A Supervised Learning Data Mining Approach for Object Recognition and Classification in High Resolution Satellite Data
Advances in spatial and spectral resolution of satellite
images have led to tremendous growth in large image databases. The
data we acquire through satellites, radars, and sensors consists of
important geographical information that can be used for remote
sensing applications such as region planning, disaster management.
Spatial data classification and object recognition are important tasks
for many applications. However, classifying objects and identifying
them manually from images is a difficult task. Object recognition is
often considered as a classification problem, this task can be
performed using machine-learning techniques. Despite of many
machine-learning algorithms, the classification is done using
supervised classifiers such as Support Vector Machines (SVM) as the
area of interest is known. We proposed a classification method,
which considers neighboring pixels in a region for feature extraction
and it evaluates classifications precisely according to neighboring
classes for semantic interpretation of region of interest (ROI). A
dataset has been created for training and testing purpose; we
generated the attributes by considering pixel intensity values and
mean values of reflectance. We demonstrated the benefits of using
knowledge discovery and data-mining techniques, which can be on
image data for accurate information extraction and classification from
high spatial resolution remote sensing imagery.
[1] A Adnan A. Y. Mustafa, Linda G. Shapiro and Mark A. Ganter,"3D
Object Recognition from Color Intensity Images", 13th Int. Conf. on
Pattern Recognition, Vienna, Austria, pp. 25-30, /August, 1996.
[2] Wang Xiang-yang, Sun Wei-wei a, Wu Zhi-fang, Yang Hong-ying,
Wang Qin-yan “Color image segmentation using PDTDFB domain
hidden Markov tree model” Applied Soft Computing 29 (2015) 138–
152.
[3] Yang Haibo, Wang Zongmin, Zhao Hongling, Guo Yu “Water body
Extraction Methods Study Based on RS and GIS ” 2011 3rd
International Conference on Environmental Science and Information
Application Technology (ESIAT 2011).
[4] Yuqiang Wang, Renzong Ruan, Yuanjian SHE, Meichun YAN
“Extraction of Water Information based on Radarsat Sar and Landsat
ETM+ ” 2011 3rd International Conference on Environmental Science
and Information Application Technology (ESIAT 2011).
[5] U. S. Geological Survey (USGS)” Landsat Orthorectified ETM+ Pan
Sharpened” Sioux Falls, SD USA, USGS Earth Resources Observation
and Science Center (EROS), https://lta.cr.usgs.gov/Tri_Dec_GLOO.
[6] Xiaoxiao Lia, B., Soe W. Myintb, Yujia Zhangb, Chritopher Gallettib,
Xiaoxiang Zhangc,Billie L. Turner II “Object-based land-cover
classification for metropolitan Phoenix, Arizona, using aerial
photography” International Journal of Applied Earth Observation and
Geoinformation 33 (2014) 321–330.
[7] Usama Fayyad, Gregory Piatetsky-Shapiro, and Padhraic Smyth “From
Data Mining to Knowledge Discovery in Databases “American
Association for Artificial Intelligence. All rights reserved. 0738-4602-
1996.
[8] I. Witten, E. Frank “Data Mining: practical Machine Learning Tools and
Techniques”.
[9] J. Zahang, W. Hsu and M. L. Lee. “An information-Driven Framework
for image Mining”, in proceedings of 12th International Conference on
Database and Expert Systems Applications.
[1] A Adnan A. Y. Mustafa, Linda G. Shapiro and Mark A. Ganter,"3D
Object Recognition from Color Intensity Images", 13th Int. Conf. on
Pattern Recognition, Vienna, Austria, pp. 25-30, /August, 1996.
[2] Wang Xiang-yang, Sun Wei-wei a, Wu Zhi-fang, Yang Hong-ying,
Wang Qin-yan “Color image segmentation using PDTDFB domain
hidden Markov tree model” Applied Soft Computing 29 (2015) 138–
152.
[3] Yang Haibo, Wang Zongmin, Zhao Hongling, Guo Yu “Water body
Extraction Methods Study Based on RS and GIS ” 2011 3rd
International Conference on Environmental Science and Information
Application Technology (ESIAT 2011).
[4] Yuqiang Wang, Renzong Ruan, Yuanjian SHE, Meichun YAN
“Extraction of Water Information based on Radarsat Sar and Landsat
ETM+ ” 2011 3rd International Conference on Environmental Science
and Information Application Technology (ESIAT 2011).
[5] U. S. Geological Survey (USGS)” Landsat Orthorectified ETM+ Pan
Sharpened” Sioux Falls, SD USA, USGS Earth Resources Observation
and Science Center (EROS), https://lta.cr.usgs.gov/Tri_Dec_GLOO.
