Microbiota-Derived Metabolite Trimethylamine N-Oxide Protects Mitochondrial Energy Metabolism and Cardiac Functionality in a Rat Model of Right Ventricle Heart Failure

Biochemistry, Genetics and Molecular Biology

• Metabolite 100%
• Trimethylamine N-Oxide 100%
• Rat Model 100%
• Microflora 100%
• Energy Metabolism 100%
• Experimental Model 16%
• Beta Oxidation 11%
• Heart Right Ventricle Function 11%
• Metabolic Pathway 5%
• Gene Expression 5%
• Protein Expression 5%
• Intestine Flora 5%
• Trimethylglycine 5%
• Body Weight 5%
• Brain Natriuretic Peptide 5%
• Choline 5%

Medicine and Dentistry

• Heart Right Ventricle Failure 100%
• Energy Metabolism 100%
• Trimethylamine 100%
• Metabolite 100%
• Monocrotaline 38%
• Fatty Acid Oxidation 11%
• Congestive Heart Failure 11%
• Biological Marker 5%
• Disease 5%
• Gene Expression 5%
• Cardiovascular Disease 5%
• Heart Right Ventricle Function 5%
• Brain Natriuretic Peptide 5%
• Protein Expression 5%
• Cardiovascular System 5%
• Pyruvic Acid 5%
• Right Ventricle 5%
• Echocardiography 5%
• Primary Prevention 5%
• Subcutaneous Injection 5%
• Mediterranean Diet 5%
• Right Ventricular Function 5%
• Gut Microbiota 5%
• Body Weight 5%
• Choline 5%
• Carnitine 5%

Pharmacology, Toxicology and Pharmaceutical Science

• Microflora 100%
• Rat Model 100%
• Heart Right Ventricle Failure 100%
• Trimethylamine 100%
• Monocrotaline 38%
• Fatty Acid 11%
• Congestive Heart Failure 11%
• Intestine Flora 5%
• Trimethylglycine 5%
• Biological Marker 5%
• Disease 5%
• Subcutaneous Injection 5%
• Brain Natriuretic Peptide 5%
• Pyruvic Acid 5%
• Choline 5%
• Carnitine 5%
• Cardiovascular Disease 5%