Back to Search Start Over

Antimigratory Effect of Lipophilic Cations Derived from Gallic and Gentisic Acid and Synergistic Effect with 5-Fluorouracil on Metastatic Colorectal Cancer Cells: A New Synthesis Route.

Authors :
Suárez-Rozas, Cristian
Jara, José Antonio
Cortés, Gonzalo
Rojas, Diego
Araya-Valdés, Gabriel
Molina-Berrios, Alfredo
González-Herrera, Fabiola
Fuentes-Retamal, Sebastián
Aránguiz-Urroz, Pablo
Campodónico, Paola Rossana
Maya, Juan Diego
Vivar, Raúl
Catalán, Mabel
Source :
Cancers; Sep2024, Vol. 16 Issue 17, p2980, 19p
Publication Year :
2024

Abstract

Simple Summary: Colorectal cancer (CRC) is one of the most common causes of death worldwide. Today, this disease does not have an effective treatment, leading to the exploration of novel pharmacological molecules. In this paper, we design and synthesize with a new synthetic route the lipophilic cation derived from gallic acid (TPP<superscript>+</superscript>C<subscript>10</subscript>) and gentisic acid (GA-TPP<superscript>+</superscript>C<subscript>10</subscript>), both able to reach mitochondria and uncouple the electron transport chain. Our results show that combining 5-fluorouracil with GA-TPP<superscript>+</superscript>C<subscript>10</subscript> has a synergistic cytotoxic effect on CRC cells. Both compounds show antimigratory effects, decreasing signaling pathways and biomarkers. Our results show that mitochondrial agents could be an alternative to standard CRC drugs against this disease. Colorectal cancer (CRC) is the third leading cause of cancer deaths in the world. Standard drugs currently used for the treatment of advanced CRC—such as 5-fluorouracil (5FU)—remain unsatisfactory in their results due to their high toxicity, high resistance, and adverse effects. In recent years, mitochondria have become an attractive target for cancer therapy due to higher transmembrane mitochondrial potential. We synthesized gallic acid derivatives linked to a ten-carbon aliphatic chain associated with triphenylphosphonium (TPP<superscript>+</superscript>C<subscript>10</subscript>), a lipophilic cationic molecule that induces the uncoupling of the electron transport chain (ETC). Other derivatives, such as gentisic acid (GA-TPP<superscript>+</superscript>C<subscript>10</subscript>), have the same effects on colorectal cancer cells. Although part of our group had previously reported preparing these structures by a convergent synthesis route, including their application via flow chemistry, there was no precedent for a new methodology for preparing these compounds. In this scenario, this study aims to develop a new linear synthesis strategy involving an essential step of Steglich esterification under mild conditions (open flask) and a high degree of reproducibility. Moreover, the study seeks to associate GA-TPP<superscript>+</superscript>C<subscript>10</subscript> with 5FU to evaluate synergistic antineoplastic effects. In addition, we assess the antimigratory effect of GA-TPP<superscript>+</superscript>C<subscript>10</subscript> and TPP<superscript>+</superscript>C<subscript>10</subscript> using human and mouse metastatic CRC cell lines. The results show a new and efficient synthesis route of these compounds, having synergistic effects in combination with 5FU, increasing apoptosis and enhancing cytotoxic properties. Additionally, the results show a robust antimigratory effect of GATPP<superscript>+</superscript>C10 and TPP<superscript>+</superscript>C<subscript>10</subscript>, reducing the activation pathways linked to tumor progression and reducing the expression of VEGF and MMP-2 and MMP-9, common biomarkers of advanced CRC. Moreover, TPP<superscript>+</superscript>C<subscript>10</subscript> and GA-TPP<superscript>+</superscript>C<subscript>10</subscript> increase the activity of metabolic signaling pathways through AMPK activation. The data allow us to conclude that these compounds can be used for in vivo evaluations and are a promising alternative associated with conventional therapies for advanced colorectal cancer. Additionally, the reported intermediates of the new synthesis route could give rise to analog compounds with improved therapeutic activity. [ABSTRACT FROM AUTHOR]

Details

Language :
English
ISSN :
20726694
Volume :
16
Issue :
17
Database :
Complementary Index
Journal :
Cancers
Publication Type :
Academic Journal
Accession number :
179645553
Full Text :
https://doi.org/10.3390/cancers16172980