; NOTE: Assertions have been autogenerated by utils/update_analyze_test_checks.py
; RUN: opt -disable-output "-passes=print<scalar-evolution>" %s 2>&1 | FileCheck %s

define i32 @logical_and_2ops(i32 %n, i32 %m) {
; CHECK-LABEL: 'logical_and_2ops'
; CHECK-NEXT:  Classifying expressions for: @logical_and_2ops
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%n umin_seq %m) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%n umin_seq %m)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_2ops
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%n umin_seq %m)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%n umin_seq %m)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n
  %cond_p1 = icmp ult i32 %i, %m
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_or_2ops(i32 %n, i32 %m) {
; CHECK-LABEL: 'logical_or_2ops'
; CHECK-NEXT:  Classifying expressions for: @logical_or_2ops
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%n umin_seq %m) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%n umin_seq %m)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 true, i1 %cond_p1
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_or_2ops
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%n umin_seq %m)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%n umin_seq %m)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp uge i32 %i, %n
  %cond_p1 = icmp uge i32 %i, %m
  %cond = select i1 %cond_p0, i1 true, i1 %cond_p1
  br i1 %cond, label %exit, label %loop
exit:
  ret i32 %i
}

define i32 @logical_and_3ops(i32 %n, i32 %m, i32 %k) {
; CHECK-LABEL: 'logical_and_3ops'
; CHECK-NEXT:  Classifying expressions for: @logical_and_3ops
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%n umin_seq %m umin_seq %k) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%n umin_seq %m umin_seq %k)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond_p3 = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %cond = select i1 %cond_p3, i1 %cond_p2, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1 umin_seq %cond_p2) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_3ops
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%n umin_seq %m umin_seq %k)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%n umin_seq %m umin_seq %k)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n
  %cond_p1 = icmp ult i32 %i, %m
  %cond_p2 = icmp ult i32 %i, %k
  %cond_p3 = select i1 %cond_p0, i1 %cond_p1, i1 false
  %cond = select i1 %cond_p3, i1 %cond_p2, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_or_3ops(i32 %n, i32 %m, i32 %k) {
; CHECK-LABEL: 'logical_or_3ops'
; CHECK-NEXT:  Classifying expressions for: @logical_or_3ops
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%n umin_seq %m umin_seq %k) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%n umin_seq %m umin_seq %k)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond_p3 = select i1 %cond_p0, i1 true, i1 %cond_p1
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %cond = select i1 %cond_p3, i1 true, i1 %cond_p2
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1) umin_seq (true + %cond_p2))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_or_3ops
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%n umin_seq %m umin_seq %k)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%n umin_seq %m umin_seq %k)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp uge i32 %i, %n
  %cond_p1 = icmp uge i32 %i, %m
  %cond_p2 = icmp uge i32 %i, %k
  %cond_p3 = select i1 %cond_p0, i1 true, i1 %cond_p1
  %cond = select i1 %cond_p3, i1 true, i1 %cond_p2
  br i1 %cond, label %exit, label %loop
exit:
  ret i32 %i
}

define i32 @logical_or_3ops_duplicate(i32 %n, i32 %m, i32 %k) {
; CHECK-LABEL: 'logical_or_3ops_duplicate'
; CHECK-NEXT:  Classifying expressions for: @logical_or_3ops_duplicate
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%n umin_seq %m umin_seq %k) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%n umin_seq %m umin_seq %k)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond_p4 = select i1 %cond_p0, i1 true, i1 %cond_p1
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %cond_p5 = select i1 %cond_p4, i1 true, i1 %cond_p2
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq ((true + %cond_p1) umin (true + %cond_p2)))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %cond = select i1 %cond_p5, i1 true, i1 %cond_p3
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq ((true + %cond_p1) umin (true + %cond_p2)) umin_seq (true + %cond_p3))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_or_3ops_duplicate
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%n umin_seq %m umin_seq %k)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%n umin_seq %m umin_seq %k)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp uge i32 %i, %n
  %cond_p1 = icmp uge i32 %i, %m
  %cond_p2 = icmp uge i32 %i, %n
  %cond_p3 = icmp uge i32 %i, %k
  %cond_p4 = select i1 %cond_p0, i1 true, i1 %cond_p1
  %cond_p5 = select i1 %cond_p4, i1 true, i1 %cond_p2
  %cond = select i1 %cond_p5, i1 true, i1 %cond_p3
  br i1 %cond, label %exit, label %loop
exit:
  ret i32 %i
}

define i32 @logical_or_3ops_redundant_uminseq_operand(i32 %n, i32 %m, i32 %k) {
; CHECK-LABEL: 'logical_or_3ops_redundant_uminseq_operand'
; CHECK-NEXT:  Classifying expressions for: @logical_or_3ops_redundant_uminseq_operand
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: ((%n umin %m) umin_seq %k) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + ((%n umin %m) umin_seq %k)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %umin = call i32 @llvm.umin.i32(i32 %n, i32 %m)
; CHECK-NEXT:    --> (%n umin %m) U: full-set S: full-set Exits: (%n umin %m) LoopDispositions: { %loop: Invariant }
; CHECK-NEXT:    %cond_p3 = select i1 %cond_p0, i1 true, i1 %cond_p1
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin (true + %cond_p1))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %cond = select i1 %cond_p3, i1 true, i1 %cond_p2
; CHECK-NEXT:    --> (true + (((true + %cond_p0) umin (true + %cond_p1)) umin_seq (true + %cond_p2))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_or_3ops_redundant_uminseq_operand
; CHECK-NEXT:  Loop %loop: backedge-taken count is ((%n umin %m) umin_seq %k)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is ((%n umin %m) umin_seq %k)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %umin = call i32 @llvm.umin.i32(i32 %n, i32 %m)
  %cond_p0 = icmp uge i32 %i, %umin
  %cond_p1 = icmp uge i32 %i, %n
  %cond_p2 = icmp uge i32 %i, %k
  %cond_p3 = select i1 %cond_p0, i1 true, i1 %cond_p1
  %cond = select i1 %cond_p3, i1 true, i1 %cond_p2
  br i1 %cond, label %exit, label %loop
exit:
  ret i32 %i
}

