(0) Obligation:
Q restricted rewrite system:
The TRS R consists of the following rules:
a(a(a(x1))) → a(b(c(c(c(x1)))))
c(b(x1)) → b(a(x1))
Q is empty.
(1) QTRS Reverse (EQUIVALENT transformation)
We applied the QTRS Reverse Processor [REVERSE].
(2) Obligation:
Q restricted rewrite system:
The TRS R consists of the following rules:
a(a(a(x))) → c(c(c(b(a(x)))))
b(c(x)) → a(b(x))
Q is empty.
(3) NonTerminationProof (EQUIVALENT transformation)
We used the non-termination processor [OPPELT08] to show that the SRS problem is infinite.
Found the self-embedding DerivationStructure:
b c c c c c c c c c → c c c b c c c c c c c c c b a b b a b c b a b b a b
b c c c c c c c c c →
c c c b c c c c c c c c c b a b b a b c b a b b a bby OverlapClosure OC 3
b c c c c c c c c c → c c c b c c c c c c a a a b b a b c b a b b a b
by OverlapClosure OC 3b c c c c c c c c c → c c c b c c c c c c a a b c b a b c b a b b a b
by OverlapClosure OC 3b c c c c c c c c c → c c c b c c c c c c a b c c b a b c b a b b a b
by OverlapClosure OC 3b c c c c c c c c c → c c c b c c c c c c b c c c b a b c b a b b a b
by OverlapClosure OC 3b c c c c c c c c c → c c c b c c c c c c b a a a b c b a b b a b
by OverlapClosure OC 3b c c c c c c c c c → c c c b c c c a a a a a b c b a b b a b
by OverlapClosure OC 3b c c c c c c c c c → c c c b c c c a a a a b c c b a b b a b
by OverlapClosure OC 3b c c c c c c c c c → c c c b c c c a a a b c c c b a b b a b
by OverlapClosure OC 3b c c c c c c c c c → c c c b c c c a a a b a a a b b a b
by OverlapClosure OC 3b c c c c c c c c c → c c c b c c c a a a b a a b c b a b
by OverlapClosure OC 3b c c c c c c c c c → c c c b c c c a a a b a b c c b a b
by OverlapClosure OC 3b c c c c c c c c c → c c c b c c c a a a b b c c c b a b
by OverlapClosure OC 3b c c c c c c c c c → c c c b c c c a a a b b a a a b
by OverlapClosure OC 2b c c c c c c c → c c c b c c c a a a b b a b
by OverlapClosure OC 3b c c c c c c c → c c c b c c c a a b c b a b
by OverlapClosure OC 3b c c c c c c c → c c c b c c c a b c c b a b
by OverlapClosure OC 3b c c c c c c c → c c c b c c c b c c c b a b
by OverlapClosure OC 3b c c c c c c c → c c c b c c c b a a a b
by OverlapClosure OC 2b c c c c c → c c c b c c c b a b
by OverlapClosure OC 3b c c c c c → c c c b a a a b
by OverlapClosure OC 2b c c c → c c c b a b
by OverlapClosure OC 3b c c c → a a a b
by OverlapClosure OC 2b c → a b
by original rule (OC 1)
b c c → a a b
by OverlapClosure OC 2b c → a b
by original rule (OC 1)
b c → a b
by original rule (OC 1)
a a a → c c c b a
by original rule (OC 1)
b c c → a a b
by OverlapClosure OC 2b c → a b
by original rule (OC 1)
b c → a b
by original rule (OC 1)
a a a → c c c b a
by original rule (OC 1)
b c c → a a b
by OverlapClosure OC 2b c → a b
by original rule (OC 1)
b c → a b
by original rule (OC 1)
a a a → c c c b a
by original rule (OC 1)
b c → a b
by original rule (OC 1)
b c → a b
by original rule (OC 1)
b c → a b
by original rule (OC 1)
b c c → a a b
by OverlapClosure OC 2b c → a b
by original rule (OC 1)
b c → a b
by original rule (OC 1)
a a a → c c c b a
by original rule (OC 1)
b c → a b
by original rule (OC 1)
b c → a b
by original rule (OC 1)
b c → a b
by original rule (OC 1)
a a a → c c c b a
by original rule (OC 1)
b c → a b
by original rule (OC 1)
b c → a b
by original rule (OC 1)
a a a → c c c b a
by original rule (OC 1)
a a a → c c c b a
by original rule (OC 1)
b c → a b
by original rule (OC 1)
b c → a b
by original rule (OC 1)
b c → a b
by original rule (OC 1)
a a a → c c c b a
by original rule (OC 1)
(4) NO