Argovit™ silver nanoparticles transform agro-waste into phenolic biofactories: Postharvest stress for high-value compound production in prickly pear peels; LWT - Food Science and Technology; Vol. 206
| Parent link: | LWT - Food Science and Technology.— .— Amsterdam: Elsevier Science Publishing Company Inc. Vol. 206.— 2024.— 116559, 11 p. |
|---|---|
| Corporate Author: | Томский политехнический университет (570) |
| Other Authors: | Cabrera-Ramirez A. H., Manriquez-Medina M., Pestryakov A. N. Aleksey Nikolaevich, Bogdanchikova N. Nina, Chavez-Santoscoy R. A. |
| Summary: | The growing demand for food has resulted in an increased generation of plant waste residues. These waste materials contain various bioactive compounds, but their concentrations are typically low, rendering their extraction economically unviable. In this study, we assessed the impact of abiotic stress induced by silver nanoparticles (AgNPs) on the compounds derived from red and green prickly pear peels. Six different AgNP lots were tested at varying concentrations. The total phenol content was consistently higher than that of the control group across all lots. Notably, the AgNP systems exhibited selectivity in inducing the formation of specific compounds, such as caffeic (10.36%), vanillic (6.71%), p-coumaric (6.63%), malic (4.86%) acids, and catechin (46.15%). Moreover, the betanin content in red prickly pear increased by up to 2.4 times compared to the control group. However, the data analysis indicated a tendency towards increased variability in phenolic acids and flavonoids. This suggests that the AgNP systems might be activating these metabolic pathways. These findings are highly relevant as they demonstrate the potential of AgNP systems to enhance the accumulation of bioactive compounds in agro-industrial waste materials, which can then be utilized in the development of functional ingredients. Текстовый файл AM_Agreement |
| Language: | English |
| Published: |
2024
|
| Subjects: | |
| Online Access: | https://doi.org/10.1016/j.lwt.2024.116559 |
| Format: | Electronic Book Chapter |
| KOHA link: | https://koha.lib.tpu.ru/cgi-bin/koha/opac-detail.pl?biblionumber=674316 |
Similar Items
Treatment with Argovit® Silver Nanoparticles Induces Differentiated Postharvest Biosynthesis of Compounds with Pharmaceutical Interest in Carrot (Daucus carota L.); Nanomaterials; Vol. 11, iss. 11
Published: (2021)
Published: (2021)
Chronic toxicity of shrimp feed added with silver nanoparticles (Argovit-4®) in Litopenaeus vannamei and immune response to white spot syndrome virus infection; PeerJ; Vol. 10
Published: (2022)
Published: (2022)
Ag nanoparticles via PVP synthesis: Evidence of nanohydrogel formation, characterization, and review of nanomedicine applications; Nano-Structures and Nano-Objects; Vol. 45
Published: (2026)
Published: (2026)
Mini-review: Application of nanoparticles in plant biotechnology and agriculture; In Vitro Cellular & Developmental Biology - Plant; Vol. 61 iss. 4
Published: (2025)
Published: (2025)
Silver nanoparticles enhance survival of white spot syndrome virus infected Penaeus vannamei shrimps by activation of its immunological system; Fish & Shellfish Immunology; Vol. 84
Published: (2019)
Published: (2019)
Органическое вещество в гидротермальных системах Дальнего Востока разных типов и обстановки; Известия Томского политехнического университета [Известия ТПУ]. Инжиниринг георесурсов; Т. 329, № 11
by: Потурай В. А. Валерий Алексеевич
Published: (2018)
by: Потурай В. А. Валерий Алексеевич
Published: (2018)
Numerical modeling of physical problems with using of Agros2D; Космическое приборостроение
by: Ivanova A. G. Antonina Gennadievna
Published: (2014)
by: Ivanova A. G. Antonina Gennadievna
Published: (2014)
The current state of Russian agro-industrial complex; Journal of Economics and Social Sciences; № 12
by: Fominskiy V. Vitaliy
Published: (2018)
by: Fominskiy V. Vitaliy
Published: (2018)
Statistical optimization of acid catalyzed steam pretreatment of citrus peel waste for bioethanol production; Resource-Efficient Technologies; Vol. 3, iss. 4
Published: (2017)
Published: (2017)
Reasons for tangerine peel utilization in the composition of mixed fuels based on bituminous coal; Journal of Physics: Conference Series; Vol. 1359 : Thermophysics and Physical Hydrodynamics
Published: (2019)
Published: (2019)
Preparation and structure of phenolic aryliodonium salts; Chemical Communications; Vol. 54, iss. 73
Published: (2018)
Published: (2018)
Study of phenol degradation pathway during electromediated mineralization; Petroleum and Coal; Vol. 58, iss. 5
by: Zangieva E. V. Ekaterina Valentinovna
Published: (2016)
by: Zangieva E. V. Ekaterina Valentinovna
Published: (2016)
The development of liquid-phase method for phenol deep oxidation; Bulletin of the Tomsk Polytechnic University; Vol. 311, № 3
by: Kukurina O. S. Olga Sergeevna
Published: (2007)
by: Kukurina O. S. Olga Sergeevna
Published: (2007)
Research of the Mechanism Oxidation of the Phenol by the Electrical Spark-Over in the Liquids; 13 International symposium on high current electronics
by: Lobanova G. L.