define i32 @logical_or_3ops_redundant_umin_operand(i32 %n, i32 %m, i32 %k) {
; CHECK-LABEL: 'logical_or_3ops_redundant_umin_operand'
; CHECK-NEXT:  Classifying expressions for: @logical_or_3ops_redundant_umin_operand
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%n umin_seq %k umin_seq %m) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%n umin_seq %k umin_seq %m)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %umin = call i32 @llvm.umin.i32(i32 %n, i32 %m)
; CHECK-NEXT:    --> (%n umin %m) U: full-set S: full-set Exits: (%n umin %m) LoopDispositions: { %loop: Invariant }
; CHECK-NEXT:    %cond_p3 = select i1 %cond_p0, i1 true, i1 %cond_p1
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %cond = select i1 %cond_p3, i1 true, i1 %cond_p2
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1) umin_seq (true + %cond_p2))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_or_3ops_redundant_umin_operand
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%n umin_seq %k umin_seq %m)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%n umin_seq %k umin_seq %m)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %umin = call i32 @llvm.umin.i32(i32 %n, i32 %m)
  %cond_p0 = icmp uge i32 %i, %n
  %cond_p1 = icmp uge i32 %i, %k
  %cond_p2 = icmp uge i32 %i, %umin
  %cond_p3 = select i1 %cond_p0, i1 true, i1 %cond_p1
  %cond = select i1 %cond_p3, i1 true, i1 %cond_p2
  br i1 %cond, label %exit, label %loop
exit:
  ret i32 %i
}

define i32 @logical_or_4ops_redundant_operand_across_umins(i32 %n, i32 %m, i32 %k, i32 %q) {
; CHECK-LABEL: 'logical_or_4ops_redundant_operand_across_umins'
; CHECK-NEXT:  Classifying expressions for: @logical_or_4ops_redundant_operand_across_umins
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: ((%n umin %m) umin_seq %k umin_seq %q) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + ((%n umin %m) umin_seq %k umin_seq %q)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %umin = call i32 @llvm.umin.i32(i32 %n, i32 %m)
; CHECK-NEXT:    --> (%n umin %m) U: full-set S: full-set Exits: (%n umin %m) LoopDispositions: { %loop: Invariant }
; CHECK-NEXT:    %umin2 = call i32 @llvm.umin.i32(i32 %n, i32 %q)
; CHECK-NEXT:    --> (%n umin %q) U: full-set S: full-set Exits: (%n umin %q) LoopDispositions: { %loop: Invariant }
; CHECK-NEXT:    %cond_p3 = select i1 %cond_p0, i1 true, i1 %cond_p1
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %cond = select i1 %cond_p3, i1 true, i1 %cond_p2
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1) umin_seq (true + %cond_p2))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_or_4ops_redundant_operand_across_umins
; CHECK-NEXT:  Loop %loop: backedge-taken count is ((%n umin %m) umin_seq %k umin_seq %q)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is ((%n umin %m) umin_seq %k umin_seq %q)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %umin = call i32 @llvm.umin.i32(i32 %n, i32 %m)
  %umin2 = call i32 @llvm.umin.i32(i32 %n, i32 %q)
  %cond_p0 = icmp uge i32 %i, %umin
  %cond_p1 = icmp uge i32 %i, %k
  %cond_p2 = icmp uge i32 %i, %umin2
  %cond_p3 = select i1 %cond_p0, i1 true, i1 %cond_p1
  %cond = select i1 %cond_p3, i1 true, i1 %cond_p2
  br i1 %cond, label %exit, label %loop
exit:
  ret i32 %i
}

define i32 @logical_or_3ops_operand_wise_redundant_umin(i32 %n, i32 %m, i32 %k) {
; CHECK-LABEL: 'logical_or_3ops_operand_wise_redundant_umin'
; CHECK-NEXT:  Classifying expressions for: @logical_or_3ops_operand_wise_redundant_umin
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: ((%n umin %m) umin_seq %k) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + ((%n umin %m) umin_seq %k)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %umin = call i32 @llvm.umin.i32(i32 %n, i32 %m)
; CHECK-NEXT:    --> (%n umin %m) U: full-set S: full-set Exits: (%n umin %m) LoopDispositions: { %loop: Invariant }
; CHECK-NEXT:    %umin2 = call i32 @llvm.umin.i32(i32 %n, i32 %k)
; CHECK-NEXT:    --> (%n umin %k) U: full-set S: full-set Exits: (%n umin %k) LoopDispositions: { %loop: Invariant }
; CHECK-NEXT:    %cond_p3 = select i1 %cond_p0, i1 true, i1 %cond_p1
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %cond = select i1 %cond_p3, i1 true, i1 %cond_p2
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1) umin_seq (true + %cond_p2))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_or_3ops_operand_wise_redundant_umin
; CHECK-NEXT:  Loop %loop: backedge-taken count is ((%n umin %m) umin_seq %k)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is ((%n umin %m) umin_seq %k)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %umin = call i32 @llvm.umin.i32(i32 %n, i32 %m)
  %umin2 = call i32 @llvm.umin.i32(i32 %n, i32 %k)
  %cond_p0 = icmp uge i32 %i, %umin
  %cond_p1 = icmp uge i32 %i, %k
  %cond_p2 = icmp uge i32 %i, %umin2
  %cond_p3 = select i1 %cond_p0, i1 true, i1 %cond_p1
  %cond = select i1 %cond_p3, i1 true, i1 %cond_p2
  br i1 %cond, label %exit, label %loop
exit:
  ret i32 %i
}

define i32 @logical_or_3ops_partially_redundant_umin(i32 %n, i32 %m, i32 %k) {
; CHECK-LABEL: 'logical_or_3ops_partially_redundant_umin'
; CHECK-NEXT:  Classifying expressions for: @logical_or_3ops_partially_redundant_umin
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%n umin_seq (%m umin %k)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%n umin_seq (%m umin %k))) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %umin = call i32 @llvm.umin.i32(i32 %n, i32 %m)
; CHECK-NEXT:    --> (%n umin %m) U: full-set S: full-set Exits: (%n umin %m) LoopDispositions: { %loop: Invariant }
; CHECK-NEXT:    %umin2 = call i32 @llvm.umin.i32(i32 %umin, i32 %k)
; CHECK-NEXT:    --> (%n umin %m umin %k) U: full-set S: full-set Exits: (%n umin %m umin %k) LoopDispositions: { %loop: Invariant }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 true, i1 %cond_p1
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_or_3ops_partially_redundant_umin
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%n umin_seq (%m umin %k))
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%n umin_seq (%m umin %k))
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %umin = call i32 @llvm.umin.i32(i32 %n, i32 %m)
  %umin2 = call i32 @llvm.umin.i32(i32 %umin, i32 %k)
  %cond_p0 = icmp uge i32 %i, %n
  %cond_p1 = icmp uge i32 %i, %umin2
  %cond = select i1 %cond_p0, i1 true, i1 %cond_p1
  br i1 %cond, label %exit, label %loop
exit:
  ret i32 %i
}

