A Ratiometric Sensor Based on Plant N-Terminal Degrons Able to Report Oxygen Dynamics in Saccharomyces cerevisiae

Keyphrases

• Saccharomyces Cerevisiae 100%
• Luciferase 100%
• Oxygen Dynamics 100%
• Sensor-based 100%
• Degrons 100%
• Ratiometric Sensor 100%
• Plant Cysteine Oxidase 80%
• Oxidase Enzymes 40%
• Cell-based 20%
• Luminescent Dyes 20%
• Nitric Oxide 20%
• Proteolysis 20%
• Arabidopsis Seedlings 20%
• Biological Response 20%
• Oxygen Dependence 20%
• Fluorescent Protein 20%
• Degradability 20%
• Living Cells 20%
• Oxygen Level 20%
• Distinct Mechanism 20%
• Oxygen Sensing 20%
• Individual Performance 20%
• Aerobic Metabolism 20%
• Degron 20%
• Yeast Culture 20%
• ERFVII 20%
• Anaerobic Metabolism 20%
• Sensing Device 20%
• Oxygen Fluctuation 20%
• N-terminal Cysteine 20%
• Energy Strategy 20%
• Ratiometric 20%
• Cysteine Oxidation 20%
• Bioluminescent Proteins 20%
• Co-translation 20%
• Dispensability 20%
• Essential Submodule 20%

Biochemistry, Genetics and Molecular Biology

• Cysteine 100%
• N-Terminus 100%
• Dynamics 100%
• Saccharomyces cerevisiae 100%
• Luciferase 100%
• Oxidase 80%
• Oxidoreductase 80%
• Enzyme 40%
• Isoform 20%
• Protein Catabolism 20%
• Alpha Oxidation 20%
• Taxon 20%
• Fungal Cell Culture 20%
• Arabidopsis 20%
• Nitric Oxide 20%
• Oxygen Sensing 20%
• Aerobic Metabolism 20%
• Anaerobic Metabolism 20%
• Factor VII 20%
• Photoprotein 20%

Immunology and Microbiology

• Dynamics 100%
• Amino Terminal Sequence 100%
• Saccharomyces cerevisiae 100%
• Arabidopsis 33%
• Protein Degradation 33%
• Taxon 33%
• Eukaryotic Cell 33%
• Anaerobic Metabolism 33%
• Aerobic Metabolism 33%
• Fungal Cell Culture 33%
• Oxygen Sensing 33%