Published: (2004)
by: Lobanova G. L.
Published: (2004)
Anleitung zur Microchemischen Analyse der wichtigsten organischen Verbindungen; Erstes Heft: Antracengruppe, Phenole, Ketone, Aldehyde
by: Behrens H.
Published: (Hamburg, Verlag von Leopold Voss, 1895)
by: Behrens H.
Published: (Hamburg, Verlag von Leopold Voss, 1895)
Gas-chromatographic separation of phenols on nickel, copper and zinc diethyldithiocarbamates; Mendeleev Communications; Vol. 16, iss. 5
by: Gavrilenko M. A. Mikhail Alekseevich
Published: (2006)
by: Gavrilenko M. A. Mikhail Alekseevich
Published: (2006)
Photodegradation of phenol using composite nanofibers under visible light irradiation; European Polymer Journal; Vol. 113
Published: (2019)
Published: (2019)
AgNPs Argovit™ Modulates Cyclophosphamide-Induced Genotoxicity on Peripheral Blood Erythrocytes In Vivo; Nanomaterials; Vol. 11, iss. 8
Published: (2021)
Published: (2021)
The activated charcoal adsorption of phenol; Методология проектирования молодежного научно-инновационного пространства как основа подготовки современного инженера
by: Kondrashin M. E.
Published: (2014)
by: Kondrashin M. E.
Published: (2014)
Solid Phase Sorption of Phenols on Metals Acetylacetonates; Procedia Chemistry; Vol. 10 : Chemistry and Chemical Engineering in XXI century
by: Gavrilenko M. A. Mikhail Alekseevich
Published: (2014)
by: Gavrilenko M. A. Mikhail Alekseevich
Published: (2014)
An efficient multigram-scale synthesis of 4-([omega]-chloroalkoxy)phenols; Russian Chemical Bulletin; Vol. 66, iss. 2
Published: (2017)
Published: (2017)
Argovit™ silver nanoparticles to fight Huanglongbing disease in Mexican limes (Citrus aurantifolia Swingle); RSC Advances; Vol. 10, iss. 11
Published: (2020)
Published: (2020)
Hemolysis of Human Erythrocytes by Argovit™ AgNPs from Healthy and Diabetic Donors: An In Vitro Study; Materials; Vol. 14, iss. 11
Published: (2021)
Published: (2021)
Argovit™ Silver Nanoparticles Mitigate Sodium Arsenite-Induced Cytogenotoxicity Effects in Cultured Human Lymphocytes; Toxics; Vol. 13, iss. 7
Published: (2025)
Published: (2025)
Spectroscopic Methods Applied to the Characterization of Phenol Oxidation Intermediates; Химия и химическая технология в XXI веке; Т. 2
by: Sukhoroslova E. V.
Published: (2015)
by: Sukhoroslova E. V.
Published: (2015)
The Study of Intermediates of Electrochemical Liquid Phase Phenol Oxidation; Химия и химическая технология в XXI веке; Т. 2
by: Zangieva E. V.
Published: (2014)
by: Zangieva E. V.
