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Synthesis, Bioproduction and Bioactivity of Perillic Acid-A Review
Thaís de Souza Rolim1, André Luiz Franco Sampaio1, José Luiz Mazzei1
1Institute of Drug Technology, Fiocruz, Sizenando Nabuco St. 100, Manguinhos, Rio de Janeiro 21041-250, RJ, Brazil.
Perillic acid (PA), a limonene derivative, shows anticancer potential by inhibiting oncogenic protein prenylation. Further research is needed for scalable production and broader pharmacological applications in oncology.
Area of Science:
- Natural Product Chemistry
- Medicinal Chemistry
- Pharmacology
Background:
- Perillic acid (PA) is a limonene derivative with underexplored biological properties compared to related monoterpenes.
- Existing literature often describes PA in mixtures, with limited focus on the pure compound.
- PA exhibits potential anticancer activity, primarily through interference with protein prenylation.
Purpose of the Study:
- To comprehensively review perillic acid (PA), covering its origin, synthesis, and biological activities.
- To evaluate current methods for obtaining PA, including organic synthesis and biotransformation.
- To highlight the pharmacological potential of PA, particularly in preclinical oncology.
Main Methods:
- Literature review of studies on perillic acid (PA) synthesis and bioactivity.
- Analysis of organic synthesis routes from limonene and other precursors.
- Evaluation of biotransformation processes using bacteria and yeasts.
- Review of in vitro pharmacological data, focusing on anticancer mechanisms.
Main Results:
- Organic synthesis of PA from limonene is multi-step and often low-yielding; (-)-β-pinene epoxide offers a more economical route to (-)-PA.
- Microbial biotransformation by bacteria and yeasts provides a greener alternative for producing PA with high purity.
- PA's primary anticancer mechanism involves inhibiting the prenylation of oncogenic proteins, crucial for cancer cell proliferation.
Conclusions:
- Microbial production of PA presents a promising, environmentally friendly approach for scalable manufacturing.
- PA's anticancer properties warrant further investigation, especially regarding its mechanism of action and therapeutic applications.
- Significant opportunities exist for advancing PA research in preclinical oncology and exploring its full pharmacological potential.
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