This work explores the development of animal-free proteins produced in laboratory settings using innovative technologies such as precision fermentation, submerged fermentation, plant cell culture, and molecular engineering, which enable the production of high-quality proteins without relying on animal farming or large-scale traditional agriculture.
Abstract
The search for sustainable and ethical alternatives to conventional protein production has become increasingly important due to climate change, population growth, and the need to reduce the environmental impact of food systems. This work explores the development of animal-free proteins produced in laboratory settings using innovative technologies such as precision fermentation, submerged fermentation, plant cell culture, and molecular engineering. These methods enable the production of high-quality proteins without relying on animal farming or large-scale traditional agriculture. In addition to reviewing traditional plant-based protein sources and their nutritional limitations, the study highlights novel protein sources derived from fungi, algae, and bacteria, focusing on their nutritional profiles, production methods, and challenges related to digestibility, safety, and consumer perception. Special attention is given to downstream processing techniques that preserve protein functionality and enhance key food attributes such as texture, flavor, and stability. The use of agro-industrial residues is also discussed as a strategy to improve sustainability and economic viability. Key barriers to large-scale implementation, including production costs, regulatory approval, and consumer acceptance, are addressed, alongside emerging applications beyond food, such as cosmetics, animal nutrition, and biodegradable materials. Overall, animal-free proteins represent a promising path toward a more sustainable, resilient, and ethical global food system.
Cellular agriculture has emerged as a promising strategy for producing animal-derived food components through controlled biological processes while reducing the environmental and ethical burdens associated with conventional livestock production. Among its enabling technologies, precision fermentation and cultivated-cel...
Neha K. Jadhav, Aditya B. Magdum, K. Shinde et al.· Preparative Biochemistry & B...· 0 citations
The escalating global population and the environmentally inefficient nature of livestock-based protein production are intensifying demand for sustainable and scalable protein alternatives. Microbial biosynthesis, employing engineered cell factories, represents a pivotal strategy for producing functional proteins with a...
Zewei Lu, Zhuoer Chen, Dianqi Yang et al.· Comprehensive Reviews in Foo...· 0 citations
Food security and environmental sustainability have emerged as major global challenges, driving the search for alternative protein production systems that can meet growing demand while reducing the environmental burden of conventional livestock farming. Among emerging alternatives, cultivated meat has gained considerab...
Zaryab Shafi, P. Nath, V. Pandey et al.· Biotechnology and Bioenginee...· 0 citations
This review analyzes precision fermentation as a strategic tool for the future of the global food system, examining the interplay among technological advances, regulatory frameworks, factors influencing consumer acceptance, and associated ethical implications. Recently, synthetic biology has emerged as a prominent fiel...
Bárbara Flaibam, Esteban Ivan da Silva Vejar, Antenor Linhares et al.· Current Food Science and Tec...· 0 citations
The growing demand for sustainable, non-animal-derived, and low-allergenic protein alternatives has driven research into innovative sources such as microalgae. This review focuses on three key microalgal species Arthrospira platensis (Spirulina), Chlorella vulgaris, and Tetraselmis chuii. It examines their cell wall st...
E. Costa, M. Ribeiro, L. Filipe-Ribeiro et al.· Foods· 0 citations
The gut microbiome provides a key interface for these processes by integrating both chemical and physical cues from foods after ingestion, while also mediating how these cues translate into physiological responses, thereby serving as a composite readout of food properties and host physiology.
Ya-Qin Wang, C. Jian, H. N. Maina et al.· Advances in Food and Nutriti...· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.