Journal References

The PF32 Time-Correlated Single-Photon Counting (TCSPC) range has been used across a wide range of research activities.

Further details of just some of these research projects can be found below.

Multipolarization laser image fusion for improved underwater object recognition

Oladipupo Adeoluwa et al., Proceedings Volume 13049, Laser Radar Technology and Applications XXIX, 2024.

Converting non-confocal measurements into semi-confocal ones with timing-accuracy improving for non-line-of-sight imaging

Yue Zheng et al., Optics and Lasers in Engineering, 176, 2024.

Time-domain signal extraction and image reconstruction through scattering medium based on fully convolutional neural network

Xinran Lyu et al., Optics Communications, 569, 2024.

Underwater Single-Photon 3D Reconstruction Algorithm Based on K-Nearest Neighbor

Hui Wang et al., Sensors, 24, 2024.

High-resolution non-confocal non-line-of-sight imaging based on spherical-slice transform from spatial and temporal frequency to space and time

Jingping Yu et al., Optics Letters, 49 (13), 2024.

Illuminating Depth: Polarimetric Time-of-Flight Sensing with Single-Photon Counting Imager

Karsten Schnier et al., Proc. SPIE 13050, Polarization: Measurement, Analysis, and Remote Sensing XVI, 2024.

An investigation of jamming in free-space quantum key distribution

Cameron Simmons et al., Proc. SPIE 12335, Quantum Technology: Driving Commercialisation of an Enabling Science III, 123350C, 2023.

Scan-free time-of-flight-based three-dimensional imaging through a scattering layer

Ruija Deng et al., Optics Express, 17 (2), 23662-23677, 2023.

Single photon flux imaging with sub-pixel resolution by motion compensation

Martin Laurenzis et al., Proceedings Volume 12512, Advanced Photon Counting Techniques XVII, 2023.

Time-correlated single photon counting for evaluation of cavity dimensions with multibounce photons

Martin Laurenzis et al., Journal of Applied Remote Sensing, 17 (2), 024503, 2023.

Non-Confocal 3D Reconstruction in Volumetric Scattering Scenario

Dongyu Du et al., IEEE Transactions on Computational Imaging 9, 2023

Reconfigurable coaxial single-photon LIDAR based on the SPAD array

Ruikai Xue et al., Applied Optics, 62 (22), 5910-5916 , 2023.

Single-Photon Lidar for Fast Imaging at Low SBR and Few Photons

Ruikai Xue et al., Advances in Laser and Optoelectronics, 60 (8) 0811033 , 2023.

High-resolution multi-spectral snapshot 3D imaging with a SPAD array camera

Fenghua Qi amd Pu Zhang, Optics Express, 31 (19), 2023.

Time domain analysis of photon scattering and Huygens-Fresnel back projection

Martin Laurenzis et al., Optics Express, 30 (17), 30441-30454, 2022.

High-time-resolution imaging of transient discharge processes without fixed triggering

X. Meng et al., IET Science, Measurement & Technology 16, 377-387, 2022.

First Arrival Differential LiDAR

Tianyi Zhang et al., IEEE International Conference on Computational Photography (ICCP), 2022

Photon-efficient 3D reconstruction employing a edge enhancement method

Xiaochen Zhao et al., Optics Express, 30 (2), 1555-1569, 2022.

Comparison of super-resolution and noise reduction for passive single-photon imaging

Martin Laurenzis et al., Journal of Electronic Imaging, 31 (3), 033042, 2022.

Spatially modulated scene illuminated for internsity-compensated two-dimensional array photon-counting LiDAR imaging

Jiaheng Xie et al., Chinese Physics B, 31 (9), 090701, 2022.

Improved single-photon active imaging through ambient noise guided missing data filling

Jiaheng Xie et al., Optics Communications, 508, 127747, 2022.

Polarization coincidence images from metasurfaces with HOM-type interference

Tsz Kit Yung et al., iScience, 25 (4), 104155, 2022.

A boundary migration model for imaging within volumetric scattering media

Dongyu Du et al., Nature Communications, 13, 3234, 2022.

High-resolution depth imaging with a small-scale SPAD array based on the temporal-spatial filter and intensity image guidance

Yan Kang et al., Optics Express 30 (19), 33994-34011, 2022.

Cavity exploration by laser pulse stretching measurements with single photon counting

F. Christnacher, M. Laurenzis, Proc. SPIE 12274, Emerging Imaging and Sensing Technologies for Security and Defence VII, 1227409, 2022.

Enhanced visual perception through photon counting and computational imaging: what the time and number of photon events can tell us about the world around us

M. Laurenzis, F. Christnacher, Proc. SPIE 12274, Emerging Imaging and Sensing Technologies for Security and Defence VII, 1227407, 2022.

Journal References

The PF32 Time-Correlated Single-Photon Counting (TCSPC) range has been used across a wide range of research activities.

Further details of just some of these research projects can be found below.

Awards

Contact

Awards

Say Hello