Hamda Alhindaassi , Maryam H.M. Almheiri , Taif A.A. Alrayssi , Dali V. Francis , Abdelmoneim K. Abdalla , Maratab Ali , Abdul Jaleel , Xinhua Zhang , Zienab F.R. Ahmed
{"title":"加夫微绿:一种新型功能性食品,通过纳米颗粒种子启动增强营养成分","authors":"Hamda Alhindaassi , Maryam H.M. Almheiri , Taif A.A. Alrayssi , Dali V. Francis , Abdelmoneim K. Abdalla , Maratab Ali , Abdul Jaleel , Xinhua Zhang , Zienab F.R. Ahmed","doi":"10.1016/j.fufo.2025.100774","DOIUrl":null,"url":null,"abstract":"<div><div>Introducing novel microgreens from the UAE-native ghaf plant into culinary traditions enriches dishes with nutrients and addresses sustainability challenges related to nutritional security. Microgreens are renowned for their dense nutrient profile compared with mature plants. This study investigated the potential of leveraging nanotechnology to enhance the resilience and productivity of ghaf microgreens and enhance their economic and nutritional values. Using ZnO<img>NPs at a concentration of 500 ng/mL significantly stimulated the germination of ghaf seed, which peaked after 5 days (93 %) compared with the control (22 %). Analysis of mineral content revealed a considerable increase in the majority of the essential nutrients, particularly Zn, which increased by 9–10-fold in treated seeds and microgreens compared with the control. The treatment of ZnO<img>NPs enhanced phytochemical concentration; the phenolic content increased from 379.70 to 415.22 mgGAE/100 gDW in the treated seed and from 501.43 to 774.81 mgGAE/100 gDW in the produced microgreens, thereby enhancing antioxidant activity. Variations in individual phenolic compounds, such as sinapic, gallic, and benzoic acids as well as rutin hydrate, were observed, with sinapic acid demonstrating the highest content in ghaf seed and microgreen leaves (34 % more than that of the control). Furthermore, ZnO<img>NPs enhanced protein synthesis from 2.21 to 2.83 mg/mL in the ghaf microgreens, rendering it a high-value functional food. This study provides valuable insights into the physiological and nutritional responses of ghaf seed to ZnO<img>NPs treatment, laying the groundwork for NP-based strategies to enhance ghaf crop resilience and nutritional value in arid environments.</div></div>","PeriodicalId":34474,"journal":{"name":"Future Foods","volume":"12 ","pages":"Article 100774"},"PeriodicalIF":8.2000,"publicationDate":"2025-09-24","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Ghaf microgreen: A novel functional food with enhanced nutritional content via nanoparticle-seed priming\",\"authors\":\"Hamda Alhindaassi , Maryam H.M. Almheiri , Taif A.A. Alrayssi , Dali V. Francis , Abdelmoneim K. Abdalla , Maratab Ali , Abdul Jaleel , Xinhua Zhang , Zienab F.R. Ahmed\",\"doi\":\"10.1016/j.fufo.2025.100774\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<div><div>Introducing novel microgreens from the UAE-native ghaf plant into culinary traditions enriches dishes with nutrients and addresses sustainability challenges related to nutritional security. Microgreens are renowned for their dense nutrient profile compared with mature plants. This study investigated the potential of leveraging nanotechnology to enhance the resilience and productivity of ghaf microgreens and enhance their economic and nutritional values. Using ZnO<img>NPs at a concentration of 500 ng/mL significantly stimulated the germination of ghaf seed, which peaked after 5 days (93 %) compared with the control (22 %). Analysis of mineral content revealed a considerable increase in the majority of the essential nutrients, particularly Zn, which increased by 9–10-fold in treated seeds and microgreens compared with the control. The treatment of ZnO<img>NPs enhanced phytochemical concentration; the phenolic content increased from 379.70 to 415.22 mgGAE/100 gDW in the treated seed and from 501.43 to 774.81 mgGAE/100 gDW in the produced microgreens, thereby enhancing antioxidant activity. Variations in individual phenolic compounds, such as sinapic, gallic, and benzoic acids as well as rutin hydrate, were observed, with sinapic acid demonstrating the highest content in ghaf seed and microgreen leaves (34 % more than that of the control). Furthermore, ZnO<img>NPs enhanced protein synthesis from 2.21 to 2.83 mg/mL in the ghaf microgreens, rendering it a high-value functional food. 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Ghaf microgreen: A novel functional food with enhanced nutritional content via nanoparticle-seed priming
Introducing novel microgreens from the UAE-native ghaf plant into culinary traditions enriches dishes with nutrients and addresses sustainability challenges related to nutritional security. Microgreens are renowned for their dense nutrient profile compared with mature plants. This study investigated the potential of leveraging nanotechnology to enhance the resilience and productivity of ghaf microgreens and enhance their economic and nutritional values. Using ZnONPs at a concentration of 500 ng/mL significantly stimulated the germination of ghaf seed, which peaked after 5 days (93 %) compared with the control (22 %). Analysis of mineral content revealed a considerable increase in the majority of the essential nutrients, particularly Zn, which increased by 9–10-fold in treated seeds and microgreens compared with the control. The treatment of ZnONPs enhanced phytochemical concentration; the phenolic content increased from 379.70 to 415.22 mgGAE/100 gDW in the treated seed and from 501.43 to 774.81 mgGAE/100 gDW in the produced microgreens, thereby enhancing antioxidant activity. Variations in individual phenolic compounds, such as sinapic, gallic, and benzoic acids as well as rutin hydrate, were observed, with sinapic acid demonstrating the highest content in ghaf seed and microgreen leaves (34 % more than that of the control). Furthermore, ZnONPs enhanced protein synthesis from 2.21 to 2.83 mg/mL in the ghaf microgreens, rendering it a high-value functional food. This study provides valuable insights into the physiological and nutritional responses of ghaf seed to ZnONPs treatment, laying the groundwork for NP-based strategies to enhance ghaf crop resilience and nutritional value in arid environments.
Future FoodsAgricultural and Biological Sciences-Food Science
CiteScore
8.60
自引率
0.00%
发文量
97
审稿时长
15 weeks
期刊介绍:
Future Foods is a specialized journal that is dedicated to tackling the challenges posed by climate change and the need for sustainability in the realm of food production. The journal recognizes the imperative to transform current food manufacturing and consumption practices to meet the dietary needs of a burgeoning global population while simultaneously curbing environmental degradation.
The mission of Future Foods is to disseminate research that aligns with the goal of fostering the development of innovative technologies and alternative food sources to establish more sustainable food systems. The journal is committed to publishing high-quality, peer-reviewed articles that contribute to the advancement of sustainable food practices.
Abstracting and indexing:
Scopus
Directory of Open Access Journals (DOAJ)
Emerging Sources Citation Index (ESCI)
SCImago Journal Rank (SJR)
SNIP