% Pro sazbu seznamu literatury použijte jednu z následujících možností

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%1) Seznam citací definovaný přímo pomocí prostředí literatura / thebibliography

\begin{thebibliography}{99}

\bibitem{waymo}
JEYACHANDRAN, Satish. \emph{Introducing the 5th-generation Waymo Driver: Informed by experience, designed for scale, engineered to tackle more environments }\/ [online]. 2020 [cited 20-9-2020]. Available at: \(<\)\url{https://blog.waymo.com/2020/03/introducing-5th-generation-waymo-driver.html}\(>\)
    
\bibitem{coincidence_and2}
NICLASS, Cristiano, Mineki SOGA, Hiroyuki MATSUBARA et al. A \SI{0.18}{\micro\meter} CMOS SoC for a 100-m-Range 10-Frame/s 200$\times$96-Pixel Time-of-Flight Depth Sensor. \emph{IEEE Journal of Solid-State Circuits} [online]. IEEE, 2014, 49(1), 315-330 [cit. 2020-09-29]. ISSN 0018-9200. DOI:10.1109/JSSC.2013.2284352

\bibitem{overview}
ROYO, Santiago and Maria BALLESTA-GARCIA. An Overview of Lidar Imaging Systems for Autonomous Vehicles. \emph{Applied sciences} [online]. MDPI, 2019, 9(19), 4093 [cit. 2020-09-30]. DOI:10.3390/app9194093

\bibitem{mems_example}
ITO, Kota, Cristiano NICLASS, Isao AOYAGI et al. System Design and Performance Characterization of a MEMS-Based Laser Scanning Time-of-Flight Sensor Based on a 256$\times$64-pixel Single-Photon Imager. IEEE Photonics Journal [online]. IEEE, 2013, 5(2), 6800114-6800114 [cit. 2020-10-02]. Dostupné z: doi:10.1109/JPHOT.2013.2247586

\bibitem{innoviz_mems}
Innoviz Technologies. [online datasheet]. \emph{Innoviz Pro}. Innoviz Technologies: © 2020 [cit. 2020-10-3]. Available at: \(<\)\url{https://innoviz.tech/innovizpro}\(>\)

\bibitem{mems_overview}
YOO, Han, Norbert DRUML, David BRUNNER et al. MEMS-based lidar for autonomous driving. \emph{Elektrotechnik und Informationstechnik} [online]. Vienna: Springer Vienna, 2018, 135(6), 408-415 [cit. 2020-10-02]. ISSN 0932-383X. DOI:10.1007/s00502-018-0635-2

\bibitem{quanergy_keynote}
Quanergy Systems, Inc. Solid State LiDAR Sensors: The Future of Autonomous Vehicles. [conference presentation]. Burlingame, California: I{\&}T International Symposium on Electronic Imaging 2019, Autonomous Vehicles and Machines, 2019-01-16. In: \emph{imaging.org} [online]. Quanergy Systems, Inc.: © 2019. [cit. 2020-10-3]. Available at: \(<\)\url{https://www.imaging.org/Site/PDFS/Conferences/ElectronicImaging/EI2019/AVMKeynotes/LouayEldada_Quanergy_AVM\%202019.pdf}\(>\)

\bibitem{ibeo}
Ibeo Automotive Systems GmbH. ibeoNEXT Generic Solid State LiDAR [online product page]. Ibeo Automotive Systems GmbH: © 2020 [cit 2020-10-03]. Available at: \(<\)\url{https://www.ibeo-as.com/en/products/sensoren/ibeoNEXTgeneric}\(>\)

\bibitem{flash_example}
LINDNER, Scott, Chao ZHANG, Ivan Michel ANTOLOVIC et al. A 252$\times$144 SPAD Pixel Flash Lidar with 1728 Dual-Clock \SI{48.8}{\pico\second} TDCs, Integrated Histogramming and 14.9-to-1 Compression in \SI{180}{\nano\meter} CMOS Technology. In: \emph{2018 IEEE Symposium on VLSI Circuits} [online]. IEEE, 2018, s. 69-70 [cit. 2020-10-03]. ISBN 9781538667002. DOI:10.1109/VLSIC.2018.8502386

\bibitem{atran}
National Aeronautics and Space Administration. Web-based input form for ATRAN. [online web tool]. National Aeronautics and Space Administration: © 2020. [cit. 2020-10-04]. Available at: \(<\)\url{https://atran.arc.nasa.gov/cgi-bin/atran/atran.cgi}\(>\)