define i32 @logical_or_5ops_redundant_opearand_of_inner_uminseq(i32 %a, i32 %b, i32 %c, i32 %d, i32 %e) {
; CHECK-LABEL: 'logical_or_5ops_redundant_opearand_of_inner_uminseq'
; CHECK-NEXT:  Classifying expressions for: @logical_or_5ops_redundant_opearand_of_inner_uminseq
; CHECK-NEXT:    %first.i = phi i32 [ 0, %entry ], [ %first.i.next, %first.loop ]
; CHECK-NEXT:    --> {0,+,1}<%first.loop> U: full-set S: full-set Exits: (%e umin_seq %d umin_seq %a) LoopDispositions: { %first.loop: Computable }
; CHECK-NEXT:    %first.i.next = add i32 %first.i, 1
; CHECK-NEXT:    --> {1,+,1}<%first.loop> U: full-set S: full-set Exits: (1 + (%e umin_seq %d umin_seq %a)) LoopDispositions: { %first.loop: Computable }
; CHECK-NEXT:    %cond_p3 = select i1 %cond_p0, i1 true, i1 %cond_p1
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %first.loop: Variant }
; CHECK-NEXT:    %cond_p4 = select i1 %cond_p3, i1 true, i1 %cond_p2
; CHECK-NEXT:    --> (true + ((true + %cond_p0) umin_seq (true + %cond_p1) umin_seq (true + %cond_p2))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %first.loop: Variant }
; CHECK-NEXT:    %i = phi i32 [ 0, %first.loop.exit ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%a umin_seq %b umin_seq ((%e umin_seq %d) umin %c)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%a umin_seq %b umin_seq ((%e umin_seq %d) umin %c))) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %umin = call i32 @llvm.umin.i32(i32 %c, i32 %d)
; CHECK-NEXT:    --> (%c umin %d) U: full-set S: full-set Exits: (%c umin %d) LoopDispositions: { %loop: Invariant }
; CHECK-NEXT:    %umin2 = call i32 @llvm.umin.i32(i32 %umin, i32 %first.i)
; CHECK-NEXT:    --> ({0,+,1}<%first.loop> umin %c umin %d) U: full-set S: full-set --> ((%e umin_seq %d umin_seq %a) umin %c umin %d) U: full-set S: full-set Exits: ((%e umin_seq %d umin_seq %a) umin %c umin %d) LoopDispositions: { %loop: Invariant }
; CHECK-NEXT:    %cond_p8 = select i1 %cond_p5, i1 true, i1 %cond_p6
; CHECK-NEXT:    --> (true + ((true + %cond_p5) umin_seq (true + %cond_p6))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %cond = select i1 %cond_p8, i1 true, i1 %cond_p7
; CHECK-NEXT:    --> (true + ((true + %cond_p5) umin_seq (true + %cond_p6) umin_seq (true + %cond_p7))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_or_5ops_redundant_opearand_of_inner_uminseq
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%a umin_seq %b umin_seq ((%e umin_seq %d) umin %c))
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%a umin_seq %b umin_seq ((%e umin_seq %d) umin %c))
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
; CHECK-NEXT:  Loop %first.loop: backedge-taken count is (%e umin_seq %d umin_seq %a)
; CHECK-NEXT:  Loop %first.loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %first.loop: symbolic max backedge-taken count is (%e umin_seq %d umin_seq %a)
; CHECK-NEXT:  Loop %first.loop: Trip multiple is 1
;
entry:
  br label %first.loop
first.loop:
  %first.i = phi i32 [0, %entry], [%first.i.next, %first.loop]
  %first.i.next = add i32 %first.i, 1
  %cond_p0 = icmp uge i32 %first.i, %e
  %cond_p1 = icmp uge i32 %first.i, %d
  %cond_p2 = icmp uge i32 %first.i, %a
  %cond_p3 = select i1 %cond_p0, i1 true, i1 %cond_p1
  %cond_p4 = select i1 %cond_p3, i1 true, i1 %cond_p2
  br i1 %cond_p4, label %first.loop.exit, label %first.loop
first.loop.exit:
  br label %loop
loop:
  %i = phi i32 [0, %first.loop.exit], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %umin = call i32 @llvm.umin.i32(i32 %c, i32 %d)
  %umin2 = call i32 @llvm.umin.i32(i32 %umin, i32 %first.i)
  %cond_p5 = icmp uge i32 %i, %a
  %cond_p6 = icmp uge i32 %i, %b
  %cond_p7 = icmp uge i32 %i, %umin2
  %cond_p8 = select i1 %cond_p5, i1 true, i1 %cond_p6
  %cond = select i1 %cond_p8, i1 true, i1 %cond_p7
  br i1 %cond, label %exit, label %loop
exit:
  ret i32 %i
}

define i32 @logical_and_2ops_and_constant(i32 %n, i32 %m, i32 %k) {
; CHECK-LABEL: 'logical_and_2ops_and_constant'
; CHECK-NEXT:  Classifying expressions for: @logical_and_2ops_and_constant
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<nuw><nsw><%loop> U: [0,43) S: [0,43) Exits: (42 umin %n) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<nuw><nsw><%loop> U: [1,44) S: [1,44) Exits: (1 + (42 umin %n))<nuw><nsw> LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %umin = call i32 @llvm.umin.i32(i32 %n, i32 42)
; CHECK-NEXT:    --> (42 umin %n) U: [0,43) S: [0,43) Exits: (42 umin %n) LoopDispositions: { %loop: Invariant }
; CHECK-NEXT:    %cond = select i1 %cond_p1, i1 true, i1 %cond_p0
; CHECK-NEXT:    --> (true + ((true + %cond_p1) umin (true + %cond_p0))) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_2ops_and_constant
; CHECK-NEXT:  Loop %loop: backedge-taken count is (42 umin %n)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 42
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (42 umin %n)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %umin = call i32 @llvm.umin.i32(i32 %n, i32 42)
  %cond_p0 = icmp uge i32 %i, %umin
  %cond_p1 = icmp uge i32 %i, %n
  %cond = select i1 %cond_p1, i1 true, i1 %cond_p0
  br i1 %cond, label %exit, label %loop
exit:
  ret i32 %i
}

