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引用次数: 0

摘要

分类技术是利用像元的反射率对遥感影像进行分类。提出了一种新的多光谱遥感图像分类方法。该方法利用直方图中各谱带灰度值(DN值)的频率对多光谱图像进行分类。对图像的不同光谱波段绘制直方图。然后,它在直方图中找到并分离驼峰。这种方法对多模态或双模态直方图产生更有意义的分类。它为每个光谱带在每个驼峰中创建3个潜在质心。峰的数量越多,分类的潜在质心就越多。不同的光谱带在直方图的峰中有不同的峰。它读取一个波段的一个峰值的所有像素,并使用读取的像素绘制其他波段灰度值的局部直方图。这样,一个频带的一个峰的峰值可以在局部直方图中找到相应的峰值,这些峰值形成一个像素,可以作为潜在的质心,其中一些峰值频率就是该质心的实际频率。现在,我选择最左和最右灰度值它们的频率大于或等于这个驼峰的平均频率。由于每个光谱带的每个驼峰都有三个灰度值,所以我可以为每个光谱带的每个驼峰找到三个质心。重复的质心将从质心列表中消除。其余质心递归迭代,剔除频率小于附近质心的质心。然后,算法利用引力找出两个附近的质心。
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Image Classification Using Humps of Histogram
Classification techniques classify the remotely sensed image by using reflectance properties of pixels. This paper presents a new approach to classify multispectral remotely sensed image. This approach classifies the multispectral image using frequencies of spectral bands' grey level values (DN values) in Histogram. It draws histogram for different spectral bands of the image. Then, it finds and separates the humps in histograms. This approach yields more meaningful classification for multi-modal or bi-modal histograms. It creates 3 potential centroids in each hump for each spectral band. More the number of humps, more would be potential centroids for classification. Different spectral bands have different peaks in their humps of histograms. It reads all the pixels of one peak of one band and draw the local histogram of other bands' grey level values using pixels read. This way, peak of one hump of one band can find corresponding peaks in local histogram and these peaks make a pixel that can be a potential centroid and some of these peak frequencies is the actual frequency of that centroid. Now, I choose extreme left and extreme right grey level values whose frequency is greater than or equal to the average frequency of that hump. As each hump of each spectral band has three grey level values, I can find three centroids for each hump of each spectral band. Duplicate centroids are eliminated from the list of centroids. The rest of the centroids are recursively iterated and centroids with lesser frequencies than the nearby centroids are eliminated. Later, algorithm uses gravitational force to find out two nearby centroids.
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