Abstract
This study presents a CMOS receiver chip realized in 0.18 µm High-Voltage CMOS (HV-CMOS) technology and intended for high precision pulsed time-of-flight laser range finding utilizing high-energy sub-ns laser pulses. The IC chip includes a trans-impedance preamplifier, a post-amplifier and a timing comparator. Timing discrimination is based on leading edge detection and the trailing edge is also discriminated for measuring the width of the pulse. The transimpedance of the channel is 25 kΩ, the uncompensated walk error is 470 ps in the dynamic range of 1:21,000 and the input referred equivalent noise current 450 nA (rms).
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Ruotsalainen, T., Palojärvi, P., & Kostamovaara, J. (1997). A BiCMOS differential amplifier and timing discriminator for the receiver of a laser radar. Analog Integrated Circuits and Signal Processing, 13, 341–352.
Chen, Y., Meng, Z., Liu, J., & Jiang, H. (2011). High precision infrared pulse laser ranging for active vehicle anti-collision application. Electric Information and Control Engineering (ICEICE), 1404–1407.
Lee, M., & Baeg, S. H. (2012). Advanced compact 3D LIDAR using a high speed fiber coupled pulsed laser diode and a high accuracy timing discrimination readout circuit. Proceedings of SPIE Laser Radar Technology and Applicatons XVII, 879, 8379Z.
Cho, H.-S., Kim, C.-H., & Lee, S.-G. (2014). A high-sensitivity and low-walk error LADAR receiver for military application. IEEE Transactions on Circuits and Systems-I, 61(10), 3007–3015.
Vainshtein, S., Yuferev, V. S., & Kostamovaara, J. (2002). Properties of the transient of avalanche transistor switching at extreme current densities. IEEE Transactions on Electron Devices, 49(1), 142–149.
Lanz, B., Ryvking, B. S., Avrutin, E. A., & Kostamovaara, J. (2013). Performance improvement by a saturable absorber in gain-switched asymmetric-waveguide laser diodes. Optics Express, 21(24), 29780–29791.
Hallman, L. W., Ryvikin, B., Haring, K., Ranta, S., Leinonen, T., & Kostamovaara, J. (2010). Asymmetric waveguide laser diode operated in gain switching mode with high-power optical pulse generation. Electronics Letters, 46(1), 1–2.
Hallman, L. W., Huikari, J., & Kostamovaara, J. (2014). A high-speed/power laser transmitter for single photon imaging applications. IEEE Sensors, 1157–1160.
Ryvkin, B. S., Avrutin, E. A., & Kostamovaara, J. (2009). Asymmetric-waveguide laser diode for high-power optical pulse generation by gain switching. Journal of Lightwave Technology, 27(12), 2125–2131.
Lau, K. Y. (1988). Gain switching of semiconductor injection lasers. Applied Physics Letters, 52(4), 257–259.
Bimberg, D., Ketterer, K., Bottcher, E. H., & Scoll, E. (1986). Gain modulation of unbiased semiconductor lasers: Ultrashort pulse generation. International Journal of Electronics, 60(23), 23–45.
Volpe, F. P., Gorfinkel, V., Sola, J., & Kompa, G. 140 W/40 ps single optical pulses for sensor application. In Conference on Lasers and Electro-Optics, Anaheim, CA. 1994.
Vainshtein, S., & Kostamovaara, J. (1998). Spectral filtering for time isolation of intensive picosecond optical pulses from a Q-switched laser diode. Journal of Applied Physics, 84(4), 1843–1847.
Van de Plassche, R. J. (1988). An 8-bit 100-MHz Fully-Nyquist Analog-to-Digital Converter. IEEE Journal of Solid State Circuits, 23(6), 1334–1344.
Säckinger, E. (2005). Broadband Circuits for Optical Fiber Communication. NJ: Wiley.
Carcia del Pozo, J. M., Serdijn, W. A., Otin, A., & Celma, S. (2011). 2.5 Gb/s CMOS preamplifier for low-cost fiber-optics receivers. Analog Integrated Circuits and Signal Processing, 66, 363–370.
Han, S. M., Sun, G., Jiang, F., Yu, X.-P., & Wu, X. B. (2009). Area-efficient CMOS transimpedance amplifier for optical receivers. Analog Integrated Circuits and Signal Processing, 58, 67–70.
Zheng, H., Ma, R., & Zhu, Z. (2017). Design of linear dynamic range and high sensitivity matrix quadrant APDs ROIC for position sensitive detector application. Microelectronics Journal, 63, 49–57.
Ma, R., Liu, M., Zheng, H., & Zhu, Z. (2017). A 77-dB dynamic range low-power variable-gain transimpedance amplifier for linear LADAR. IEEE Transactions on Circuits and Systems II: Express Briefs. doi:10.1109/TCII.2017.2684822.