define i32 @computeSCEVAtScope(i32 %d.0) {
; CHECK-LABEL: 'computeSCEVAtScope'
; CHECK-NEXT:  Classifying expressions for: @computeSCEVAtScope
; CHECK-NEXT:    %d.1 = phi i32 [ %inc, %for.body ], [ %d.0, %for.cond.preheader ]
; CHECK-NEXT:    --> {%d.0,+,1}<nsw><%for.cond> U: full-set S: full-set Exits: 0 LoopDispositions: { %for.cond: Computable, %while.cond: Variant }
; CHECK-NEXT:    %e.1 = phi i32 [ %inc3, %for.body ], [ %d.0, %for.cond.preheader ]
; CHECK-NEXT:    --> {%d.0,+,1}<nsw><%for.cond> U: full-set S: full-set Exits: 0 LoopDispositions: { %for.cond: Computable, %while.cond: Variant }
; CHECK-NEXT:    %0 = select i1 %tobool1, i1 %tobool2, i1 false
; CHECK-NEXT:    --> (%tobool1 umin_seq %tobool2) U: full-set S: full-set Exits: false LoopDispositions: { %for.cond: Variant, %while.cond: Variant }
; CHECK-NEXT:    %inc = add nsw i32 %d.1, 1
; CHECK-NEXT:    --> {(1 + %d.0),+,1}<nw><%for.cond> U: full-set S: full-set Exits: 1 LoopDispositions: { %for.cond: Computable, %while.cond: Variant }
; CHECK-NEXT:    %inc3 = add nsw i32 %e.1, 1
; CHECK-NEXT:    --> {(1 + %d.0),+,1}<nw><%for.cond> U: full-set S: full-set Exits: 1 LoopDispositions: { %for.cond: Computable, %while.cond: Variant }
; CHECK-NEXT:    %f.1 = phi i32 [ %inc8, %for.body5 ], [ 0, %for.cond4.preheader ]
; CHECK-NEXT:    --> {0,+,1}<nuw><nsw><%for.cond4> U: [0,1) S: [0,1) Exits: 0 LoopDispositions: { %for.cond4: Computable, %while.cond: Variant }
; CHECK-NEXT:    %inc8 = add i32 %f.1, 1
; CHECK-NEXT:    --> {1,+,1}<nuw><nsw><%for.cond4> U: [1,2) S: [1,2) Exits: 1 LoopDispositions: { %for.cond4: Computable, %while.cond: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @computeSCEVAtScope
; CHECK-NEXT:  Loop %for.cond: backedge-taken count is (-1 * %d.0)
; CHECK-NEXT:  Loop %for.cond: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %for.cond: symbolic max backedge-taken count is (-1 * %d.0)
; CHECK-NEXT:  Loop %for.cond: Trip multiple is 1
; CHECK-NEXT:  Loop %for.cond4: backedge-taken count is i32 0
; CHECK-NEXT:  Loop %for.cond4: constant max backedge-taken count is i32 0
; CHECK-NEXT:  Loop %for.cond4: symbolic max backedge-taken count is i32 0
; CHECK-NEXT:  Loop %for.cond4: Trip multiple is 1
; CHECK-NEXT:  Loop %while.cond: <multiple exits> Unpredictable backedge-taken count.
; CHECK-NEXT:  Loop %while.cond: Unpredictable constant max backedge-taken count.
; CHECK-NEXT:  Loop %while.cond: Unpredictable symbolic max backedge-taken count.
;
entry:
  br label %while.cond

while.cond.loopexit:                              ; preds = %for.cond4
  br label %while.cond

while.cond:                                       ; preds = %while.cond.loopexit, %entry
  br label %for.cond.preheader

for.cond.preheader:                               ; preds = %while.cond
  br label %for.cond

for.cond:                                         ; preds = %for.body, %for.cond.preheader
  %d.1 = phi i32 [ %inc, %for.body ], [ %d.0, %for.cond.preheader ]
  %e.1 = phi i32 [ %inc3, %for.body ], [ %d.0, %for.cond.preheader ]
  %tobool1 = icmp ne i32 %e.1, 0
  %tobool2 = icmp ne i32 %d.1, 0
  %0 = select i1 %tobool1, i1 %tobool2, i1 false
  br i1 %0, label %for.body, label %for.cond4.preheader

for.cond4.preheader:                              ; preds = %for.cond
  br label %for.cond4

for.body:                                         ; preds = %for.cond
  %inc = add nsw i32 %d.1, 1
  %inc3 = add nsw i32 %e.1, 1
  br label %for.cond

for.cond4:                                        ; preds = %for.body5, %for.cond4.preheader
  %f.1 = phi i32 [ %inc8, %for.body5 ], [ 0, %for.cond4.preheader ]
  %exitcond.not = icmp eq i32 %f.1, %e.1
  br i1 %exitcond.not, label %while.cond.loopexit, label %for.body5

for.body5:                                        ; preds = %for.cond4
  %inc8 = add i32 %f.1, 1
  br label %for.cond4
}

