Welcome to the PRISM data sets server

This site contains data sets recorded by the CSIR's Optronic Sensor Systems group for image processing research. The data is made available under the PRISM part of the Armscor LEDGER project.

Previews (reduced frame rate and dimensions as well as highly compressed) of the currently available videos are available here.

Uncompressed videos with metadata can be found in the data folder. To obtain a username and password for access, please send an email to zhattingh at the csir co za part of the web site address.

The fiducial marker calibration and verification datasets can be found here.

Tracking Research

The following videos are mainly aimed at tracking research, but can also be used for detection or image stabilisation research. The data was recorded using a Prosilica GC1380 camera with a Nikon AF-S Nikkor 300mm f/4D IF-ED lens mounted on a pan-tilt unit.

ThumbnailRaw FileDescription
2010-10-05_14h44m32s_tracker_01 2010-10-05_14h44m32s_tracker_01 Jet ski rotating and moving away.
2010-10-07_10h40m52s_tracker_01 2010-10-07_10h40m52s_tracker_01 Low contrast trawler passing behind light house.
2010-10-14_11h05m36s_tracker_01 2010-10-14_11h05m36s_tracker_01 Small craft moving close to the shore.
2010-10-14_11h20m56s_tracker_01 2010-10-14_11h20m56s_tracker_01 Rigid-hulled inflatable boat (RHIB) moving through birds.
2010-10-14_11h26m52s_tracker_01 2010-10-14_11h26m52s_tracker_01 Rigid-hulled inflatable boat (RHIB) passing behind rock.

Detection and Tracking Research (Stationary Camera)

The following videos can be used to develop vision algorithms for background modeling, segmentation and target detection and tracking. The file names generally reflect a particular type of event in the video. The videos have been compressed using the FFmpeg lossless codec.

ThumbnailRaw FileDescription
bird_intersection_with_boat bird_intersection_with_boat [496MB] Two slow moving targets on the ocean. A seagull flies across the targets at some point in the video.
intersection_birds_nama intersection_birds_nama [268MB] Single target with a panning camera. A large flock of birds is seen flying across the target.
intersection_nama_and_small_boat intersection_nama_and_small_boat [427MB] Two slow moving targets on the ocean with intersecting paths.
intersection_nama_sail intersection_nama_sail [201MB] Contains a boat and a sailboat with intersecting paths in the video.
jetski_fig_8_low jetski_fig_8_low [1200MB] Jetski doing a zig-zag motion across the camera field of view.
jetski_stealth_zaggy_attack jetski_stealth_zaggy_attack [745MB] Fast moving jetski moving in a stealthy zig-zag fashion.
namacura_25knots namacura_25knots [410MB] Boat moving across the camera field of view.
nama_intersection_glint nama_intersection_glint [384MB] Two boats (silhouettes) with intersecting paths. The ocean contains large amounts of glint.
nama_intersection_large_boat nama_intersection_large_boat [254MB] Two boats (a small boat and a frigate) with intersecting paths.
nama_jetski_intersection nama_jetski_intersection [114MB] A boat and a jetski with intersecting paths. These 2 targets are very small.
nama_low_and_large_boat_intersection nama_low_and_large_boat_intersection [363MB] A boat and a frigate on the ocean. The boat is extremely small.
nama_intersection nama_intersection [404MB] Two small boats are shown on the ocean. Their paths intersect right at the start of the video but it is a very short event. There is another intersection later on.
nama_rhib nama_rhib [496MB] Two targets are shown in the video. There is a very small target far away from the camera near the horizon. A rigid hull inflatable boat is also present.
nama_small_rhib nama_small_rhib [404MB] Two targets are shown in the video. There is a very small target and a rigid hull inflatable boat.
nama_rocks_splashes nama_rocks_splashes [206MB] A small target is shown on the ocean. The ocean is fast moving with lots of splashes against rocks and the lighthouse.
two_boats two_boats [113MB] Two boats are shown that are moving towards the camera. The targets are small.

