FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2905998410> ?p ?o ?g. }

• W2905998410 endingPage "178" @default.
• W2905998410 startingPage "166" @default.
• W2905998410 abstract "Fabrication of essential oil loaded-chitosan nanoparticles using electrospraying technique appears to be a novel strategy to develop thermally stable nanoparticles possessing higher encapsulation efficiency and particle stability. This study aims to fabricate chitosan nanoparticles (CNPs) loaded with Origanum vulgare essential oil (OEO, Origanum vulgare L.) at different proportions (OEO/CH proportions of 0:1, 0.0625:1, 0.125:1, 0.25:1 and 0.5:1 mL/g) using electrospraying technique. The CNPs were characterized in term of their particle size and stability (dynamic light scattering), encapsulation efficiency (spectrophotometry), and molecular (Fourier transform infrared spectroscopy), thermal (differential scanning calorimetry/thermogravimetric analysis), morphological (scanning electron microscopy) and antifungal (agar dilution method) and fungistatic activity properties. The average particle sizes of the CNPs ranged between 290 and 483 nm with a spherical morphology. Positively charged surface characteristics were observed to increase with the increment of OEO concentration in CNPs. The encapsulation efficiency values were determined in the range of 70.1 and 79.6%. The molecular and thermal analyses exposed very decent encapsulation of OEO into thermally stable chitosan nanoparticles. Morphological analysis verified the spherical shapes of these nanoparticles. Above all, the antifungal effectiveness of OEO against the Alternaria alternata AY1 could be significantly (p < 0.05) increased by its encapsulation into chitosan nanoparticles fabricated by the electrospraying technique. Consequently, it can be stated that the electrospraying technique developed is able to fabricate thermally stable nanoparticles owning higher encapsulation efficiency and particle stability. The results and findings suggest that the electrospraying technique would be a promising method to fabricate chitosan-based nanoparticles as an antimicrobial agent to control their release in a prolonged preservative effect in cosmetic, pharmaceutical and food applications for adjustable dosage forms. The fungal agents such as Alternaria alternata cause great damages on post-harvest fresh fruits and vegetables, thus leading to a great economical lose. Therefore, a great variety of methods in struggling with disease have been previously proposed. Nowadays, the most effective leading methods to struggle against plant diseases are those applied with synthetic fungicides to minimize such lose in post-harvest fruit and vegetables. However, intensive and unconscious use of the fungicides leads the pathogens to develop resistance against these agents as well as to accumulation of chemical residues in soil, water and air and finally to formation of carcinogenic effects on human health. Nowadays, a great effort is being exerted to develop novel biodegradable and natural antimicrobial agents for struggling fungal spoilage in postharvest products. Essential oils are among the most widely used natural struggling methods. Essential oils obtained from plants have been extensively used since they are natural antimicrobial agents. However, they cannot be effectively used in spite of their extensive applications. Recently, some researches in the field of nanotechnology have demonstrated that the effectiveness of active substances could be increased by using some techniques. In this respect, we aimed at developing essential-oil-loaded-chitosan-nanoparticle delivery systems using an electrospraying deposition system to prevent fungal colonization on food and plant materials. By increasing antifungal effectiveness of essential oils by their encapsulation into nanoparticles, it will be possible to decrease the levels of regularly applied dose and reflect the obtained outcomes to the food and agriculture industry. This study is the first example of production of essential oil loaded nanoparticles using the electrospraying-hydrodynamic process and showed that encapsulation of oregano essential oil into chitosan based nanoparticles (CNPs) by using the electrospraying deposition technique considerably increased the antifungal effectiveness of the Origanum vulgare essential oil. Our results highlight the potential use of the chitosan nanoparticles (CNPs) loaded with different amounts of Origanum vulgare in food and agriculture industry as an effective fungicidal material against Alternaria alternata, suggesting that the CNPs can be promising tools to compete with synthetic fungicide counterparts and limit use of synthetic ones for struggling of food and plant pathogens. Therefore, the results of this study should be of great importance to industrial applications in terms of development of natural, but effective preservatives as alternative to synthetic ones. In this respect, the CNPs would find a great industrial application area in the food and agriculture industry which seek natural preservatives due to the recent health concerns." @default.
• W2905998410 created "2019-01-01" @default.
• W2905998410 creator A5003033927 @default.
• W2905998410 creator A5016167981 @default.
• W2905998410 creator A5020565732 @default.
• W2905998410 creator A5027015823 @default.
• W2905998410 creator A5040259229 @default.
• W2905998410 creator A5053515894 @default.
• W2905998410 creator A5054651399 @default.
• W2905998410 creator A5058685820 @default.
• W2905998410 creator A5070225290 @default.
