Sorour Barekat
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Post Doctoral Fellow
Also affiliated: Isfahan University of Technology (2016–2024); Ghent University (2023)
Food Science
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Sorour Barekat's research investigates the modification of food properties and the development of novel food processing techniques. Her work has explored the use of high-intensity ultrasonic radiation and enzymatic treatments to improve meat tenderness and alter functional properties in beef. She also studies the impact of various ingredients, such as sugar beet fiber and hydrocolloids, on the rheological characteristics and quality of gluten-free products.
Further research areas include the effects of processing methods like heat and high-pressure homogenization on the properties of gums such as gum tragacanth. Barekat is also involved in developing hydrophobic-hydrophilic protein structures using 3D food printing with sorghum and soy protein gels, and enhancing the stability and bioaccessibility of beneficial compounds through coaxial 3D food printing.
Metrics
- h-index: 9
- Publications: 21
- Citations: 405
Positions
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Universidad de ArkansasFood Science ORCID
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Post Doctoral Fellow publications 2025–2026University of Arkansas at Fayetteville Institution web page
Selected Publications
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Formation of hydrophobic zein aerogels via supercritical carbon dioxide drying (2026)
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3DP-Encapsulated Lutein Attenuates LPS-Induced Intestinal Inflammation in a Caco-2/RAW 264.7 Cells Co-culture Model (2026)
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3D-printed starch-zein hydrogels enhance lutein bioaccessibility and intestinal transport in an in vitro digestion–Caco-2 model (2026)
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Utilization of Turmeric Leaf Phenolic Extracts as Natural Antioxidants in Emulsion Systems (2026)
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3D-printed soy protein and microalga films: A sustainable approach with antioxidant functionality (2025)
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Evaluating the printability and digestibility of 3D-printed pea-sorghum protein gels (2025)
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Enhancing lutein and anthocyanins stability and bioaccessibility through simultaneous encapsulation using coaxial 3D food printing (2025)
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Developing hydrophobic-hydrophilic protein structures by 3D food printing of sorghum and soy protein gels (2025)
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Enhancing lutein and anthocyanins stability and bioaccessibility through simultaneous encapsulation into starch/zein gels using coaxial 3D food printing (2025)
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Maximizing sorghum proteins printability: Optimizing gel formulation and 3D-printing parameters to develop a novel bioink (2025)
Collaboration Network
Top Collaborators
- Enhancing lutein and anthocyanins stability and bioaccessibility through simultaneous encapsulation using coaxial 3D food printing
- Developing hydrophobic-hydrophilic protein structures by 3D food printing of sorghum and soy protein gels
- Maximizing sorghum proteins printability: Optimizing gel formulation and 3D-printing parameters to develop a novel bioink
- Evaluating the printability and digestibility of 3D-printed pea-sorghum protein gels
- 3D-printed soy protein and microalga films: A sustainable approach with antioxidant functionality
Showing 5 of 10 shared publications
- Enhancing lutein and anthocyanins stability and bioaccessibility through simultaneous encapsulation using coaxial 3D food printing
- 3D-printed starch-zein hydrogels enhance lutein bioaccessibility and intestinal transport in an in vitro digestion–Caco-2 model
- Enhancing lutein and anthocyanins stability and bioaccessibility through simultaneous encapsulation into starch/zein gels using coaxial 3D food printing
- Utilization of Turmeric Leaf Phenolic Extracts as Natural Antioxidants in Emulsion Systems
- Formation of hydrophobic zein aerogels via supercritical carbon dioxide drying
- 3D-printed soy protein and microalga films: A sustainable approach with antioxidant functionality
- 3D-printed soy protein and microalga films: A sustainable approach with antioxidant functionality
- Utilization of Turmeric Leaf Phenolic Extracts as Natural Antioxidants in Emulsion Systems
- 3D-printed starch-zein hydrogels enhance lutein bioaccessibility and intestinal transport in an in vitro digestion–Caco-2 model
- 3D-printed starch-zein hydrogels enhance lutein bioaccessibility and intestinal transport in an in vitro digestion–Caco-2 model
- 3DP-Encapsulated Lutein Attenuates LPS-Induced Intestinal Inflammation in a Caco-2/RAW 264.7 Cells Co-culture Model
- 3DP-Encapsulated Lutein Attenuates LPS-Induced Intestinal Inflammation in a Caco-2/RAW 264.7 Cells Co-culture Model
- Formation of hydrophobic zein aerogels via supercritical carbon dioxide drying
- Formation of hydrophobic zein aerogels via supercritical carbon dioxide drying
- Formation of hydrophobic zein aerogels via supercritical carbon dioxide drying
- Formation of hydrophobic zein aerogels via supercritical carbon dioxide drying
- Formation of hydrophobic zein aerogels via supercritical carbon dioxide drying
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