@Nested
    public abstract Property<JavaLauncher> getJavaLauncher();

    /**
     * The minimum heap size for the worker process.  When unspecified, no minimum heap size is set.
     *
     * Supports units like the command-line option {@code -Xms} such as {@code "1g"}.
     *
     * @return The minimum heap size.
     */
    @Optional
    @Input
    public abstract Property<String> getMinHeapSize();

    /**

	hashFuncDesc(b.h, &f, b.tmp)
	fd := funcDesc{}
	b.tmp = b.tmp[:0]
	b.tmp = uleb128.AppendUleb128(b.tmp, uint(len(f.Units)))
	b.tmp = uleb128.AppendUleb128(b.tmp, uint(b.stab.Lookup(f.Funcname)))
	b.tmp = uleb128.AppendUleb128(b.tmp, uint(b.stab.Lookup(f.Srcfile)))
	for _, u := range f.Units {
		b.tmp = uleb128.AppendUleb128(b.tmp, uint(u.StLine))
		b.tmp = uleb128.AppendUleb128(b.tmp, uint(u.StCol))

inline void TrimTrailingWhitespaces(std::string& str) {
  while (!str.empty() && str.back() == ' ') {
    str.pop_back();
  }
}

// Lifts quantizable units as separate functions, thereby identifying the
// boundaries of quantizable subgraphs. `QuantizationSpecs` influences how
// quantizable units are lifted.
//
// FileCheck test cases using various `QuantizationSpecs` can be seen at
// `TestLiftQuantizableSpotsAsFunctionsWithQuantizationSpecsPass`.

// <signedNumber>    ::= <number> | <sign><number>
// <suffix>          ::= <binarySI> | <decimalExponent> | <decimalSI>
// <binarySI>        ::= Ki | Mi | Gi | Ti | Pi | Ei
//
// 	(International System of units; See: http://physics.nist.gov/cuu/Units/binary.html)
//
// <decimalSI>       ::= m | "" | k | M | G | T | P | E
//
// 	(Note that 1024 = 1Ki but 1000 = 1k; I didn't choose the capitalization.)
//

                    context.progress(status);
                }

                @Override
                public void progress(long progress, long total, String units, String status) {
                    context.progress(progress, total, units, status);
                }
            };
        }
    }

    public void reset() {
        log.records.clear();
    }

				return fmt.Errorf("reading meta-data file %s: %v",
					p.MetaFile, err)
			}
			key := pkfunc{pk: pkIdx, fcn: fnIdx}
			counters, haveCounters := pmm[key]
			for i := 0; i < len(fd.Units); i++ {
				u := fd.Units[i]
				// Skip units with non-zero parent (no way to represent
				// these in the existing format).
				if u.Parent != 0 {
					continue
				}
				count := uint32(0)
				if haveCounters {

	if hcid := coverage.HardCodedPkgID(ppath); hcid != -1 {
		return fmt.Sprintf("uint32(%d)", uint32(hcid))
	}
	return mkPackageIdVar()
}

func (f *File) preFunc(fn ast.Node, fname string) {
	f.fn.units = f.fn.units[:0]

	// create a new counter variable for this function.
	cv := mkCounterVarName(len(f.pkg.counterLengths))
	f.fn.counterVar = cv
}

        1000      | "1000 s"      | "16.667 m"
        0.123     | "0.123 s"     | "123 ms"
        0.1234567 | "0.1234567 s" | "123.457 ms"
        -12       | "-12 s"       | "-12 s"
    }

    def "can convert between units"() {
        expect:
        Duration.millis(45000) == Duration.seconds(45)
        Duration.seconds(0.98) == Duration.millis(980)
        Duration.seconds(120) == Duration.minutes(2)

namespace mlir::quant::stablehlo {

// A `PassInstrumentation` that saves quantization report to file after
// `QuantizeCompositeFunctionsPass` is run. It inspects the `ModuleOp` after
// quantization and analyzes the quantizable units and quantization methods
// used. The report file will be saved at the `file_path`. The report file
// contains textproto of `QuantizationResults`. `file_path`'s base directories

	}

	return "journalctl", args, nil
}

// checkForNativeLogger checks journalctl output for a service
func checkForNativeLogger(ctx context.Context, service string) bool {
	// This will return all the journald units
	cmd := exec.CommandContext(ctx, "journalctl", []string{"--field", "_SYSTEMD_UNIT"}...)
	output, err := cmd.CombinedOutput()
	if err != nil {
		// Returning false to allow checking if the service is logging to a file