Aug 2026· Fermentation· 1 citation· 155 references
TL;DR
This compilation aims to comprehensively address current approaches to modeling the fermentation process and quality parameters of dairy products using multi-omics technologies and artificial intelligence applications to provide current and important perspectives for industrial applications and future studies.
Abstract
In dairy production, the fermentation process is a complex biochemical system that plays a significant role in determining the quality criteria of the final product. Traditional methods for controlling fermentation rely on limited and non-standard process parameters. In recent years, omics technologies have come to the forefront, enabling the monitoring of fermentation dynamics at the molecular level with their current, efficient, and reliable approaches. Thanks to omics approaches such as metabolomics, metagenomics, proteomics, and lipidomics, starter culture behavior, metabolite formation, aroma–texture formation, and microbial interactions in the fermentation process can be characterized more comprehensively. On the other hand, evaluating or calculating high-dimensional omics data using traditional statistical methods presents a challenge. Artificial intelligence applications are overcoming this challenge, offering significant opportunities for the accurate and reliable evaluation of data. Artificial intelligence-powered models hold promise in areas such as predicting fermentation kinetics, process control, optimizing quality criteria, and revealing the therapeutic potential of products through metabolites. This compilation aims to comprehensively address current approaches to modeling the fermentation process and quality parameters of dairy products using multi-omics technologies and artificial intelligence applications. In this respect, it will provide current and important perspectives for industrial applications and future studies.
This study developed a solid‐state fermentation process for millet Baijiu using millet and rice as raw materials. Single‐factor experiments combined with response surface methodology were employed to establish a mathematical model for process optimization, identifying the optimal parameters: millet proportion 28%,...
Wan-Jing Cui, Jia-Hui Liu, Chong-Pei Jia et al.· Journal of food process engi...· 0 citations
This paper systematically reviewed the latest research progress on the closed-loop intelligent fermentation control systems, spanning from underlying data perception to high-level decision-making and the transformation of fermentation control from traditional "macroscopic feeding regulation" to "microscopic metabolic p...
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Dark fermentation is the conversion of various biomass wastes into biohydrogen. It occurs in the absence of light. The purpose of this review is to provide the latest advances in biohydrogen production via dark fermentation, focusing on feedstock characteristics, microbial community dynamics, and approaches to system...
Tarekegn Limore Binchebo, S. Narra, V. Ancha et al.· Frontiers in Energy Research· 1 citation
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