int64_t num_elements = input_type.getNumElements();
      uint32_t u32_max = std::numeric_limits<uint32_t>::max();
      int rounds =
          std::ceil(exponent * std::log(num_elements) / std::log(u32_max));

      Value current = op.getValue();
      for (int i = 0; i < rounds; ++i) {
        auto keys =
            CreateRngUniform32(op.getLoc(), num_elements, /*lower_limit=*/0,

(or even be just another bound type parameter).
In a process of repeated simplification, the bound type parameters in each type
argument are substituted with the respective type arguments for those type
parameters until each type argument is free of bound type parameters.
</p>

<p>
If type arguments contain cyclic references to themselves
through bound type parameters, simplification and thus type
inference fails.

		case n.X.Type().IsArray():
			if ssa.CanSSA(n.X.Type()) {
				// SSA can handle arrays of length at most 1.
				bound := n.X.Type().NumElem()
				a := s.expr(n.X)
				i := s.expr(n.Index)
				if bound == 0 {
					// Bounds check will never succeed.  Might as well
					// use constants for the bounds check.
					z := s.constInt(types.Types[types.TINT], 0)
					s.boundsCheck(z, z, ssa.BoundsIndex, false)

- [`KT-59012`](https://youtrack.jetbrains.com/issue/KT-59012) K2: Support inferring types based on self upper bounds
- [`KT-65373`](https://youtrack.jetbrains.com/issue/KT-65373) K2: there is a crash in KJK hierarchy with an extension member property

func (cc *http2ClientConn) tooIdleLocked() bool {
	// The Round(0) strips the monontonic clock reading so the
	// times are compared based on their wall time. We don't want
	// to reuse a connection that's been sitting idle during
	// VM/laptop suspend if monotonic time was also frozen.
	return cc.idleTimeout != 0 && !cc.lastIdle.IsZero() && time.Since(cc.lastIdle.Round(0)) > cc.idleTimeout
}

	{XSCVQPDP, 0xfc1f07ff00000000, 0xfc14068800000000, 0x0, // VSX Scalar Convert with round Quad-Precision to Double-Precision format [using round to Odd] X-form (xscvqpdp VRT,VRB)
		[6]*argField{ap_VecReg_6_10, ap_VecReg_16_20}},
	{XSCVQPDPO, 0xfc1f07ff00000000, 0xfc14068900000000, 0x0, // VSX Scalar Convert with round Quad-Precision to Double-Precision format [using round to Odd] X-form (xscvqpdpo VRT,VRB)
		[6]*argField{ap_VecReg_6_10, ap_VecReg_16_20}},

							Type:        []string{"string"},
							Format:      "",

  func.return %1 : tensor<?xf32>
}

// CHECK-LABEL: func @round_nearest_even(
// CHECK-SAME:                           %[[VAL_0:.*]]: tensor<2xf32>) -> tensor<2xf32> {
// CHECK:         %[[VAL_1:.*]] = "tf.Round"(%[[VAL_0]]) : (tensor<2xf32>) -> tensor<2xf32>
// CHECK:         return %[[VAL_1]] : tensor<2xf32>
// CHECK:       }
func.func @round_nearest_even(%arg0: tensor<2xf32>) -> tensor<2xf32> {

			seenErrs := make([]bool, len(errs))

			for _, expectedError := range tc.errors {
				found := false
				for i, err := range errs {
					if expectedError.matches(err) && !seenErrs[i] {
						found = true
						seenErrs[i] = true
						break
					}
				}

				if !found {
					t.Errorf("expected %v at %v, got %v", expectedError.errorType, expectedError.path.String(), errs)
				}

		v3.AuxInt = int64ToAuxInt(-c & 7)
		v2.AddArg2(x, v3)
		v.AddArg2(v0, v2)
		return true
	}
	return false
}
func rewriteValueS390X_OpRound(v *Value) bool {
	v_0 := v.Args[0]
	// match: (Round x)
	// result: (FIDBR [1] x)
	for {
		x := v_0
		v.reset(OpS390XFIDBR)
		v.AuxInt = int8ToAuxInt(1)
		v.AddArg(x)
		return true
	}
}
func rewriteValueS390X_OpRoundToEven(v *Value) bool {