Nitrogen sensing and regulatory networks: it's about time and space

Keyphrases

• Across Species 50%
• Arabidopsis 50%
• Artificial Intelligence Techniques 50%
• Comprehensive System 50%
• Detrimental Effects 50%
• Fertilizer Use Efficiency 50%
• Gene Regulatory Network 100%
• Greenhouse Gas Emissions 50%
• Groundwater Pollution 50%
• Hit-and-run 50%
• Inference Analysis 50%
• Intelligence Learning 50%
• Long Distance 50%
• Machine Learning 50%
• Michaelis-Menten Kinetics 50%
• N Dose 50%
• Nitrate 50%
• Nitrate Sensor 50%
• Nitrogen N 50%
• Nitrogen Response 50%
• Nitrogen Sensing 100%
• Nitrogen Signaling 50%
• Nitrogen Use Efficiency 50%
• NLP7 50%
• Nuclear Retention 50%
• Plant Response 50%
• Pollutant Gases 50%
• Prospective Review 50%
• Pseudotime Analysis 50%
• Root-shoot Communication 50%
• Running Mode 50%
• Sensing Mechanism 50%
• Sensing Network 100%
• Signaling Mechanism 50%
• Signaling Network 50%
• Single-cell Sequencing Data 50%
• Spatial Aspect 50%
• Spatial Dimension 50%
• Spatial Dynamics 50%
• Spatial System 50%
• Systems Biology 50%
• Systems Biology Approach 50%
• Target Gene Regulation 50%
• Temporal Aspects 50%
• Temporal Dimension 50%
• Temporal Systems 50%
• Trajectory Inference 50%
• Transcription Factor 50%
• Transcriptional Cascade 50%
• Transcriptional Response 50%
• Translational Studies 50%
• Type-specific 50%
• Unveiling 50%

Biochemistry, Genetics and Molecular Biology

• Arabidopsis 50%
• Artificial Intelligence 50%
• Crop 100%
• Dynamics 50%
• Gene Control 50%
• Michaelis-Menten Kinetics 50%
• Plant Response 50%
• Regulatory Network 100%
• Signaling Mechanism 50%
• Transcription Factors 50%