2-Pyrrolinodoxorubicin and its peptide-vectorized form bypass multidrug resistance

A well-known mechanism leading to the emergence of multidrug-resistant tumor cells is the overexpression of P-glycoprotein, which is capable of lowering intracellular drug concentrations. In the present study, we tested the capability of 2-pyrrolinodoxorubicin (p-DOX), a highly potent derivative of...

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Veröffentlicht in:Anti-cancer drugs 2004-07, Vol.15 (6), p.609-617
Hauptverfasser: Castex, Cédric, Merida, Peggy, Blanc, Emmanuelle, Clair, Philippe, Rees, Anthony R, Temsamani, Jamal
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container_end_page 617
container_issue 6
container_start_page 609
container_title Anti-cancer drugs
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creator Castex, Cédric
Merida, Peggy
Blanc, Emmanuelle
Clair, Philippe
Rees, Anthony R
Temsamani, Jamal
description A well-known mechanism leading to the emergence of multidrug-resistant tumor cells is the overexpression of P-glycoprotein, which is capable of lowering intracellular drug concentrations. In the present study, we tested the capability of 2-pyrrolinodoxorubicin (p-DOX), a highly potent derivative of DOX, to bypass multidrug resistance. The accumulation, intracellular distribution and cytotoxicity of p-DOX were tested in two cell lines (K562 and A2780) and their DOX-resistant counterparts (K562/ADR and A2780/ADR). Cellular accumulation and cytotoxicity were dramatically lowered for DOX in resistant cell lines, in comparison with non-resistant cells. In contrast, cellular accumulation, intracellular distribution and cytotoxicity of p-DOX were independent of the nature of the cell lines. The p-DOX showed potent dose-dependent inhibition of cell growth against resistant cells as compared with DOX. After treatment of resistant cells with verapamil, the intracellular levels of DOX were markedly increased and consequent cytotoxicity improved. In contrast, treatment of resistant cells with verapamil did not cause any further enhancement of cell uptake or an increase in the cytotoxic effect of the derivative p-DOX, indicating that the compound bypasses the P-glycoprotein. Finally, we show that vectorization of p-DOX by a peptide vector (SynB3) which has been shown to enhance the brain uptake of DOX and to decrease its heart accumulation does not affect this property. These results indicate that p-DOX and its vectorized form are potent and effective in overcoming multidrug resistance.
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In the present study, we tested the capability of 2-pyrrolinodoxorubicin (p-DOX), a highly potent derivative of DOX, to bypass multidrug resistance. The accumulation, intracellular distribution and cytotoxicity of p-DOX were tested in two cell lines (K562 and A2780) and their DOX-resistant counterparts (K562/ADR and A2780/ADR). Cellular accumulation and cytotoxicity were dramatically lowered for DOX in resistant cell lines, in comparison with non-resistant cells. In contrast, cellular accumulation, intracellular distribution and cytotoxicity of p-DOX were independent of the nature of the cell lines. The p-DOX showed potent dose-dependent inhibition of cell growth against resistant cells as compared with DOX. After treatment of resistant cells with verapamil, the intracellular levels of DOX were markedly increased and consequent cytotoxicity improved. In contrast, treatment of resistant cells with verapamil did not cause any further enhancement of cell uptake or an increase in the cytotoxic effect of the derivative p-DOX, indicating that the compound bypasses the P-glycoprotein. Finally, we show that vectorization of p-DOX by a peptide vector (SynB3) which has been shown to enhance the brain uptake of DOX and to decrease its heart accumulation does not affect this property. 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subjects Adjuvants, Pharmaceutic - administration & dosage
Adjuvants, Pharmaceutic - chemical synthesis
Adjuvants, Pharmaceutic - pharmacology
Biochemistry, Molecular Biology
Biological Transport
Carrier Proteins - administration & dosage
Carrier Proteins - chemical synthesis
Carrier Proteins - pharmacology
Cell Division - drug effects
Cell Division - physiology
Cell Nucleus - chemistry
Cell Nucleus - drug effects
Cell Nucleus - physiology
Cell Survival - drug effects
Dose-Response Relationship, Drug
Doxorubicin - analogs & derivatives
Doxorubicin - metabolism
Doxorubicin - pharmacology
Drug Delivery Systems
Drug Resistance, Multiple - drug effects
Drug Resistance, Multiple - physiology
Gene Expression - genetics
Genes, MDR - genetics
Humans
Intracellular Fluid - chemistry
Intracellular Fluid - drug effects
Intracellular Fluid - physiology
K562 Cells
Life Sciences
Pyrroles - metabolism
Pyrroles - pharmacology
Tumor Cells, Cultured
Verapamil - pharmacology
title 2-Pyrrolinodoxorubicin and its peptide-vectorized form bypass multidrug resistance
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