Prediction of the Thermal Imaging Minimum Resolvable (Circle) Temperature Difference with Neural Network Application
Issue No. 12 - December (2008 vol. 30)
Yi-Chin Fang , National Kaohsiung First University of Science, Institute of Engineering Science and Technology, Kaohsiung City
Bo-Wen Wu , National Kaohsiung First University of Science, Institute of Engineering Science and Technology, Kaohsiung City
Thermal imaging is an important technology in both national defense and the private sector. An advantage of thermal imaging is its ability to be deployed while fully engaged in duties, not limited by weather or the brightness of indoor or outdoor conditions. However, in an outdoor environment, many factors, including atmospheric decay, target shape, great distance, fog, temperature out of range and diffraction limits can lead to bad image formation, which directly affects the accuracy of object recognition. The visual characteristics of the human eye mean that it has a much better capacity for picture recognition under normal conditions than artificial intelligence does. However, conditions of interference significantly reduce this capacity for picture recognition for instance, fatigue impairs human eyesight. Hence, psychological and physiological factors can affect the result when the human eye is adopted to measure MRTD (minimum resolvable temperature difference) and MRCTD (minimum resolvable circle temperature difference). This study explores thermal imaging recognition, and presents a method for effectively choosing the characteristic values and processing the images fully. Neural network technology is successfully applied to recognize thermal imaging and predict MRTD and MRCTD (Appendix A), exceeding thermal imaging recognition under fatigue and the limits of the human eye.
Artificial Intelligence, Image Processing and Computer Vision
Yi-Chin Fang, Bo-Wen Wu, "Prediction of the Thermal Imaging Minimum Resolvable (Circle) Temperature Difference with Neural Network Application", IEEE Transactions on Pattern Analysis & Machine Intelligence, vol. 30, no. , pp. 2218-2228, December 2008, doi:10.1109/TPAMI.2007.70839