A simulation analysis of backside-illuminated multi-collection-gate image sensor employing Monte Carlo method

K. Shimonomura, V. Dao, T. Etoh, Y. Kamakura
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引用次数: 2

Abstract

Ultra-high speed image sensors have been developed and applied to various field of science and engineering. Toward the temporal resolution of 1ns, we have proposed a new structure of an image sensor, a backside-illuminated multi-collection-gate image sensor (BSI MCG image sensor). In order to evaluate the performance, it is necessary to simulate the paths of photoelectrons from the generation site to a collecting gate. The performance depends on several factors, including randomness in motion of the electrons which is considerable in the design of the sensor operating at the sub-nanosecond time scale. It is impossible to address this factor by using a device simulation based on the drift diffusion model. A Monte Carlo method is an effective tool to evaluate the effect of the randomness. In this paper, factors affecting the temporal resolution of the sensor are studied by using the Monte Carlo simulator.
用蒙特卡罗方法对背照式多采集门图像传感器进行了仿真分析
超高速图像传感器已被开发并应用于各个科学和工程领域。为了达到1ns的时间分辨率,我们提出了一种新的图像传感器结构,即背照式多采集门图像传感器(BSI MCG图像传感器)。为了评价其性能,有必要模拟光电子从产生点到收集门的路径。性能取决于几个因素,包括电子运动的随机性,这在亚纳秒时间尺度下工作的传感器设计中是相当重要的。用基于漂移扩散模型的器件仿真来解决这个问题是不可能的。蒙特卡罗方法是评估随机性影响的有效工具。本文利用蒙特卡罗模拟器对影响传感器时间分辨率的因素进行了研究。
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