foo404()
	foo405()
	foo406()
	foo407()
	foo408()
	foo409()
	foo410()
	foo411()
	foo412()
	foo413()
	foo414()
	foo415()
	foo416()
	foo417()
	foo418()
	foo419()
	foo420()
	foo421()
	foo422()
	foo423()
	foo424()
	foo425()
	foo426()
	foo427()
	foo428()
	foo429()
	foo430()
	foo431()
	foo432()
	foo433()
	foo434()
	foo435()
	foo436()

  function {
    signature {
      name: "foo19"
    }
  }
  function {
    signature {
      name: "foo20"
    }
  }
}
versions {
  producer: 29
  min_consumer: 12
}

# Verify that functions from the library are properly imported.

# CHECK-LABEL:  func @main() {
# CHECK:    "tf.LegacyCall"() <{_disable_call_shape_inference = false, f = @foo110}> {device = ""}

	_ = x.foo3 // OK
	_ = x.foo4 // ERROR "x.foo4 undefined (type S has no field or method foo4, but does have field foO4)"
}

func _() {
	_ = S{Foo1: 0} // OK
	_ = S{Foo2 /* ERROR "unknown field Foo2 in struct literal of type S, but does have FoO2" */ : 0}
	_ = S{Foo3 /* ERROR "unknown field Foo3 in struct literal of type S, but does have foo3" */ : 0}

    }

    def "old build script classloaders are collected"() {
        given:
        buildFile << """
            class Foo0 {
                static final byte[] MEMORY_HOG = new byte[10 * 1024 * 1024]
            }
            task myTask() {
                doLast {
                    println new Foo0()
                }
            }
        """

        expect:
        for(int i = 0; i < 35; i++) {

# CHECK-LABEL:  func @main() {
# CHECK:    "tf.LegacyCall"() <{_disable_call_shape_inference = true, f = @foo0}> {device = ""}
# CHECK:    "tf.LegacyCall"() <{_disable_call_shape_inference = false, f = @bar0}> {device = ""}

# CHECK-LABEL:  func private @foo0()
# CHECK: "tf.LegacyCall"() <{_disable_call_shape_inference = false, f = @bar0}> {device = ""}

# the names are matching between the function definition and the uses / call
# site (a numerical suffix may be appended).

# CHECK: "tf.LegacyCall"(%outputs) <{_disable_call_shape_inference = false, f = @foo0}> {device = ""}

func main7() { var _ foo7 = x7[int]{} }

// crash 8
type foo8[A any] interface { ~A /* ERROR "cannot be a type parameter" */ }
func bar8[A foo8[A]](a A) {}

// crash 9
type foo9[A any] interface { foo9 /* ERROR "invalid recursive type" */ [A] }
func _() { var _ = new(foo9[int]) }

// crash 12

	q.Enqueue(types.UID("foo3"), 1*time.Minute)
	q.Enqueue(types.UID("foo4"), 1*time.Minute)
	expected := []types.UID{types.UID("foo1"), types.UID("foo2")}
	compareResults(t, expected, q.GetWork())
	compareResults(t, []types.UID{}, q.GetWork())
	// Dial the time to 1 hour ahead.
	clock.Step(time.Hour)
	expected = []types.UID{types.UID("foo3"), types.UID("foo4")}
	compareResults(t, expected, q.GetWork())

	}
	return 2, 3 // ERROR "not enough return values\n\thave \(number, number\)\n\twant \(int, int, int, int\)|not enough arguments to return"
}

func foo4(name string) (string, int) {
	switch name {
	case "cow":
		return "moo" // ERROR "not enough return values\n\thave \(string\)\n\twant \(string, int\)|not enough arguments to return"
	case "dog":

				c.Set("foo2", "bar")
				c.Set("foo3", "bar")
				c.Set("foo4", "bar")
				c.Set("foo5", "bar")
				c.Set("foo6", "bar")
				c.Set("foo7", "bar")
			}
			wg.Done()
		}()
	}
	wg.Wait()
}

func benchmarkCacheGetSetConcurrent(c Cache, b *testing.B) {
	c.Set("foo1", "bar")
	c.Set("foo2", "bar")
	c.Set("foo3", "bar")
	c.Set("foo4", "bar")
	c.Set("foo5", "bar")
	c.Set("foo6", "bar")