func argErrPos(call *ast.CallExpr) positioner { return inNode(call, call.Rparen) }

// startPos returns the start position of node n.
func startPos(n ast.Node) token.Pos { return n.Pos() }

// endPos returns the position of the first character immediately after node n.
func endPos(n ast.Node) token.Pos { return n.End() }

}

func (e posSpan) Pos() token.Pos {
	return e.pos
}

// inNode creates a posSpan for the given node.
// Invariant: node.Pos() <= pos < node.End() (node.End() is the position of the
// first byte after node within the source).
func inNode(node ast.Node, pos token.Pos) posSpan {
	start, end := node.Pos(), node.End()
	if debug {
		assert(start <= pos && pos < end)
	}
	return posSpan{start, pos, end}

See the License for the specific language governing permissions and
limitations under the License.
*/

package modes

import (
	"github.com/fxamacker/cbor/v2"
)

var Encode cbor.EncMode = func() cbor.EncMode {
	encode, err := cbor.EncOptions{
		// Map keys need to be sorted to have deterministic output, and this is the order
		// defined in RFC 8949 4.2.1 "Core Deterministic Encoding Requirements".

// writing; when writing counter data files, clients pass a
// CounterVisitor to the write/emit routines, then the expectation is
// that the VisitFuncs method will then invoke the callback "f" with
// data for each function to emit to the file.
type CounterVisitor interface {
	VisitFuncs(f CounterVisitorFn) error
}

// CounterVisitorFn describes a callback function invoked when writing

	return fmt.Errorf("%w (offline-disks=%d/%d)", writeErr, countErrs(p.errs, errDiskNotFound), len(p.writers))
}

// Encode reads from the reader, erasure-encodes the data and writes to the writers.
func (e *Erasure) Encode(ctx context.Context, src io.Reader, writers []io.Writer, buf []byte, quorum int) (total int64, err error) {
	writer := &multiWriter{
		writers:     writers,
		writeQuorum: quorum,

You can also use <a href="https://github.com/encode/databases" class="external-link" target="_blank">`encode/databases`</a> with **FastAPI** to connect to databases using `async` and `await`.

It is compatible with:

* PostgreSQL
* MySQL
* SQLite

In this example, we'll use **SQLite**, because it uses a single file and Python has integrated support. So, you can copy this example and run it as is.

}

var (
	mu     sync.Mutex
	inodes = map[File]inode{}
	locks  = map[inode]inodeLock{}
)

func lock(f File, lt lockType) (err error) {
	// POSIX locks apply per inode and process, and the lock for an inode is
	// released when *any* descriptor for that inode is closed. So we need to
	// synchronize access to each inode internally, and must serialize lock and
	// unlock calls that refer to the same inode through different descriptors.

apocelipes <******@****.***> 1709068395 +0000

Cherry Mui <******@****.***> 1669134308 -0500

	}

	inodes, _ := fsquota.GetInodes(path)
	if inodes != nil {
		usage.Inodes = inodes.Value()
	}

	if inodes != nil && consumption != nil {
		return usage, nil
	}

	topLevelStat := &unix.Stat_t{}
	err := unix.Stat(path, topLevelStat)
	if err != nil {
		return usage, err
	}

	// dedupedInode stores inodes that could be duplicates (nlink > 1)