[1] T Nishizawa, N Sugimoto, I Matsui, et al. Ground-based network observation using Mie-Raman lidars and multi-wavelength Raman lidars and algorithm to retrieve distributions of aerosol components. Journal of Quantitative Spectroscopy & Radiative Transfer, 188, 79-93(2017).
[2] L Mei, M Brydegaard. Continuous-wave differential absorption lidar. Laser & Photonics Reviews, 9, 629-636(2015).
[3] M Brydegaard, A Gebru, S Svanberg. Super resolution laser radar with blinking atmospheric particles-application to interacting flying insects. Progress in Electromagnetics Research-Pier, 147, 141-151(2014).
[4] L Mei, P Guan, Y Yang, et al. Atmospheric extinction coefficient retrieval and validation for the single-band Mie-Scattering Scheimpflug lidar technique. Optics Express, 25, A628-A638(2017).
[5] L Mei, M Brydegaard. Atmospheric aerosol monitoring by an elastic Scheimpflug lidar system. Optics Express, 23, 1613-1628(2015).
[6] L Mei, L S Zhang, Z Kong, et al. Noise modeling, evaluation and reduction for the atmospheric lidar technique employing an image sensor. Optics Communications, 426, 463-470(2018).
[7] Z F Liu, C G Yang, Z F Gong, et al. Adaptive digital filter for the processing of atmospheric lidar signals measured by imaging lidar techniques. Applied Optics, 59, 9454-9463(2020).
[8] L Mei, T Ma, Z Kong, et al. Comparison studies of the Scheimpflug lidar technique and the pulsed lidar technique for atmospheric aerosol sensing. Applied Optics, 58, 8981-8992(2019).
[9] L Mei, T Ma, Z Zhang, et al. Experimental calibration of the overlap factor for the pulsed atmospheric lidar by employing a collocated Scheimpflug idar. Remote Sensing, 12, 1227(2020).
[10] Z Kong, T Ma, K Chen, et al. Three-wavelength polarization Scheimpflug lidar system developed for remote sensing of atmospheric aerosols. Applied Optics, 58, 8612-8621(2019).
[11] Z Liu, L M Li, H Li, et al. Preliminary studies on atmospheric monitoring by employing a portable unmanned Mie-scattering Scheimpflug lidar system. Remote Sensing, 11, 1-15(2019).
[12] L Mei, Z Kong, T Ma. Dual-wavelength Mie-scattering Scheimpflug lidar system developed for the studies of the aerosol extinction coefficient and the angstrom exponent. Optics Express, 26, 31942-31956(2018).
[13] Z Kong, T Ma, Y Cheng, et al. Feasibility investigation of a monostatic imaging lidar with a parallel-placed image sensor for atmospheric remote sensing. Journal of Quantitative Spectroscopy and Radiative Transfer, 254, 107212(2020).
[14] L Mei, M Brydegaard. Atmospheric aerosol monitoring by an elastic scheimpflug lidar system. Optics Express, 23, 247841(2015).
[15] L Mei, Z Kong, P Guan. Implementation of a violet Scheimpflug lidar system for atmospheric aerosol studies. Optics Express, 26, A260-A274(2018).
[16] Z Kong, Z Liu, L S Zhang, et al. Atmospheric pollution monitoring in urban area by employing a 450 nm lidar system. Sensors, 18, 1-12(2018).
[17] Kong Z, Guan P, Mei L. A greenb scheimpflug lidar systemfeasibility studies f atmospheric remote sensing[C] Optical Sensing Imaging Technologies Applications, 2018, 10846: 16.
[18] G D Sun, L A Qin, Z H Hou, et al. Small-scale Scheimpflug lidar for aerosol extinction coefficient and vertical atmospheric transmittance detection. Optics Express, 26, 7423-7436(2018).
[19] L Mei, Y C Li, Z Kong, et al. Mini-Scheimpflug lidar system for all-day atmospheric remote sensing in the boundary layer. Applied Optics, 59, 6729-6736(2020).
[20] L Mei, P Guan. Development of an atmospheric polarization Scheimpflug lidar system based on a time-division multiplexing scheme. Optics Letters, 42, 3562-3565(2017).
[21] Z Kong, T Ma, Y Cheng, et al. A calibration-free polarization imaging lidar developed for atmospheric remote sensing. Journal of Quantitative Spectroscopy and Radiative Transfer, under review(2020).