Detection and Tracking Research: Synthetic Targets

The following videos can be used to develop small target detection and tracking algorithms. The first video contains a small boat and a frigate crossing. Two small synthetic targets have been injected into each of the other videos.

ThumbnailRaw FileDescription
nama_low_and_large_boat_intersection nama_low_and_large_boat_intersection A very small boat and a frigate on the ocean.
nama_low_and_large_boat_intersection_ti_255 nama_low_and_large_boat_intersection_ti_255 A very small boat and a frigate on the ocean with two synthetic targets of brightness 255.
nama_low_and_large_boat_intersection_ti_180 nama_low_and_large_boat_intersection_ti_180 A very small boat and a frigate on the ocean with two synthetic targets of brightness 180.
nama_low_and_large_boat_intersection_ti_150 nama_low_and_large_boat_intersection_ti_150 A very small boat and a frigate on the ocean with two synthetic targets of brightness 150.
nama_low_and_large_boat_intersection_ti_127 nama_low_and_large_boat_intersection_ti_127 A very small boat and a frigate on the ocean with two synthetic targets of brightness 127.
nama_low_and_large_boat_intersection_ti_100 nama_low_and_large_boat_intersection_ti_100 A very small boat and a frigate on the ocean with two synthetic targets of brightness 100.
nama_low_and_large_boat_intersection_ti_75 nama_low_and_large_boat_intersection_ti_75 A very small boat and a frigate on the ocean with two synthetic targets of brightness 75.

Detection and Tracking Research

The following videos are stitched together using images from 3 Prosilica cameras to form a 180 degree view. The challenge is to detect and track the vessels in the video.

ThumbnailRaw FileDescription
2010-10-05_09h54m58s 2010-10-05_09h54m58s_half_stitch Jet ski decelerating.
2010-10-05_14h12m13s 2010-10-05_14h12m13s_half_stitch Jet ski and ski boat circling.
2010-10-05_14h49m43s 2010-10-05_14h49m43s_half_stitch Patrol vessel
2010-10-12_14h49m01s 2010-10-12_14h49m01s_half_stitch Rigid-hulled inflatable boat (RHIB)

Scintillation Mitigation Research

The following videos are aimed at scintillation mitigation research. The data was recorded using a camera built by CSIR Optronic Sensor Systems. The camera contains a Prosilica GE1900 sensor and was stationary during recording.

ThumbnailRaw FileDescription
2011-04-14_12h32m57s 2011-04-14_12h32m57s_mfovc_01 High-definition scene showing mild scintillation effects.
2011-04-14_12h33m32s 2011-04-14_12h33m32s_mfovc_01 High-definition scene showing mild scintillation effects.
2011-04-14_12h40m23s 2011-04-14_12h40m23s_mfovc_01 High-definition scene showing mild scintillation effects.
2011-04-14_13h41m04s 2011-04-14_13h41m04s_mfovc_01 High-definition scene showing mild scintillation effects.

The following videos were recorded over a one day period with the CSIR Optronic Sensor Systems Cyclone long range surveillance camera. All camera parameters were fixed for the duration of the day, except for allowing automatic exposure changes. The range to the advertisement board is approximately 7km.

