用于模拟掺杂密度影响的量子级联激光器电路模型

Chang Qi, Xinzhi Shi, Ye Shuangli, Jinguang Jiang
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引用次数: 1

摘要

本文提出了一种新的等效电路级模型,克服了以往等效电路级模型的不足。在模型中,光子增益系数和注入电流效率都取决于注入剂掺杂密度。一个修正的三能级速率方程,允许一个紧凑和计算效率的实现。通过对散射速率和能量平衡方程的完全非平衡自一致Schrödinger-Poisson分析,得到了电子在相应能级之间的散射时间、弛豫时间和逃逸时间。采用通用二极管子电路对电流-电压关系进行建模。这种新的电路级模型可以很容易地集成到标准电路仿真环境中,例如SPICE,这使得电子集成电路设计人员能够同时评估QCL和电子设备的性能。
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Circuit model of quantum cascade lasers for simulation of influence of doping density
In this paper, a new equivalent circuit-level model of QCLs is introduced to overcome drawbacks of the previous models. The photon gain coefficient and injection current efficiency both depend on the injector doping density in the model. A revised three-level rate equations that permit a compact and computationally efficient implementation. The electron scattering time, relaxation time and escape time between the corresponding levels are obtained by employing a fully non-equilibrium self-consistent Schrödinger-Poisson analysis of the scattering rate and energy balance equations. A general diode sub-circuit is adopted to model the current-voltage relationship. This new circuit-level model can be readily incorporated into a standard circuit simulation environment such as SPICE, which enables electronic integrated circuit designers to simultaneously evaluate the performance of both QCL and electronic devices.
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