\bibitem{ilo_thesis}
CHEN, Chih-Yuan. \emph{A Sub-Centimeter Ranging Precision LIDAR Sensor Prototype Based on ILO-TDC}. [online]. Texas, 2016-06-28. Master's thesis. Texas A{\&}M University, Department of Electrical and Computer Engineering. Available at: \(<\)\url{http://hdl.handle.net/1969.1/157844}\(>\)

\bibitem{solar}
HULSTROM, Roland, Richard BIRD and Carol RIORDAN. Spectral solar irradiance data sets for selected terrestrial conditions. \emph{Solar cells} [online]. Elsevier B.V, 1985, 15(4), 365-391 [cit. 2020-09-30]. ISSN 0379-6787. DOI:10.1016/0379-6787(85)90052-3

\bibitem{vcsel_eel}
Denton Vacuum, LLC. \emph{Comparing Edge-Emitting Lasers and VCSELs}. [online article]. 2019-07-23. Denton Vacuum, LLC: © 2020. [cit. 2020-10-04]. Available at: \(<\)\url{https://www.dentonvacuum.com/comparing-edge-emitting-lasers-and-vcsels/}\(>\)

\bibitem{vcsel}
CHIH-CHIANG, Shen, Huai-yung WANG, Lu YUN-TING et al. 850/940-nm VCSEL for optical communication and 3D sensing. \emph{Opto-Electronic Advances} [online]. Chengdu: Editorial Office of Opto-Electronic Advances, 2018, 1(3), 180005 [cit. 2020-10-04]. ISSN 20964579. DOI:10.29026/oea.2018.180005

\bibitem{vcsel_opa}
JOHNSON, T. Matthew, Dominic F. SIRIANI, Kent D. CHOQUETTE et al. High-Speed Beam Steering With Phased Vertical Cavity Laser Arrays. \emph{IEEE Journal of Selected Topics in Quantum Electronics} [online]. IEEE, 2013, 19(4), 1701006-1701006 [cit. 2020-10-04]. ISSN 1077-260X. DOI:10.1109/JSTQE.2013.2244574

\bibitem{vcsel_article}
D'ASARO, L. Arthur, Jean-francois SEURIN, James WYNN et al. High-Power, High-Efficiency VCSELs Pursue the Goal. \emph{Photonics Spectra} [online]. 2005, 39(2), 62 [cit. 2020-10-04]. ISSN 0731-1230. Available at: \(<\)\url{http://search.proquest.com/docview/29124163/}\(>\)

\bibitem{integrated_spad}
RHIM, Jinsoo, Xiaoge ZENG, Zhihong HUANG et al. Monolithically-Integrated Single-Photon Avalanche Diode in a Zero-Change Standard CMOS Process for Low-Cost and Low-Voltage LiDAR Application. \emph{Instruments} [online]. MDPI, 2019, 3(2), 33 [cit. 2020-09-26]. DOI: 10.3390/instruments3020033

\bibitem{jitter}
NOLET, Frédéric, Samuel PARENT, Nicolas ROY et al. Quenching Circuit and SPAD Integrated in CMOS 65 nm with 7.8 ps FWHM Single Photon Timing Resolution. \emph{Instruments} [online]. MDPI, 2018, 2(4), 19 [cit. 2020-10-04]. ISSN Instruments. DOI:10.3390/instruments2040019

\bibitem{spad_kapitola}
CHARBON, Edoardo, Matt FISHBURN, Richard WALKER et al. SPAD-Based Sensors. In: REMONDINO, Fabio, David STOPPA. TOF Range-Imaging Cameras. Berlin, Heidelberg: Springer, 2013. 11-38. ISBN 978-3-642-27523-4. DOI:10.1007/978-3-642-27523-4\-2

\bibitem{chao_thesis}
ZHANG, Chao. \emph{CMOS SPAD Sensors for 3D Time-of-Flight Imaging, LiDAR and Ultra-High Speed Cameras} [online]. Delft, 2019-05-13. Doctoral thesis. Delft University of Technology. [cit. 2020-10-04]. DOI: 10.4233/uuid:f2e8ac06-33c0-423e-9617-6eaa87f7abd8

