Changes in the Structure of the Benzylpenicillin Sodium Salt Molecule under the Pulsed Magnetic Field
Paper #3387 received 15 Dec 2020; revised manuscript received 31 Jan 2021; accepted for publication 18 Mar 2021; published online 31 Mar 2021.
DOI: 10.18287/JBPE21.07.010305
Abstract
The study aims at the Fourier spectra of an antibiotic exposed to a high-intensity pulsed magnetic field. The applied frequency was f = 40 kHz, with a number of pulses n = 1, at intensities of the pulsed magnetic field H = 0.09 × 106 А/m, Н = 0.50 × 106 А/m, Н = 0.82 × 106 А/m. It was assumed that under the conditions of the pulsed magnetic field there might be a change in the structure of the drug molecule. The research has revealed that an increase in the pulsed magnetic field power leads first to a decrease in the intensity of the band in the Fourier spectrum, and then to its increase. In addition, changes were recorded in the amide group of benzylpenicillin sodium salt molecules depending on the intensity of the pulsed magnetic field applied to the antibiotic.
Keywords
Full Text:
PDFReferences
1. B. Olivares, F. Martínez, L. Rivas, C. Calderón, J. M. Munita, and P. R. Campodonico, “A natural deep eutectic solvent formulated to stabilize β-lactam antibiotics,” Scientific Reports 8(1), 14900 (2018).
2. A. I. Varakin, Y. V. Seryanov, and N. V. Arkhipova, “Quantum-chemical modeling of antibiotic molecules and anions and the nature of their transport in biological membranes,” Bashkir Chemical Journal 16(3), 116–121 (2009) [in Russian].
3. T. A. Krysanova, D. L. Kotova, and E.G. Davydova, “Interactions in the system water-solid samples of sodium salt of benzylpenicillin,” Bulletin of Voronezh State University. Series: Chemistry, Biology, Pharmacy 2, 37–41 (2012) [in Russian].
4. J. Potticary, L. R. Terry, C. Bell, A. N. Papanikolopoulos, P. C. M. Christianen, H. Engelkamp, A. M. Collins, C. Fontanesi, G. Kociok-Köhn, S. Crampin, E. D. Como, and S. R. Hall, “An unforeseen polymorph of coronene by the application of magnetic fields during crystal growth,” Nature Communications 7(1), 11555 (2016).
5. J. G. Brandenburg, J. Potticary, H. A. Sparkes, S. L. Price, and S. R. Hall, “Тhermal Expansion of Carbamazepine: Systematic Crystallographic Measurements Challenge Quantum Chemical Calculations,” The Journal of Physical Chemistry Letters 8 (17), 4319–4324 (2017).
6. V. Shaporov, “The effect of magnetic field on the action of medicinal substances,” Medchitalka (accessed 17 March 2021). [https://www.medchitalka.ru/medicina_segodnya/medicinskaya_orbita/3398.html] [in Russian].
7. N. L. Shimanovsky, M. A. Epinetov, and M. Y. Melnikov, Molecular and Nanopharmacology, Fizmatlit, Moscow, (2009) [in Russian]. ISBN 978-5-9221-1208-6.
8. V.A. Glushchenkov, T. I. Vasilyeva, P. P. Purigin, I. A. Belyaeva, N. A. Rodenko, A. K. Madyarova, and R. Ju. Jusupov, “Changes in the Antibacterial Activity of Benzylpenicillin Exposed to a Pulsed High-Intensity Magnetic Field,” Biophysics 64 (2), 214–223 (2019).
9. L. T. Musina, Physiology of bacteria: Instructional guidelines for teachers and students of medical universities, KSMU, Kazan, Russia (2001) [in Russian].
10. A. S. Labinskaya, Guide to Medical Microbiology. Private medical microbiology and etiological diagnosis of infections: Manual for postgraduate professional education of Physicians, Binom, Moscow (2010) [in Russian].
11. N. A. Klenova, Laboratory Workshop on Microbiology, Samara University, Samara (2012) [in Russian].
12. V. A. Glushchenkov, V. F. Karpukhin, Magnetic-Impulse Materials Processing Technlogy, Fedorov, Samara, Russia (2014) [in Russian].
13. R. Yu. Yusupov, V.A. Glushchenkov, Power Units for Magnetic-Impulse Materials Processing, Fedorov, Samara, Russia (2013) [in Russian].
14. N. A. Rodenko, T. I. Vasilieva, I. A. Belyaeva, V. A. Gluschenkov, P. Р. Purygin, A. V. Samorodov, and L. I. Bashirova, “Research on the safety of benzylpenicillin sodium salt after exposure to a pulsed magnetic field,” Butlerov Communications 58(6), 123-129 (2019).
15. Ch. N. Rao, Electronic Spectra in Chemistry, Mir, Moscow, Russia (1964) [in Russian].
16. O. V. Sverdlova, Electronic Spectra in Organic Chemistry, Chemistry, Leningrad, Russia (1973) [in Russian].
© 2014-2025 Authors
Public Media Certificate (RUS). 12+