Histone lysine-to-methionine mutations reduce histone methylation and cause developmental pleiotropy

Keyphrases

• Animal Kingdom 50%
• Arabidopsis 50%
• Arabidopsis Thaliana 50%
• Biological Processes 50%
• Developmental Perturbations 50%
• Developmental Processes 100%
• Dominant Negative 100%
• Dosage-dependent 50%
• Early Flowering 50%
• Epigenetic Landscape 50%
• Epigenetic Modification 50%
• Gene Expression 50%
• Global Reduction 50%
• H3K36 Methylation 50%
• Histone 100%
• Histone Demethylase 100%
• Histone H3 50%
• Histone Lysine 100%
• Histone Methylation 100%
• Hypomethylation 50%
• Inhibitory Role 50%
• K36M 100%
• Metabolic Processes 50%
• Methionine 100%
• Mutation Impact 50%
• Organism Development 50%
• Pathological Role 50%
• Physiological Outcomes 50%
• Plant Kingdom 50%
• Pleiotropic Phenotype 50%
• Pleiotropy 100%
• Tumor Cells 50%
• Tumorigenesis 50%
• Uncharacterized 50%

Biochemistry, Genetics and Molecular Biology

• Arabidopsis 33%
• Arabidopsis thaliana 33%
• Biological Phenomena and Functions Concerning the Entire Organism 33%
• Carcinogenesis 33%
• Epigenetic Modification 33%
• Histone 100%
• Histone H3 33%
• Histone Methylation 100%
• Histone Methyltransferase 66%
• Lysine 100%
• Methionine 100%
• Methylation 33%
• Pleiotropy 100%
• Transgene 33%

Immunology and Microbiology

• Arabidopsis 16%
• Arabidopsis thaliana 16%
• Biological Phenomena and Functions Concerning the Entire Organism 16%
• Epigenetic Modification 16%
• Histone 100%
• Histone Methylation 100%
• Lysine 100%
• Methionine 100%
• Methylation 16%
• Pleiotropy 100%
• Transgene 16%
• Tumor Cell 16%