TY - GEN
T1 - Infrared image enhancement based on the edge detection and mathematical morphology
AU - Zhang, Linlin
AU - Zhao, Yuejin
AU - Dong, Liquan
AU - Liu, Xiaohua
AU - Yu, Xiaomei
AU - Hui, Mei
AU - Chu, Xuhong
AU - Gong, Cheng
PY - 2010
Y1 - 2010
N2 - The development of the un-cooled infrared imaging technology from military necessity. At present, It is widely applied in industrial, medicine, scientific and technological research and so on. The infrared radiation temperature distribution of the measured object's surface can be observed visually. The collection of infrared images from our laboratory has following characteristics: Strong spatial correlation, Low contrast , Poor visual effect; Without color or shadows because of gray image , and has low resolution; Low definition compare to the visible light image; Many kinds of noise are brought by the random disturbances of the external environment. Digital image processing are widely applied in many areas, it can now be studied up close and in detail in many research field. It has become one kind of important means of the human visual continuation. Traditional methods for image enhancement cannot capture the geometric information of images and tend to amplify noise. In order to remove noise and improve visual effect. Meanwhile, To overcome the above enhancement issues. The mathematical model of FPA unit was constructed based on matrix transformation theory. According to characteristics of FPA, Image enhancement algorithm which combined with mathematical morphology and edge detection are established. First of all, Image profile is obtained by using the edge detection combine with mathematical morphological operators. And then, through filling the template profile by original image to get the ideal background image, The image noise can be removed on the base of the above method. The experiments show that utilizing the proposed algorithm can enhance image detail and the signal to noise ratio.
AB - The development of the un-cooled infrared imaging technology from military necessity. At present, It is widely applied in industrial, medicine, scientific and technological research and so on. The infrared radiation temperature distribution of the measured object's surface can be observed visually. The collection of infrared images from our laboratory has following characteristics: Strong spatial correlation, Low contrast , Poor visual effect; Without color or shadows because of gray image , and has low resolution; Low definition compare to the visible light image; Many kinds of noise are brought by the random disturbances of the external environment. Digital image processing are widely applied in many areas, it can now be studied up close and in detail in many research field. It has become one kind of important means of the human visual continuation. Traditional methods for image enhancement cannot capture the geometric information of images and tend to amplify noise. In order to remove noise and improve visual effect. Meanwhile, To overcome the above enhancement issues. The mathematical model of FPA unit was constructed based on matrix transformation theory. According to characteristics of FPA, Image enhancement algorithm which combined with mathematical morphology and edge detection are established. First of all, Image profile is obtained by using the edge detection combine with mathematical morphological operators. And then, through filling the template profile by original image to get the ideal background image, The image noise can be removed on the base of the above method. The experiments show that utilizing the proposed algorithm can enhance image detail and the signal to noise ratio.
KW - Edge detection
KW - FPA
KW - Image enhancement
KW - Mathematical morphology
KW - Matrix transformation theory
UR - https://www.scopus.com/pages/publications/78650880741
U2 - 10.1117/12.868373
DO - 10.1117/12.868373
M3 - Conference contribution
AN - SCOPUS:78650880741
SN - 9780819483843
T3 - Proceedings of SPIE - The International Society for Optical Engineering
BT - Infrared, Millimeter Wave, and Terahertz Technologies
T2 - Infrared, Millimeter Wave, and Terahertz Technologies
Y2 - 18 October 2010 through 20 October 2010
ER -