*
 * The order of generations is important as calls in later generations can override calls in earlier generations, but no the
 * other way around.
 * For instance, a property assignment can override a convention assignment, but a convention assignment cannot override a property assignment.
 */

package main

var a = twoResults()       // ERROR "assignment mismatch: 1 variable but twoResults returns 2 values|multiple-value twoResults\(\) .*in single-value context"
var b, c, d = twoResults() // ERROR "assignment mismatch: 3 variables but twoResults returns 2 values|cannot initialize"
var e, f = oneResult()     // ERROR "assignment mismatch: 2 variables but oneResult returns 1 value|cannot initialize"

        val function = assignment.operationReference.mainReference.resolve() as? KtNamedFunction ?: return null
        val name = function.name ?: return null
        return if (Name.identifier(name) in OperatorConventions.ASSIGNMENT_OPERATIONS.values)
            ReferenceAccess.READ to assignment
        else
            null
    }

		_ = x
	}
	{
		var x, y [2]sync.Mutex
		x = y // ok
		_ = x
	}
	{
		var x, y [2]T
		x = y // ok
		_ = x
	}
	{
		x := sync.Mutex{0, 0} // ERROR "assignment.*Mutex"
		_ = x
	}
	{
		x := sync.Mutex{key: 0} // ERROR "(unknown|assignment).*Mutex"
		_ = x
	}
	{
		x := &sync.Mutex{} // ok
		var y sync.Mutex   // ok
		y = *x             // ok
		*x = y             // ok
		_ = x
		_ = y
	}
	{

	var px p.Exported
	px = p.X
	
	// this assignment is correctly illegal:
	//	px.private undefined (cannot refer to unexported field or method private)
	// px.private()

	// this assignment is correctly illegal:
	//	*Implementation does not implement p.Exported (missing p.private method)
	// px = new(Implementation)

	// this assignment is correctly illegal:

	i = T4{}   // ERROR "cannot use T4\{\} \(.*type T4\) as I value in assignment: T4 does not implement I \(method M has pointer receiver\)"
	i = new(I) // ERROR "cannot use new\(I\) \(.*type \*I\) as I value in assignment: \*I does not implement I \(type \*I is pointer to interface, not interface\)"

var _, _ = 1 /* ERRORx `assignment mismatch: [1-9]+ variables but.*[1-9]+ value(s)?` */
var _, _, _ /* ERROR "missing init expr for _" */ = 1, 2

var _ = g /* ERROR "multiple-value g" */ ()
var _, _ = g()
var _, _, _ = g /* ERRORx `assignment mismatch: [1-9]+ variables but.*[1-9]+ value(s)?` */ ()

var _ = m["foo"]
var _, _ = m["foo"]

		{newDefined(Typ[Int]), Typ[Int], false},
		{newDefined(new(Struct)), new(Struct), true},
		{Typ[UntypedBool], Typ[Bool], true},
		{Typ[UntypedString], Typ[Bool], false},
		// Neither untyped string nor untyped numeric assignments arise during
		// normal type checking, so the below behavior is technically undefined by
		// the spec.
		{Typ[UntypedString], Typ[String], true},
		{Typ[UntypedInt], Typ[Int], true},
	} {

        memory: 128Mi
    # Set to `type: RuntimeDefault` to use the default profile if available.
    seccompProfile: {}

  # Node labels for pod assignment
  nodeSelector: {}

  # Tolerations for pod assignment
  tolerations: []

  # Affinity for pod assignment
  affinity: {}

  # Additional labels and annotations to apply on the pod level for monitoring and logging configuration.
  podLabels: {}

        val expected = """
                Assignment [indexes: 0..5, line/column: 1/1..1/6, file: test] (
                    lhs = PropertyAccess [indexes: 0..1, line/column: 1/1..1/2, file: test] (
                        name = a
                    )
                    rhs = IntLiteral [indexes: 4..5, line/column: 1/5..1/6, file: test] (1)
                )
                Assignment [indexes: 6..16, line/column: 2/1..2/11, file: test] (