}
			os.Exit(2)
		}
		fatalf("parsing %s: %s", name, err)
	}
	return ast1
}

func sourceLine(n ast.Node) int {
	return fset.Position(n.Pos()).Line
}

// ParseGo populates f with information learned from the Go source code
// which was read from the named file. It gathers the C preamble
// attached to the import "C" comment, a list of references to C.xxx,

	if tw.err != nil {
		return 0, tw.err
	}
	n, err := tw.curr.Write(b)
	if err != nil && err != ErrWriteTooLong {
		tw.err = err
	}
	return n, err
}

// readFrom populates the content of the current file by reading from r.
// The bytes read must match the number of remaining bytes in the current file.
//
// If the current file is sparse and r is an io.ReadSeeker,

pkg syscall (linux-386), const MAP_LOCKED = 8192
pkg syscall (linux-386), const MAP_NONBLOCK = 65536
pkg syscall (linux-386), const MAP_NORESERVE = 16384
pkg syscall (linux-386), const MAP_POPULATE = 32768
pkg syscall (linux-386), const MAP_PRIVATE = 2
pkg syscall (linux-386), const MAP_SHARED = 1
pkg syscall (linux-386), const MAP_STACK = 131072
pkg syscall (linux-386), const MAP_TYPE = 15

Conversely, when comparing types, a known type argument
(a type argument for which a map entry already exists)
takes the place of its corresponding type parameter.
As type inference progresses, the map is populated more and more
until all equations have been considered, or until unification fails.
Type inference succeeds if no unification step fails and the map has
an entry for each type parameter.
</p>

<p>

pkg syscall (linux-arm-cgo), const MAP_LOCKED ideal-int
pkg syscall (linux-arm-cgo), const MAP_NONBLOCK ideal-int
pkg syscall (linux-arm-cgo), const MAP_NORESERVE ideal-int
pkg syscall (linux-arm-cgo), const MAP_POPULATE ideal-int
pkg syscall (linux-arm-cgo), const MAP_PRIVATE ideal-int
pkg syscall (linux-arm-cgo), const MAP_SHARED ideal-int
pkg syscall (linux-arm-cgo), const MAP_TYPE ideal-int

		h.Mode |= c_ISGID
	}
	if fm&fs.ModeSticky != 0 {
		h.Mode |= c_ISVTX
	}
	// If possible, populate additional fields from OS-specific
	// FileInfo fields.
	if sys, ok := fi.Sys().(*Header); ok {
		// This FileInfo came from a Header (not the OS). Use the
		// original Header to populate all remaining fields.
		h.Uid = sys.Uid
		h.Gid = sys.Gid
		h.Uname = sys.Uname
		h.Gname = sys.Gname

pkg syscall (linux-386), const MAP_LOCKED ideal-int
pkg syscall (linux-386), const MAP_NONBLOCK ideal-int
pkg syscall (linux-386), const MAP_NORESERVE ideal-int
pkg syscall (linux-386), const MAP_POPULATE ideal-int
pkg syscall (linux-386), const MAP_PRIVATE ideal-int
pkg syscall (linux-386), const MAP_SHARED ideal-int
pkg syscall (linux-386), const MAP_STACK ideal-int
pkg syscall (linux-386), const MAP_TYPE ideal-int

func (fi headerFileInfo) Info() (fs.FileInfo, error) { return fi, nil }

func (fi headerFileInfo) String() string {
	return fs.FormatFileInfo(fi)
}

// FileInfoHeader creates a partially-populated [FileHeader] from an
// fs.FileInfo.
// Because fs.FileInfo's Name method returns only the base name of
// the file it describes, it may be necessary to modify the Name field

field, [`Policies`](/pkg/crypto/x509/#Certificate.Policies), which supports
certificate policy OIDs with components larger than 31 bits. By default this
field is only used during parsing, when it is populated with policy OIDs, but
not used during marshaling. It can be used to marshal these larger OIDs, instead
of the existing PolicyIdentifiers field, by using the
[`x509usepolicies` setting.](/pkg/crypto/x509/#CreateCertificate).

			t.Errorf("splitUSTARPath(%q):\ngot  (%q, %q, %v)\nwant (%q, %q, %v)",
				v.input, prefix, suffix, ok, v.prefix, v.suffix, v.ok)
		}
	}
}

// TestIssue12594 tests that the Writer does not attempt to populate the prefix
// field when encoding a header in the GNU format. The prefix field is valid
// in USTAR and PAX, but not GNU.
func TestIssue12594(t *testing.T) {
	names := []string{