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Plant Protein-Based Scaffolds for Cultivated Meat Production: A Review

A review assesses plant proteins from major crops as edible scaffolds for cultivated meat, a route that could reduce dependence on animal materials and lower environmental effects. It compares extraction methods and newer processing technologies, then examines extrusion, freeze-drying, electrospinning, hydrogels and polymer blends. The authors find that purity and processing shape scaffold strength, pore structure and cell compatibility. However, better support for muscle-cell attachment, growth and maturation, along with repeatable scale-up, remains necessary before these materials can fulfil that role.

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Proteins in Food Systems

Impact of mycoprotein incorporation on the textural properties of hybrid yogurt gels

Fusarium venenatum and Nectria protein extracts had opposing effects in hybrid yoghurt, making source, dose and culture central to lower-dairy gel performance. Researchers replaced 0%, 20%, 60% or 100% of milk protein and used either L. helveticus or VIBE starter cultures. They tracked fermentation, rheology, viscosity and water loss during cold storage. Nectria raised elasticity and water retention, though high doses reduced viscosity. High Fusarium substitution weakened elasticity and increased water loss. VIBE improved viscosity and retention, but full replacement constrained L. helveticus acidification. Formulation choices therefore remain decisive.

Tissue Engineering and Regenerative Medicine

Transitioning from Lab to Industry in Cellular Agriculture: Pre- and Post-Cultivation Tissue Maturation Strategies

A review of cultivated meat maturation methods examines how tissue structure and mechanics might move from laboratory work towards industrial production. It covers research published through 2026 on bioprinting, electrospinning, plant scaffolds, freeze-drying, ice templating, surface moulding, edible microcarriers and cell sheets. The reviewed literature finds that combining methods can improve fibre orientation, nutrient transport, extracellular matrix formation, metabolism and mechanical traits. Responsive scaffolds and adaptable culture systems may also enable tunable tissue behaviour, though industrial sustainability remains a prospect rather than an established result.

Microbial Metabolic Engineering and Bioproduction

Biotechnological Innovations in Food Technology: From Precision Fermentation to Sustainable Food Manufacturing

A review assesses how biotechnology moves into food production, because laboratory results alone do not ensure viable manufacturing. It synthesises research on precision fermentation, engineered microbes, enzymes, waste-stream use, scale-up, safety, regulation and public acceptance. Findings show that biological output must be considered alongside feedstocks, product recovery, food function, consistency and cost. Fermentation can make proteins, flavours, pigments, vitamins, enzymes and microbial biomass, while variable waste inputs hinder standardisation. The authors call for early life-cycle and economic analysis from organism design to market.