[6] Xiaoxiao Lia, B., Soe W. Myintb, Yujia Zhangb, Chritopher Gallettib,
Xiaoxiang Zhangc,Billie L. Turner II “Object-based land-cover
classification for metropolitan Phoenix, Arizona, using aerial
photography” International Journal of Applied Earth Observation and
Geoinformation 33 (2014) 321–330.
[7] Usama Fayyad, Gregory Piatetsky-Shapiro, and Padhraic Smyth “From
Data Mining to Knowledge Discovery in Databases “American
Association for Artificial Intelligence. All rights reserved. 0738-4602-
1996.
[8] I. Witten, E. Frank “Data Mining: practical Machine Learning Tools and
Techniques”.
[9] J. Zahang, W. Hsu and M. L. Lee. “An information-Driven Framework
for image Mining”, in proceedings of 12th International Conference on
Database and Expert Systems Applications.
@article{"International Journal of Information, Control and Computer Sciences:71755", author = "Mais Nijim and Rama Devi Chennuboyina and Waseem Al Aqqad", title = "A Supervised Learning Data Mining Approach for Object Recognition and Classification in High Resolution Satellite Data", abstract = "Advances in spatial and spectral resolution of satellite
images have led to tremendous growth in large image databases. The
data we acquire through satellites, radars, and sensors consists of
important geographical information that can be used for remote
sensing applications such as region planning, disaster management.
Spatial data classification and object recognition are important tasks
for many applications. However, classifying objects and identifying
them manually from images is a difficult task. Object recognition is
often considered as a classification problem, this task can be
performed using machine-learning techniques. Despite of many
machine-learning algorithms, the classification is done using
supervised classifiers such as Support Vector Machines (SVM) as the
area of interest is known. We proposed a classification method,
which considers neighboring pixels in a region for feature extraction
and it evaluates classifications precisely according to neighboring
classes for semantic interpretation of region of interest (ROI). A
dataset has been created for training and testing purpose; we
generated the attributes by considering pixel intensity values and
mean values of reflectance. We demonstrated the benefits of using
knowledge discovery and data-mining techniques, which can be on
image data for accurate information extraction and classification from
high spatial resolution remote sensing imagery.", keywords = "Remote sensing, object recognition, classification,
data mining, waterbody identification, feature extraction.", volume = "9", number = "12", pages = "2516-5", }
{
"title": "A Supervised Learning Data Mining Approach for Object Recognition and Classification in High Resolution Satellite Data",
"abstract": "Advances in spatial and spectral resolution of satellite\r\nimages have led to tremendous growth in large image databases. The\r\ndata we acquire through satellites, radars, and sensors consists of\r\nimportant geographical information that can be used for remote\r\nsensing applications such as region planning, disaster management.\r\nSpatial data classification and object recognition are important tasks\r\nfor many applications. However, classifying objects and identifying\r\nthem manually from images is a difficult task. Object recognition is\r\noften considered as a classification problem, this task can be\r\nperformed using machine-learning techniques. Despite of many\r\nmachine-learning algorithms, the classification is done using\r\nsupervised classifiers such as Support Vector Machines (SVM) as the\r\narea of interest is known. We proposed a classification method,\r\nwhich considers neighboring pixels in a region for feature extraction\r\nand it evaluates classifications precisely according to neighboring\r\nclasses for semantic interpretation of region of interest (ROI). A\r\ndataset has been created for training and testing purpose; we\r\ngenerated the attributes by considering pixel intensity values and\r\nmean values of reflectance. We demonstrated the benefits of using\r\nknowledge discovery and data-mining techniques, which can be on\r\nimage data for accurate information extraction and classification from\r\nhigh spatial resolution remote sensing imagery.",
"keywords": [
"Remote sensing",
"object recognition",
"classification",
"data mining",
"waterbody identification",
"feature extraction."
],
"authors": [
"Mais Nijim",
"Rama Devi Chennuboyina",
"Waseem Al Aqqad"
],
"values": 9,
"issue": 12,
"issn": null,
"page_start": 2516,
"page_end": 5,
"year": "2015",
"doi": "https://doi.org/10.5281/zenodo.1110770",
"journal": "International Journal of Information, Control and Computer Sciences",
"categories": [
"Computer and Information Engineering"
],
"files": [
"http://scholarly.org/pdf/display/a-supervised-learning-data-mining-approach-for-object-recognition-and-classification-in-high-resolution-satellite-data"
]
}