}

// StructType contains Type fields specific to struct types.
type Struct struct {
	fields fields

	// Maps have three associated internal structs (see struct MapType).
	// Map links such structs back to their map type.
	Map *Type

	ParamTuple bool // whether this struct is actually a tuple of signature parameters
}

// StructType returns t's extra struct-specific fields.
func (t *Type) StructType() *Struct {

	type (
		embed1 struct{ Q int }
		embed2 struct{ Q int }
		embed3 struct {
			Q int64 `json:",string"`
		}
		S1 struct {
			*embed1
			R int
		}
		S2 struct {
			*embed1
			Q int
		}
		S3 struct {
			embed1
			R int
		}
		S4 struct {
			*embed1
			embed2
		}
		S5 struct {
			*embed3
			R int
		}

// mapType represents a map type.
type mapType struct {
	abi.MapType
}

// ptrType represents a pointer type.
type ptrType struct {
	abi.PtrType
}

// sliceType represents a slice type.
type sliceType struct {
	abi.SliceType
}

// Struct field
type structField = abi.StructField

// structType represents a struct type.
type structType struct {
	abi.StructType
}

	if a != want {
		t.Errorf("zero1025 got=%v, want %v\n", a, want)
	}
}

type Z8u1 struct {
	b   bool
	val [8]byte
}
type Z8u2 struct {
	i   uint16
	val [8]byte
}

//go:noinline
func zero8u1_ssa(t *Z8u1) {
	t.val = [8]byte{}
}

//go:noinline
func zero8u2_ssa(t *Z8u2) {

}

type Book struct {
	XMLName struct{} `xml:"book"`
	Title   string   `xml:",chardata"`
}

type Event struct {
	XMLName struct{} `xml:"event"`
	Year    int      `xml:",chardata"`
}

type Movie struct {
	XMLName struct{} `xml:"movie"`
	Length  uint     `xml:",chardata"`
}

type Pi struct {
	XMLName       struct{} `xml:"pi"`
	Approximation float32  `xml:",chardata"`
}

type Universe struct {

		},
	}
	for i := range tests {
		testFn(&tests[i], t)
	}
}

func TestRealHistory_CreateControllerRevision(t *testing.T) {
	type testcase struct {
		name     string
		parent   metav1.Object
		revision *apps.ControllerRevision
		existing []struct {
			parent   metav1.Object
			revision *apps.ControllerRevision
		}
		rename bool
	}
	testFn := func(test *testcase, t *testing.T) {

		// collisions
		{"type ( E1 struct{ f int }; E2 struct{ f int }; x struct{ E1; *E2 })", false, []int{1, 0}, false},
		{"type ( E1 struct{ f int }; E2 struct{}; x struct{ E1; *E2 }); func (E2) f() {}", false, []int{1, 0}, false},

		// collisions on a generic type
		{"type ( E1[P any] struct{ f P }; E2[P any] struct{ f P }; x struct{ E1[int]; *E2[int] })", false, []int{1, 0}, false},

	type UserStat struct {
		GroundDestroyCount int
	}

	type GameUser struct {
		gorm.Model
		StatAb UserStat `gorm:"embedded;embeddedPrefix:stat_ab_"`
	}

	type UserStat1 struct {
		GroundDestroyCount string
	}

	type GroundRate struct {
		GroundDestroyCount int
	}

	type GameUser1 struct {
		gorm.Model

  struct MyCustomKernel* s = static_cast<struct MyCustomKernel*>(kernel);
  s->compute_called = true;
  if (ctx != nullptr) {
    EXPECT_EQ(43, TF_StepId(ctx));
  }
}

static void MyAsyncComputeFunc(void* kernel, TF_OpKernelContext* ctx,
                               TF_AsyncOpKernelDoneCallback* done) {
  struct MyCustomKernel* s = static_cast<struct MyCustomKernel*>(kernel);

		// collisions
		{"type ( E1 struct{ f int }; E2 struct{ f int }; x struct{ E1; *E2 })", false, []int{1, 0}, false},
		{"type ( E1 struct{ f int }; E2 struct{}; x struct{ E1; *E2 }); func (E2) f() {}", false, []int{1, 0}, false},

		// collisions on a generic type
		{"type ( E1[P any] struct{ f P }; E2[P any] struct{ f P }; x struct{ E1[int]; *E2[int] })", false, []int{1, 0}, false},