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Critical state of energy-efficient firing patterns with different bursting kinetics in temperature-sensitive Chay neuron
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DOI：10.1007/s11071-023-08700-7.png)
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Abstract
En 中文
The biological system survives in an appropriate temperature range, and neuronal firing patterns carrying different information will consume energy during the transformation. However, how the different firing kinetics of temperature-sensitive neuron determine energy efficiency is not clear. Therefore, the effect of temperature on energy-efficient firing patterns was investigated. It was found that neural electrical activities exhibit successive complex firing patterns, and the transition between different firing patterns corresponds to the critical state with the highest energy efficiency. Furthermore, under the appropriate system parameters, energy efficiency has several peaks. This optimum energy efficiency corresponds to critical state for the transition from firing state to bursting state, and several extreme values correspond to the transitions between different bursting states. Energy efficiency of transition from firing state to bursting state is higher than energy efficiency of transition between different bursting states. These results give new light on energy efficiency of temperature in the neuronal system.
Keywords:
Critical state
Energy efficiency
Bursting kinetics
Temperature
Electromagnetic induction
Journal
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6
Papers:
1.4W
Citations:
4.1W
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