Model
Digital Document
Publisher
Florida Atlantic University
Description
There is a substantial amount of evidence that suggests that driver drowsiness
plays a significant role in road accidents. Alarming recent statistics are raising the
interest in equipping vehicles with driver drowsiness detection systems. This dissertation describes the design and implementation of a driver drowsiness detection system that is based on the analysis of visual input consisting of the driver's face and eyes. The resulting system combines off-the-shelf software components for face detection, human skin color detection and eye state classification in a novel way. It follows a behavioral methodology by performing a non-invasive monitoring of external cues describing a driver's level of drowsiness. We look at this complex problem from a
systems engineering point of view in order to go from a proof-of-concept prototype to
a stable software framework. Our system utilizes two detection and analysis methods:
(i) face detection with eye region extrapolation and (ii) eye state classification.
Additionally, we use two confirmation processes - one based on custom skin color
detection, the other based on nod detection - to make the system more robust and
resilient while not sacrificing speed significantly. The system was designed to be dynamic and adaptable to conform to the current conditions and hardware capabilities.
plays a significant role in road accidents. Alarming recent statistics are raising the
interest in equipping vehicles with driver drowsiness detection systems. This dissertation describes the design and implementation of a driver drowsiness detection system that is based on the analysis of visual input consisting of the driver's face and eyes. The resulting system combines off-the-shelf software components for face detection, human skin color detection and eye state classification in a novel way. It follows a behavioral methodology by performing a non-invasive monitoring of external cues describing a driver's level of drowsiness. We look at this complex problem from a
systems engineering point of view in order to go from a proof-of-concept prototype to
a stable software framework. Our system utilizes two detection and analysis methods:
(i) face detection with eye region extrapolation and (ii) eye state classification.
Additionally, we use two confirmation processes - one based on custom skin color
detection, the other based on nod detection - to make the system more robust and
resilient while not sacrificing speed significantly. The system was designed to be dynamic and adaptable to conform to the current conditions and hardware capabilities.
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