\bibitem{sim_quenching}
MITA, Rosario, Gaetano PALUMBO and Giorgio FALLICA. A fast active quenching and recharging circuit for single-photon avalanche diodes. In: \emph{Proceedings of the 2005 European Conference on Circuit Theory and Design}, 2005 [online]. IEEE, 2005, III/385-III/388 vol. 3 [cit. 2020-09-23]. ISBN 0780390660. DOI:10.1109/ECCTD.2005.1523141

\bibitem{fast_quenching}
NICLASS, Cristiano and Mineki SOGA. A miniature actively recharged single-photon detector free of afterpulsing effects with 6ns dead time in a 0.18µm CMOS technology. In: \emph{2010 International Electron Devices Meeting} [online]. IEEE, 2010, 14.3.1-14.3.4 [cit. 2020-09-23]. ISBN 9781442474185. ISSN 01631918. DOI: 10.1109/IEDM.2010.5703360

\bibitem{compact_quenching}
VORNICU, Ion, Ricardo CARMONA‐GALÁN, Belén PÉREZ‐VERDÚ et al. 
Compact CMOS active quenching/recharge circuit for SPAD arrays. In: \emph{International Journal of Circuit Theory and Applications} [online]. 2016, Vol. 44(4), 917-928 [cit. 2020-09-23]. ISSN 0098-9886. DOI: 10.1002/cta.2113

\bibitem{sipm_lecture}
PIATEK, Slawomir S. Silicon Photomultipliers: theory \& practice [conference presentation]. San Francisco: SPIE Photonics West, 2017-01-11. In: \emph{YouTube} [online]. [cit. 2020-09-24]. Recording available at: \(<\)\url{https://www.youtube.com/watch?v=BH768QRfzFA}\(>\)

\bibitem{pqar_quenching}
LINDNER, Scott, Sara PELLEGRINI, Yann HENRION et al. A High-PDE, Backside-Illuminated SPAD in 65/40-nm 3D IC CMOS Pixel With Cascoded Passive Quenching and Active Recharge. In: \emph{IEEE Electron Device Letters} [online]. IEEE, 2017, 38(11), 1547-1550 [cit. 2020-09-24]. ISSN 0741-3106. DOI: 10.1109/LED.2017.2755989

\bibitem{thick_spad}
ACERBI, Fabio, Giovanni PATERNOSTER, Alberto GOLA et al. Silicon photomultipliers and single-photon avalanche diodes with enhanced NIR detection efficiency at FBK. In: \emph{Nuclear instruments \& methods in physics research. Section A, Accelerators, spectrometers, detectors and associated equipment} [online]. Elsevier B.V, 2018, 912, 309-314 [cit. 2020-09-26]. ISSN 0168-9002. DOI: 10.1016/j.nima.2017.11.098

\bibitem{pde_measuring}
OTTE, Adam Nepomuk, Distefano GARCIA, Thanh NGUYEN et al. Characterization of three high efficiency and blue sensitive silicon photomultipliers. In: \emph{Nuclear instruments \& methods in physics research. Section A, Accelerators, spectrometers, detectors and associated equipment} [online]. Elsevier B.V, 2017, 846(C), 106-125 [cit. 2020-09-26]. ISSN 0168-9002. DOI: 10.1016/j.nima.2016.09.053

\bibitem{absorption_depth}
GREEN, Martin A. and Mark J. KEEVERS. Optical properties of intrinsic silicon at 300 K. In: \emph{Progress in Photovoltaics: Research and Applications} [online]. New York: Wiley Subscription Services, Inc., A Wiley Company, 1995, 3(3), 189-192 [cit. 2020-09-26]. ISSN 1062-7995. DOI: 10.1002/pip.4670030303

\bibitem{sipm_array}
Hamamatsu Photonics K.K. [online datasheet]. \emph{S13361-2050 series}. Hamamatsu Photonics K.K.: © 2018. [cit. 2020-10-04]. Available at: \(<\)\url{https://www.hamamatsu.com/resources/pdf/ssd/s13361-2050_series_kapd1055e.pdf}\(>\)

\bibitem{sipm_model}
CORSI, Francesco, Cristoforo MARZOCCA, Angelo DRAGONE et al. Electrical Characterization of Silicon Photo-Multiplier Detectors for Optimal Front-End Design. In: \emph{2006 IEEE Nuclear Science Symposium Conference Record} [online]. IEEE, 2006, s. 1276-1280 [cit. 2020-10-04]. ISBN 1424405602. ISSN 10957863. DOI:10.1109/NSSMIC.2006.356076