Published: (2014)
Analytical properties of 2,6- dichlorphenolindo-phenol immobilized onto polymethacrylate matrix; International Congress on Analytical Sciences, ICAS - 2006
Published: (2006)
Published: (2006)
Interdisciplinary, inter-institutional and international group “NanoSilver”: Application of silver nanoparticles Argovit in biomedicine and veterinary; International Multidisciplinary Joint Meeting 2013
Published: (2013)
Published: (2013)
Argovit™ Silver Nanoparticles Effects on Allium cepa: Plant Growth Promotion without Cyto Genotoxic Damage; Nanomaterials; Vol. 10, iss. 7
Published: (2020)
Published: (2020)
Rapid photocatalytic degradation of phenol from water using composite nanofibers under UV; Environmental Sciences Europe; Vol. 32, iss. 1
Published: (2020)
Published: (2020)
Cytotoxic, Genotoxic, and Polymorphism Effects on Vanilla planifolia Jacks ex Andrews after Long-Term Exposure to Argovit® Silver Nanoparticles; Nanomaterials; Vol. 8, iss. 10
Published: (2018)
Published: (2018)
Bio-augmentation of antioxidants and phenolic content of Lablab purpureus by solid state fermentation with GRAS filamentous fungi; Resource-Efficient Technologies; Vol. 3, iss. 3
by: Pardeep Kumar Sadh
Published: (2017)
by: Pardeep Kumar Sadh
Published: (2017)
Phenolic-Enriched Collagen Fibrillar Coatings on Titanium Alloy to Promote Osteogenic Differentiation and Reduce Inflammation; International Journal of Molecular Sciences; Vol. 21, iss. 17
Published: (2020)
Published: (2020)
Wet peroxide oxidation of phenol over Cu-ZSM-5 catalyst in a flow reactor. Kinetics and diffusion study; Chemical Engineering Journal; Vol. 277
Published: (2015)
Published: (2015)
Multi-molecular tracers of terrestrial carbon transfer across the pan-Arctic: comparison of hydrolyzable components with plant wax lipids and lignin phenols; Biogeosciences; Vol. 12
Published: (2015)
Published: (2015)
Evaluation of a new Argovit as an antiviral agent included in feed to protect the shrimp Litopenaeus vannamei against White Spot Syndrome Virus infection; PeerJ; Vol. 8
Published: (2020)
Published: (2020)
Bio-enrichment of phenolics and antioxidant activity of combination of Oryza sativa and Lablab purpureus fermented with GRAS filamentous fungi; Resource-Efficient Technologies; Vol. 3, iss. 3
Published: (2017)
Published: (2017)
Phytochemical analysis, phenolic compounds, condensed tannin content and antioxidant potential in Marwa (Origanum majorana) seed extracts; Resource-Efficient Technologies; Vol. 2, Iss. 4
by: Sanju B. Dhull
Published: (2016)
by: Sanju B. Dhull
Published: (2016)
New antirheumatic substance based on phenolic glycoside structure methyl (4-О-Β-glucopyranosyloxy)-benzoic acid; Jurnal Teknologi; Vol. 78, iss. 6-8
Published: (2016)
Published: (2016)
Argovit™ silver nanoparticles reduce contamination levels and improve morphological growth in the in vitro culture of Psidium friedrichsthalianum (O. Berg) Nied.; SN Applied Sciences; Vol. 2, iss. 12
Published: (2020)
Published: (2020)
Similar Items
-
Treatment with Argovit® Silver Nanoparticles Induces Differentiated Postharvest Biosynthesis of Compounds with Pharmaceutical Interest in Carrot (Daucus carota L.); Nanomaterials; Vol. 11, iss. 11
Published: (2021) -
Chronic toxicity of shrimp feed added with silver nanoparticles (Argovit-4®) in Litopenaeus vannamei and immune response to white spot syndrome virus infection; PeerJ; Vol. 10
Published: (2022) -
Ag nanoparticles via PVP synthesis: Evidence of nanohydrogel formation, characterization, and review of nanomedicine applications; Nano-Structures and Nano-Objects; Vol. 45
Published: (2026) -
Mini-review: Application of nanoparticles in plant biotechnology and agriculture; In Vitro Cellular & Developmental Biology - Plant; Vol. 61 iss. 4
Published: (2025) -
Silver nanoparticles enhance survival of white spot syndrome virus infected Penaeus vannamei shrimps by activation of its immunological system; Fish & Shellfish Immunology; Vol. 84
Published: (2019)