define i64 @uminseq_vs_ptrtoint_complexity(i64 %n, i64 %m, ptr %ptr) {
; CHECK-LABEL: 'uminseq_vs_ptrtoint_complexity'
; CHECK-NEXT:  Classifying expressions for: @uminseq_vs_ptrtoint_complexity
; CHECK-NEXT:    %i = phi i64 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%n umin_seq %m) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i64 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%n umin_seq %m)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %ptr.int = ptrtoint ptr %ptr to i64
; CHECK-NEXT:    --> (ptrtoint ptr %ptr to i64) U: full-set S: full-set
; CHECK-NEXT:    %r = add i64 %i, %ptr.int
; CHECK-NEXT:    --> {(ptrtoint ptr %ptr to i64),+,1}<%loop> U: full-set S: full-set --> ((%n umin_seq %m) + (ptrtoint ptr %ptr to i64)) U: full-set S: full-set
; CHECK-NEXT:  Determining loop execution counts for: @uminseq_vs_ptrtoint_complexity
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%n umin_seq %m)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i64 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%n umin_seq %m)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i64 [0, %entry], [%i.next, %loop]
  %i.next = add i64 %i, 1
  %cond_p0 = icmp ult i64 %i, %n
  %cond_p1 = icmp ult i64 %i, %m
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  %ptr.int = ptrtoint ptr %ptr to i64
  %r = add i64 %i, %ptr.int
  ret i64 %r
}

