return false
		}

		if nodeState1.NumberOfAssignments != nodeState2.NumberOfAssignments {
			klog.ErrorS(nil, "Node states number of assignments are different", "assignment1", nodeState1.NumberOfAssignments, "assignment2", nodeState2.NumberOfAssignments)
			return false
		}

		if !areGroupsEqual(nodeState1.Cells, nodeState2.Cells) {

// if necessary by attempting to convert untyped values to the appropriate
// type. context describes the context in which the assignment takes place.
// Use T == nil to indicate assignment to an untyped blank identifier.
// If the assignment check fails, x.mode is set to invalid.
func (check *Checker) assignment(x *operand, T Type, context string) {
	check.singleValue(x)

	switch x.mode {
	case invalid:
		return // error reported before

	err.report()
}

// initVars type-checks assignments of initialization expressions orig_rhs
// to variables lhs.
// If returnStmt is non-nil, initVars type-checks the implicit assignment
// of result expressions orig_rhs to function result parameters lhs.
func (check *Checker) initVars(lhs []*Var, orig_rhs []syntax.Expr, returnStmt syntax.Stmt) {
	context := "assignment"
	if returnStmt != nil {
		context = "return statement"

}

func assignments1() {
	b, i, f, c, s := false, 1, 1.0, 1i, "foo"
	b = i /* ERRORx `cannot use .* in assignment` */
	i = f /* ERRORx `cannot use .* in assignment` */
	f = c /* ERRORx `cannot use .* in assignment` */
	c = s /* ERRORx `cannot use .* in assignment` */
	s = b /* ERRORx `cannot use .* in assignment` */

	v0, v1, v2 := 1 /* ERROR "assignment mismatch" */ , 2, 3, 4
	_, _, _ = v0, v1, v2

                    )
                )
            )""".trimIndent()
        parse(code).assert(expected)
    }

    @Test
    fun `missing assignment in one of a series of assignments`() {
        val code = """
            val a = 1
            val b = 2
            val c 3
            val d = 4
            val e = 5
        """.trimIndent()

        val expected = """

      if (!result || result == it->second) {
        result = it->getSecond();
        continue;
      }
      // Got conflicting assignments
      return std::nullopt;
    }
    return result;
  }

  // Records the device assignment for a resource. If the new assignment
  // conflicts with an existing one, returns an error.
  //
  // If `changed` is provided, assign *changed to true if anything is modified.

			}

			state.SetDefaultCPUSet(tc.defaultCPUset)
			state.SetCPUAssignments(tc.assignments)

			state.ClearState()
			if !cpuset.New().Equals(state.GetDefaultCPUSet()) {
				t.Fatal("cleared state with non-empty default cpu set")
			}
			for pod := range tc.assignments {
				for container := range tc.assignments[pod] {
					if _, ok := state.GetCPUSet(pod, container); ok {

		return false
	}
	if !isSimpleName(n.X) {
		// not a special composite literal assignment
		return false
	}
	x := n.X.(*ir.Name)
	if !types.Identical(n.X.Type(), n.Y.Type()) {
		// not a special composite literal assignment
		return false
	}
	if x.Addrtaken() {
		// If x is address-taken, the RHS may (implicitly) uses LHS.
		// Not safe to do a special composite literal assignment

        val referenceResolution = PropertyReferenceResolution(objectOrigin, it)
        when (val assignment = context.resolveAssignment(referenceResolution)) {
            is Assigned -> it to PropertyValueReflection(reflect(assignment.objectOrigin, context), assignment.assignmentMethod)
            else -> if (it.hasDefaultValue) {

		// Check for reasons why we may need to compute later expressions
		// before this assignment happens.

		if name == nil {
			// Not a direct assignment to a declared variable.
			// Conservatively assume any memory access might alias.
			memWrite = true
			continue
		}

		if name.Class == ir.PPARAMOUT && ir.CurFunc.HasDefer() {
			// Assignments to a result parameter in a function with defers