Asma El Zerey-Belaskri

Dr. Asma El Zerey-Belaskri

University of Oran1, Ahmed Ben Bella, Oran, Algeria
orcid

Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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25 October 2022 in Cosmetics
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Journal Article
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Asma El Zerey-BelaskriAsma El Zerey-Belaskri
Asma El Zerey-Belaskri
NBNabila BELYAGOUBI-BENHAMMOU
Nabila BELYAGOUBI-BENHAMMOU
BHBenhassaini Hachemi
Benhassaini Hachemi
Pistacia atlantica Desf. (Atlas pistachio) is one of the most widely distributed wild species of the genus. It is an Irano–Touranian species with a large geographic area that extends from the Canary Islands to Pamir Mountains. Since ancient times, atlas pistachio gum-like resin and fruits, very rich in essential oils (EOs) and fixed oils (FOs), respectively, were used in traditional medicine and included in different traditional cosmetics and health and beauty products. Since then, Atlas pistachio fixed oil is incorporated into several soaps, creams and shampoos to benefit from its medicinal properties. Atlas pistachio fixed oils, resin and leaf essential oils are constituted by several bioactive compounds such as monoterpenes with α-pinene and β-pinene in the resin, terpinen-4-ol, elemol, sesquiterpenes with D-germacrene and E-caryophyllene in the leaves and oxygenated monoterpenes (bornyl acetate) in the fruits. The unsaturated fatty acids (oleic, linoleic, palmitic and stearic acid), sterols (β-sitostero) and tocopherols represented the principal compounds in fatty oil fruits. All these compounds exhibit great therapeutic and cosmetic virtues. Unlike lentisk oil uses in cosmetology, the cosmetic potentials of Atlas pistachio oils remain less valued. In the current review, we seek to highlight the characteristics and properties of Atlas pistachio oils in the prospects of the development of new and different cosmetic formulations as well as an innovative valuation of active ingredients and products inspired by indigenous knowledge and practices.

1 January 2018 in Scientia Horticulturae
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Journal Article
Closed access
Asma El Zerey-BelaskriAsma El Zerey-Belaskri
Asma El Zerey-Belaskri
TRTeresa Ribeiro
Teresa Ribeiro
MAM. Librada Alcaraz
M. Librada Alcaraz
WZWael EL Zerey
Wael EL Zerey
Sílvia CastroSílvia Castro
Sílvia Castro
JHJosé Iñaki Hormaza
José Iñaki Hormaza

1 April 2021 in Biochemical Systematics and Ecology
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Journal Article
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ABAssia Benmahieddine
Assia Benmahieddine
NBNabila BELYAGOUBI-BENHAMMOU
Nabila BELYAGOUBI-BENHAMMOU
LBLarbi BELYAGOUBI
Larbi BELYAGOUBI
Asma El Zerey-BelaskriAsma El Zerey-Belaskri
Asma El Zerey-Belaskri
AGAngelo Gismondi
Angelo Gismondi
NDNoureddine Djebli
Noureddine Djebli

23 February 2024 in Plants
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Journal Article
Open access
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NBNabila BELYAGOUBI-BENHAMMOU
Nabila BELYAGOUBI-BENHAMMOU
LBLarbi BELYAGOUBI
Larbi BELYAGOUBI
ABAssia Benmahieddine
Assia Benmahieddine
Asma El Zerey-BelaskriAsma El Zerey-Belaskri
Asma El Zerey-Belaskri
DGDi Marco Gabriele
Di Marco Gabriele
AGAngelo Gismondi
Angelo Gismondi
The aim of the present investigation was to obtain 12 aqueous extracts and 1 oil from Pistacia atlantica Desf. subsp. atlantica specimens. The samples differed for processed plant organs (i.e., roots, buds, and fruits), gender and geographical station of the collected trees. Total phenols, flavonoids, and condensed tannins were determined, revealing that bud extracts exhibited the highest phenolic content (386.785 ± 16.227 mg GAE/g DM), followed by fruit and root preparations. Similar results were detected for flavonoids and tannins, whose quantitation ranged from 0.014 ± 0.005 to 74.780 ± 9.724 mg CE/g DM and from 0.037 ± 0.003 to 14.793 ± 0.821 mg CE/g DM, respectively. The biochemical profile of the extracts was further characterized by HPLC-DAD, in terms of specific phenolics. This analysis identified gallic acid as a typical metabolite for ripe fruit, while hydroxytyrosol for female roots and male buds. In parallel, P. atlantica fruit oil was profiled by GC-MS analysis, which detected 37 lipophilic components, including palmitic acid (the major component, ~55%), anacardol, tetradecanol, arachidic acid, squalene, and some terpenes. The samples revealed interesting antioxidant activity, with EC50 values ranging from 0.073 ± 0.001 to 193.594 ± 28.942 mg/mL and from 0.029 ± 0.001 to 103.086 ± 20.540 mg/mL, in that order, for DPPH and reducing power assays. Concerning the total antioxidant capacity, the results ranged from 0.053 ± 0.008 to 51.648 ± 1.659 mg AAE/g DM. Finally, the antimicrobial potential of the plant extracts was estimated against 7 bacterial species and 2 fungal strains, known to be human pathogens, demonstrating a good antibiotic effect for the bud extracts. All these findings strongly suggest that P. atlantica would represent a natural reservoir for novel additives to be used in therapeutic, food, and cosmetic products.