A series of phenolic derivatives designed to selectively target mitochondria were synthesized under flow conditions starting from natural phenolic acids. The two-step continuous flow protocol, performed in Cyrene, a bioavailable dipolar aprotic solvent, allowed the isolation of the MITO compounds in moderate to good yields. The MITO compounds obtained, as a first step, were tested for their safety by cell viability analysis. The cytocompatible dose, in human neuronal cell line SH-SH5Y, depends on the type of compound and the non-toxic dose is between 3.5 and 125 µM. Among the seven MITO compounds synthesized, two of them have shown interesting performances, being able to protect mitochondria from oxidative insult.

Flow Synthesis of Nature-Inspired Mitochondria-Targeted Phenolic Derivatives as Potential Neuroprotective Agents / D. Pecora, F. Annunziata, S. Pegurri, P. Picone, A. Pinto, D. Nuzzo, L. Tamborini. - In: ANTIOXIDANTS. - ISSN 2076-3921. - 11:11(2022 Nov), pp. 2160.1-2160.12. [10.3390/antiox11112160]

Flow Synthesis of Nature-Inspired Mitochondria-Targeted Phenolic Derivatives as Potential Neuroprotective Agents

D. Pecora
Primo
;
F. Annunziata
Secondo
;
S. Pegurri;A. Pinto;L. Tamborini
Ultimo
2022

Abstract

A series of phenolic derivatives designed to selectively target mitochondria were synthesized under flow conditions starting from natural phenolic acids. The two-step continuous flow protocol, performed in Cyrene, a bioavailable dipolar aprotic solvent, allowed the isolation of the MITO compounds in moderate to good yields. The MITO compounds obtained, as a first step, were tested for their safety by cell viability analysis. The cytocompatible dose, in human neuronal cell line SH-SH5Y, depends on the type of compound and the non-toxic dose is between 3.5 and 125 µM. Among the seven MITO compounds synthesized, two of them have shown interesting performances, being able to protect mitochondria from oxidative insult.
Cyrene; flow chemistry; mitochondria; natural phenolic acids; neuronal cells; triphenylphosphonium cation;
Settore CHIM/08 - Chimica Farmaceutica
Settore CHIM/10 - Chimica degli Alimenti
nov-2022
31-ott-2022
Article (author)
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/2434/946088
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