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International Journal of Law And Criminology

Peer Reviewed | Open Access | E-ISSN: 2771-2214
Published Article

Sustainable Extraction, Functional Valorization, And Traditional Knowledge Governance of Plant-Derived Proteins and Bioactive Compounds: An Integrative Research Review

Sustainable Extraction, Functional Valorization, And Traditional Knowledge Governance of Plant-Derived Proteins and Bioactive Compounds: An Integrative Research Review

  • Dr. Sofía Navarro
    Department of Food Science and Innovation, University of Valencia, Spain
Green extraction plant proteins bioactive compounds

Background: The contemporary search for sustainable biomaterials, functional food ingredients, health-promoting phytochemicals, and circular bioeconomy feedstocks has intensified scholarly interest in plant-derived proteins, phenolics, alkaloids, flavonoids, and other bioactive constituents. At the same time, the scientific development of extraction and optimization technologies increasingly intersects with questions of traditional knowledge, biodiversity use, intellectual property, and equitable governance.

Objective: This article develops an integrative research review of plant-based protein and bioactive compound extraction with specific emphasis on eco-innovative processing, optimization strategies, functional applications, and the governance of knowledge systems that inform resource discovery and utilization.

Methodology: A qualitative integrative review design was used to synthesize the references provided, including studies on protein extraction, green extraction methods, ultrasound-assisted recovery, supercritical and pressure-based processing, antioxidant and antimicrobial bioactivity, capsaicinoid chemistry, flavonoid characterization, microalgal and residue valorization, and legal scholarship on traditional knowledge databases and intellectual property frameworks.

Results: The reviewed literature demonstrates four converging findings. First, plant proteins and phytochemicals can be effectively recovered from diverse agricultural materials, residues, and underutilized species through tailored extraction systems optimized by pH, solvent environment, enzyme assistance, cavitation, pressure, and response surface methodology. Second, green extraction approaches improve resource efficiency and support waste-to-value pathways, especially when linked to by-product recovery, microalgal processing, and biodegradable material production. Third, the biological and functional value of extracted compounds depends not only on yield but also on structural integrity, selectivity, purity, and downstream application context. Fourth, the translation of botanical knowledge into industrial innovation raises critical governance issues concerning traditional knowledge protection, digital documentation, and intellectual property asymmetries.

Conclusion: The future of sustainable plant bioresource innovation lies in combining extraction science, functional characterization, process optimization, and fair knowledge governance. A responsible pathway requires not only efficient recovery of compounds but also legal and ethical frameworks that acknowledge the cultural and epistemic origins of bioresource use.

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