Glucose sensitivity of mouse olfactory bulb neurons is conveyed by a voltage-gated potassium channel

Keyphrases

• Olfactory Bulb 100%
• Mouse Olfactory Bulb 100%
• Glucose Sensitivity 100%
• Voltage-gated Potassium Channel 100%
• Mitral Cells 66%
• Glucose Concentration 66%
• Kv1.3 66%
• Gene Targeting 33%
• Latency 33%
• Weight Gain 33%
• Metabolism 33%
• Brain Regions 33%
• Phosphorylation 33%
• Synaptic Activity 33%
• Excitability 33%
• Electrophysiology 33%
• Targeted Deletion 33%
• Energy Availability 33%
• Outward Current 33%
• HEK293 Cells 33%
• Response Profiles 33%
• Current Clamp 33%
• Cellular Excitability 33%
• Diet-induced Obesity 33%
• Action Potential 33%
• Patch-clamp Recording 33%
• Mitral 33%
• Rising Incidence 33%
• Metabolic Sensor 33%
• L-glucose 33%
• Metabolically Active 33%
• Signaling Circuits 33%
• Metabolic Disorders 33%
• Elevated Glucose 33%
• Neuronal Excitability 33%
• Olfactory Processing 33%
• Kv1.3 Channel 33%
• Olfactory Coding 33%
• Firing Frequency 33%
• Metabolic Signaling 33%
• Sensory Perception of Food 33%
• Action Potential Shape 33%
• Extracellular Glucose Concentration 33%
• Gain Change 33%
• Glucose Modulation 33%
• GABA Signaling 33%
• Kv1.3 Potassium Channel 33%
• Olfactory Information 33%
• Bell-shaped Curve 33%
• Voltage-clamp Electrophysiology 33%
• Glutamate Signaling 33%
• Spike Firing 33%

Neuroscience

• Olfactory Bulb 100%
• Voltage-Gated Potassium Channel 100%
• Electrophysiology 50%
• Action Potential 50%
• Potassium Channel Kv1.3 50%
• Glutamic Acid 25%
• Voltage Clamp 25%
• Metabolic Pathway 25%
• Excitability 25%
• Neuronal Excitability 25%
• Gamma-Aminobutyric Acid 25%
• Metabolic Disorder 25%
• HEK 293 Cells 25%
• Cell Excitability 25%