foo033()
	foo034()
	foo035()
	foo036()
	foo037()
	foo038()
	foo039()
	foo040()
	foo041()
	foo042()
	foo043()
	foo044()
	foo045()
	foo046()
	foo047()
	foo048()
	foo049()
	foo050()
	foo051()
	foo052()
	foo053()
	foo054()
	foo055()
	foo056()
	foo057()
	foo058()
	foo059()
	foo060()
	foo061()
	foo062()
	foo063()
	foo064()
	foo065()
	foo066()
	foo067()

# This test is tailored to reproduce b/141617294. In particular, the function
# library contains "foo1", "foo2", ..., "foo20", from which "foo1" and "foo11"
# were mapped to the same name "foo110" in the bug.
node {
  name: "unnamed"
  op: "foo1"
}
node {
  name: "unnamed1"
  op: "foo11"
}
library {
  function {
    signature {
      name: "foo1"
    }
  }
  function {
    signature {
      name: "foo2"
    }
  }

func foo67() {
	var mv MV
	foo63(mv) // ERROR "mv does not escape$"
}

func foo68() {
	var mv MV
	// escapes but it's an int so irrelevant
	foo64(mv) // ERROR "mv escapes to heap$"
}

func foo69(m M) { // ERROR "leaking param: m$"
	foo64(m)
}

func foo70(mv1 *MV, m M) { // ERROR "leaking param: m$" "leaking param: mv1$"
	m = mv1
	foo64(m)
}

}

// Test case 1 from issue

type Fooer1[t any] interface {
	Foo(Barer[t])
}
type Barer[t any] interface {
	Bar(t)
}

// For now, a lone type parameter is not permitted as RHS in a type declaration (issue #45639).
// type Foo1[t any] t
// type Bar[t any] t
// 
// func (l Foo1[t]) Foo(v Barer[t]) { v.Bar(t(l)) }
// func (b *Bar[t]) Bar(l t)        { *b = Bar[t](l) }
// 

	// and 1- or 2- byte extensions from the common prefix.
	foo1 := NewReplacer(
		"foo1", "A",
		"foo2", "B",
		"foo3", "C",
	)
	foo2 := NewReplacer(
		"foo1", "A",
		"foo2", "B",
		"foo31", "C",
		"foo32", "D",
	)
	foo3 := NewReplacer(
		"foo11", "A",
		"foo12", "B",
		"foo31", "C",
		"foo32", "D",
	)
	foo4 := NewReplacer(
		"foo12", "B",
		"foo32", "D",

		go func() {
			for j := 0; j < each; j++ {
				c.Set("foo1", "bar")
				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")

# In GraphDef custom gradient functions are modeled using GradientDef which
# links the function and its gradient. In MLIR a TF ops gradient function is
# added to its list of function attributes.

# CHECK: func private @foo0(
# CHECK:   tf.gradient = @foo_grad

node {
  name: "Const"
  op: "Const"
  attr {
    key: "dtype"
    value {
      type: DT_FLOAT
    }
  }
  attr {
    key: "value"
    value {

		// remove a driver
		ObjectMeta: metav1.ObjectMeta{Name: "foo1"},
		Spec: storage.CSINodeSpec{
			Drivers: []storage.CSINodeDriver{{
				Name:         "io.kubernetes.storage.csi.driver-1",
				NodeID:       nodeID,
				TopologyKeys: []string{"company.com/zone1", "company.com/zone2"},
			}},
		},
	}, {
		// add a driver
		ObjectMeta: metav1.ObjectMeta{Name: "foo1"},
		Spec: storage.CSINodeSpec{

package main

func main() {
	Gooer2[byte]()
}

type Fooer[T any] interface {
	Foo(p T)
}

type fooer1[T any] struct{}

func (fooer1[T]) Foo(T) {}

type fooer2[T any] struct {
	r []Fooer[T]
}

//go:noinline
func (mr fooer2[T]) Foo(p T) {
	mr.r[0] = fooer1[T]{}
	return
}

func Gooer2[T any]() Fooer[T] {
	return fooer2[T]{}

			taintToFind:    &v1.Taint{Key: "foo_1", Value: "bar_1", Effect: v1.TaintEffectNoExecute},
			expectedResult: true,
		},
		{
			name:           "different key",
			taintToFind:    &v1.Taint{Key: "no_such_key", Value: "bar_1", Effect: v1.TaintEffectNoExecute},
			expectedResult: false,
		},
		{
			name:           "different effect",
			taintToFind:    &v1.Taint{Key: "foo_1", Value: "bar_1", Effect: v1.TaintEffectNoSchedule},