Difference between revisions of "2003 OIM Problems/Problem 6"

(Created page with "== Problem == Sequences <math>(a_n</math>)_{n \ge 0}, and <math>(b_n)_{n \ge 0}</math> with are defined by: <cmath>a_0=1 \text{, }b_0=4\text{, and}</cmath> <cmath>a_{n+1}=a_...")
 
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== Problem ==
 
== Problem ==
Sequences <math>(a_n</math>)_{n \ge 0}, and <math>(b_n)_{n \ge 0}</math> with are defined by:
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Sequences <math>(a_n</math>)_{n \ge 0}<math>, and </math>(b_n)_{n \ge 0}$ with are defined by:
  
 
<cmath>a_0=1 \text{, }b_0=4\text{, and}</cmath>
 
<cmath>a_0=1 \text{, }b_0=4\text{, and}</cmath>

Revision as of 04:34, 14 December 2023

Problem

Sequences $(a_n$)_{n \ge 0}$, and$(b_n)_{n \ge 0}$ with are defined by:

\[a_0=1 \text{, }b_0=4\text{, and}\]

\[a_{n+1}=a_n^{2001}+b_n\text{,  for }n \ge 0\text{.}\]

\[b_{n+1}=b_n^{2001}+a_n\text{,  for }n \ge 0\text{.}\]

Show that 2003 does not divide any of the terms of these sequences.

~translated into English by Tomas Diaz. ~orders@tomasdiaz.com

Solution

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See also