2016
DOI: 10.1109/jstars.2016.2551318
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Antarctic Sea-Ice Classification Based on Conditional Random Fields From RADARSAT-2 Dual-Polarization Satellite Images

Abstract: In January 2014, Chinese National Antarctic Research Expedition (CHINARE) 30th cruise raised public concern since the Xuelong, the Chinese polar research vessel, was trapped in the sea-ice zone (66°39 20.88 S, 144°25 2.28 E) in the vicinity of the Adélie Depression area on the east Antarctic continent. This event highlighted the importance of an operational sea-ice classification map for ice routing to serve ship navigation. In this paper, unprecedented Antarctic sea-ice classification algorithms from RADARSAT… Show more

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Cited by 20 publications
(17 citation statements)
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“…Haralick and Shanmugam [31] first introduced the GLCM, which described the frequency of one gray level appearing in a specified spatial linear relationship with another gray level within the area under investigation and originally proposed 14 GLCM statistical parameters to label the GLCM. From then on, these GLCM statistical parameters have been widely used in image recognition, such as detecting sea ice changing in images [32][33][34], classifying landscape images [35], and distinguishing computed tomography (CT) images of normal and abnormal tissues [36,37]. However, it is difficult to understand the essential meanings of GLCM statistical parameters and to visibly check how these GLCM parameters can affect detection results since GLCM statistical parameters represent abstract characteristics of an object.…”
Section: Grayscale Statistical Feature-based Object Detection Methodsmentioning
confidence: 99%
“…Haralick and Shanmugam [31] first introduced the GLCM, which described the frequency of one gray level appearing in a specified spatial linear relationship with another gray level within the area under investigation and originally proposed 14 GLCM statistical parameters to label the GLCM. From then on, these GLCM statistical parameters have been widely used in image recognition, such as detecting sea ice changing in images [32][33][34], classifying landscape images [35], and distinguishing computed tomography (CT) images of normal and abnormal tissues [36,37]. However, it is difficult to understand the essential meanings of GLCM statistical parameters and to visibly check how these GLCM parameters can affect detection results since GLCM statistical parameters represent abstract characteristics of an object.…”
Section: Grayscale Statistical Feature-based Object Detection Methodsmentioning
confidence: 99%
“…Zhu et al (2016) have used Radarsat-2 dual-polarization satellite images to develop an algorithm to classify Antarctic sea ice based on conditional Random Fields (CRF) approach by including multiple features from sea-ice concentration, gray-level co-occurrence matrix textures, polarization ratio, backscatter coefficients and intensity data.…”
Section: Development Of Techniques For Sea Ice Characterizationmentioning
confidence: 99%
“…In higher resolution image classification activities, it is necessary to obtain more granular information from the data by extracting local characteristics such as scale and orientation. In this scenario, techniques such as Fourier power spectrum [25], random fields [26], Gabor filter [27] and wavelet transform [28] are usually applied.…”
Section: Introductionmentioning
confidence: 99%