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BPM31510 Increases the CoQ Pool in Chemically Induced CoQ-Deficient Cells, CoQ-Deficient Patient Fibroblasts, and in Metabolically Active Murine Tissues. [PDF]
Aristizabal-Henao JJ +18 more
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Advances in cardiovascular supplementation: mechanisms, efficacy, and clinical perspectives. [PDF]
Wu X, Fang T.
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Cellular factories for coenzyme Q(10) production
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Coenzyme Q 4 is a functional substitute for coenzyme Q 10 and can be targeted to the mitochondria
2023ABSTRACT Coenzyme Q 10 (CoQ 10 ) is an important cofactor and antioxidant for numerous cellular processes, and its deficiency has been linked to human disorders including mitochondrial disease, heart failure, Parkinson’s disease, and hypertension.
Laura H. Steenberge +3 more
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Coenzyme Q. XXIV. On the significance of coenzyme Q 10 in human tissues
Archives of Biochemistry and Biophysics, 1961Abstract Several organs and tissues of three humans have been examined for coenzyme Q content. The liver, heart, spleen, kidney, pancreas, and adrenals contain relatively high concentrations of coenzyme Q 10, indicating that studies of the functional relationship of coenzyme Q to diseases involving any of these organs might be important.
P H, GALE +4 more
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European Journal of Organic Chemistry, 2012
AbstractA practical synthesis of coenzyme Q10 has been developed. The route features an improved Friedel–Crafts allylation of tetramethoxytoluene with a para‐chlorobenzenesulfonyl‐substituted C5 allylic chloride at 40 °C. Replacement of the methyl ether protecting groups of the para‐hydroquinone by methoxymethyl groups at Q1 stage proceeded efficiently,
Eun‐Taek Oh +8 more
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AbstractA practical synthesis of coenzyme Q10 has been developed. The route features an improved Friedel–Crafts allylation of tetramethoxytoluene with a para‐chlorobenzenesulfonyl‐substituted C5 allylic chloride at 40 °C. Replacement of the methyl ether protecting groups of the para‐hydroquinone by methoxymethyl groups at Q1 stage proceeded efficiently,
Eun‐Taek Oh +8 more
openaire +1 more source