[22] Z Kong, Z Yin, Y Cheng, et al. Modeling and evaluation of the systematic errors for the polarization-sensitive imaging lidar technique. Remote Sensing, 12, 3309(2020).
[23] R R Neely, M Hayman, R Stillwell, et al. Polarization Lidar at Summit, Greenland, for the detection of cloud phase and particle orientation. Journal of Atmospheric and Oceanic Technology, 30, 1635-1655(2013).
[24] L Mei, L M Li, Z Liu, et al. Detection of the planetary boundary layer height by employing the Scheimpflug lidar technique and the covariance wavelet transform method. Applied Optics, 58, 8013-8020(2019).
[25] G Y Zhao, E Malmqvist, S Torok, et al. Particle profiling and classification by a dual-band continuous-wave lidar system. Applied Optics, 57, 10164-10171(2018).
[26] Y Y Zhang, J Wang, L B Bu. Analysis of a haze event over Nanjing, China based on multi-source data. Atmosphere, 10, 1-17(2019).
[27] D Muller, A Ansmann, I Mattis, et al. Aerosol-type-dependent lidar ratios observed with Raman lidar. Journal of Geophysical Research-Atmospheres, 112, 1-11(2007).
[28] J T Sullivan, T J McGee, G K Sumnicht, et al. A mobile differential absorption lidar to measure sub-hourly fluctuation of tropospheric ozone profiles in the Baltimore-Washington, Dc Region. Atmospheric Measurement Techniques, 7, 3529-3548(2014).
[29] M Beniston, J P Wolf, M Benistonrebetez, et al. Use of lidar measurements and numerical-models in air-pollution research. Journal of Geophysical Research-Atmospheres, 95, 9879-9894(1990).
[30] T Fukuchi, T Nayuki, N W Cao, et al. Differential absorption lidar system for simultaneous measurement of O-3 and NO2: System development and measurement error estimation. Optical Engineering, 42, 98-104(2003).
[31] Z G Guan, P Lundin, L Mei, et al. Vertical lidar sounding of atomic mercury and nitric oxide in a major Chinese city. Appl Phys B, 101, 465-470(2010).
[32] L Mei, G Y Zhao, S Svanberg. Differential absorption lidar system employed for background atomic mercury vertical profiling in South China. Optics and Lasers in Engineering, 55, 128-135(2014).
[33] S Hu, H Hu, Y Zhang, et al. A new differential absorption lidar for NO2 measurements using Raman-shifted technique. Chinese Optics Letters, 1, 435(2003).
[34] G Fan, T Zhang, Y Fu, et al. Temporal and spatial distribution characteristics of ozone based on differential absorption lidar in Beijing. Chinese Journal of Lasers, 41, 1014003(2014).
[35] W Gong, X Ma, G Han, et al. Method for wavelength stabilization of pulsed difference frequency laser at 1572 Nm for Co2 detection lidar. Optics Express, 23, 6151-6170(2015).
[36] H Liu, T Chen, R Shu, et al. Wavelength-locking-free 1.57 μm differential absorption lidar for CO2 Sensing. Optics Express, 22, 27675-27680(2014).
[37] L Mei, P Guan, Z Kong. Remote sensing of atmospheric NO2 by employing the continuous-wave differential absorption lidar technique. Optics Express, 25, A953-A962(2017).
[38] Y Cheng, Z Zhang, Z Kong, et al. Evaluation of systematic errors for the continuous-wave NO2 differential absorption lidar employing a multimode laser diode. Applied Optics, 59, 9087-9097(2020).
[39] J Larsson, J Bood, C T Xu, et al. Atmospheric CO2 Sensing using Scheimpflug-lidar based on a 1.57-Mu M fiber source. Optics Express, 27, 17348-17358(2019).
[40] F Gao, H Z Lin, K Chen, et al. Light-sheet based two-dimensional Scheimpflug lidar system for profile measurements. Optics Express, 26, 27179-27188(2018).
[41] K Chen, F Gao, X Chen, et al. Overwater light-sheet Scheimpflug lidar system for an underwater three-dimensional profile bathymetry. Applied Optics, 58, 7643-7648(2019).
