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4 results for “thermal infrared camera”
Data for: Assessment of the accuracy of counting large ungulate species (red deer Cervus elaphus) with UAV-mounted thermal infrared cameras during night flights
<p>Unmanned Aerial Vehicles (UAVs) are increasingly used in wildlife surveying, including estimation of population densities. It is essential that we evaluate and test new survey methods to guide optimal sampling strategies. This study aimed to assess the accuracy of using a UAV-mounted thermal infrared (TIR) camera to count red deer <em>Cervus elaphus</em> populations, and how this was influenced by flight season, height and velocity, in order to help guide future census design. We flew 57 flights across a captive population of red deer in a 13 ha deer park enclosure of semi-natural habitat, representative of the species' range in northern Germany. Flights and image assessments were performed with no prior knowledge of actual population size. Accuracy was quantified by comparing real population size (known only to deer park staff) and independently estimated population sizes from UAV TIR images. Accuracy was significantly influenced by ecological season (early and late winter, spring and early summer) and height. Across all seasons, lower flights (100 m) performed better than higher ones (120 m), with lower flights in early winter and early summer being on average accurate to within 1% of actual population counts. For the season where we had the largest range of temperatures between flights (late winter) we found that accuracy was highest when temperatures were lowest. Flights were also able to identify all five stags (defined as a male deer ≥2 years old) present in early summer, but not in spring. Deer appeared to avoid the landing/take-off area, but there were no noted behavioural responses to drones flying over animals when at constant height and velocity during surveys. Our results indicate that UAV-mounted TIR camera have the potential to accurately count populations of large ungulate species, but that flight season, height and potentially temperature need to be taken into account to maximise accuracy. This approach has the potential to be scaled up to more accurately estimate densities of wild populations compared to existing approaches.</p>
Prevention of Pressure Wound Development With Infrared Thermal Camera
ClinicalTrials.gov study NCT06219954. IPD Sharing: NO. Countries: 1. Publications: 0.
Data for: Assessment of the accuracy of counting large ungulate species (red deer Cervus elaphus) with UAV-mounted thermal infrared cameras during night flights
Open the record for dataset details and reuse information.
Raw data: A thermal infrared hyperspectral camera based on a birefringent interferometer
<p>In this repository we publish the raw data for the paper "A thermal infrared hyperspectral camera based on a birefringent interferometer"</p> <p>Data types:</p> <ul> <li> <p><strong>QCLs</strong><br><strong>t5</strong>: motor positions used to sample the interferogram of QCL at 5.263 µm [mm]<br><strong>Int5</strong>: corresponding intensity values of the interferogram of QCL at 5.263 µm as absolute value of the trace of the lock-in detector connected to the MCT [arbitrary counts]<br><strong>t7</strong>: motor positions used to sample the interferogram of QCL at 7.675 µm [mm]<br><strong>Int7</strong>: corresponding intensity values of the interferogram of QCL at 7.675 µm as absolute value of the trace of the lock-in detector connected to the MCT [arbitrary counts]<br><strong>t9</strong>: motor positions used to sample the interferogram of QCL at 9.073 µm [mm]<br><strong>Int9</strong>: corresponding intensity values of the interferogram of QCL at 9.073 µm as absolute value of the trace of the lock-in detector connected to the MCT [arbitrary counts]<br><strong>t9_short</strong>: motor positions used to sample the interferogram of QCL at 9.073 µm (shorter scan with smaller step) [mm]<br><strong>Int9_short</strong>: corresponding intensity values of the interferogram of QCL at 9.073 µm as absolute value of the trace of the lock-in detector connected to the MCT (shorter scan with smaller step) [arbitrary counts]</p> </li> <li> <p><strong>DFG_orig</strong><br><strong>tDFG</strong>: motor positions used to sample the DFG signal [mm]<br><strong>IntDFG</strong>: corresponding intensity values of the DFG signal as absolute value of the trace of the lock-in detector connected to the MCT [arbitrary counts]</p> </li> <li> <p><strong>DFG</strong><br><strong>tDFG</strong>: motor positions used to sample the DFG signal, delay corrected, cropped, and centered [mm]<br><strong>IntDFG</strong>: corresponding intensity values of the DFG signal as absolute value of the trace of the lock-in detector connected to the MCT, low-frequency corrected, inverted and normalized to the mean [arbitrary counts]</p> </li> <li> <p><strong>Kanthal_orig<br>tKanthal</strong>: motor positions used to sample the Kanthal signal [mm]<br><strong>IntKanthal</strong>: corresponding intensity values of the Kanthal signal as absolute value of the trace of the lock-in detector connected to the MCT [arbitrary counts]</p> </li> <li> <p><strong>Kanthal<br>tKanthal</strong>: motor positions used to sample the Kanthal signal [mm]<br><strong>IntKanthal</strong>: corresponding intensity values of the Kanthal signal as absolute value of the trace of the lock-in detector connected to the MCT, linearly detrended, inverted and normalized to the mean [arbitrary counts]</p> </li> <li> <p><strong>Quartz</strong><br><strong>t</strong>: motor positions used to sample the quartz emission [mm]<br><strong>HyperMatrix</strong>: temporal hypercube of the quartz emission containing one bolometer image for every motor position [arbitrary counts]</p> </li> <li> <p><strong>Filters</strong><br><strong>t_Filters</strong>: motor positions used to sample the filters transmitted light [mm]<br><strong>HyperMatrix_Filters</strong>: temporal hypercube of the filters transmitted light containing one bolometer image for every motor position [arbitrary counts]</p> </li> <li> <p><strong>Hotplate</strong><br><strong>t_Hotplate</strong>: motor positions used to sample the hotplate emission [mm]<br><strong>HyperMatrix_Hotplate</strong>: temporal hypercube of the hotplate emission containing one bolometer image for every motor position [arbitrary counts]</p> </li> </ul>
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OpenNeuro
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