// neither of these can work,
	// because i has an extra method
	// that t does not, so i cannot contain a t.
	i = t // ERROR "incompatible|missing method M"
	t = i // ERROR "incompatible|assignment$"

	i = i2 // ok
	i2 = i // ERROR "incompatible|missing method N"

	i = I(i2)  // ok
	i2 = I2(i) // ERROR "invalid|missing N method|cannot convert"

	e = E(t) // ok

// run

// Copyright 2010 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

// Test simple arithmetic and assignment for complex numbers.

package main

const (
	R = 5
	I = 6i

	C1 = R + I // ADD(5,6)
)

func main() {
	var b bool

	// constants
	b = (5 + 6i) == C1
	if !b {
		println("const bool 1", b)

type myInt int

func (x myInt) foo() int {
	return int(x + 1)
}

func h[T C](x T) interface{ foo() int } {
	var i interface{ foo() int } = x
	return i
}
func i[T C](x T) C {
	var i C = x // conversion in assignment
	return i
}

func j[T C](t T) C {
	return C(t) // explicit conversion
}

func js[T any](x T) interface{} {
	y := []T{x}
	return interface{}(y)
}

func main() {

}

// When calling our own `new`, we need to pass the type parameter
// explicitly since there is no (value) argument from which the
// result type could be inferred. We don't try to infer the
// result type from the assignment to keep things simple and
// easy to understand.
var _ = new[int]()
var _ *float64 = new[float64]() // the result type is indeed *float64

// A function may have multiple type parameters, of course.

	n := *np
	w := len(n.s)
	if n == nil {
		return 0
	}
	wl := walk(&n.left)
	wr := walk(&n.right)
	if wl < wr {
		n.left, n.right = n.right, n.left // ERROR "ignoring self-assignment"
		wl, wr = wr, wl
	}
	*np = n
	return w + wl + wr
}

// Test for bug where func var f used prototype's escape analysis results.
func prototype(xyz []string) {} // ERROR "xyz does not escape"
func bar() {

    mlir::tf_device::ParallelExecuteOp old_parallel_execute,
    mlir::tf_device::ParallelExecuteOp* new_parallel_execute);

// Wraps single op in `tf_device.launch` for explicit device assignment.
mlir::tf_device::LaunchOp WrapOpInLaunch(mlir::OpBuilder* builder,
                                         mlir::Location loc,
                                         mlir::Operation* op,

		broken = gofmt(left) == gofmt(uarg.X)
	} else if star, ok := left.(*ast.StarExpr); ok {
		broken = gofmt(star.X) == gofmt(arg)
	}

	if broken {
		pass.ReportRangef(left, "direct assignment to atomic value")
	}

				max = a
			}
		}
		return max
	case *Slice, *Interface:
		// Multiword data structures are effectively structs
		// in which each element has size WordSize.
		// Type parameters lead to variable sizes/alignments;
		// StdSizes.Alignof won't be called for them.
		assert(!isTypeParam(T))
		return s.WordSize
	case *Basic:
		// Strings are like slices and interfaces.
		if t.Info()&IsString != 0 {
			return s.WordSize
		}

	// and is consulted to make Topology aware resource alignments
	GetTopologyHints(pod *v1.Pod, container *v1.Container) map[string][]topologymanager.TopologyHint

	// TopologyManager HintProvider provider indicates the Device Manager implements the Topology Manager Interface
	// and is consulted to make Topology aware resource alignments per Pod
	GetPodTopologyHints(pod *v1.Pod) map[string][]topologymanager.TopologyHint

   * SES.schedule is called. Therefore Fire.run has to check for null. However, it should be visible
   * if Fire.run is called by delegate.addListener since addListener is called after the assignment
   * to timer, and importantly this is the main situation in which we need to be able to see the
   * write.
   *
   * 2. visibility of the writes to an afterDone() call triggered by cancel():
   *