Keywords
Different environments
Performance testing
Submitted : 2024-11-03
Accepted : 2024-11-18
Published : 2024-12-03
Abstract
Automotive-grade Complementary Metal-Oxide-Semiconductor (CMOS) sensors play a crucial role in automotive electronic systems, especially in the context of the rapid development of Advanced Driver Assistance Systems (ADAS) and autonomous driving technologies. Their performance is directly related to the safety and reliability of vehicles. However, automobiles will face a variety of complex environmental conditions during the actual operation, such as high temperature, low temperature, vibration, humidity changes, and light changes, which may have an impact on the performance of CMOS sensors. Therefore, it is of great significance to study the performance of automotive-grade CMOS sensors in different environments.
References
Tian X, Ma Y, Teng H, 2024, Development of Hybrid Neutron Photographic Electronics System Based on CMOS Image Sensor. Nuclear Electronics and Detection Technology, 44(02): 284–291.
Xu Y, Wang Y, Zheng C, et al., 2024, Experimental Study on Backlit CMOS Image Sensor Irradiated by Continuous Laser. Chinese Journal of Applied Optics, 45(05): 1072–1078.
Ma M, Xie H, Xu S, 2024, Design of Transmission Line Tower Tilt Monitoring System Based on Laser Sensor. Sensors and Microsystems, 43(09): 71–75.
Li M, Liu G, Fu J, et al., 2024, Design of High Dynamic Anti-Irradiation CMOS Image Sensor Compatible with Global/Rolling Exposure. Semiconductor Optoelectronics, 45(04): 568–574.
Xu R, Guo Z, Liu S, et al., 2024, Global Slope Consistency Correction Method for CMOS Image Sensor with Large Array. Journal of Electronics and Information Technology, 46(07): 2952–2960.
Li M, Huang F, Liu G, et al., 2024, High-Speed Digital 3D Integrated CCD-CMOS Image Sensor. Semiconductor Optoelectronics, 45(03): 388–394.
Li Y, Wen L, Guo Q, 2024, Study on Single Particle Transient Effects of Proton Irradiation on CMOS Image Sensor with Different Energy. Modern Applied Physics, 15(03): 114–121.
Tang Z, Wang J, Niu N, et al., 2024, Rapid Measurement of Modulation Transfer Function for Low-Light CMOS Sensors. Laser and OptoElectronics Progress, 61(12): 297–303.
Howe Group Co., Ltd, 2024, OV01D1R Intelligent CMOS Image Sensor. Sensor World, 30(06): 49.
Liu W, 2024, Intelligent Recognition Method of CMOS Image Sensing Information for Railway Car Number. Machine Building & Automation, 53(03): 275–279.
Han X, Cai G, 2024, Measurement of Spring Elastic Coefficient by CMOS Image Sensor of Mobile Phone. University Physics, 43(06): 58–62.
Qiao J, Wei J, 2024, Design of a Novel High Dynamic Range CMOS Image Sensor. Journal of Integrated Circuit Applications, 41(06): 14–15.
Liao X, Mao PD, 2024, Research on the Optimization of Picking Robot Operation Based on CMOS Sensor. Agricultural Mechanization Research, 46(11): 140–143.
X-FAB Semiconductor Manufacturer in Germany, 2024, The XS 018 Sensor Process Platform Opens the BSI Functionality. Sensor World, 30(4): 42–43. https://doi.org/10.3969/j.issn.1006-883X.2024.04.021
Zhang W, Cheng Z, 2024, Research Progress of Clamp Photodiode Shape Design In High Speed Large Pixel CMOS Image Sensor. Semiconductor Technology, 49(06): 514–523.
Tang N, Wang Z, Yan S, et al., 2024, Experiment and Analysis of Damage Effect of Proton Irradiation on Transmission Gate of CMOS Image Sensor. Acta Optica Sinica, 44(09): 275–281.
Wang W, 2024, Analysis of Influence of Front Segment Structure on Performance of Fully Isolated CMOS Image Sensor. Applications of Integrated Circuits, 41(05): 10–12.
Wang W, 2024, Effect of High K Materials on Performance of CMOS Image Sensor. Journal of Integrated Circuit Applications, 41(05): 55–57.
Niu Z, Chen Z, Hu Z, et al., 2024, A 12-Bit Row-Level All-Differential SAR/SS ADC Design for the High Frame Rate CMOS Image Sensor. SCM and Embedded System Applications, 2024 (4).
Crouch AL, 2006, Test Design of Digital Integrated Circuit and Embedded Kernel System. Prentice Hall, United States.