Ermolovich, A.A., Mikhalenko, E.G., Barashkova, G.P., Novikov, O.T. (2004). New stimulating and disinfecting microwave technology for presowing processing of vegetable seeds. Agropanorama. 4, 17. (in Russian) Klunduk, G.A. (2004). Substantiation of electrotechnological regimes of microwave treatment of flax seeds: the dissertation of the candidate tehn. sciences: 05.20.02. Krasnoyarsk, 156. (in Russian) Tambiev, A.H., Kirikova, N.N., Beckiy, O.V., Gulaev, U.V. (2003). Millimeter waves and photosynthesizing organisms. J. Radio engineering, 175. (in Russian) Tambiev, A.H. (2009). Regularities manifested by the action of low-intensity waves on photosynthetic organisms. J. Millimeter waves in biology and medicine, 56(4), 56-68. (in Russian) Chilochi, A.A., Tyurina, Zh. P., Klapko, S.F., Stratan, M.V., Lablyuk, S.V., Dvornina, E.G., Kondruk, V.F. (2011). Effect of millimeter-range electromagnetic radiation on the biosynthesis of extracellular hydrolytic enzymes in Aspergillus and Penicillium micromycetes J. Surface Engineering and App. Electrochem, 47(6), 558–564. Debouzya