\bibitem{sensl}
SensL. SiPM and SPAD Arrays for Next Generation LiDAR. [conference presentation]. Les Diablerets, Switzerland: 2018 International SPAD Sensor Workshop, 2018-01-26. In: \emph{imagesensors.org} [online]. SensL: © 2018. [cit. 2020-10-4]. Available at: \(<\)\url{http://imagesensors.org/wp-content/uploads/2018/05/Salvatore_Gnecchi.pdf}\(>\)

\bibitem{spad_imager}
HUTCHINGS, Sam W., Nick JOHNSTON, Istvan GYONGY et al. A Reconfigurable 3-D-Stacked SPAD Imager With In-Pixel Histogramming for Flash LIDAR or High-Speed Time-of-Flight Imaging. \emph{IEEE Journal of Solid-State Circuits} [online]. IEEE, 2019, 54(11), 2947-2956 [cit. 2020-10-04]. ISSN 0018-9200. DOI:10.1109/JSSC.2019.2939083

\bibitem{coincidence_or}
PERENZONI, Matteo, Daniele PERENZONI and David STOPPA. A 64$\times$64 Pixels Digital Silicon Photomultiplier Direct TOF Sensor With 100-MPhotons/s/pixel Background Rejection and Imaging/Altimeter Mode With 0.14\% Precision Up To \SI{6}{\kilo\meter} for Spacecraft Navigation and Landing. \emph{IEEE Journal of Solid-State Circuits} [online]. IEEE, 2017, 52(1), 151-160 [cit. 2020-09-29]. ISSN 0018-9200. DOI:10.1109/JSSC.2016.2623635

\bibitem{coincidence_and1}
NICLASS, Cristiano, Mineki SOGA, Hiroyuki MATSUBARA et al. A \SI{100}{\meter} Range 10-Frame/s 340$\times$96-Pixel Time-of-Flight Depth Sensor in \SI{0.18}{\micro\meter} CMOS. \emph{IEEE Journal of Solid-State Circuits} [online]. IEEE, 2013, 48(2), 559-572 [cit. 2020-09-29]. ISSN 0018-9200. DOI:10.1109/JSSC.2012.2227607

\bibitem{flash_inpixel}
BEER, Maik, Charles THATTIL, Jan F. HAASE et al. 2×192 Pixel CMOS SPAD-Based Flash LiDAR Sensor with Adjustable Background Rejection. In: \emph{2018 25th IEEE International Conference on Electronics, Circuits and Systems (ICECS)} [online]. IEEE, 2018, s. 17-20 [cit. 2020-10-30]. DOI:10.1109/ICECS.2018.8617905

\bibitem{flash_inpixel_ti}
MORRISON, Daniel, Simon KENNEDY, Dennis DELIC et al. A 64 × 64 SPAD Flash LIDAR Sensor using a Triple Integration Timing Technique with 1.95 mm Depth Resolution. \emph{IEEE Sensors Journal} [online]. IEEE, 2020, , 1-1 [cit. 2020-10-30]. ISSN 1530-437X. DOI:10.1109/JSEN.2020.3030788

\bibitem{sliding_scale}
COTTINI, Carlo, Emilio GATTI and Vito SVELTO. A new method for analog to digital conversion. In: \emph{Nuclear Instruments and Methods}. 1963, vol. 24, 241-242. ISSN 0029-554X. DOI:10.1016/0029-554X(63)90314-8

\bibitem{dll_overview}
YANG, Chih-Kong Ken. Delay Locked Loops - An Overview. In: RAZAVI, Behzad. Phase-Locking in High-Performance Systems: From Devices to Architectures. Hoboken: IEEE Press, John Wiley \& Sons, 2003. 13-22. ISBN 0-471-44727-7. DOI:10.1109/9780470545492.ch2

\bibitem{dll_thesis}
JIA, Cheng. \emph{A Delay-Locked Loop for Multiple Clock Phases/Delays Generation} [online]. Georgia, 2005-08-24. Doctoral thesis. Georgia Institute of Technology, School of Electrical and Computer Engineering. [cit. 2020-10-10]. URI: \(<\)\url{http://hdl.handle.net/1853/7470}\(>\)

\bibitem{lin_vcdlu}
MARKOVIC, Bojan, Simone TISA, Federica A. VILLA et al. A High-Linearity, 17 ps Precision Time-to-Digital Converter Based on a Single-Stage Vernier Delay Loop Fine Interpolation. \emph{IEEE Transactions on Circuits and Systems I: Regular Papers} [online]. IEEE, 2013, 60(3), 557-569 [cit. 2020-10-10]. ISSN 1549-8328. DOI:10.1109/TCSI.2012.2215737