[42] G Y Zhao, M Ljungholm, E Malmqvist, et al. Inelastic hyperspectral lidar for profiling aquatic ecosystems. Laser & Photonics Reviews, 10, 807-813(2016).
[43] F Gao, J W Li, H Z Lin, et al. Oil pollution discrimination by an inelastic hyperspectral Scheimpflug lidar system. Optics Express, 25, 25515-25522(2017).
[44] Z Duan, Y Yuan, J C Lu, et al. Underwater spatially, spectrally, and temporally resolved optical monitoring of aquatic fauna. Optics Express, 28, 2600-2610(2020).
[45] J Yang, J Sun, L Du, et al. Effect of fluorescence characteristics and different algorithms on the estimation of leaf nitrogen content based on laser-induced fluorescence lidar in paddy rice. Optics Express, 25, 3743-3755(2017).
[46] X Wang, Z Duan, M Brydegaard, et al. Drone-based area scanning of vegetation fluorescence height profiles using a miniaturized hyperspectral lidar system. Applied Physics B-Lasers and Optics, 124, 1-5(2018).
[47] H Z Lin, Y Zhang, L Mei. Fluorescence Scheimpflug lidar developed for the three-dimension profiling of plants. Optics Express, 28, 9269-9279(2020).
[48] S G Potts, J C Biesmeijer, C Kremen, et al. Global pollinator declines: Trends, impacts and drivers. Trends in Ecology & Evolution, 25, 345-353(2010).
[49] Lehane M J, The Biology of BloodSucking in Insects[M]. 2nd ed. Cambridge: Cambridge University Press, 2005.
[50] C J L Murray, L C Rosenfeld, S S Lim, et al. Global malaria mortality between 1980 and 2010: A systematic analysis. Lancet, 379, 413-431(2012).
[51] M Brydegaard, S Svanberg. Photonic monitoring of atmospheric and aquatic fauna. Laser & Photonics Reviews, 12, 1-28(2018).
[52] C Kirkeby, M Wellenreuther, M Brydegaard. Observations of movement dynamics of flying insects using high resolution lidar. Scientific Reports, 6, 1-11(2016).
[53] Brydegaard M, Malmqvist E, Jansson S, et al. The Scheimpflug Lidar Method[C]Lidar Remote Sensing f Environmental Moniting, 2017, 10406: 117.
[54] S Jansson, E Malmqvist, M Brydegaard, et al. A Scheimpflug lidar used to observe insect swarming at a wind turbine. Ecological Indicators, 117, 1-7(2020).
[55] M Brydegaard, S Jansson, E Malmqvist, et al. Lidar Reveals Activity Anomaly of Malaria Vectors During Pan-African Eclipse. Science Advances, 6, 1-9(2020).
[56] Zhu S, Malmqvist E, Li Y, et al. Insect remote sensing using a polarization sensitive CW lidar system in chinese rice fields[C]EPJ Web of Conferences, 2018, 176: 07001.
[57] E Malmqvist, S Jansson, S M Zhu, et al. The bat-bird-bug battle: Daily flight activity of insects and their predators over a rice field revealed by high-resolution Scheimpflug lidar. Royal Society Open Science, 5, 1-12(2018).
[58] Z W Song, B X Zhang, H Q Feng, et al. Application of lidar remote sensing of insects in agricultural entomology on the Chinese scene. Journal of Applied Entomology, 144, 161-169(2020).
[59] S M Zhu, E Malmqvist, W S Li, et al. Insect abundance over Chinese rice fields in relation to environmental parameters, studied with a polarization-sensitive cw near-IR lidar system. Applied Physics B-Lasers and Optics, 123, 1-11(2017).
[60] B Li, D Y Zhang, J X Liu, et al. A review of femtosecond laser-induced emission techniques for combustion and flow field diagnostics. Applied Sciences-Basel, 9, 1-25(2019).
[61] E Malmqvist, M Brydegaard, M Alden, et al. Scheimpflug lidar for combustion diagnostics. Optics Express, 26, 14842-14858(2018).
[62] E Malmqvist, J Borggren, M Alden, et al. Lidar thermometry using two-line atomic fluorescence. Applied Optics, 58, 1128-1133(2019).
[63] Y Zhang, H Zhang, S Wu. Design of water Scheimpflug lidar technology used for measuring small angle backscattering. Acta Optica Sinica, 40, 1101004(2020).