ThumbnailRaw FileDescription
2011-12-21_06h55m22s 2011-12-21_06h55m22s_cyclone_01 Early morning after some rain. Light cloud cover and the sun not fully out.
2011-12-21_07h24m48s 2011-12-21_07h24m48s_cyclone_01 Still a bit overcast, but heating up.
2011-12-21_08h07m03s 2011-12-21_08h07m03s_cyclone_01 Sun starting to come out behind the clouds.
2011-12-21_08h33m02s 2011-12-21_08h33m02s_cyclone_01 Sun almost out.
2011-12-21_08h58m54s 2011-12-21_08h58m54s_cyclone_01 Sun out, scintillation getting already quite severe.
2011-12-21_09h28m39s 2011-12-21_09h28m39s_cyclone_01  
2011-12-21_10h05m26s 2011-12-21_10h05m26s_cyclone_01  
2011-12-21_10h31m04s 2011-12-21_10h31m04s_cyclone_01  
2011-12-21_11h03m18s 2011-12-21_11h03m18s_cyclone_01  
2011-12-21_11h30m30s 2011-12-21_11h30m30s_cyclone_01 Very low contrast, because of sun position.
2011-12-21_12h00m08s 2011-12-21_12h00m08s_cyclone_01  
2011-12-21_12h32m22s 2011-12-21_12h32m22s_cyclone_01  
2011-12-21_13h01m05s 2011-12-21_13h01m05s_cyclone_01  
2011-12-21_13h30m38s 2011-12-21_13h30m38s_cyclone_01  
2011-12-21_14h01m59s 2011-12-21_14h01m59s_cyclone_01  
2011-12-21_14h34m56s 2011-12-21_14h34m56s_cyclone_01  
2011-12-21_15h01m06s 2011-12-21_15h01m06s_cyclone_01 Some scattered clouds appearing.
2011-12-21_15h22m49s 2011-12-21_15h22m49s_cyclone_01 Rain at the camera location. Abrupt change in scintillation effects.
2011-12-21_15h34m14s 2011-12-21_15h34m14s_cyclone_01 Wider rain present.
2011-12-21_16h01m40s 2011-12-21_16h01m40s_cyclone_01 Rain stopped, but sun behind clouds.
2011-12-21_16h30m57s 2011-12-21_16h30m57s_cyclone_01 Sun hidden behind clouds. Exposure increases.
2011-12-21_17h01m09s 2011-12-21_17h01m09s_cyclone_01 Sun hidden behind clouds. Exposure increases further.

Passive Ranging: Depth from Defocus

The following images are aimed at passive ranging research. Both the input and the output files used in the paper *insert link* are available here. Please contact us for other window sizes or more information.

Laboratory Experiment Results
ThumbnailDescription
yo broo DFD Input Image. Large aperture (F1.8) blurry lab scene. Captured using an Allied vision GT1920 camera with Schneider Cinegon 4.8mm lens.
yo broo DFD Input Image. Small aperture (F16.0) sharp lab scene. Captured using an Allied vision GT1920 camera with Schneider Cinegon 4.8mm lens.
yo broo DFD Output Image. Pentland Spatial Domain Algorithm output with window size of 8 pixels.
yo broo DFD Output Image. Pentland Frequency Domain Algorithm output with window size of 16 pixels.
yo broo DFD Output Image. Bove's Algorithm output with window size of 16 pixels.
yo broo DFD Output Image. Watanabe-Nayar Algorithm output with window size of 8 pixels.
Mid Range Experiment Results
ThumbnailDescription
yo broo DFD Input Image. Large aperture (F1.8) blurry lab scene. Captured using custom 185mm F2.0 optics with Alled vision GE1900 camera.
yo broo DFD Input Image. Small aperture (F16.0) sharp lab scene. Captured using custom 185mm F2.0 optics with Alled vision GE1900 camera.
yo broo DFD Output Image. Pentland Spatial Domain Algorithm output with window size of 16 pixels.
yo broo DFD Output Image. Pentland Frequency Domain Algorithm output with window size of 16 pixels.
yo broo DFD Output Image. Bove's Algorithm output with window size of 16 pixels.
yo broo DFD Output Image. Watanabe-Nayar Algorithm output with window size of 16 pixels.
Long Range (550Meter) Experiment Results
ThumbnailDescription
yo broo DFD Input Image. Large aperture (F1.8) blurry lab scene. Captured using custom 185mm F2.0 optics with Alled vision GE1900 camera.
yo broo DFD Input Image. Small aperture (F16.0) sharp lab scene. Captured using custom 185mm F2.0 optics with Alled vision GE1900 camera.
yo broo DFD Output Image. Pentland Spatial Domain Algorithm output with window size of 16 pixels.
yo broo DFD Output Image. Pentland Frequency Domain Algorithm output with window size of 16 pixels.
yo broo DFD Output Image. Bove's Algorithm output with window size of 16 pixels.
yo broo DFD Output Image. Watanabe-Nayar Algorithm output with window size of 16 pixels.
Long Range (1150Meter) Experiment Results
ThumbnailDescription
yo broo DFD Input Image. Large aperture (F1.8) blurry lab scene. Captured using custom 185mm F2.0 optics with Alled vision GE1900 camera.
yo broo DFD Input Image. Small aperture (F16.0) sharp lab scene. Captured using custom 185mm F2.0 optics with Alled vision GE1900 camera.
yo broo DFD Output Image. Pentland Spatial Domain Algorithm output with window size of 16 pixels.
yo broo DFD Output Image. Pentland Frequency Domain Algorithm output with window size of 16 pixels.
yo broo DFD Output Image. Bove's Algorithm output with window size of 16 pixels.
yo broo DFD Output Image. Watanabe-Nayar Algorithm output with window size of 16 pixels.