\bibitem{ilo_paper}
CHEN, Chih-yuan, Cheng LI, Marco FIORENTINO et al. A 52 ps resolution ILO-based time-to-digital converter array for LIDAR sensors. In: \emph{2016 IEEE Dallas Circuits and Systems Conference (DCAS)} [online]. IEEE, 2016, s. 1-4 [cit. 2020-10-10]. DOI:10.1109/DCAS.2016.7791148

\bibitem{succesive_tdc}
MÄNTYNIEMI, Antti, Timo RAHKONEN a Juha KOSTAMOVAARA. A CMOS Time-to-Digital Converter (TDC) Based On a Cyclic Time Domain Successive Approximation Interpolation Method. \emph{IEEE Journal of Solid-State Circuits} [online]. IEEE, 2009, 44(11), 3067-3078 [cit. 2020-10-11]. ISSN 0018-9200. DOI:10.1109/JSSC.2009.2032260

\bibitem{vernier_line}
DUDEK, Piotr, Stanislaw SZCZEPANSKI a John V. HATFIELD. A high-resolution CMOS time-to-digital converter utilizing a Vernier delay line. \emph{IEEE Journal of Solid-State Circuits} [online]. IEEE, 2000, 35(2), 240-247 [cit. 2020-10-11]. ISSN 0018-9200. DOI:10.1109/4.823449

\bibitem{cyclic_vernier1}
PARK, Youngmin and David D. WENTZLOFF. A Cyclic Vernier TDC for ADPLLs Synthesized From a Standard Cell Library. \emph{IEEE Transactions on Circuits and Systems I: Regular Papers} [online]. IEEE, 2011, 58(7), 1511-1517 [cit. 2020-10-11]. ISSN 1549-8328. DOI:10.1109/TCSI.2011.2158490

\bibitem{cyclic_vernier3}
CHEN, Poki, Chun-chi CHEN, Jia-chi ZHENG and You-sheng SHEN. A PVT Insensitive Vernier-Based Time-to-Digital Converter With Extended Input Range and High Accuracy. \emph{IEEE Transactions on Nuclear Science} [online]. IEEE, 2007, 54(2), 294-302 [cit. 2020-10-11]. ISSN 0018-9499. DOI:10.1109/TNS.2007.892944

\bibitem{cyclic_vernier2}
RAYMOND, Mina, Maged GHONEIMA and Yeha ISMAIL. A programmable multi-step cyclic Vernier  time-to-digital converter. \emph{International Journal of Circuits and Architecture Design} [online]. Inderscience, 2013, 1(1), 41-61 [cit. 2020-10-11]. DOI: 10.1504/IJCAD.2013.057454

\bibitem{pulse_shrinking}
PARK, Young Jun and Fei YUAN. Two-step pulse-shrinking time-to-digital converter. \emph{Microelectronics Journal} [online]. Elsevier, 2017, 60, 45-54 [cit. 2020-10-11]. ISSN 0026-2692. DOI:10.1016/j.mejo.2016.11.015

\bibitem{pipeline_tdc}
SEO, Young-hun, Jun-seok KIM, Hong-june PARK and Jae-yoon SIM. A \SI{0.63}{\pico\second} resolution, 11b pipeline TDC in \SI{0.13}{\micro\meter} CMOS. In: \emph{2011 Symposium on VLSI Circuits - Digest of Technical Papers} [online]. IEEE, 2011, s. 152-153 [cit. 2020-10-11]. ISBN 9781612841755.

\bibitem{noise_shaping_tdc}
JEE, Dong-woo, Young-hun SEO, Hong-june PARK a Jae-yoon SIM. A \SI{2}{\giga\hertz} Fractional-N Digital PLL with 1b Noise Shaping $\Delta\Sigma$ TDC. \emph{IEEE Journal of Solid-State Circuits} [online]. IEEE, 2012, 47(4), 875-883 [cit. 2020-10-11]. ISSN 0018-9200. DOI:10.1109/JSSC.2012.2185190

\bibitem{black}
FRIEDLAND, Bernard. Introduction to \enquote{Stabilized Feed-Back Amplifiers}. \emph{Proceedings of the IEEE} [online]. 1999, 87(2), 376-378 [cit. 2020-10-17]. ISSN 0018-9219. Available at: \(<\)\url{http://search.proquest.com/docview/27072128/}\(>\)

