Cancer cells need excess energy and essential nutrients/metabolites not only to divide and proliferate but also to migrate and invade distant organs for metastasis. Fatty acid and cholesterol synthesis, considered a hallmark of cancer for anabolism and membrane biogenesis, requires citrate. We review here potential pathways in which citrate is synthesized and/or supplied to cancer cells and the impact of extracellular citrate on cancer cell metabolism and growth. Cancer cells employ different mechanisms to support mitochondrial activity and citrate synthesis when some of the necessary substrates are missing in the extracellular space. We also discuss the different transport mechanisms available for the entry of extracellular citrate into ca...
Brain tissue is known to have elevated citrate levels necessary to regulate ion chelation, neuron ex...
International audienceProliferating cells reduce their oxidative metabolism and rely more on glycoly...
The first intermediate in the mitochondrial tricarboxylic acid (TCA) cycle is citrate, which is ess...
Cancer cells need excess energy and essential nutrients/metabolites not only to divide and prolifera...
Cancer cells need excess energy and essential nutrients/metabolites not only to divide and prolifera...
It is well established that cancer cells acquire energy via the Warburg effect and oxidative phospho...
Glycolysis and fatty acid synthesis are highly active in cancer cells through cytosolic citrate meta...
Citrate is important for lipid synthesis and epigenetic regulation in addition to ATP production. We...
Citrate plays a central role in cancer cells’ metabolism and regulation. Derived from mitochondrial ...
Citrate, the first product of the Krebs cycle, is an essential intermediate located at the crossroa...
Citrate is an intermediate in the Krebs cycle and an acetyl donor. Due to its ability to inhibit gl...
Citrate is the first intermediate of the tricarboxylic cycle in the mitochondria and is also a key m...
Brain tissue is known to have elevated citrate levels necessary to regulate ion chelation, neuron ex...
International audienceProliferating cells reduce their oxidative metabolism and rely more on glycoly...
The first intermediate in the mitochondrial tricarboxylic acid (TCA) cycle is citrate, which is ess...
Cancer cells need excess energy and essential nutrients/metabolites not only to divide and prolifera...
Cancer cells need excess energy and essential nutrients/metabolites not only to divide and prolifera...
It is well established that cancer cells acquire energy via the Warburg effect and oxidative phospho...
Glycolysis and fatty acid synthesis are highly active in cancer cells through cytosolic citrate meta...
Citrate is important for lipid synthesis and epigenetic regulation in addition to ATP production. We...
Citrate plays a central role in cancer cells’ metabolism and regulation. Derived from mitochondrial ...
Citrate, the first product of the Krebs cycle, is an essential intermediate located at the crossroa...
Citrate is an intermediate in the Krebs cycle and an acetyl donor. Due to its ability to inhibit gl...
Citrate is the first intermediate of the tricarboxylic cycle in the mitochondria and is also a key m...
Brain tissue is known to have elevated citrate levels necessary to regulate ion chelation, neuron ex...
International audienceProliferating cells reduce their oxidative metabolism and rely more on glycoly...
The first intermediate in the mitochondrial tricarboxylic acid (TCA) cycle is citrate, which is ess...