if s == nil {
		// If dst is a global, use the data or BSS bitmaps to
		// execute write barriers.
		for _, datap := range activeModules() {
			if datap.data <= dst && dst < datap.edata {
				bulkBarrierBitmap(dst, src, size, dst-datap.data, datap.gcdatamask.bytedata)
				return
			}
		}
		for _, datap := range activeModules() {
			if datap.bss <= dst && dst < datap.ebss {

		for _, datap := range activeModules() {
			workDone += markrootBlock(datap.data, datap.edata-datap.data, datap.gcdatamask.bytedata, gcw, int(i-work.baseData))
		}

	case work.baseBSS <= i && i < work.baseSpans:
		workCounter = &gcController.globalsScanWork
		for _, datap := range activeModules() {
			workDone += markrootBlock(datap.bss, datap.ebss-datap.bss, datap.gcbssmask.bytedata, gcw, int(i-work.baseBSS))

	}
	if base, _, _ := findObject(p2, 0, 0); base != 0 {
		return "heap"
	}
	for _, datap := range activeModules() {
		if datap.data <= p2 && p2 < datap.edata || datap.noptrdata <= p2 && p2 < datap.enoptrdata {
			return "data"
		}
		if datap.bss <= p2 && p2 < datap.ebss || datap.noptrbss <= p2 && p2 <= datap.enoptrbss {
			return "bss"
		}
	}
	KeepAlive(p)
	return "other"

		} else {
			relocSect(ctxt, sect, ctxt.datap)
		}
	}

	for _, sect := range Segrodata.Sections {
		relocSect(ctxt, sect, ctxt.datap)
	}
	for _, sect := range Segrelrodata.Sections {
		relocSect(ctxt, sect, ctxt.datap)
	}
	for _, sect := range Segdata.Sections {
		relocSect(ctxt, sect, ctxt.datap)
	}
	for i := 0; i < len(Segdwarf.Sections); i++ {

func Mount(source string, target string, fstype string, flags uintptr, data string) (err error) {
	// Certain file systems get rather angry and EINVAL if you give
	// them an empty string of data, rather than NULL.
	if data == "" {
		return mount(source, target, fstype, flags, nil)
	}
	datap, err := BytePtrFromString(data)
	if err != nil {
		return err

			if ldr.AttrReachable(s) {
				data := ldr.Data(s)
				if len(data) > 0 {
					ldr.Errorf(s, "should not be bss (size=%d type=%v special=%v)", len(data), ldr.SymType(s), ldr.AttrSpecial(s))
				}
				putaixsym(ctxt, s, BSSSym)
			}

		case st >= sym.SELFRXSECT && st < sym.SXREF: // data sections handled in dodata
			if ldr.AttrReachable(s) {
				putaixsym(ctxt, s, DataSym)

    val data1 = peer.takeFrame()
    assertThat(data1.type).isEqualTo(Http2.TYPE_DATA)
    assertThat(data1.streamId).isEqualTo(3)
    assertArrayEquals("abcde".toByteArray(), data1.data)
    val data2 = peer.takeFrame()
    assertThat(data2.type).isEqualTo(Http2.TYPE_DATA)
    assertThat(data2.streamId).isEqualTo(3)
    assertArrayEquals("fghi".toByteArray(), data2.data)
  }

  /**

	// adjusting the fields in the result directly.
	var data1 win32finddata1
	handle, err = findFirstFile1(name, &data1)
	if err == nil {
		copyFindData(data, &data1)
	}
	return
}

func FindNextFile(handle Handle, data *Win32finddata) (err error) {
	var data1 win32finddata1
	err = findNextFile1(handle, &data1)
	if err == nil {
		copyFindData(data, &data1)
	}
	return
}

	// adjusting the fields in the result directly.
	var data1 win32finddata1
	handle, err = findFirstFile1(name, &data1)
	if err == nil {
		copyFindData(data, &data1)
	}
	return
}

func FindNextFile(handle Handle, data *Win32finddata) (err error) {
	var data1 win32finddata1
	err = findNextFile1(handle, &data1)
	if err == nil {
		copyFindData(data, &data1)
	}
	return
}

		N = int32(1e2)
	}
	c := make(chan bool, 2)
	type Data struct {
		signal int32
		pad1   [128]int8
		data1  int32
		pad2   [128]int8
		data2  float32
	}
	var X Data
	for p := int32(0); p < 2; p++ {
		go func(p int32) {
			for i := int32(1); i < N; i++ {
				if (i+p)%2 == 0 {
					X.data1 = i
					X.data2 = float32(i)
					StoreInt32(&X.signal, i)
				} else {