ABCDEFGHIJKLMNOPQRSTUVWXYZAAAB
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Start with the first six members of the 4(n)+1 sequence (on C9:H9, this sheet.)
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While the process is demonstrated here using only six members, it could be extended indefinately.
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to be continued31919-3=16
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on row 10 of Sheet2
52929-5=24
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to row 9, apply(2(n)-1)/338.33333333313.666666671924.3333333329.66666667
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increment by851321293745yields-->2421456993117141
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to row 9, apply(4(n)-1)/36.3333333331727.6666666738.333333334959.66666667
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The series is indefinately extendable.
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Thrid iteration of this particular permutation.
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to be continued133737-13=24
Second iteration of this particular permutation.
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on row 28 of Sheet2
174949-17=32
First iteration of this particular permutation.
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The particular varient is where the 4(n)+1 is itself alread a 3(n)
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At each stage break the 4(n)+1 sequence into the following three sub-sets:
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where applying (2(n)-1)/3 results in a set of whole number values.
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where applying (4(n)-1)/3 results in a set of whole number values.
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where neither formula results in a set of whole number values, terminating the process for the extendable portion of the series of those particular 4(n+1) sequences.
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3(odd)39152127333945515763697581
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Each unique 3(n) is connected to an equally unique 4(n)+1, either directly, as illustrated on this sheet (K9:P9), or by selectively applying the 3n+1 rule, isolating results which become odd in either one or two subsequent divisions by 2
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4(odd)+151321293745536169778593101109
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As shown on Sheet1b of Recursive Collatz Aspect *, applying 3n+1 to a 4(n)+1 results in an even number requiring three or more subsequent divisions by 2 to reduce it back to an odd number.
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* Recursive Collatz Aspect:
https://docs.google.com/spreadsheets/d/1z-yl5gg_Tz0CoXTU2vVVK6lziyqtrfba15v0hjcEOfM/edit#gid=0
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