- #1
Duhoc
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Imagine we take a sheet of paper and along the bottom lay out ten equal spaces by marking off 11 equally placed points. We label this row 1. Directly above these points we mark off another 11 points to correspond to our first eleven points only this time we divide the ten spaces of this row into ten more spaces each 1/10 the size of the interval. Now we shall say that whenever a point exists above another point, these two points “coincide.” Yes, one is above the other, but this array is only to visualize what we are asking, understanding that all these points can exist on the same line. So, so far, in the array we have constructed we have one row with 10 spaces and 11 points and a second row with 100 spaces and 101 points and 11 coincisions. Next we construct row 3, above row 2, which will complete our description of the problem. Row 3 will have 11 dots to correspond to row 1, it will have nine dots between them to correspond to the intervals between the eleven dots we arrayed in row two and 9 more dots between each of the smaller intervals of row two for a total of 1000 spaces, 1001 dots and 112 coincisions. We reach the condition of 112 coincisions because the first dot of row 3 will coincide with the first dot of row 2 and the first dot of row 1. Eleven dots of row 3 will coincide with 11 dots of row 2 and 11 dots of row 1 and additionally, nine dots of row 3 will coincide with 9 dots of row 2 one time for each of the original ten intervals for 90 coincisions, bringing the total number of coincisions to 112. Each row we add will resolve the line into intervals one order of magnitude smaller than the line beneath it
Question 1. Is there an expression to determine the number of coincisions as we have described dependent on the number of rows.
Question 2. Is there an expression to determine the number of coincisions if we were to expand our array to three dimensions.
Question 1. Is there an expression to determine the number of coincisions as we have described dependent on the number of rows.
Question 2. Is there an expression to determine the number of coincisions if we were to expand our array to three dimensions.