MAYBE * Step 1: UnsatPaths MAYBE + Considered Problem: Rules: 0. f0(A) -> f4(B) True (1,1) 1. f4(A) -> f4(1 + A) [3 >= A && A >= 1] (?,1) 2. f4(A) -> f4(1) [0 >= A && 3 >= A] (?,1) 3. f4(A) -> f12(A) [A >= 4] (?,1) Signature: {(f0,1);(f12,1);(f4,1)} Flow Graph: [0->{1,2,3},1->{1,2,3},2->{1,2,3},3->{}] + Applied Processor: UnsatPaths + Details: We remove following edges from the transition graph: [(1,2),(2,2),(2,3)] * Step 2: FromIts MAYBE + Considered Problem: Rules: 0. f0(A) -> f4(B) True (1,1) 1. f4(A) -> f4(1 + A) [3 >= A && A >= 1] (?,1) 2. f4(A) -> f4(1) [0 >= A && 3 >= A] (?,1) 3. f4(A) -> f12(A) [A >= 4] (?,1) Signature: {(f0,1);(f12,1);(f4,1)} Flow Graph: [0->{1,2,3},1->{1,3},2->{1},3->{}] + Applied Processor: FromIts + Details: () * Step 3: Unfold MAYBE + Considered Problem: Rules: f0(A) -> f4(B) True f4(A) -> f4(1 + A) [3 >= A && A >= 1] f4(A) -> f4(1) [0 >= A && 3 >= A] f4(A) -> f12(A) [A >= 4] Signature: {(f0,1);(f12,1);(f4,1)} Rule Graph: [0->{1,2,3},1->{1,3},2->{1},3->{}] + Applied Processor: Unfold + Details: () * Step 4: AddSinks MAYBE + Considered Problem: Rules: f0.0(A) -> f4.1(B) True f0.0(A) -> f4.2(B) True f0.0(A) -> f4.3(B) True f4.1(A) -> f4.1(1 + A) [3 >= A && A >= 1] f4.1(A) -> f4.3(1 + A) [3 >= A && A >= 1] f4.2(A) -> f4.1(1) [0 >= A && 3 >= A] f4.3(A) -> f12.4(A) [A >= 4] Signature: {(f0.0,1);(f12.4,1);(f4.1,1);(f4.2,1);(f4.3,1)} Rule Graph: [0->{3,4},1->{5},2->{6},3->{3,4},4->{6},5->{3,4},6->{}] + Applied Processor: AddSinks + Details: () * Step 5: Decompose MAYBE + Considered Problem: Rules: f0.0(A) -> f4.1(B) True f0.0(A) -> f4.2(B) True f0.0(A) -> f4.3(B) True f4.1(A) -> f4.1(1 + A) [3 >= A && A >= 1] f4.1(A) -> f4.3(1 + A) [3 >= A && A >= 1] f4.2(A) -> f4.1(1) [0 >= A && 3 >= A] f4.3(A) -> f12.4(A) [A >= 4] f12.4(A) -> exitus616(A) True f12.4(A) -> exitus616(A) True f12.4(A) -> exitus616(A) True Signature: {(exitus616,1);(f0.0,1);(f12.4,1);(f4.1,1);(f4.2,1);(f4.3,1)} Rule Graph: [0->{3,4},1->{5},2->{6},3->{3,4},4->{6},5->{3,4},6->{7,8,9}] + Applied Processor: Decompose Greedy + Details: We construct a looptree: P: [0,1,2,3,4,5,6,7,8,9] | `- p:[3] c: [3] * Step 6: AbstractSize MAYBE + Considered Problem: (Rules: f0.0(A) -> f4.1(B) True f0.0(A) -> f4.2(B) True f0.0(A) -> f4.3(B) True f4.1(A) -> f4.1(1 + A) [3 >= A && A >= 1] f4.1(A) -> f4.3(1 + A) [3 >= A && A >= 1] f4.2(A) -> f4.1(1) [0 >= A && 3 >= A] f4.3(A) -> f12.4(A) [A >= 4] f12.4(A) -> exitus616(A) True f12.4(A) -> exitus616(A) True f12.4(A) -> exitus616(A) True Signature: {(exitus616,1);(f0.0,1);(f12.4,1);(f4.1,1);(f4.2,1);(f4.3,1)} Rule Graph: [0->{3,4},1->{5},2->{6},3->{3,4},4->{6},5->{3,4},6->{7,8,9}] ,We construct a looptree: P: [0,1,2,3,4,5,6,7,8,9] | `- p:[3] c: [3]) + Applied Processor: AbstractSize Minimize + Details: () * Step 7: AbstractFlow MAYBE + Considered Problem: Program: Domain: [A,0.0] f0.0 ~> f4.1 [A <= unknown] f0.0 ~> f4.2 [A <= unknown] f0.0 ~> f4.3 [A <= unknown] f4.1 ~> f4.1 [A <= 4*K] f4.1 ~> f4.3 [A <= 4*K] f4.2 ~> f4.1 [A <= K] f4.3 ~> f12.4 [A <= A] f12.4 ~> exitus616 [A <= A] f12.4 ~> exitus616 [A <= A] f12.4 ~> exitus616 [A <= A] + Loop: [0.0 <= 3*K + A] f4.1 ~> f4.1 [A <= 4*K] + Applied Processor: AbstractFlow + Details: () * Step 8: Failure MAYBE + Considered Problem: Program: Domain: [tick,huge,K,A,0.0] f0.0 ~> f4.1 [huge ~=> A] f0.0 ~> f4.2 [huge ~=> A] f0.0 ~> f4.3 [huge ~=> A] f4.1 ~> f4.1 [K ~=> A] f4.1 ~> f4.3 [K ~=> A] f4.2 ~> f4.1 [K ~=> A] f4.3 ~> f12.4 [] f12.4 ~> exitus616 [] f12.4 ~> exitus616 [] f12.4 ~> exitus616 [] + Loop: [A ~+> 0.0,K ~*> 0.0] f4.1 ~> f4.1 [K ~=> A] + Applied Processor: Lare + Details: Unknown bound. MAYBE