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Apr
21
awarded  Great Question
Apr
21
asked $(x_1y_2 - x_2y_1)$: area or displacement?
Apr
17
revised What's wrong with this proof of unique factorization?
added 236 characters in body
Apr
17
accepted What's wrong with this proof of unique factorization?
Apr
17
asked What's wrong with this proof of unique factorization?
Apr
17
asked What are $\sigma$ and $\tau$ in $n = 2^{\sigma(n)}\,\tau(n)$ called?
Apr
17
asked Looking for a very gentle first book on number theory
Apr
17
accepted Uniqueness of factorization for math-phobes?
Apr
16
revised Uniqueness of factorization for math-phobes?
added 186 characters in body
Apr
16
comment Uniqueness of factorization for math-phobes?
@rschwieb: please see my edit.
Apr
16
revised Uniqueness of factorization for math-phobes?
added 186 characters in body
Apr
16
asked Uniqueness of factorization for math-phobes?
Apr
16
revised Are the lengths from this recursive construction a geometric sequence?
deleted 223 characters in body
Apr
16
answered Are the lengths from this recursive construction a geometric sequence?
Apr
16
revised Are the lengths from this recursive construction a geometric sequence?
edited tags
Apr
16
revised Are the lengths from this recursive construction a geometric sequence?
added 2 characters in body
Apr
16
revised Are the lengths from this recursive construction a geometric sequence?
deleted 6 characters in body
Apr
16
revised Are the lengths from this recursive construction a geometric sequence?
deleted 6 characters in body
Apr
16
revised Are the lengths from this recursive construction a geometric sequence?
deleted 6 characters in body
Apr
16
comment Are the lengths from this recursive construction a geometric sequence?
As far as I can tell, you have just reiterated the fact that all regular pentagons are similar, which is not in question. What is in question is that the sides of the first and second pentagon, for example, are in the same proportion as the sides of the second and third pentagon, and, more generally, of the $n$-th and ($n+1$)-th pentagon, for all $n$.