Dicarboxylic Acids Link Proton Transfer Across a Liquid Membrane to the Synthesis of Acyl Phosphates. A Model for P-Type H⁺-ATPases

Keyphrases

• Proton Transfer 100%
• Phosphate 100%
• P-type 100%
• H+-ATPase 100%
• Dicarboxylic Acids 100%
• Liquid Membrane 100%
• Acyl Phosphates 100%
• Proton 83%
• Hydrolysis 66%
• Anhydride 50%
• Succinic Anhydride 50%
• Percentage Yield 50%
• ATP Hydrolysis 33%
• Chloroform 33%
• Citraconic Anhydride 33%
• Carboxylic Anhydride 33%
• Cell Membrane 16%
• Methyl 16%
• Donor Potential 16%
• Fluoride 16%
• Dichloromethane 16%
• Reverse Direction 16%
• ATP Synthesis 16%
• Spontaneous Formation 16%
• PH Gradient 16%
• Phosphoramidate 16%
• CIS2 16%
• Phosphoryl 16%
• Chemical Model 16%
• Ion Pump 16%
• Phosphate Acid 16%
• Morpholine 16%
• Proton Gradient 16%
• Molecular-level Mechanisms 16%
• Citraconic Acid 16%
• Fluorophosphonate 16%

Chemistry

• Proton Transfer 100%
• Dicarboxylic Acid 100%
• Enzymatic Hydrolysis 100%
• Anhydride 83%
• Succinic Anhydride 50%
• formation 50%
• ATP 33%
• Acid Anhydride 33%
• Chloroform 33%
• Carboxylic Acid 33%
• Donor 16%
• Phosphoryl 16%
• Phosphoramidate 16%
• Butenedioic Acid 16%
• Citraconic Acid 16%
• Morpholine 16%
• Dichloromethane 16%

Pharmacology, Toxicology and Pharmaceutical Science

• Acid Anhydride 100%
• Dicarboxylic Acid 100%
• Succinic Anhydride 60%
• Carboxylate 40%
• Chloroform 40%
• Citraconic Anhydride 40%
• Adenosine Triphosphate 40%
• Dichloromethane 20%
• Citraconic Acid 20%
• Fluorophosphonic Acid Derivative 20%
• Morpholine 20%