NumUnit map[string][]string

	locationIDX []uint64
	labelX      []label
}

// label corresponds to Profile.Label
type label struct {
	keyX int64
	// Exactly one of the two following values must be set
	strX int64
	numX int64 // Integer value for this label
	// can be set if numX has value
	unitX int64
}

// Mapping corresponds to Profile.Mapping
type Mapping struct {
	ID              uint64

         </artifact>
      </component>
      <component group="org.jvnet.staxex" name="stax-ex" version="1.8.1">
         <artifact name="stax-ex-1.8.1.jar">
            <pgp value="04543577D6A9CC626239C50C7ECBD740FF06AEB5"/>
         </artifact>
      </component>
      <component group="org.kamranzafar" name="jtar" version="2.3">

// VSUBUQM, VSUBCUQ, and VSEL instructions.

// 2. ppc64 does not have a multiply high and low
// like s390x, so those were implemented using
// macros to compute the equivalent values.

// 3. The LVX, STVX instructions on ppc64 require
// 16 byte alignment of the data.  To avoid that
// requirement, data is loaded using LXVD2X and
// STXVD2X with VPERM to reorder bytes correctly.

// I have identified some areas where I believe

	e := &Entry{
		Offset:   off,
		Tag:      a.tag,
		Children: a.children,
		Field:    make([]Field, len(a.field)),
	}

	// If we are currently parsing the compilation unit,
	// we can't evaluate Addrx or Strx until we've seen the
	// relevant base entry.
	type delayed struct {
		idx int
		off uint64
		fmt format
	}
	var delay []delayed

	resolveStrx := func(strBase, off uint64) string {

			}
			evGC = nil
		case EvSTWStart:
			evp := &evSTW
			if *evp != nil {
				return fmt.Errorf("previous STW is not ended before a new one (time %d)", ev.Ts)
			}
			*evp = ev
		case EvSTWDone:
			evp := &evSTW
			if *evp == nil {
				return fmt.Errorf("bogus STW end (time %d)", ev.Ts)
			}
			*evp = nil
		case EvGCSweepStart:
			p := ps[ev.P]
			if p.evSweep != nil {

	bgScanCredit atomic.Int64

	// assistTime is the nanoseconds spent in mutator assists
	// during this cycle. This is updated atomically, and must also
	// be updated atomically even during a STW, because it is read
	// by sysmon. Updates occur in bounded batches, since it is both
	// written and read throughout the cycle.
	assistTime atomic.Int64

		panic("Range called on non-Range event")
	}
	var r Range
	switch e.base.typ {
	case go122.EvSTWBegin, go122.EvSTWEnd:
		// N.B. ordering.advance smuggles in the STW reason as e.base.args[0]
		// for go122.EvSTWEnd (it's already there for Begin).
		r.Name = "stop-the-world (" + e.table.strings.mustGet(stringID(e.base.args[0])) + ")"

			// CMP Rarg0, $0
			// BNE 2(PC)
			// STW R0, 0(R0)
			// NOP (so the BNE has somewhere to land)

			// CMP Rarg0, $0
			p := s.Prog(ppc64.ACMP)
			p.From.Type = obj.TYPE_REG
			p.From.Reg = v.Args[0].Reg()
			p.To.Type = obj.TYPE_CONST
			p.To.Offset = 0

			// BNE 2(PC)
			p2 := s.Prog(ppc64.ABNE)
			p2.To.Type = obj.TYPE_BRANCH

			// STW R0, 0(R0)

	// put it on the "wrong" sweep list, but really don't care because the chunk is
	// treated as a large object span and there's no meaningful difference between scan
	// and noscan large objects in the sweeper. The STW at the start of the GC acts as a
	// barrier for this update.
	s.spanclass = makeSpanClass(0, true)

	// Actually set the arena chunk to fault, so we'll get dangling pointer errors.

	go122.EvGoSyscallEnd:        (*ordering).advanceGoSyscallEnd,
	go122.EvGoSyscallEndBlocked: (*ordering).advanceGoSyscallEndBlocked,
	go122.EvGoStatus:            (*ordering).advanceGoStatus,

	// STW.
	go122.EvSTWBegin: (*ordering).advanceGoRangeBegin,
	go122.EvSTWEnd:   (*ordering).advanceGoRangeEnd,

	// GC events.
	go122.EvGCActive:           (*ordering).advanceGCActive,