Figure 2 - uploaded by Charles Davi
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In this article, I'm going to present a low-degree polynomial runtime image partition algorithm that can quickly and reliably partition an image into objectively distinct regions, using only the original image as input, without any training dataset or other exogenous information. All of the code necessary to run the algorithm is available on my res...
Contexts in source publication
Context 1
... implies that as we scramble an image, we should expect to increase the local complexity of the image. For example, we can say that the wall in Figure 2 is "red", even though it contains 41, 542 unique colors. After scrambling the image, that same region can no longer be reasonably described using a single color, and the actual number of colors within the region increases to 47, 471 unique colors. ...
Context 2
... implies that as we scramble an image, we should expect to increase the local complexity of the image. For example, we can say that the wall in Figure 2 is "red", even though it contains 41, 542 unique colors. After scrambling the image, that same region can no longer be reasonably described using a single color, and the actual number of colors within the region increases to 47, 471 unique colors. ...
Context 3
... implies that as we scramble an image, we should expect to increase the local complexity of the image. For example, we can say that the wall in Figure 2 is "red", even though it contains 41, 542 unique colors. After scrambling the image, that same region can no longer be reasonably described using a single color, and the actual number of colors within the region increases to 47, 471 unique colors. ...