\bibitem{barkhausen}
BALAZ, Igor, Zdenko BREZOVIC, Marian MINARIK et al. Barkhausen criterion and another necessary condition for steady state oscillations existence. In: \emph{2013 23rd International Conference Radioelektronika (RADIOELEKTRONIKA)} [online]. IEEE, 2013, s. 151-155 [cit. 2020-10-17]. ISBN 9781467355162. DOI:10.1109/RadioElek.2013.6530906

\bibitem{adler}
ADLER, Robert. A Study of Locking Phenomena in Oscillators. \emph{Proceedings of the IRE} [online]. IEEE, 1946, 34(6), 351-357 [cit. 2020-10-17]. ISSN 0096-8390. DOI:10.1109/JRPROC.1946.229930

\bibitem{razavi}
RAZAVI, Behzad. A study of injection locking and pulling in oscillators. \emph{IEEE Journal of Solid-State Circuits} [online]. IEEE, 2004, 39(9), 1415-1424 [cit. 2020-10-17]. ISSN 0018-9200. DOI:10.1109/JSSC.2004.831608

\bibitem{paciorek}
PACIOREK, L.J. Injection locking of oscillators. \emph{Proceedings of the IEEE} [online]. IEEE, 1965, 53(11), 1723-1727 [cit. 2020-10-17]. ISSN 0018-9219. DOI:10.1109/PROC.1965.4345

\bibitem{toso}
TOSO, Stefano Dal. \emph{Analysis and Design of Injection-Locked Building Blocks for RF Frequency Generation in Ultra-Scaled CMOS Technologies} [online]. Padua, 2010-07-10. Doctoral thesis. University of Padua, Department of Information Engineering. [cit. 2020-10-17]. Available at: \(<\)\url{http://paduaresearch.cab.unipd.it/3151/1/tesi_completa.pdf}\(>\)

\bibitem{li}
LI, Mingze. \emph{A Fully Synthesized Injection Locked Ring Oscillator Based on a Pulse Injection Locking Technique} [online]. Ontario, Ottawa, 2010-07-10. Master's thesis. Carleton University, Department of Electronics. [cit. 2020-10-17]. DOI:10.22215/etd/2017-12225

\bibitem{oscillator_presentation}
PERROTT, Michael H. \emph {High Speed Communication Circuits and Systems, Lecture 14: Voltage Controlled Oscillators} [lecture presentation]. Massachusetts Institute of Technology, 2005-03-29. Michael H. Perrot: © 2005. [cit. 2020-10-17]. Available at: \(<\)\url{https://ocw.mit.edu/courses/electrical-engineering-and-computer-science/6-776-high-speed-communication-circuits-spring-2005/lecture-notes/lec14.pdf}\(>\)

\bibitem{strong_injection}
ALI, Ikbal, B. N BISWAS a Sudhabindu RAY. Improved Closed Form Large Injection Perturbation Analytical Model on the Output Spectrum of Unlocked Driven Oscillator-Part I: Phase Perturbation. \emph{IEEE Transactions on Circuits and Systems I: Regular Papers} [online]. IEEE, 2014, 61(1), 106-119 [cit. 2020-10-18]. ISSN 1549-8328. DOI:10.1109/TCSI.2013.2268196

\bibitem{linear_ilro}
CHIEN, Jun-chau and Liang-hung LU. Analysis and Design of Wideband Injection-Locked Ring Oscillators With Multiple-Input Injection. \emph{IEEE Journal of Solid-State Circuits} [online]. IEEE, 2007, 42(9), 1906-1915 [cit. 2020-10-25]. ISSN 0018-9200. DOI:10.1109/JSSC.2007.903058

\bibitem{time_domain_ilro}
GANGASANI, Gautam Reddy and Peter R. KINGET. Time-domain model for injection locking in nonharmonic oscillators. \emph{IEEE Transactions on Circuits and Systems I: Regular Papers} [online]. IEEE, 2008, 55(6), 1648-1658 [cit. 2020-10-25]. ISSN 1549-8328. DOI:10.1109/TCSI.2008.916605

\bibitem{inverter_analog}
BAE, Woorham. CMOS Inverter as Analog Circuit: An Overview. \emph{Journal of low power electronics and applications} [online]. MDPI, 2019, 9(3), 26 [cit. 2020-11-22]. DOI:10.3390/jlpea9030026

\end{thebibliography}