Incorporation of GPS and IP camera for people tracking

Using the global positioning system (GPS) for people tracking continues to get easier. A person can transmit his/her GPS location from the carried mobile devices. The location is usually displayed as a dot on a digital map. However, a dot on the map is insufficient to reveal the person’s actual situ...

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Veröffentlicht in:GPS solutions 2012-10, Vol.16 (4), p.425-437
Hauptverfasser: Liao, Hsien-Chou, Lu, Chun-Yang, Shin, Jungpil
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creator Liao, Hsien-Chou
Lu, Chun-Yang
Shin, Jungpil
description Using the global positioning system (GPS) for people tracking continues to get easier. A person can transmit his/her GPS location from the carried mobile devices. The location is usually displayed as a dot on a digital map. However, a dot on the map is insufficient to reveal the person’s actual situation, e.g., an accident being happening. If the GPS is incorporated with an IP (Internet Protocol) camera, the camera image is critical in revealing the person’s actual situation and to improve the above-mentioned insufficient information. We present an approach to facilitate such incorporation. The approach consists of three phases: locating, tracking and monitoring collision. When the GPS coordinates of a person are within the field-of-view (FOV) of a camera, the approach enters the locating phase. The GPS coordinates are transformed to specify a candidate area (CA) in the image. The update of GPS coordinates is used to filter those moving objects within the CA until only one remains. After the person is located, he is being tracked using the shortest Euclidean distance method to find the most likely object in the next image. If the person collides with other objects while being tracked, a template matching technique, the sum of absolute difference (SAD), is used to locate the person in the collision area. The tracking is done after the person leaves the FOV of the camera. In the experimental studies, the tracking of one to three persons was performed using the implemented prototype. The average locating error of the tracking phase is only 5 pixels. The highest and average tracking success rates are 95.9% and 90.6%, respectively. These results show that the proposed approach is accurate and feasible for people tracking by incorporating GPS and IP cameras.
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subjects Atmospheric Sciences
Automotive Engineering
Cameras
Digital mapping
Earth and Environmental Science
Earth Sciences
Electrical Engineering
Electronic devices
Euclidean geometry
Field of view
Geophysics/Geodesy
Global positioning systems
GPS
IP (Internet Protocol)
Original Article
Space Exploration and Astronautics
Space Sciences (including Extraterrestrial Physics
Template matching
Tracking
title Incorporation of GPS and IP camera for people tracking
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