define i32 @logical_and_implies_poison1(i32 %n) {
; CHECK-LABEL: 'logical_and_implies_poison1'
; CHECK-NEXT:  Classifying expressions for: @logical_and_implies_poison1
; CHECK-NEXT:    %add = add i32 %n, 1
; CHECK-NEXT:    --> (1 + %n) U: full-set S: full-set
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: ((1 + %n) umin %n) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + ((1 + %n) umin %n)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_implies_poison1
; CHECK-NEXT:  Loop %loop: backedge-taken count is ((1 + %n) umin %n)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is ((1 + %n) umin %n)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %add = add i32 %n, 1
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n
  %cond_p1 = icmp ult i32 %i, %add
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_implies_poison2(i32 %n) {
; CHECK-LABEL: 'logical_and_implies_poison2'
; CHECK-NEXT:  Classifying expressions for: @logical_and_implies_poison2
; CHECK-NEXT:    %add = add i32 %n, 1
; CHECK-NEXT:    --> (1 + %n) U: full-set S: full-set
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: ((1 + %n) umin %n) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + ((1 + %n) umin %n)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p1 umin %cond_p0) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_implies_poison2
; CHECK-NEXT:  Loop %loop: backedge-taken count is ((1 + %n) umin %n)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is ((1 + %n) umin %n)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %add = add i32 %n, 1
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %add
  %cond_p1 = icmp ult i32 %i, %n
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_implies_poison3(i32 %n, i32 %m) {
; CHECK-LABEL: 'logical_and_implies_poison3'
; CHECK-NEXT:  Classifying expressions for: @logical_and_implies_poison3
; CHECK-NEXT:    %add = add i32 %n, %m
; CHECK-NEXT:    --> (%n + %m) U: full-set S: full-set
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: ((%n + %m) umin %n) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + ((%n + %m) umin %n)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p1 umin %cond_p0) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_implies_poison3
; CHECK-NEXT:  Loop %loop: backedge-taken count is ((%n + %m) umin %n)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is ((%n + %m) umin %n)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %add = add i32 %n, %m
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %add
  %cond_p1 = icmp ult i32 %i, %n
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_implies_poison_wrong_direction(i32 %n, i32 %m) {
; CHECK-LABEL: 'logical_and_implies_poison_wrong_direction'
; CHECK-NEXT:  Classifying expressions for: @logical_and_implies_poison_wrong_direction
; CHECK-NEXT:    %add = add i32 %n, %m
; CHECK-NEXT:    --> (%n + %m) U: full-set S: full-set
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%n umin_seq (%n + %m)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%n umin_seq (%n + %m))) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_implies_poison_wrong_direction
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%n umin_seq (%n + %m))
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%n umin_seq (%n + %m))
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %add = add i32 %n, %m
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n
  %cond_p1 = icmp ult i32 %i, %add
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_implies_poison_noundef(i32 %n, i32 noundef %m) {
; CHECK-LABEL: 'logical_and_implies_poison_noundef'
; CHECK-NEXT:  Classifying expressions for: @logical_and_implies_poison_noundef
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%n umin %m) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%n umin %m)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_implies_poison_noundef
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%n umin %m)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%n umin %m)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n
  %cond_p1 = icmp ult i32 %i, %m
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_implies_poison_noundef_wrong_direction(i32 %n, i32 noundef %m) {
; CHECK-LABEL: 'logical_and_implies_poison_noundef_wrong_direction'
; CHECK-NEXT:  Classifying expressions for: @logical_and_implies_poison_noundef_wrong_direction
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%m umin_seq %n) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%m umin_seq %n)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_implies_poison_noundef_wrong_direction
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%m umin_seq %n)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%m umin_seq %n)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %m
  %cond_p1 = icmp ult i32 %i, %n
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_implies_poison_complex1(i32 %n, i32 %m) {
; CHECK-LABEL: 'logical_and_implies_poison_complex1'
; CHECK-NEXT:  Classifying expressions for: @logical_and_implies_poison_complex1
; CHECK-NEXT:    %add = add i32 %n, %m
; CHECK-NEXT:    --> (%n + %m) U: full-set S: full-set
; CHECK-NEXT:    %add1 = add i32 %add, 1
; CHECK-NEXT:    --> (1 + %n + %m) U: full-set S: full-set
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: ((%n + %m) umin (1 + %n + %m)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + ((%n + %m) umin (1 + %n + %m))) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_implies_poison_complex1
; CHECK-NEXT:  Loop %loop: backedge-taken count is ((%n + %m) umin (1 + %n + %m))
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is ((%n + %m) umin (1 + %n + %m))
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %add = add i32 %n, %m
  %add1 = add i32 %add, 1
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %add1
  %cond_p1 = icmp ult i32 %i, %add
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_implies_poison_complex2(i32 %n, i32 %m, i32 %l) {
; CHECK-LABEL: 'logical_and_implies_poison_complex2'
; CHECK-NEXT:  Classifying expressions for: @logical_and_implies_poison_complex2
; CHECK-NEXT:    %add = add i32 %n, %m
; CHECK-NEXT:    --> (%n + %m) U: full-set S: full-set
; CHECK-NEXT:    %add1 = add i32 %add, %l
; CHECK-NEXT:    --> (%n + %m + %l) U: full-set S: full-set
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: ((%n + %m) umin (%n + %m + %l)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + ((%n + %m) umin (%n + %m + %l))) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_implies_poison_complex2
; CHECK-NEXT:  Loop %loop: backedge-taken count is ((%n + %m) umin (%n + %m + %l))
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is ((%n + %m) umin (%n + %m + %l))
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %add = add i32 %n, %m
  %add1 = add i32 %add, %l
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %add1
  %cond_p1 = icmp ult i32 %i, %add
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_implies_poison_complex_wrong_direction(i32 %n, i32 %m, i32 %l) {
; CHECK-LABEL: 'logical_and_implies_poison_complex_wrong_direction'
; CHECK-NEXT:  Classifying expressions for: @logical_and_implies_poison_complex_wrong_direction
; CHECK-NEXT:    %add = add i32 %n, %m
; CHECK-NEXT:    --> (%n + %m) U: full-set S: full-set
; CHECK-NEXT:    %add1 = add i32 %add, %l
; CHECK-NEXT:    --> (%n + %m + %l) U: full-set S: full-set
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: ((%n + %m) umin_seq (%n + %m + %l)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + ((%n + %m) umin_seq (%n + %m + %l))) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_implies_poison_complex_wrong_direction
; CHECK-NEXT:  Loop %loop: backedge-taken count is ((%n + %m) umin_seq (%n + %m + %l))
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is ((%n + %m) umin_seq (%n + %m + %l))
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %add = add i32 %n, %m
  %add1 = add i32 %add, %l
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %add
  %cond_p1 = icmp ult i32 %i, %add1
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_implies_multiple_ops(i32 %n, i32 %m) {
; CHECK-LABEL: 'logical_and_implies_multiple_ops'
; CHECK-NEXT:  Classifying expressions for: @logical_and_implies_multiple_ops
; CHECK-NEXT:    %add = add i32 %n, 1
; CHECK-NEXT:    --> (1 + %n) U: full-set S: full-set
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (((1 + %n) umin %n) umin_seq %m) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (((1 + %n) umin %n) umin_seq %m)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %cond2 = select i1 %cond, i1 %cond_p2, i1 false
; CHECK-NEXT:    --> ((%cond_p0 umin %cond_p1) umin_seq %cond_p2) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_implies_multiple_ops
; CHECK-NEXT:  Loop %loop: backedge-taken count is (((1 + %n) umin %n) umin_seq %m)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (((1 + %n) umin %n) umin_seq %m)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %add = add i32 %n, 1
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n
  %cond_p1 = icmp ult i32 %i, %add
  %cond_p2 = icmp ult i32 %i, %m
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  %cond2 = select i1 %cond, i1 %cond_p2, i1 false
  br i1 %cond2, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_implies_multiple_ops2(i32 %n, i32 %m) {
; CHECK-LABEL: 'logical_and_implies_multiple_ops2'
; CHECK-NEXT:  Classifying expressions for: @logical_and_implies_multiple_ops2
; CHECK-NEXT:    %add = add i32 %n, 1
; CHECK-NEXT:    --> (1 + %n) U: full-set S: full-set
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%n umin_seq ((1 + %n) umin %m)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%n umin_seq ((1 + %n) umin %m))) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %cond2 = select i1 %cond, i1 %cond_p2, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq (%cond_p1 umin %cond_p2)) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_implies_multiple_ops2
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%n umin_seq ((1 + %n) umin %m))
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%n umin_seq ((1 + %n) umin %m))
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %add = add i32 %n, 1
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n
  %cond_p1 = icmp ult i32 %i, %m
  %cond_p2 = icmp ult i32 %i, %add
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  %cond2 = select i1 %cond, i1 %cond_p2, i1 false
  br i1 %cond2, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_implies_multiple_ops3(i32 %n, i32 %m) {
; CHECK-LABEL: 'logical_and_implies_multiple_ops3'
; CHECK-NEXT:  Classifying expressions for: @logical_and_implies_multiple_ops3
; CHECK-NEXT:    %add = add i32 %n, 1
; CHECK-NEXT:    --> (1 + %n) U: full-set S: full-set
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%m umin_seq ((1 + %n) umin %n)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%m umin_seq ((1 + %n) umin %n))) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:    %cond2 = select i1 %cond, i1 %cond_p2, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1 umin_seq %cond_p2) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_implies_multiple_ops3
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%m umin_seq ((1 + %n) umin %n))
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%m umin_seq ((1 + %n) umin %n))
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %add = add i32 %n, 1
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %m
  %cond_p1 = icmp ult i32 %i, %n
  %cond_p2 = icmp ult i32 %i, %add
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  %cond2 = select i1 %cond, i1 %cond_p2, i1 false
  br i1 %cond2, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_not_zero(i16 %n, i32 %m) {
; CHECK-LABEL: 'logical_and_not_zero'
; CHECK-NEXT:  Classifying expressions for: @logical_and_not_zero
; CHECK-NEXT:    %n.ext = zext i16 %n to i32
; CHECK-NEXT:    --> (zext i16 %n to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %n1 = add i32 %n.ext, 1
; CHECK-NEXT:    --> (1 + (zext i16 %n to i32))<nuw><nsw> U: [1,65537) S: [1,65537)
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<nuw><nsw><%loop> U: [0,65537) S: [0,65537) Exits: ((1 + (zext i16 %n to i32))<nuw><nsw> umin %m) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<nuw><nsw><%loop> U: [1,65538) S: [1,65538) Exits: (1 + ((1 + (zext i16 %n to i32))<nuw><nsw> umin %m))<nuw><nsw> LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_not_zero
; CHECK-NEXT:  Loop %loop: backedge-taken count is ((1 + (zext i16 %n to i32))<nuw><nsw> umin %m)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 65536
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is ((1 + (zext i16 %n to i32))<nuw><nsw> umin %m)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %n.ext = zext i16 %n to i32
  %n1 = add i32 %n.ext, 1
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n1
  %cond_p1 = icmp ult i32 %i, %m
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_not_zero_wrong_order(i16 %n, i32 %m) {
; CHECK-LABEL: 'logical_and_not_zero_wrong_order'
; CHECK-NEXT:  Classifying expressions for: @logical_and_not_zero_wrong_order
; CHECK-NEXT:    %n.ext = zext i16 %n to i32
; CHECK-NEXT:    --> (zext i16 %n to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %n1 = add i32 %n.ext, 1
; CHECK-NEXT:    --> (1 + (zext i16 %n to i32))<nuw><nsw> U: [1,65537) S: [1,65537)
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<nuw><nsw><%loop> U: [0,65537) S: [0,65537) Exits: (%m umin_seq (1 + (zext i16 %n to i32))<nuw><nsw>) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<nuw><nsw><%loop> U: [1,65538) S: [1,65538) Exits: (1 + (%m umin_seq (1 + (zext i16 %n to i32))<nuw><nsw>))<nuw><nsw> LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_not_zero_wrong_order
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%m umin_seq (1 + (zext i16 %n to i32))<nuw><nsw>)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 65536
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%m umin_seq (1 + (zext i16 %n to i32))<nuw><nsw>)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %n.ext = zext i16 %n to i32
  %n1 = add i32 %n.ext, 1
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %m
  %cond_p1 = icmp ult i32 %i, %n1
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_not_zero_needs_context(i32 %n, i32 %m) {
; CHECK-LABEL: 'logical_and_not_zero_needs_context'
; CHECK-NEXT:  Classifying expressions for: @logical_and_not_zero_needs_context
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<%loop> U: full-set S: full-set Exits: (%n umin_seq %m) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<%loop> U: full-set S: full-set Exits: (1 + (%n umin_seq %m)) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_not_zero_needs_context
; CHECK-NEXT:  Loop %loop: backedge-taken count is (%n umin_seq %m)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 -1
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (%n umin_seq %m)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %cmp = icmp ne i32 %n, 0
  br i1 %cmp, label %loop, label %guard.fail
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n
  %cond_p1 = icmp ult i32 %i, %m
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
guard.fail:
  ret i32 -1
}

