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Oct 24, 2020 at 5:47 history edited Tony Huynh CC BY-SA 4.0
deleted 5 characters in body; edited tags; edited title
Jul 24, 2016 at 3:02 review First posts
Jul 24, 2016 at 4:05
Jul 16, 2016 at 12:22 answer added Tony Huynh timeline score: 8
Jul 15, 2016 at 7:12 comment added Fedor Petrov @MathivananPalraj of course there are many other examples. For example, triples $(17p,2q,3r)$.
Jul 15, 2016 at 5:50 comment added Mathivanan Palraj @Fedor Petrov- I think (3p, 2q, 5r) is not a unique set. (33, 34, 35), (85, 86, 87), and (93, 94, 95) conform to the above set. However, set (141, 142, 143) does not conform.
Jul 14, 2016 at 11:51 comment added Fedor Petrov It is a very special case of widely believed (I think, cause of probabilistic heuristics) en.m.wikipedia.org/wiki/Dickson%27s_conjecture
Jul 14, 2016 at 10:35 comment added Tony Huynh Heath-Brown proved that there are infinitely many $n$ for which $n$ and $n+1$ have the same number of divisors. It is conjectured that your statement is true. See Richard Guy's Unsolved Problems in Number Theory Problem B18. Indeed, there it is conjectured that there are infinitely many $n$ such that $n, n+1, n+2$ are all the product of two primes (this is stronger than your conjecture and weaker than Fedor's).
Jul 14, 2016 at 10:30 comment added user35593 @Fedor: why are you sure?
S Jul 14, 2016 at 9:47 history suggested The Thin Whistler CC BY-SA 3.0
"mathematicised" the question
Jul 14, 2016 at 9:16 review Suggested edits
S Jul 14, 2016 at 9:47
Jul 14, 2016 at 8:01 review Close votes
Jul 14, 2016 at 12:46
Jul 14, 2016 at 7:55 comment added Todd Trimble Please use LaTeX for mathematical notation.
Jul 14, 2016 at 7:37 history edited Mathivanan Palraj CC BY-SA 3.0
added 26 characters in body
Jul 14, 2016 at 6:01 comment added Fedor Petrov The answer is surely yes, even for triples $(3p,2q,5r)$ with prime $p,q,r$. Another question is how to prove.
Jul 14, 2016 at 4:25 history asked Mathivanan Palraj CC BY-SA 3.0