In the pursuit of greener and more sustainable chemical processes, biocatalysis has emerged as a pivotal field bridging organic chemistry with biochemical innovation. This paper explores how principles from organic chemistry are being integrated into biocatalytic systems to enable environmentally friendly biochemical transformations. Emphasis is placed on enzyme engineering, co-factor recycling, green solvent usage, and hybrid chemo-enzymatic methodologies that enhance selectivity, reduce toxicity, and minimize environmental impact. Recent advancements—including machine learning-assisted enzyme design and continuous flow bioprocesses—are discussed to underline the evolution of this synergy. Case studies from pharmaceutical and industrial contexts reinforce the real-world relevance. The paper argues that the confluence of mechanistic understanding from organic chemistry and biological specificity from enzymes is central to next-generation sustainable synthesis.

Keywords: Biocatalysis, Green Chemistry, Enzyme Engineering, Organic Chemistry, Sustainable Synthesis, Chemo-Enzymatic Reactions

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In the pursuit of greener and more sustainable chemical processes, biocatalysis has emerged as a pivotal field bridging organic chemistry with biochemical innovation. This paper explores how principles from organic chemistry are being integrated into biocatalytic systems to enable environmentally friendly biochemical transformations. Emphasis is placed on enzyme engineering, co-factor recycling, green solvent usage, and hybrid chemo-enzymatic methodologies that enhance selectivity, reduce toxicity, and minimize environmental impact. Recent advancements—including machine learning-assisted enzyme design and continuous flow bioprocesses—are discussed to underline the evolution of this synergy. Case studies from pharmaceutical and industrial contexts reinforce the real-world relevance. The paper argues that the confluence of mechanistic understanding from organic chemistry and biological specificity from enzymes is central to next-generation sustainable synthesis.

Keywords: Biocatalysis, Green Chemistry, Enzyme Engineering, Organic Chemistry, Sustainable Synthesis, Chemo-Enzymatic Reactions

🔒 This is a subscription article

Full text is available to subscribers and institutional members. Please choose an option below to access it.