电流模式传感器阵列读出集成电路及图像系统的设计与实现

T. Sun, Jia-Hao Li, H. Shieh, L. Kang, Yi-Chuan Lu, Teng-Yi Wang
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引用次数: 1

摘要

考虑到双频传感器系统是目前最流行的设计,本研究讨论了一种双频混合阵列读出电路的设计。单位像素采用直接注入电路结构。在40um×40um单位像素上进行设计、仿真和布局,完成中长波段信号读出,实现一个传感器单元两种传感器模式。读出电路芯片采用台积电0.35um 2P4M CMOS 5V设计16×12阵列读出电路,输入电流范围为实测电流1.9pA ~ 50 nA,积分时间可调,最大帧率110Hz,芯片信号输出摆幅2V,芯片最大工作频率3MHz,功耗18mW,系统噪声电压Vrms 0.68mV,信噪比69dB。最后,利用所测芯片连接检测系统代理板和数字信号板,并通过前端滤波器和模数转换器对视频进行数字信号处理,以完成信号转换和数字信号处理。通过信号板提供的数字控制信号和信号采集,对后端数字信号进行处理并在屏幕上成像。读出电路芯片连接信号代理板进行测试。系统整体分辨率达到10位。
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Design and implementation of array readout integrated circuit and image system for current mode sensors
Considered that the dual band sensor system is the most popular design at present, this study discussed the design of a dual-band hybrid array readout circuit. The direct injection circuit structure was used in the unit pixel. The design, simulation, and layout were conducted in the 40um×40um unit pixel to complete middle and long waveband signal readouts, in order to achieve one sensor unit with two sensor modes. The readout circuit chip adopted TSMC 0.35um 2P4M CMOS 5V to design a 16×12 array readout circuit, with an input current range of the measured current at 1.9pA to 50 nA, an adjustable integration time, a maximum frame rate of 110Hz, the output swing of the chip signal of 2V, the maximum operating chip frequency of 3MHz, power dissipation of 18mW, system noise voltage Vrms of 0.68mV, and signal-noise ratio of 69dB. Finally, the tested chip was used to connect the detection system proxy board and digital signal board, and digital signal processing video through front-end filters and analog to digital converter, in order to complete signal conversion and digital signal processing. With the digital control signal provided by the signal board and signal capture, the back-end digital signal was processed and imaged on the screen. The readout circuit chip connected the signal proxy board for testing. The overall system resolution reached 10 bit.
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