Project aims
This project will work to develop a biofabrication strategy that enables rapid alignment and maturation of muscle cells. The project also incorporates intramuscular fat compartments and reinforcing fibers to biomimic thick cuts of meat. The outcome would provide a low-cost, high-throughput technology for creating thick cuts of cultivated meat with the appropriate sensory characteristics via better textural design.
Principal researchers
![Making fibrous cultivated meat 2 Gfi grantee dr. Mohamadmahdi samandari, postdoctoral research fellow, university of connecticut health center, usa](https://gfi.org/wp-content/uploads/2022/01/MohamadmahdiS-headshot-300x300-1.jpg)
Dr. Mohamadmahdi Samandari
Postdoctoral research fellow, University of Connecticut Health Center, USA
Dr. Samandari has experience researching the interface of biomechanics, microfluidics, and tissue engineering. Currently, he is integrating microfluidic technologies with biomaterials and biofabrication to develop effective bioinks and bioprinting strategies for enhanced myogenesis in vitro and in vivo.
Dr. Ali Tamayol
Associate Professor, Department of Biomedical Engineering, University of Connecticut, USA
Dr. Ali Tamayol is an Associate Professor of Biomedical Engineering at the University of Connecticut Health Center. His research is translational and focused on developing tools that facilitate the treatment of musculoskeletal and skin injuries as well as addressing other unmet needs such as food scarcity. He is currently leading multiple federally funded projects involving skeletal muscle tissue engineering. Dr. Tamayol will work closely with Dr. Samandari for characterization of bioprinted constructs, cellular behavior, extraction of primary cells and their co-printing.
Dr. Olivier Pourquié
Professor, Department of Genetics, Harvard Medical School, USA
Dr. Olivier Pourquié is a Professor of Development Biology and Genetics at Harvard Medical School. He is an expert in muscle physiology and development. Dr. Pourquié will provide insight on the characterization of cellular growth, fate, and differentiation.
Dr. Razieh Farzad
Assistant Professor, Department of Food Science, University of Florida USA
Dr. Farzad is an Assistant Professor of Food Science with expertise in cell-line development and food quality characterization. She will provide insight on the quality of the protein expression in the cultured products and characterization of the meat quality.
![Making fibrous cultivated meat 3 Paper stack icon](https://gfi.org/wp-content/uploads/2021/01/Paper-stack-01.png)
Controlling cellular organization in bioprinting through designed 3D microcompartmentalization
Check out Dr. Samandari’s peer-reviewed paper for more detailed information about the biotechnologies being utilized in this research project.
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Biomanufacturing scaffold-free cultivated meat
Learn about Dr. Yuguo Lei’s research to develop an integrated solution for biomanufacturing large-volume cultivated meat at Penn State.
![Making fibrous cultivated meat 5 Micrograph of skeletal muscle](https://gfi.org/wp-content/uploads/2021/08/SCI21015_01_Assembling-organoids-into-meat_AdobeStock_167669029-435x297.jpg)
Assembling organoids into meat
Learn about Dr. Iftach Nachman’s research to assemble skeletal muscle organoid building blocks into thick whole-cuts at Tel Aviv University.
![Making fibrous cultivated meat 6 Pattern of cells, representing cell culture for meat cultivation](https://gfi.org/wp-content/uploads/2021/01/shutterstock_102685253-435x297.jpg)
Co-culturing cells
GFI grantee Dr. Mariana Petronela Hanga is researching culturing different cell types at the same time.
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Designing cost-effective bioreactors
Learn about Dr. Marianne Ellis’s work at University of Bath to reduce the cost of bioreactors for cultivated meat production.
Explore research opportunities
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Cultivated
Scaffolds and structural approaches to optimize fat distribution and content in cultivated meat
The inclusion of fat and marbling in cultivated meat is likely to increase its flavor, texture, and consumer appeal. Structural approaches using edible microcarriers, hydrogels, and 3D bioprinting present promising…
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Cultivated
Cost-effective sterility controls for cultivated meat
Meticulous attention to sterility controls throughout cultivated meat production is essential to optimize food safety, but the cost of biopharmaceutical-based sterility—the current standard for cell-based processes—is incongruent with large-scale food…
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Cultivated
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Plant-Based
Plant-based scaffolds to improve cultivated meat nutrition
A variety of plant-based scaffolds present the opportunity to combine the natural nutritional and structural benefits of plants with the taste and high protein of cultivated meat. Bacterial nanocellulose from…
Check out related resources
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Cultivated Meat Research Tools Database
Use this crowdsourced directory to find species-specific information on research tools, reagents, protocols, and data for cultivated meat researchers.
![Making fibrous cultivated meat 13 A battered and fried cultured meat, a cultured chicken cutlet, plated with sauteed greens and mashed root vegetables | image courtesy of upside foods](https://gfi.org/wp-content/uploads/2021/01/cultivated-meat-header-800x600.jpg)
The science of cultivated meat
Learn about the science of cultivated meat and the challenges that must be addressed for commercial production.