In the brain, what matters is not only whether a signal reaches a nerve cell, but also how long its chemical gate remains open. A team led by Dr. Mehdi Borjkhani from the International Centre for Translational Eye Research (ICTER) has demonstrated in a computational model that both excessively fast and excessively slow NMDA-receptor deactivation can disrupt neuronal activity. Importantly, these extremes in cessation rates lead to instability through two distinct mechanisms.
A neuron's molecular clock: NMDA timing shapes the flow of information
A research team led by Dr. Mehdi Borjkhani has shown that the timing of NMDA-receptor deactivation is crucial for neuronal activity, with both fast and slow rates causing instability. This study highlights important mechanisms in brain function that could have implications for neurological health.
👥 Key Players
📰 What Happened
A research team led by Dr. Mehdi Borjkhani demonstrated that the timing of NMDA-receptor deactivation is critical for maintaining stable neuronal activity, with both fast and slow rates causing disruptions.
- The study utilized a computational model to analyze NMDA-receptor behavior.
- Instability in neuronal activity can arise from extremes in receptor deactivation rates.
💡 Why It Matters
📚 Background
NMDA receptors are essential for synaptic plasticity and memory function in the brain, making their study vital for understanding various neurological conditions.
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