2009Current Cancer Drug TargetsRequires access

Targeting the Mevalonate Pathway for Improved Anticancer Therapy

Gerhard Fritz

Open publisher page 75 citations

Abstract

The mevalonate pathway is important for the generation of isoprene moieties thereby providing the basis for the biosynthesis of molecules required for maintaining membrane integrity, steroid production and cell respiration. Additionally, isoprene precursors are indispensable for the prenylation of regulatory proteins such as Ras and Ras-homologous (Rho) GTPases. These low molecular GTP-binding proteins play key roles in numerous signal transduction pathways stimulated upon activation of cell surface receptors by ligand binding. Thus, Ras/Rho proteins eventually regulate cell proliferation, tumor progression and cell death induced by anticancer therapeutics. Lipid modification of Ras/Rho proteins at their C-terminal CAAX-box is essential for their correct intracellular localization and function. Therefore, pharmacological inhibition of the isoprene metabolism is anticipated to impact the manifold biological functions attributed to Ras/Rho proteins. Here, the pros and cons of compounds that interfere with the mevalonate pathway for cancer treatment are summarized and discussed.

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What this paper is about

The mevalonate pathway is important for the generation of isoprene moieties thereby providing the basis for the biosynthesis of molecules required for maintaining membrane integrity, steroid production and cell respiration. Additionally, isoprene precursors are indispensable for the prenylation of regulatory proteins such as Ras and Ras-homologous (Rho) GTPases. These low molecular GTP-binding proteins play key roles in numerous signal transduction pathways stimulated upon activation of cell surface receptors by ligand binding. Thus, Ras/Rho proteins eventually regulate cell proliferation, tumor progression and cell death induced by anticancer therapeutics. Lipid modification of Ras/Rho proteins at their C-terminal CAAX-box is essential for their correct intracellular localization and function. Therefore, pharmacological inhibition of the isoprene metabolism is anticipated to impact the manifold biological functions attributed to Ras/Rho proteins. Here, the pros and cons of compounds that interfere with the mevalonate pathway for cancer treatment are summarized and discussed.

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Available abstract

The mevalonate pathway is important for the generation of isoprene moieties thereby providing the basis for the biosynthesis of molecules required for maintaining membrane integrity, steroid production and cell respiration. Additionally, isoprene precursors are indispensable for the prenylation of regulatory proteins such as Ras and Ras-homologous (Rho) GTPases. These low molecular GTP-binding proteins play key roles in numerous signal transduction pathways stimulated upon activation of cell surface receptors by ligand binding. Thus, Ras/Rho proteins eventually regulate cell proliferation, tumor progression and cell death induced by anticancer therapeutics. Lipid modification of Ras/Rho proteins at their C-terminal CAAX-box is essential for their correct intracellular localization and function. Therefore, pharmacological inhibition of the isoprene metabolism is anticipated to impact the manifold biological functions attributed to Ras/Rho proteins. Here, the pros and cons of compounds that interfere with the mevalonate pathway for cancer treatment are summarized and discussed.

Key concepts: Prenylation, Mevalonate pathway, Signal transduction, Mevalonic acid, Cell biology, GTPase, Biochemistry, GTP-binding protein regulators

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