fn.LSym.R[i])
		}
		// set the R_WEAK bit, leave rest of reloc type intact
		fn.LSym.R[i].Type |= objabi.R_WEAK
	}
}

// StackOffset returns the stack location of a LocalSlot relative to the
// stack pointer, suitable for use in a DWARF location entry. This has nothing
// to do with its offset in the user variable.
func StackOffset(slot ssa.LocalSlot) int32 {
	n := slot.N
	var off int64
	switch n.Class {

	// trimming is concerned.
	trim := cfg.Trim

	switch cmd {
	case "disasm":
		trim = false
		cfg.Granularity = "addresses"
		// Force the 'noinlines' mode so that source locations for a given address
		// collapse and there is only one for the given address. Without this
		// cumulative metrics would be double-counted when annotating the assembly.

        Matcher matcher = Pattern.compile("gradle-(.+)").matcher(moduleName);
        matcher.matches();
        return matcher.group(1);
    }

    /**
     * Provides the locations where the classes and resources of a Gradle module can be found
     * when running in embedded mode from the IDE.
     *
     * <ul>
     * <li>In Eclipse, they are in the bin/ folder.</li>

As with any cache, the impact should therefore be measured over time.

In a setup where a team uses a shared cache backend, there are two locations worth measuring cache impact at: on CI and on developer machines.

== Cache impact on CI builds

	u := uint64(0)
	if v {
		u = 1
	}
	return Value{num: u, any: KindBool}
}

type (
	// Unexported version of *time.Location, just so we can store *time.Locations in
	// Values. (No user-provided value has this type.)
	timeLocation *time.Location

	// timeTime is for times where UnixNano is undefined.
	timeTime time.Time
)

// TimeValue returns a [Value] for a [time.Time].

	return loadTzinfoFromDirOrZip(source, name)
}

// loadLocation returns the Location with the given name from one of
// the specified sources. See loadTzinfo for a list of supported sources.
// The first timezone data matching the given name that is successfully loaded
// and parsed is returned as a Location.
func loadLocation(name string, sources []string) (z *Location, firstErr error) {
	for _, source := range sources {

		// This is wrong, but there seem to be some situations where we
		// produce locations with no storage.
		return 0
	}
	return uint8(bits.TrailingZeros64(uint64(set)))
}

// buildLocationLists builds location lists for all the user variables
// in state.f, using the information about block state in blockLocs.
// The returned location lists are not fully complete. They are in

	fn.ABI = wrapperABI
	typecheck.DeclFunc(fn)

	fn.SetABIWrapper(true)
	fn.SetDupok(true)

	// ABI0-to-ABIInternal wrappers will be mainly loading params from
	// stack into registers (and/or storing stack locations back to
	// registers after the wrapped call); in most cases they won't
	// need to allocate stack space, so it should be OK to mark them
	// as NOSPLIT in these cases. In addition, my assumption is that

		fv, _ := measurement.Scale(flat, o.SampleUnit, o.OutputUnit)
		cv, _ := measurement.Scale(cum, o.SampleUnit, o.OutputUnit)
		s := &profile.Sample{
			Location: []*profile.Location{l},
			Value:    []int64{int64(cv), int64(fv)},
		}
		out.Location = append(out.Location, l)
		out.Sample = append(out.Sample, s)
	}

	return out.Write(w)
}

type functionMap map[string]*profile.Function

	copier to crash the program if an invalid pointer value (for example, 1)
	is found in a pointer-typed location. Setting invalidptr=0 disables this check.
	This should only be used as a temporary workaround to diagnose buggy code.
	The real fix is to not store integers in pointer-typed locations.

	sbrk: setting sbrk=1 replaces the memory allocator and garbage collector