pkgs = append(pkgs, importpath)
	}
	slices.Sort(pkgs)
	for _, importpath := range pkgs {
		p := fm.pm[importpath]
		units := make([]extcu, 0, len(p.unitTable))
		for u := range p.unitTable {
			units = append(units, u)
		}
		p.sortUnits(units)
		for _, u := range units {
			count := p.unitTable[u]
			file := p.funcs[u.fnfid].file
			if _, err := fmt.Fprintf(w, "%s:%d.%d,%d.%d %d %d\n",

// sniffUnit simpifies the input alias and returns the unit associated with the
// specified alias. It returns nil if the unit with such alias is not found.
func (ut UnitType) sniffUnit(unit string) *Unit {
	unit = strings.ToLower(unit)
	if len(unit) > 2 {
		unit = strings.TrimSuffix(unit, "s")
	}
	return ut.findByAlias(unit)
}

// autoScale takes in the value with units of the base unit and returns

}

// traceClockUnitsPerSecond estimates the number of trace clock units per
// second that elapse.
func traceClockUnitsPerSecond() uint64 {
	if osHasLowResClock {
		// We're using cputicks as our clock, so we need a real estimate.
		return uint64(ticksPerSecond() / traceTimeDiv)
	}
	// Our clock is nanotime, so it's just the constant time division.
	// (trace clock units / nanoseconds) * (1e9 nanoseconds / 1 second)

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`.

				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 {

		//   Option a: Set HostConfig.CpuPercent. The units are whole percent of the total CPU capacity of the system, meaning the resolution
		//      is different based on the number of cores.
		//   Option b: Set HostConfig.NanoCpus integer <int64> - CPU quota in units of 10e-9 CPUs. Moby scales this to the Windows job object
		//      resolution of 1-10000, so it's higher resolution than option a.

	// Parse should call usage and return nil.
	Parse(usage func()) []string
}

// A Fetcher reads and returns the profile named by src. src can be a
// local file path or a URL. duration and timeout are units specified
// by the end user, or 0 by default. duration refers to the length of
// the profile collection, if applicable, and timeout is the amount of
// time to wait for a profile before returning an error. Returns the

    accept(ContractDescriptionElementToAnalysisApi(analysisContext), Unit) as KaContractEffectDeclaration

private class ContractDescriptionElementToAnalysisApi(val analysisContext: Fe10AnalysisContext) :
    ContractDescriptionVisitor<Any, Unit> {

    override fun visitConditionalEffectDeclaration(
        conditionalEffect: ConditionalEffectDeclaration,
        data: Unit
    ): Any = KaContractConditionalContractEffectDeclaration(

): KaContractEffectDeclaration =
    accept(ConeContractDescriptionElementToAnalysisApi(builder, firFunctionSymbol), Unit) as KaContractEffectDeclaration

private class ConeContractDescriptionElementToAnalysisApi(
    private val builder: KaSymbolByFirBuilder,
    private val firFunctionSymbol: KaFirFunctionSymbol
) : KtContractDescriptionVisitor<Any, Unit, ConeKotlinType, ConeDiagnostic>() {

    override fun visitConditionalEffectDeclaration(

                    is KaContractReturnsSpecificValueEffectDeclaration ->
                        appendProperty(value::value, ::renderKaContractConstantValue, endWithNewLine)
                }
            }
        }
    }

private fun Context.renderKaContractConstantValue(value: KaContractConstantValue, endWithNewLine: Boolean = true): Unit =
    printer.appendHeader(value::class) {