Integrating multi-omics data reveals energy and stress signaling activated by abscisic acid in Arabidopsis

Keyphrases

• Omics Data 100%
• Arabidopsis 100%
• Abscisic Acid Receptor 100%
• Abscisic Acid 100%
• Energy Signal 100%
• Stress Signaling 100%
• Metabolic Profiling 66%
• Co-receptor 66%
• SnRK2 66%
• Genetic Studies 33%
• Metabolism 33%
• Stress Response 33%
• Protein Level 33%
• Amino Acids 33%
• Signaling Pathway 33%
• Signaling Molecules 33%
• Growth Development 33%
• Energy Management 33%
• Arabidopsis Thaliana 33%
• Organic Acids 33%
• Environmental Stimuli 33%
• Non-fermented 33%
• Molecular Study 33%
• Overexpression 33%
• Molecular Network 33%
• Abscisic Acid Signaling 33%
• Phytohormones 33%
• Signal Transduction 33%
• Phosphoproteomics 33%
• Growth Response 33%
• Protein Kinase 33%
• Protein Phosphatase 33%
• Central Regulator 33%
• Endogenous Stimuli 33%
• Proteomic Profile 33%
• Phytohormone Signaling 33%
• Growth Stress 33%
• Sugar Metabolism 33%
• Hormone Perception 33%
• Pyrabactin 33%
• Water-saving Mechanism 33%
• Regulatory Component 33%
• Snf1 Kinase 33%

Biochemistry, Genetics and Molecular Biology

• Arabidopsis 100%
• Tamsulosin 100%
• Abscisic Acid 100%
• Signal Transduction 60%
• Metabolic Pathway 40%
• Metabolite 40%
• Protein Kinases 40%
• Genetics 20%
• Amino Acids 20%
• Molecular Network 20%
• Phosphoproteomics 20%
• Sucrose 20%
• Enzyme 20%
• Arabidopsis thaliana 20%
• Proteomics 20%
• Growth, Development and Aging 20%
• Phosphoprotein Phosphatase 20%
• Cladistics 20%