Measuring photon correlation using imperfect detectors- data
Research data linked to https://arxiv.org/html/2411.12835v1. Accepted for publication in Physical Review Applied. Files labelled according to published article.
Figure_1a: Photon statistics for 3 canonical light sources. Column 1 = time. Other columns = probability of second photon detection for the 3 sources, as labelled.
Figure_1b: Saturation of a detector with deadtime for 3 canonical light sources. Column 1= Detectable events. Other columns = detections, for the 3 sources, as labelled.
Figure_2a: Loss of detector efficiency with detection rate. Column 1 = Detectable events. Other columns = detector efficiency for different sources.
Figure_2b: Column 1= Waiting times. Column 2 = Waiting time distribution. Column 3 = efficiency.
Figure 2b_insert: Column 1 = Waiting time. Column 2= detections.
Figure_2c: Efficiency drop with detection rate. Column 1= Detections. Other columns = detector efficiency for the 3 canonical sources.
Figure_3b; Second order correlation versus incident rate. Column 1= Time. Other columns = second order correlation function for the different detected rates, as labelled.
Figure_3c: Third order correlation matrix. Row 1 and Column 1 =Time differences. Other cells are the (normalised) 3rd order correlation function.
Figure_3d: Column 1= Detections. Column 2 = second order correlation. [2 data files are included, for the experimental data and the result of the simulation model]
Figure_3e: Column 1= Detections. Column 2 = third order correlation. [2 data files are included, for the experimental data and the result of the simulation model]
Figure_3f: Column 1= Detections. Column 2 = fourth order correlation. [2 data files are included, for the experimental data and the result of the simulation model]
Figure 4a: Simulation of number of detectors (column 1) versus second order correlation function (other columns) for 3 incident rates, as labelled.
Figure 4b: Simulation of number of detectors (column 1) versus coincidence rate (other columns) for 3 incident rates, as labelled.
Figure_6a: Second order correlation from the Martiensen lamp. Column 1 = time, Column 2 = second order correlation. Same data is shown in Figure_6b at a smaller time range.
Figure_6c: Magnitude of the second order correlation as the lens focal position is changed. Column 1 = focal position in mm. Column 2 = magnitude of second order correlation function.
Funding
Manufacturing scalable semiconductor quantum light sources
Engineering and Physical Sciences Research Council
Find out more...EPSRC Hub in Quantum Computing and Simulation
Engineering and Physical Sciences Research Council
Find out more...EPSRC Centre for Doctoral Training in Compound Semiconductor Manufacturing
Engineering and Physical Sciences Research Council
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Data file formats
excelSpecialist software required to view data files
excelLanguage(s) in dataset
- English-Great Britain (EN-GB)
Additional Schools linked to data generation
- School of Engineering
Research Institute / Centre linked to data generation
- ICS: Institute for Compound Semiconductors