}

func (g *gcmAsm) Overhead() int {
	return g.tagSize
}

// sliceForAppend takes a slice and a requested number of bytes. It returns a
// slice with the contents of the given slice followed by that many bytes and a
// second slice that aliases into it and contains only the extra bytes. If the
// original slice has sufficient capacity then no allocation is performed.
func sliceForAppend(in []byte, n int) (head, tail []byte) {

// corresponding) index. The memory beyond the slice length is ignored.
func AnyOverlap(x, y []byte) bool {
	return len(x) > 0 && len(y) > 0 &&
		uintptr(unsafe.Pointer(&x[0])) <= uintptr(unsafe.Pointer(&y[len(y)-1])) &&
		uintptr(unsafe.Pointer(&y[0])) <= uintptr(unsafe.Pointer(&x[len(x)-1]))
}

// InexactOverlap reports whether x and y share memory at any non-corresponding
// index. The memory beyond the slice length is ignored. Note that x and y can

// because the unsafe package and cgo are disallowed.

import "reflect"

// AnyOverlap reports whether x and y share memory at any (not necessarily
// corresponding) index. The memory beyond the slice length is ignored.
func AnyOverlap(x, y []byte) bool {
	return len(x) > 0 && len(y) > 0 &&
		reflect.ValueOf(&x[0]).Pointer() <= reflect.ValueOf(&y[len(y)-1]).Pointer() &&

	} else {
		// re-use existing buffers
		x.data = x.data[0:n]
		x.sa = x.sa.slice(0, n)
	}

	// read data
	if _, err := io.ReadFull(r, x.data); err != nil {
		return err
	}

	// read index
	sa := x.sa
	for sa.len() > 0 {
		n, err := readSlice(r, buf, sa)
		if err != nil {
			return err
		}
		sa = sa.slice(n, sa.len())
	}
	return nil
}

// Write writes the index x to w.

}

// NamedResourcesIntSlice contains a slice of 64-bit integers.
type NamedResourcesIntSlice struct {
	// Ints is the slice of 64-bit integers.
	//
	// +listType=atomic
	Ints []int64 `json:"ints" protobuf:"bytes,1,opt,name=ints"`
}

// NamedResourcesStringSlice contains a slice of strings.
type NamedResourcesStringSlice struct {
	// Strings is the slice of strings.
	//
	// +listType=atomic

  // We cannot replace the module in a ModulePass. So we simply copy the
  // operation list from module_out to module_in.
  auto& module_in_ops = module_in.getBody()->getOperations();
  module_in_ops.clear();
  module_in_ops.splice(module_in_ops.end(),
                       module_out->getBody()->getOperations());
}

// Returns a vector of passes from their names. If a pass is not found, then the
// corresponding return entry is null.

        "email": "******@****.***",
        "hashed_password": "$2b$12$EixZaYVK1fsbw1ZfbX3OXePaWxn96p36WQoeG6Lruj3vjPGga31lW",
        "disabled": False,
    },
    "alice": {
        "username": "alice",
        "full_name": "Alice Chains",
        "email": "******@****.***",
        "hashed_password": "$2b$12$gSvqqUPvlXP2tfVFaWK1Be7DlH.PKZbv5H8KnzzVgXXbVxpva.pFm",
        "disabled": True,
    },
}

        "email": "******@****.***",
        "hashed_password": "$2b$12$EixZaYVK1fsbw1ZfbX3OXePaWxn96p36WQoeG6Lruj3vjPGga31lW",
        "disabled": False,
    },
    "alice": {
        "username": "alice",
        "full_name": "Alice Chains",
        "email": "******@****.***",
        "hashed_password": "$2b$12$gSvqqUPvlXP2tfVFaWK1Be7DlH.PKZbv5H8KnzzVgXXbVxpva.pFm",
        "disabled": True,
    },
}

//sys	Setfsgid(gid int) (err error)
//sys	Setfsuid(uid int) (err error)
//sysnb	setrlimit1(resource int, rlim *Rlimit) (err error) = SYS_SETRLIMIT
//sys	Shutdown(fd int, how int) (err error)
//sys	Splice(rfd int, roff *int64, wfd int, woff *int64, len int, flags int) (n int64, err error)

func Stat(path string, stat *Stat_t) (err error) {
	return fstatat(_AT_FDCWD, path, stat, 0)
}

// to process each slice of data which passes through.
type StreamReader struct {
	S Stream
	R io.Reader
}

func (r StreamReader) Read(dst []byte) (n int, err error) {
	n, err = r.R.Read(dst)
	r.S.XORKeyStream(dst[:n], dst[:n])
	return
}

// StreamWriter wraps a [Stream] into an io.Writer. It calls XORKeyStream
// to process each slice of data which passes through. If any [StreamWriter.Write]