if cardinality <= 0 {
                return -1
        }
        sip := siphash.New(id[:])
        sip.Write([]byte(key))
        return int(sip.Sum64() % uint64(cardinality))
}
```

// gccCmd returns the gcc command line to use for compiling
// the input.
func (p *Package) gccCmd() []string {
	c := append(gccBaseCmd,
		"-w",          // no warnings
		"-Wno-error",  // warnings are not errors
		"-o"+gccTmp(), // write object to tmp
		"-gdwarf-2",   // generate DWARF v2 debugging symbols
		"-c",          // do not link
		"-xc",         // input language is C
	)
	if p.GccIsClang {
		c = append(c,

Luego, 🤖 cogerá la primera tarea finalizada (digamos, nuestro "archivo lento" 📝) y continuará con lo que tenía que hacer con esa tarea.

Esa "espera de otra cosa" normalmente se refiere a operaciones <abbr title = "Input and Output, en español: Entrada y Salida.">I/O</abbr> que son relativamente "lentas" (en relación a la velocidad del procesador y memoria RAM), como por ejemplo esperar por:

* los datos de cliente que se envían a través de la red

		switch p.arch.Family {
		case sys.MIPS, sys.MIPS64:
			prog.From = a[0]
			prog.Reg = p.getRegister(prog, op, &a[1])
			prog.To = a[2]
		case sys.Loong64:
			switch {
			// Loong64 atomic instructions with one input and two outputs.
			case arch.IsLoong64AMO(op):
				prog.From = a[0]
				prog.To = a[1]
				prog.RegTo2 = a[2].Reg
			default:
				prog.From = a[0]
				prog.Reg = p.getRegister(prog, op, &a[1])

            return false;
        }
        return true;
    }

    int readCharFromBuffer() throws IOException {
        if (readBufferIndex >= readBufferLen) {
            readBufferLen = input.read(readBuffer);
            if (readBufferLen == -1) {
                return -1;
            }
            readBufferIndex = 0;
        }
        final int c = readBuffer[readBufferIndex++];

#
#   readarray ARGS < <( xargs -n1 <<<"$var" ) &&
#   set -- "${ARGS[@]}" "$@"
#
# but POSIX shell has neither arrays nor command substitution, so instead we
# post-process each arg (as a line of input to sed) to backslash-escape any
# character that might be a shell metacharacter, then use eval to reverse
# that process (while maintaining the separation between arguments), and wrap

   * returned from {@link #asMapOfRanges} will be different if there were existing entries which
   * connect to the given range and value.
   *
   * <p>Even if the input range is empty, if it is connected on both sides by ranges mapped to the
   * same value those two ranges will be coalesced.
   *
   * <p><b>Note:</b> coalescing requires calling {@code .equals()} on any connected values, which

function main() {
	for file in $(ls -1); do
		dest_file=$(echo "$file" | cut -d ":" -f1)
		mv "$file" "$dest_file"
	done

	# Read content of inspect-input.txt
	MINIO_OPTS=$(grep "Server command line args" <./inspect-input.txt | sed "s/Server command line args: //g" | sed -r "s#%s:\/\/#\.\/#g")

	# Start MinIO instance using the options

Dann nimmt es 🤖 die erste erledigte Aufgabe (sagen wir, unsere „Langsam-Datei“ 📝) und bearbeitet sie weiter.

Das „Warten auf etwas anderes“ bezieht sich normalerweise auf <abbr title="Input and Output – Eingabe und Ausgabe">I/O</abbr>-Operationen, die relativ „langsam“ sind (im Vergleich zur Geschwindigkeit des Prozessors und des Arbeitsspeichers), wie etwa das Warten darauf, dass:

  TF_Operation* id = TF_FinishOperation(id_descr, status);
  ASSERT_TRUE(TF_GetCode(status) == TF_OK) << TF_Message(status);
  TF_Output input{arg, 0};
  TF_Output output{id, 0};
  TF_Function* fn =
      TF_GraphToFunction(function_graph, "ident", 0, 1, &id, 1, &input, 1,
                         &output, nullptr, nullptr, "test", status);
  ASSERT_TRUE(TF_GetCode(status) == TF_OK) << TF_Message(status);