}
	}

	return NewFile(uintptr(fd), name), nil
}

func openDirNolog(name string) (*File, error) {
	return openFileNolog(name, O_RDONLY, 0)
}

// Close closes the File, rendering it unusable for I/O.
// On files that support SetDeadline, any pending I/O operations will
// be canceled and return immediately with an ErrClosed error.

}

// CloseWithError closes the writer; reads will return
// no bytes and the error err, or EOF if err is nil.
//
// CloseWithError never overwrites the previous error if it exists
// and always returns nil.
func (r *RingBuffer) CloseWithError(err error) {
	if err == nil {
		err = io.EOF
	}
	r.setErr(err, false)
}

// CloseWriter closes the writer.

		// panicking with http.ErrAbortHandler also suppresses logging of a stack trace to the server's error log and closes the underlying connection
		w.Write([]byte("hello from the handler"))
		panic(http.ErrAbortHandler)
	})
	resolver := &request.RequestInfoFactory{
		APIPrefixes:          sets.NewString("api", "apis"),

		return nil
	}
	err := fd.pd.init(fd)
	if err != nil {
		// If we could not initialize the runtime poller,
		// assume we are using blocking mode.
		fd.isBlocking = 1
	}
	return err
}

// Destroy closes the file descriptor. This is called when there are
// no remaining references.
func (fd *FD) destroy() error {
	// Poller may want to unregister fd in readiness notification mechanism,

			added.Insert(fmt.Sprintf("%+v", newResource))
		}
	}
	return fmt.Sprintf("added: %v, removed: %v", added.List(), removed.List())
}

// waitForStopOrTimeout returns a stop channel that closes when the provided stop channel closes or when the specified timeout is reached
func waitForStopOrTimeout(stopCh <-chan struct{}, timeout time.Duration) <-chan struct{} {
	stopChWithTimeout := make(chan struct{})
	go func() {

		isBigEndian && !root.Block.Func.Config.BigEndian
	if needSwap && (size != 1 || !root.Block.Func.Config.haveByteSwap(n)) {
		return false
	}

	// This is the commit point.

	// First, issue load at lowest address.
	v = loadBlock.NewValue2(pos, OpLoad, sizeType(n*size), r[0].load.Args[0], mem)

	// Byte swap if needed,
	if needSwap {
		v = byteSwap(loadBlock, pos, v)
	}

	// Extend if needed.

	t4 = 0b11110000
	t5 = 0b11111000

	maskx = 0b00111111
	mask2 = 0b00011111
	mask3 = 0b00001111
	mask4 = 0b00000111

	rune1Max = 1<<7 - 1
	rune2Max = 1<<11 - 1
	rune3Max = 1<<16 - 1

	// The default lowest and highest continuation byte.
	locb = 0b10000000
	hicb = 0b10111111

	// These names of these constants are chosen to give nice alignment in the
	// table below. The first nibble is an index into acceptRanges or F for

	buf.WriteByte(byte(e))
	buf.WriteByte('?')
}

// closeWord writes the end of an encoded-word into buf.
func closeWord(buf *strings.Builder) {
	buf.WriteString("?=")
}

// splitWord closes the current encoded-word and opens a new one.
func (e WordEncoder) splitWord(buf *strings.Builder, charset string) {
	closeWord(buf)
	buf.WriteByte(' ')
	e.openWord(buf, charset)
}

    * E.g., `await myfile.seek(0)` would go to the start of the file.
    * This is especially useful if you run `await myfile.read()` once and then need to read the contents again.
* `close()`: Closes the file.

As all these methods are `async` methods, you need to "await" them.

For example, inside of an `async` *path operation function* you can get the contents with:

```Python

                           "type: opStatus = "
                        << static_cast<int>(status);
      return nullptr;
    }
    if (loses_info) {
      op->emitWarning("Conversion of epsilon loses precision");
    }
    epsilon_attr = b.getFloatAttr(fp_type, epsilon_float);
  }

  auto scalar_type = RankedTensorType::get(/*shape=*/{}, fp_type);
  auto epsilon_tensor_attr = DenseElementsAttr::get(