• W2905998410 date "2019-03-01" @default.
• W2905998410 modified "2023-10-14" @default.
• W2905998410 title "Electrospraying method for fabrication of essential oil loaded-chitosan nanoparticle delivery systems characterized by molecular, thermal, morphological and antifungal properties" @default.
• W2905998410 cites W1844721497 @default.
• W2905998410 cites W1968228943 @default.
• W2905998410 cites W1968462982 @default.
• W2905998410 cites W1972587476 @default.
• W2905998410 cites W1979136154 @default.
• W2905998410 cites W1982304840 @default.
• W2905998410 cites W1988114849 @default.
• W2905998410 cites W1988521752 @default.
• W2905998410 cites W1990862165 @default.
• W2905998410 cites W2005431774 @default.
• W2905998410 cites W2006459601 @default.
• W2905998410 cites W2012095310 @default.
• W2905998410 cites W2014381718 @default.
• W2905998410 cites W2015862311 @default.
• W2905998410 cites W2018571115 @default.
• W2905998410 cites W2019654784 @default.
• W2905998410 cites W2022323743 @default.
• W2905998410 cites W2026727285 @default.
• W2905998410 cites W2033045213 @default.
• W2905998410 cites W2035554303 @default.
• W2905998410 cites W2035760089 @default.
• W2905998410 cites W2036047634 @default.
• W2905998410 cites W2039181209 @default.
• W2905998410 cites W2039418035 @default.
• W2905998410 cites W2045727626 @default.
• W2905998410 cites W2048929455 @default.
• W2905998410 cites W2061065446 @default.
• W2905998410 cites W2065837838 @default.
• W2905998410 cites W2066750869 @default.
• W2905998410 cites W2067594588 @default.
• W2905998410 cites W2067853886 @default.
• W2905998410 cites W2070662379 @default.
• W2905998410 cites W2074179343 @default.
• W2905998410 cites W2079757899 @default.
• W2905998410 cites W2080420449 @default.
• W2905998410 cites W2081859775 @default.
• W2905998410 cites W2084910847 @default.
• W2905998410 cites W2086790197 @default.
• W2905998410 cites W2089277928 @default.
• W2905998410 cites W2090209880 @default.
• W2905998410 cites W2100113160 @default.
• W2905998410 cites W2106916454 @default.
• W2905998410 cites W2124422351 @default.
• W2905998410 cites W2135901562 @default.
• W2905998410 cites W2158921004 @default.
• W2905998410 cites W2159356721 @default.
• W2905998410 cites W2167516940 @default.
• W2905998410 cites W2184908634 @default.
• W2905998410 cites W2275058482 @default.
• W2905998410 cites W2295403375 @default.
• W2905998410 cites W2317700783 @default.
• W2905998410 cites W2367484623 @default.
• W2905998410 cites W2393015204 @default.
• W2905998410 cites W2513655122 @default.
• W2905998410 cites W2527724522 @default.
• W2905998410 cites W2527891622 @default.
• W2905998410 cites W2586473844 @default.
• W2905998410 cites W2773652787 @default.
• W2905998410 cites W2804902901 @default.
• W2905998410 cites W2811046623 @default.
• W2905998410 cites W2885210905 @default.
• W2905998410 cites W2890170774 @default.
• W2905998410 doi "https://doi.org/10.1016/j.ifset.2018.12.005" @default.
• W2905998410 hasPublicationYear "2019" @default.
• W2905998410 type Work @default.
• W2905998410 sameAs 2905998410 @default.
• W2905998410 citedByCount "66" @default.
• W2905998410 countsByYear W29059984102019 @default.
• W2905998410 countsByYear W29059984102020 @default.
• W2905998410 countsByYear W29059984102021 @default.
• W2905998410 countsByYear W29059984102022 @default.
• W2905998410 countsByYear W29059984102023 @default.
• W2905998410 crossrefType "journal-article" @default.
• W2905998410 hasAuthorship W2905998410A5003033927 @default.
• W2905998410 hasAuthorship W2905998410A5016167981 @default.
• W2905998410 hasAuthorship W2905998410A5020565732 @default.
• W2905998410 hasAuthorship W2905998410A5027015823 @default.
• W2905998410 hasAuthorship W2905998410A5040259229 @default.
• W2905998410 hasAuthorship W2905998410A5053515894 @default.
• W2905998410 hasAuthorship W2905998410A5054651399 @default.
• W2905998410 hasAuthorship W2905998410A5058685820 @default.
• W2905998410 hasAuthorship W2905998410A5070225290 @default.
• W2905998410 hasConcept C121332964 @default.
• W2905998410 hasConcept C127413603 @default.

• next