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February 6, 2026Journal of Agricultural and Food Chemistry2 citations

Innovative Biotechnological Strategies for Sustainable Myo -Inositol Production and Application

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XDXuguo DuanJZJinbo ZhangYZYang Zhao

Key Points

  • The aim is to explore biotechnological innovations for sustainable production of myo-inositol and address current challenges in the field.
  • Review of multienzyme cascades utilizing renewable carbohydrates
  • Analysis of microbial cell-factory strategies including chassis benchmarking
  • Examination of carbon-flux redirection and glucose-glycerol feeding
  • Identification of bottlenecks such as cofactor imbalance and product inhibition
  • Discussion of solutions like cofactor regeneration and modular process design
  • Identified high-pollution traditional methods are being replaced by innovative biotechnological strategies
  • Highlighting improvements in stability, reusability, and yields through various biotechnological approaches
  • Pinpointed critical bottlenecks in current myo-inositol production processes and suggested targeted fixes
  • Provided a comprehensive roadmap for cost-competitive and sustainable production systems

Abstract

Myo-inositol, a high-value cyclic polyol, is increasingly sought by pharmaceutical, food, feed, and cosmetic industries. This review systematically surveys the latest biotechnological advances poised to replace traditional, high-pollution methods. First, multienzyme cascades that convert renewable carbohydrates─starch, glucose, xylose, cellulose, sucrose─are reviewed, highlighting immobilized reactors, porous microspheres, biomimetic mineralized capsules, and biofilm systems that boost stability, reusability, and space-time yields. Second, microbial cell-factory strategies are examined, covering chassis benchmarking (Escherichia coli, Pichia pastoris, Kluyveromyces marxianus, cyanobacteria), carbon-flux redirection, glucose-glycerol synergistic feeding, and dynamic regulatory circuits. A unified analysis pinpoints recurrent bottlenecks─cofactor imbalance, enzyme thermostability gaps, narrow substrate spectra, product inhibition, and downstream complexity─and distills the targeted fixes discussed in the field, from cofactor regeneration circuits to modular process design. By integrating cutting-edge research with industrial techno-economic indicators, this review offers a comprehensive roadmap for sustainable, cost-competitive myo-inositol biomanufacturing and guides future research toward greener production systems.

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Cite This Study

Duan et al. (2026) studied this question.

synapsesocial.com/papers/698584f98f7c464f230083f0https://doi.org/10.1021/acs.jafc.5c15111
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1Critical Review on Microbial Inulinase Production: Emerging Strategies, AI‐Driven Optimization, and Applications2026
  2. 2Efficient pathway-driven <i>scyllo</i> -inositol production from <i>myo</i> -inositol using thermophilic cells and mesophilic inositol dehydrogenases: a novel strategy for pathway control2024
  3. 3Closing Loop: Systems-Level Integration of Synthetic Consortia and Process Engineering for Lignocellulosic Microbial Lipid Biomanufacturing2026
  4. 43‐Hydroxypropionate production from <i>myo</i>‐inositol by the gut acetogen <i>Blautia schinkii</i>2024
  5. 5Biocatalytic Production of Functional Oligosaccharides from Agricultural and Food Processing Residues: Toward Functional Oligosaccharide Production2026