Abramowitz, M., & Stegyn, I.A. (1964). Handbook of mathematical functions with formula, graphs, and mathematical tables. New York: Dover Publications Inc.
McIntyre, B. J. (1970). Comparison of photomultipliers and avalanche photodiodes for laser applications. IEEE Transactions on Electron Devices, 17(4), 347–352.
Wang, J., & Kostamovaara, J. (1994). Radiometric analysis and simulation of signal power function in a short-range laser radar. Applied Optics, 33(18), 4069–4076.
Hintikka M., & Kostamovaara J. (2015). Time domain characterization of avalanche photo detectors for sub-ns optical pulses. In International Instrumentation and Measurement Technology Conference, pp. 2015–2019.
Cherry, E. M., & Hooper, D. E. (1968). The design of wideband transistor feedback amplifiers. Proceedings of the Institution of Electrical Engineers, 110, 375–398.
Galal, S., & Razavi, B. (2003). 10-Gb/s limiting amplifier and laser/modulator driver in 0.18 μm CMOS technology. IEEE Journal of Solid-State Circuits, 38(12), 2138–2146.
Huang, S.-H., Chen, W.-Z., Chang, Y.-W., & Huang, Y.-T. (2011). A 10-Gb/s OEIC with meshed spatially-modulated photo detector in 0.18-μm CMOS technology. IEEE Journal of Solid State Circuits, 46(5), 1158–1169.
Zheng, H., Ma, R., & Zhu, Z. (2017). A linear and wide dynamic range transimpedance amplifier with adaptive gain control technique. Analog Integrated Circuits and Signal Processing. doi:10.1007/s10470-016-0867-1.
Abidi, A. A. (1987). On the noise optimum of gigahertz FET transimpedance amplifiers. IEEE Journal of Solid State Circuits, 22(6), 1207–1209.
ZhiQun, L., LiLi, C., Wei, L., & Li, Z. (2012). A 12 × 10 Gb/s fully integrated CMOS parallel optical receiver frong-end amplifier array. Science China, 55(6), 1415–1428.
Jansson, J., Koskinen, V., Mäntyniemi, A., & Kostamovaara, J. (2012). A multi-channel high precision CMOS time-to-digital converter for laser scanner based perception systems. IEEE Transactions on Instrumentation and Measurement, 61(9), 2581–2590.
Kurtti, S., & Kostamovaara, J. (2009). Pulse width time walk compensation method for pulsed time-of-fligh laser rangefinder. In Interantional Instrumentation and Measurement Technology Conference, Singapore, May 2009.
Nissinen, J., & Kostamovaara, J. (2007). An integrated laser radar receiver channel with wide dynamic range. Electronics, Circuits and Systems In: 14th IEEE international Conference, pp. 10–13.
Kurtti, S., Nissinen, J., & Kostamovaara, J. (2017). A wide dynamic range CMOS laser radar receiver with a time-domain walk error compensation scheme. IEEE Transactions on Circuits and Systems I, 64(3), 550–561.
Ngo, T.-H., Kim, C.-H., Kwon, Y. J., Ko, J. S., Kim, D.-B., & Park, H.-H. (2013). Wideband receiver for a three-dimensional ranging LADAR system. IEEE Transactions on Circuits and Systems I, 60(2), 448–456.
Nissinen, J., Nissinen, I., & Kostamovaara, J. (2009). Integrated receiver including both receiver channel and TDC for a pulsed-time-of-flight laser range finder with cm-level accuracy. IEEE Journal of Solid-State Circuits I, 44(5), 1486–1497.
Cho, H.-S., Kim, C.-H., & Lee, S.-G. (2014). A high-sensitivity and low walk error LADAR receiver for military application. IEEE Transactions on Circuits and Systems I, 61(10), 3007–3015.
Xiao, J., Lopez, M., Hu, X., Xiao, J., & Yan, F. (2016). A continuous wavelet transform-based modulus maxima approach for the walk error compensation of pulsed time-of-flight laser rangefinders. International Journal for Light and Electron Optics, 127(4), 1980–1987.
Acknowledgements
The authors acknowledge financial support from the Academy of Finland (Centre of Excellence in Laser Scanning Research, Contract Nos. 272196, 255359, 263705 and 251571) and the Infotech Oulu Graduate School.
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Hintikka, M., Kostamovaara, J. A 700 MHz laser radar receiver realized in 0.18 μm HV-CMOS. Analog Integr Circ Sig Process 93, 245–256 (2017). https://doi.org/10.1007/s10470-017-1041-0
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DOI: https://doi.org/10.1007/s10470-017-1041-0