define i32 @logical_and_known_smaller(i16 %n, i16 %m) {
; CHECK-LABEL: 'logical_and_known_smaller'
; CHECK-NEXT:  Classifying expressions for: @logical_and_known_smaller
; CHECK-NEXT:    %n.ext = zext i16 %n to i32
; CHECK-NEXT:    --> (zext i16 %n to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %m.ext = zext i16 %m to i32
; CHECK-NEXT:    --> (zext i16 %m to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %m.add = add i32 %m.ext, 65536
; CHECK-NEXT:    --> (65536 + (zext i16 %m to i32))<nuw><nsw> U: [65536,131072) S: [65536,131072)
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<nuw><nsw><%loop> U: [0,65536) S: [0,65536) Exits: (zext i16 %n to i32) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<nuw><nsw><%loop> U: [1,65537) S: [1,65537) Exits: (1 + (zext i16 %n to i32))<nuw><nsw> LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_known_smaller
; CHECK-NEXT:  Loop %loop: backedge-taken count is (zext i16 %n to i32)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 65535
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (zext i16 %n to i32)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %n.ext = zext i16 %n to i32
  %m.ext = zext i16 %m to i32
  %m.add = add i32 %m.ext, 65536
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n.ext
  %cond_p1 = icmp ult i32 %i, %m.add
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_known_smaller_equal(i16 %n, i16 %m) {
; CHECK-LABEL: 'logical_and_known_smaller_equal'
; CHECK-NEXT:  Classifying expressions for: @logical_and_known_smaller_equal
; CHECK-NEXT:    %n.ext = zext i16 %n to i32
; CHECK-NEXT:    --> (zext i16 %n to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %m.ext = zext i16 %m to i32
; CHECK-NEXT:    --> (zext i16 %m to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %m.add = add i32 %m.ext, 65535
; CHECK-NEXT:    --> (65535 + (zext i16 %m to i32))<nuw><nsw> U: [65535,131071) S: [65535,131071)
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<nuw><nsw><%loop> U: [0,65536) S: [0,65536) Exits: (zext i16 %n to i32) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<nuw><nsw><%loop> U: [1,65537) S: [1,65537) Exits: (1 + (zext i16 %n to i32))<nuw><nsw> LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_known_smaller_equal
; CHECK-NEXT:  Loop %loop: backedge-taken count is (zext i16 %n to i32)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 65535
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (zext i16 %n to i32)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %n.ext = zext i16 %n to i32
  %m.ext = zext i16 %m to i32
  %m.add = add i32 %m.ext, 65535
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n.ext
  %cond_p1 = icmp ult i32 %i, %m.add
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_not_known_smaller_equal(i16 %n, i16 %m) {
; CHECK-LABEL: 'logical_and_not_known_smaller_equal'
; CHECK-NEXT:  Classifying expressions for: @logical_and_not_known_smaller_equal
; CHECK-NEXT:    %n.ext = zext i16 %n to i32
; CHECK-NEXT:    --> (zext i16 %n to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %m.ext = zext i16 %m to i32
; CHECK-NEXT:    --> (zext i16 %m to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %m.add = add i32 %m.ext, 65534
; CHECK-NEXT:    --> (65534 + (zext i16 %m to i32))<nuw><nsw> U: [65534,131070) S: [65534,131070)
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<nuw><nsw><%loop> U: [0,65536) S: [0,65536) Exits: ((zext i16 %n to i32) umin_seq (65534 + (zext i16 %m to i32))<nuw><nsw>) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<nuw><nsw><%loop> U: [1,65537) S: [1,65537) Exits: (1 + ((zext i16 %n to i32) umin_seq (65534 + (zext i16 %m to i32))<nuw><nsw>))<nuw><nsw> LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_not_known_smaller_equal
; CHECK-NEXT:  Loop %loop: backedge-taken count is ((zext i16 %n to i32) umin_seq (65534 + (zext i16 %m to i32))<nuw><nsw>)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 65535
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is ((zext i16 %n to i32) umin_seq (65534 + (zext i16 %m to i32))<nuw><nsw>)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %n.ext = zext i16 %n to i32
  %m.ext = zext i16 %m to i32
  %m.add = add i32 %m.ext, 65534
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n.ext
  %cond_p1 = icmp ult i32 %i, %m.add
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_known_greater(i16 %n, i16 %m) {
; CHECK-LABEL: 'logical_and_known_greater'
; CHECK-NEXT:  Classifying expressions for: @logical_and_known_greater
; CHECK-NEXT:    %n.ext = zext i16 %n to i32
; CHECK-NEXT:    --> (zext i16 %n to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %m.ext = zext i16 %m to i32
; CHECK-NEXT:    --> (zext i16 %m to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %m.add = add i32 %m.ext, 65536
; CHECK-NEXT:    --> (65536 + (zext i16 %m to i32))<nuw><nsw> U: [65536,131072) S: [65536,131072)
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<nuw><nsw><%loop> U: [0,65536) S: [0,65536) Exits: (zext i16 %n to i32) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<nuw><nsw><%loop> U: [1,65537) S: [1,65537) Exits: (1 + (zext i16 %n to i32))<nuw><nsw> LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_known_greater
; CHECK-NEXT:  Loop %loop: backedge-taken count is (zext i16 %n to i32)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 65535
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (zext i16 %n to i32)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %n.ext = zext i16 %n to i32
  %m.ext = zext i16 %m to i32
  %m.add = add i32 %m.ext, 65536
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %m.add
  %cond_p1 = icmp ult i32 %i, %n.ext
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_known_greater_equal(i16 %n, i16 %m) {
; CHECK-LABEL: 'logical_and_known_greater_equal'
; CHECK-NEXT:  Classifying expressions for: @logical_and_known_greater_equal
; CHECK-NEXT:    %n.ext = zext i16 %n to i32
; CHECK-NEXT:    --> (zext i16 %n to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %m.ext = zext i16 %m to i32
; CHECK-NEXT:    --> (zext i16 %m to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %m.add = add i32 %m.ext, 65535
; CHECK-NEXT:    --> (65535 + (zext i16 %m to i32))<nuw><nsw> U: [65535,131071) S: [65535,131071)
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<nuw><nsw><%loop> U: [0,65536) S: [0,65536) Exits: (zext i16 %n to i32) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<nuw><nsw><%loop> U: [1,65537) S: [1,65537) Exits: (1 + (zext i16 %n to i32))<nuw><nsw> LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_known_greater_equal
; CHECK-NEXT:  Loop %loop: backedge-taken count is (zext i16 %n to i32)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 65535
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is (zext i16 %n to i32)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %n.ext = zext i16 %n to i32
  %m.ext = zext i16 %m to i32
  %m.add = add i32 %m.ext, 65535
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %m.add
  %cond_p1 = icmp ult i32 %i, %n.ext
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_not_known_greater_equal(i16 %n, i16 %m) {
; CHECK-LABEL: 'logical_and_not_known_greater_equal'
; CHECK-NEXT:  Classifying expressions for: @logical_and_not_known_greater_equal
; CHECK-NEXT:    %n.ext = zext i16 %n to i32
; CHECK-NEXT:    --> (zext i16 %n to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %m.ext = zext i16 %m to i32
; CHECK-NEXT:    --> (zext i16 %m to i32) U: [0,65536) S: [0,65536)
; CHECK-NEXT:    %m.add = add i32 %m.ext, 65534
; CHECK-NEXT:    --> (65534 + (zext i16 %m to i32))<nuw><nsw> U: [65534,131070) S: [65534,131070)
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<nuw><nsw><%loop> U: [0,65536) S: [0,65536) Exits: ((zext i16 %n to i32) umin (65534 + (zext i16 %m to i32))<nuw><nsw>) LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<nuw><nsw><%loop> U: [1,65537) S: [1,65537) Exits: (1 + ((zext i16 %n to i32) umin (65534 + (zext i16 %m to i32))<nuw><nsw>))<nuw><nsw> LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: <<Unknown>> LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_not_known_greater_equal
; CHECK-NEXT:  Loop %loop: backedge-taken count is ((zext i16 %n to i32) umin (65534 + (zext i16 %m to i32))<nuw><nsw>)
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 65535
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is ((zext i16 %n to i32) umin (65534 + (zext i16 %m to i32))<nuw><nsw>)
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  %n.ext = zext i16 %n to i32
  %m.ext = zext i16 %m to i32
  %m.add = add i32 %m.ext, 65534
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %m.add
  %cond_p1 = icmp ult i32 %i, %n.ext
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_zero_arg1(i32 %n) {
; CHECK-LABEL: 'logical_and_zero_arg1'
; CHECK-NEXT:  Classifying expressions for: @logical_and_zero_arg1
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<nuw><nsw><%loop> U: [0,1) S: [0,1) Exits: 0 LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<nuw><nsw><%loop> U: [1,2) S: [1,2) Exits: 1 LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p0 umin_seq %cond_p1) U: full-set S: full-set Exits: false LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_zero_arg1
; CHECK-NEXT:  Loop %loop: backedge-taken count is i32 0
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 0
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is i32 0
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, 0
  %cond_p1 = icmp ult i32 %i, %n
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}

