Investigation of the process of polymer stabilization of mixed iron oxide with amylopectin

In this work, samples of mixed nanoscale iron oxide stabilized with amylopectin were obtained by chemical precipitation in an aqueous medium. This compound has a wide range of applications in biomedical technologies, energy storage and conversion devices due to its supermagnetic properties. The mic...

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Main Authors: A.A. Nagdalian, P.S. Leontiev, A.B. Golik, A.S. Askerova, A.M. Serov, A.V. Tatov
Format: Article
Language:Russian
Published: Tver State University 2024-12-01
Series:Физико-химические аспекты изучения кластеров, наноструктур и наноматериалов
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Online Access:https://physchemaspects.ru/2024/doi-10-26456-pcascnn-2024-16-951/?lang=en
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author A.A. Nagdalian
P.S. Leontiev
A.B. Golik
A.S. Askerova
A.M. Serov
A.V. Tatov
author_facet A.A. Nagdalian
P.S. Leontiev
A.B. Golik
A.S. Askerova
A.M. Serov
A.V. Tatov
author_sort A.A. Nagdalian
collection DOAJ
description In this work, samples of mixed nanoscale iron oxide stabilized with amylopectin were obtained by chemical precipitation in an aqueous medium. This compound has a wide range of applications in biomedical technologies, energy storage and conversion devices due to its supermagnetic properties. The microstructure was studied by scanning electron microscopy and the phase composition by diffractometric method, as well as by computer quantum chemical modeling of the interaction of amylopectin and mixed nanoscale iron oxide. During the study of the phase composition, it was found that the sample is a mixed iron oxide Fe3O4 with a cubic face-centered lattice and a spatial group Fd3m. Based on the analysis of the microstructure, it was found that the sample is formed from particles with a diameter of 24 to 54 nm.As a result of computer quantum chemical modeling, it was found that the interaction of iron oxide nanoparticles with amylopectin is energetically advantageous and chemically stable. The most likely interaction is through a hydroxyl group attached to the C2 first A-bound glucopyranose residue, since optimal values of total energy (E = -3839.330 kcal/mol) and chemical hardness (η = 0.159 eV) are observed during this interaction.
format Article
id doaj-art-64b9174275fa43649364d9f618556a30
institution Kabale University
issn 2226-4442
2658-4360
language Russian
publishDate 2024-12-01
publisher Tver State University
record_format Article
series Физико-химические аспекты изучения кластеров, наноструктур и наноматериалов
spelling doaj-art-64b9174275fa43649364d9f618556a302025-01-03T08:44:40ZrusTver State UniversityФизико-химические аспекты изучения кластеров, наноструктур и наноматериалов2226-44422658-43602024-12-011695195410.26456/pcascnn/2024.16.951Investigation of the process of polymer stabilization of mixed iron oxide with amylopectinA.A. Nagdalian0P.S. Leontiev1A.B. Golik2A.S. Askerova3A.M. Serov4A.V. Tatov5North Caucasus Federal UniversityNorth Caucasus Federal UniversityNorth Caucasus Federal UniversityNorth Caucasus Federal UniversityNorth Caucasus Federal UniversityNorth Caucasus Federal University In this work, samples of mixed nanoscale iron oxide stabilized with amylopectin were obtained by chemical precipitation in an aqueous medium. This compound has a wide range of applications in biomedical technologies, energy storage and conversion devices due to its supermagnetic properties. The microstructure was studied by scanning electron microscopy and the phase composition by diffractometric method, as well as by computer quantum chemical modeling of the interaction of amylopectin and mixed nanoscale iron oxide. During the study of the phase composition, it was found that the sample is a mixed iron oxide Fe3O4 with a cubic face-centered lattice and a spatial group Fd3m. Based on the analysis of the microstructure, it was found that the sample is formed from particles with a diameter of 24 to 54 nm.As a result of computer quantum chemical modeling, it was found that the interaction of iron oxide nanoparticles with amylopectin is energetically advantageous and chemically stable. The most likely interaction is through a hydroxyl group attached to the C2 first A-bound glucopyranose residue, since optimal values of total energy (E = -3839.330 kcal/mol) and chemical hardness (η = 0.159 eV) are observed during this interaction. https://physchemaspects.ru/2024/doi-10-26456-pcascnn-2024-16-951/?lang=ennanoparticlesco-deposition methodiron (iii) oxidescanning electron microscopystabilizer
spellingShingle A.A. Nagdalian
P.S. Leontiev
A.B. Golik
A.S. Askerova
A.M. Serov
A.V. Tatov
Investigation of the process of polymer stabilization of mixed iron oxide with amylopectin
Физико-химические аспекты изучения кластеров, наноструктур и наноматериалов
nanoparticles
co-deposition method
iron (iii) oxide
scanning electron microscopy
stabilizer
title Investigation of the process of polymer stabilization of mixed iron oxide with amylopectin
title_full Investigation of the process of polymer stabilization of mixed iron oxide with amylopectin
title_fullStr Investigation of the process of polymer stabilization of mixed iron oxide with amylopectin
title_full_unstemmed Investigation of the process of polymer stabilization of mixed iron oxide with amylopectin
title_short Investigation of the process of polymer stabilization of mixed iron oxide with amylopectin
title_sort investigation of the process of polymer stabilization of mixed iron oxide with amylopectin
topic nanoparticles
co-deposition method
iron (iii) oxide
scanning electron microscopy
stabilizer
url https://physchemaspects.ru/2024/doi-10-26456-pcascnn-2024-16-951/?lang=en
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AT asaskerova investigationoftheprocessofpolymerstabilizationofmixedironoxidewithamylopectin
AT amserov investigationoftheprocessofpolymerstabilizationofmixedironoxidewithamylopectin
AT avtatov investigationoftheprocessofpolymerstabilizationofmixedironoxidewithamylopectin