dir := Getenv("TMPDIR")
	if dir == "" {
		if runtime.GOOS == "android" {
			dir = "/data/local/tmp"
		} else {
			dir = "/tmp"
		}
	}
	return dir
}

// Link creates newname as a hard link to the oldname file.
// If there is an error, it will be of type *LinkError.
func Link(oldname, newname string) error {
	e := ignoringEINTR(func() error {
		return syscall.Link(oldname, newname)
	})

	"strings"
)

// An Error describes a type-checking error; it implements the error interface.
// A "soft" error is an error that still permits a valid interpretation of a
// package (such as "unused variable"); "hard" errors may lead to unpredictable
// behavior if ignored.
type Error struct {
	Pos  syntax.Pos // error position
	Msg  string     // default error message, user-friendly

		return nil, nil, NewSyscallError("pipe", e)
	}

	return NewFile(uintptr(p[0]), "|0"), NewFile(uintptr(p[1]), "|1"), nil
}

// not supported on Plan 9

// Link creates newname as a hard link to the oldname file.
// If there is an error, it will be of type *LinkError.
func Link(oldname, newname string) error {
	return &LinkError{"link", oldname, newname, syscall.EPLAN9}
}

	//   globalPDPath : plugins/kubernetes.io/fc/50060e801049cfd1-lun-0
	var globalPDPath string

	mounter := plugin.host.GetMounter(plugin.GetPluginName())
	// Try really hard to get the global mount of the volume, an error returned from here would
	// leave the global mount still mounted, while marking the volume as unused.
	// The volume can then be mounted on several nodes, resulting in volume

)

// An Error describes a type-checking error; it implements the error interface.
// A "soft" error is an error that still permits a valid interpretation of a
// package (such as "unused variable"); "hard" errors may lead to unpredictable
// behavior if ignored.
type Error struct {
	Fset *token.FileSet // file set for interpretation of Pos
	Pos  token.Pos      // error position
	Msg  string         // error message

		copy(s[i:], v)

		// Now we have
		// s: aaaaaaaavvvvbbbbcccccccc
		//            ^   ^       ^   ^
		//            i  i+m      n  n+m
		// That's the result we want.
		return s
	}

	// The hard case - v overlaps c or d. We can't just shift up
	// the data because we'd move or clobber the values we're trying
	// to insert.
	// So instead, write v on top of d, then rotate.
	copy(s[n:], v)

	// Now we have

	// three passes could transmit the 6 most significant bits, followed
	// by the second-least significant bit, followed by the least
	// significant bit.
	//
	// For sequential JPEGs, these parameters are hard-coded to 0/63/0/0, as
	// per table B.3.
	zigStart, zigEnd, ah, al := int32(0), int32(blockSize-1), uint32(0), uint32(0)
	if d.progressive {
		zigStart = int32(d.tmp[1+2*nComp])
		zigEnd = int32(d.tmp[2+2*nComp])

## Abstract

This README describes the current state of bytecode interception infrastructure, used for configuration cache instrumentation and bytecode upgrades for property migration.


## Naming

The naming is hard.
That is the case also for this infrastructure.
In next section we will use next terms:
1. We will use `bytecode instrumentation` when we talk about configuration cache bytecode instrumentation.

	// Find globalPDPath from pod volume directory(mountPath)
	var globalPDPath string
	mounter := plugin.host.GetMounter(plugin.GetPluginName())
	// Try really hard to get the global mount of the volume, an error returned from here would
	// leave the global mount still mounted, while marking the volume as unused.
	// The volume can then be mounted on several nodes, resulting in volume

        ),
    ],
    tblgen = "@llvm-project//mlir:mlir-tblgen",
    td_file = "ir/tf_ops.td",
    deps = [
        ":tensorflow_ops_td_files",
    ],
)

# We only shard tf_op on name for build performance reasons.
tf_ops_category_list = [
    {
        "name": "ops_a_m",
        "include": "tf.[A-M].*$",
    },
    {
        "name": "ops_n_z",