Passive Ranging: Depth from Focus

The following images are aimed at passive ranging research. Only the output files used in the paper *insert link* are available here. Please contact us for other window sizes, the input videos or more information.

Laboratory Experiment Results
ThumbnailDescription
yo broo Representative DFF Input Image. Large aperture (F1.8) close focused lab scene. Captured using an Allied vision GT1920 camera with Schneider Cinegon 4.8mm lens.
yo broo Representative DFF Input Image. Large aperture (F1.8) far focused lab scene. Captured using an Allied vision GT1920 camera with Schneider Cinegon 4.8mm lens.
yo broo DFF Output Image. Contrast Metric, Window Size 4
yo broo DFF Output Image. Entropy Metric, Window Size 8.
yo broo DFF Output Image. Standard Deviation Metric, Window Size 64.
Mid Range Experiment Results
ThumbnailDescription
yo broo Representative DFF Input Image. Large aperture (F1.8) close focused lab scene. Captured using an Allied vision GT1920 camera with a Fujinon 75mm lens.
yo broo Representative DFF Input Image. Large aperture (F1.8) far focused lab scene. Captured using an Allied vision GT1920 camera with a Fujinon 75mm lens.
yo broo DFF Output Image. Contrast Metric, Window Size 8
yo broo DFF Output Image. Entropy Metric, Window Size 8.
yo broo DFF Output Image. Standard Deviation Metric, Window Size 8.
Long Range (650m) Experiment Results
ThumbnailDescription
yo broo DFF Output Image. Contrast Metric, Window Size 8
yo broo DFF Output Image. Entropy Metric, Window Size 8.
yo broo DFF Output Image. Standard Deviation Metric, Window Size 8.
Long Range (1050m) Experiment Results
ThumbnailDescription
yo broo DFF Output Image. Contrast Metric, Window Size 8
yo broo DFF Output Image. Entropy Metric, Window Size 8.
yo broo DFF Output Image. Standard Deviation Metric, Window Size 8.

Passive Ranging: Frequency Domain Depth from Defocus v.s. Atmospheric Scintillation

The following images are aimed at passive ranging research. Only the output files used in the paper *insert link* are available here. Please contact us for other window sizes, the input videos or more information.

Pentland Frequency Results
ThumbnailDescription
yo broo DFD Output Image at 1150m in low scintillation conditions. Window Size 8
yo broo DFD Output Image at 1150m in medium scintillation conditions. Window Size 8
yo broo DFD Output Image at 1150m in high scintillation conditions. Window Size 8
Bove Results
ThumbnailDescription
yo broo DFD Output Image at 1150m in low scintillation conditions. Window Size 8
yo broo DFD Output Image at 1150m in medium scintillation conditions. Window Size 8
yo broo DFD Output Image at 1150m in high scintillation conditions. Window Size 8