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S Apr 11 at 6:56 history suggested Vessel CC BY-SA 4.0
Added variable constraints to ensure continued fractions are indeed infinite.
Apr 10 at 16:23 review Suggested edits
S Apr 11 at 6:56
Apr 10 at 16:07 comment added Vessel Let $a_i=\frac{w_i}{x_i}$ and let $b_i=\frac{y_i}{z_i}$, for $w_i,y_i\in\mathbb{Z}$ and $x_i,z_i\in\mathbb{Z}\setminus\left\{0\right\}$. By applying an equivalence transform, the generalized continued fraction is irrational if $\left|w_{n}x_{n-1}z_{n-1}z_{n}\right|<\left|x_{n}y_{n}\right|$, for all sufficiently large $i$, by Legendre's aforementioned criterion.
Mar 28 at 19:11 comment added Vessel It should be worth noting that any continued fraction is quadratic irrational iff it's periodic, see: Wolfram MathWorld
Dec 25, 2019 at 12:19 comment added Pazzaz Do you have a source for Legendre's condition applying when $a_i$ or $b_i$ are negative integers?
Mar 2, 2017 at 1:22 answer added Gottfried Helms timeline score: 5
Feb 28, 2017 at 12:47 answer added bhbr timeline score: 2
Feb 25, 2017 at 14:17 comment added Gottfried Helms A better reference is likely David Angell - A family of continued fractions (2010) Journal of Number Theory 130 , pg. 904-911 (Elsevier).
Feb 25, 2017 at 12:49 comment added Gottfried Helms Perhaps this is interesting: some heuristical examples and systematized at go.helms-net.de/math/divers/GenContFracRationalE.htm
Feb 23, 2017 at 11:15 comment added Gerry Myerson For the simple continued fraction, the $b_i$ should be positive integers.
Feb 23, 2017 at 9:09 answer added Nemo timeline score: 8
Feb 23, 2017 at 8:36 review First posts
Feb 23, 2017 at 8:44
Feb 23, 2017 at 8:23 history asked bhbr CC BY-SA 3.0