Park Su-Min, Ryoo Ji-Hwan, Kwon Hyuk Cheol, Han Sung Gu
Department of Food Science and Biotechnology of Animal Resources, Konkuk University, Seoul 05029, Korea.
Food Sci Anim Resour. 2025 May;45(3):688-710. doi: 10.5851/kosfa.2025.e13. Epub 2025 May 1.
Cultured meat offers a sustainable and ethical solution to the environmental and food security challenges associated with conventional meat production. In cultured meat production, scaffolds play an important role as structural and biochemical supports for cell adhesion, proliferation, and differentiation. The selection of biomaterials directly influences cellular processes and consequently shape the texture, flavor, and overall quality of the cultivated meat. This review provides a comprehensive overview of biomaterials employed in cultured meat scaffolds, encompassing sources such as animals, plants, algae, and microorganisms. The strengths and limitations of each biomaterial type are critically analyzed to guide scaffold fabrication strategies. Furthermore, potential applications are explored to address the constraints of individual biomaterials. Animal-derived biomaterials improve cell adhesion and biocompatibility by imitating extracellular substrates but are limited by high cost and low mechanical strength. Although plant-derived biomaterials are cost-effective and biodegradable, their mechanical strength and biocompatibility should be enhanced through chemical modification or combination with other biomaterials. Algae-derived biomaterials provide gelling properties but lack cell-binding sites and mechanical stability. Microbial-derived biomaterials provide high mechanical strength, while the lack of nutritional value and cell-binding sites limits their application in scaffold fabrication. Each biomaterial possesses unique properties, presenting both advantages and disadvantages. By leveraging their strengths, individual biomaterials can serve as effective sources for scaffold construction. An understanding their strengths, limitations, and suitability is crucial for designing and fabricating optimal scaffolds, ultimately enabling the successful production of cultured meat.
培养肉为解决与传统肉类生产相关的环境和粮食安全挑战提供了一种可持续且符合伦理的解决方案。在培养肉生产中,支架作为细胞黏附、增殖和分化的结构及生化支撑发挥着重要作用。生物材料的选择直接影响细胞过程,进而塑造培养肉的质地、风味和整体品质。本综述全面概述了用于培养肉支架的生物材料,涵盖动物、植物、藻类和微生物等来源。对每种生物材料类型的优缺点进行了批判性分析,以指导支架制造策略。此外,还探索了潜在应用以解决单个生物材料的局限性。动物源生物材料通过模仿细胞外基质改善细胞黏附性和生物相容性,但受到高成本和低机械强度的限制。虽然植物源生物材料具有成本效益且可生物降解,但其机械强度和生物相容性应通过化学修饰或与其他生物材料结合来提高。藻类源生物材料具有凝胶特性,但缺乏细胞结合位点和机械稳定性。微生物源生物材料具有高机械强度,而缺乏营养价值和细胞结合位点限制了它们在支架制造中的应用。每种生物材料都具有独特的特性,既有优点也有缺点。通过利用它们的优势,单个生物材料可作为支架构建的有效来源。了解它们的优势、局限性和适用性对于设计和制造最佳支架至关重要,最终实现培养肉的成功生产。