return 0, 0, err
	}
	if x == y {
		e(somethingWrong) // ERROR "inlining call to l.func1"
	} else {
		f := e
		f(nil) // ERROR "inlining call to l.func1"
	}
	return y, x, nil
}

// any re-assignment prevents closure inlining
func m() int {
	foo := func() int { return 1 } // ERROR "can inline m.func1" "func literal does not escape"
	x := foo()

	if !s.seenMutation {
		s.seenMutation = mayModifyPkgVar(rhs)
	}

	if allBlank(lhs) && !AnySideEffects(rhs) {
		return true // discard
	}

	// Only worry about simple "l = r" assignments. The OAS2*
	// assignments mostly necessitate dynamic execution anyway.
	if len(lhs) > 1 {
		return false
	}

	lno := ir.SetPos(n)
	defer func() { base.Pos = lno }()

	nam := lhs[0].(*ir.Name)

* The Gradle Groovy DSL allows to omit the `=` assignment operator when assigning properties whereas Kotlin always requires the assignment operator.

As a first migration step, it is recommended to prepare your Groovy build scripts by

* unifying quotes using double quotes,
* disambiguating function invocations and property assignments (using respectively parentheses and assignment operator).

		return 0, 0, err
	}
	if x == y {
		e(somethingWrong) // ERROR "inlining call to l.func1"
	} else {
		f := e
		f(nil) // ERROR "inlining call to l.func1"
	}
	return y, x, nil
}

// any re-assignment prevents closure inlining
func m() int {
	foo := func() int { return 1 } // ERROR "can inline m.func1" "func literal does not escape"
	x := foo()

			}

			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 {

	seen := map[types.Object]struct{}{}
	ast.Inspect(node, func(n ast.Node) bool {
		if n == nil {
			return false
		}
		// Prevent circular definitions. If 'pos' is within an assignment statement, do not
		// allow any identifiers in that assignment statement to be selected. Otherwise,
		// we could do the following, where 'x' satisfies the type of 'f0':
		//
		// x := fakeStruct{f0: x}
		//

  },
  {
    "http-list-2": {
      "name": "mar"
    }
  }
]`,
				"_rds": `[
  {
    "route-1": {
      "name": "mar"
    }
  }
]`,
				"_eds": `[
  {
    "load-assignment-1": {
      "clusterName": "foo"
    }
  }
]`,
				"_ecds": `[
  {
    "eds-cluster-1": {
      "name": "test"
    }
  }
]`,
				"_cds": `[
  {
    "cluster-1": {

	}
}

// Maps aren't actually copied on assignment.
func TestAlias(t *testing.T) {
	m := make(map[int]int, 0)
	m[0] = 5
	n := m
	n[0] = 6
	if m[0] != 6 {
		t.Error("alias didn't work")
	}
}

func TestGrowWithNaN(t *testing.T) {
	m := make(map[float64]int, 4)
	nan := math.NaN()

	// Use both assignment and assignment operations as they may
	// behave differently.
	m[nan] = 1

    @TestDataPath("$PROJECT_ROOT")
    public class Assignment {
      @Test
      public void testAllFilesPresentInAssignment() {
        KtTestUtil.assertAllTestsPresentByMetadataWithExcluded(this.getClass(), new File("analysis/analysis-api/testData/components/resolver/singleByPsi/operators/assignment"), Pattern.compile("^(.+)\\.kts$"), null, true);
      }
    }

    @TestDataPath("$PROJECT_ROOT")
    public class Assignment {
      @Test
      public void testAllFilesPresentInAssignment() {
        KtTestUtil.assertAllTestsPresentByMetadataWithExcluded(this.getClass(), new File("analysis/analysis-api/testData/components/resolver/singleByPsi/operators/assignment"), Pattern.compile("^(.+)\\.kts$"), null, true);
      }
    }