define i32 @logical_and_zero_arg2(i32 %n) {
; CHECK-LABEL: 'logical_and_zero_arg2'
; CHECK-NEXT:  Classifying expressions for: @logical_and_zero_arg2
; CHECK-NEXT:    %i = phi i32 [ 0, %entry ], [ %i.next, %loop ]
; CHECK-NEXT:    --> {0,+,1}<nuw><nsw><%loop> U: [0,1) S: [0,1) Exits: 0 LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %i.next = add i32 %i, 1
; CHECK-NEXT:    --> {1,+,1}<nuw><nsw><%loop> U: [1,2) S: [1,2) Exits: 1 LoopDispositions: { %loop: Computable }
; CHECK-NEXT:    %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
; CHECK-NEXT:    --> (%cond_p1 umin %cond_p0) U: full-set S: full-set Exits: false LoopDispositions: { %loop: Variant }
; CHECK-NEXT:  Determining loop execution counts for: @logical_and_zero_arg2
; CHECK-NEXT:  Loop %loop: backedge-taken count is i32 0
; CHECK-NEXT:  Loop %loop: constant max backedge-taken count is i32 0
; CHECK-NEXT:  Loop %loop: symbolic max backedge-taken count is i32 0
; CHECK-NEXT:  Loop %loop: Trip multiple is 1
;
entry:
  br label %loop
loop:
  %i = phi i32 [0, %entry], [%i.next, %loop]
  %i.next = add i32 %i, 1
  %cond_p0 = icmp ult i32 %i, %n
  %cond_p1 = icmp ult i32 %i, 0
  %cond = select i1 %cond_p0, i1 %cond_p1, i1 false
  br i1 %cond, label %loop, label %exit
exit:
  ret i32 %i
}


declare i32 @llvm.umin.i32(i32, i32)