Electro-Thermal Simulation of Graphene Nanoribbons Including Self-Heating Effects

P. Pu, M. Tang, Junfa Mao
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Abstract

An effective method for the electro-thermal simulation of graphene nanoribbons (GNRs) is presented based on the Boltzmann-Poisson formalism coupled with heat conduction equation (HCE). Firstly, the Boltzmann transport equation (BTE) is solved under the relaxation time approximation (RTA). The power density is then used as the Joule-heating source in HCE to calculate the temperature profile along the GNR. After that, the temperature result is sent back to the BTE for updating the distribution function. This process is iterated until self-consistency is achieved. Using this method, the current-voltage (1-V) characteristic of GNRs is simulated. Self-heating of GNR is examined and is found to be non-negligible under high bias condition.
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含自热效应的石墨烯纳米带电热模拟
提出了一种基于玻尔兹曼-泊松形式耦合热传导方程的石墨烯纳米带(GNRs)电热模拟方法。首先,在松弛时间近似下求解玻尔兹曼输运方程(BTE)。然后将功率密度作为焦耳加热源,在HCE中计算沿GNR的温度分布。之后,将温度结果发回BTE更新分布函数。这个过程反复进行,直到达到自一致性。利用该方法对gnr的电流-电压(1-V)特性进行了仿真。研究了GNR的自热,发现在高偏置条件下,GNR的自热是不可忽略的。
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