su := ldr.MakeSymbolUpdater(s)
		su.SetRelocType(rIdx, objabi.R_PCREL)
		su.SetRelocSym(rIdx, syms.GOT)
		su.SetRelocAdd(rIdx, r.Add()+4)
		return true

	case objabi.ElfRelocOffset + objabi.RelocType(elf.R_ARM_CALL):
		su := ldr.MakeSymbolUpdater(s)
		su.SetRelocType(rIdx, objabi.R_CALLARM)
		if targType == sym.SDYNIMPORT {
			addpltsym(target, ldr, syms, targ)
			su.SetRelocSym(rIdx, syms.PLT)

(CMP(Q|L|W|B)loadidx1 {sym} [off] ptr idx x mem) => (CMP(Q|L|W|B) (MOV(Q|L|W|B)loadidx1 {sym} [off] ptr idx mem) x)
(CMPQloadidx8 {sym} [off] ptr idx x mem) => (CMPQ (MOVQloadidx8 {sym} [off] ptr idx mem) x)
(CMPLloadidx4 {sym} [off] ptr idx x mem) => (CMPL (MOVLloadidx4 {sym} [off] ptr idx mem) x)
(CMPWloadidx2 {sym} [off] ptr idx x mem) => (CMPW (MOVWloadidx2 {sym} [off] ptr idx mem) x)

	z := zipdata

	idx := len(z) - ztailsize
	n := get2s(z[idx+10:])
	idx = get4s(z[idx+16:])

	for i := 0; i < n; i++ {
		// See time.loadTzinfoFromZip for zip entry layout.
		if get4s(z[idx:]) != zcheader {
			break
		}
		meth := get2s(z[idx+10:])
		size := get4s(z[idx+24:])
		namelen := get2s(z[idx+28:])
		xlen := get2s(z[idx+30:])
		fclen := get2s(z[idx+32:])
		off := get4s(z[idx+42:])
		zname := z[idx+46

	{idx: 1, exp: gt, fn: gt_1_uint64},
	{idx: 1, exp: ge, fn: ge_1_uint64},
	{idx: 1, exp: eq, fn: eq_1_uint64},
	{idx: 1, exp: ne, fn: ne_1_uint64},
	{idx: 2, exp: lt, fn: lt_126_uint64},
	{idx: 2, exp: le, fn: le_126_uint64},
	{idx: 2, exp: gt, fn: gt_126_uint64},
	{idx: 2, exp: ge, fn: ge_126_uint64},
	{idx: 2, exp: eq, fn: eq_126_uint64},
	{idx: 2, exp: ne, fn: ne_126_uint64},
	{idx: 3, exp: lt, fn: lt_127_uint64},

    const ::tensorflow::Input::Initializer& val) {
  return Out(NodeWith(ConstantValue(val)));
}
::testing::Matcher<impl::OutEdge> Out(
    int oidx, ::testing::Matcher<const Node*> node_matcher) {
  return ::testing::MakeMatcher(new OutEdgeMatcher(node_matcher, oidx));
}
}  // namespace matchers

Node* FindNodeByName(Graph* g, absl::string_view name) {
  for (Node* n : g->nodes()) {
    if (n->name() == name) {

func (ex *Examiner) entryFromIdx(idx int) *dwarf.Entry {
	if idx >= len(ex.dies) || idx < 0 {
		return nil
	}
	return ex.dies[idx]
}

// Returns a list of child entries for a die with ID 'idx'
func (ex *Examiner) Children(idx int) []*dwarf.Entry {
	sl := ex.kids[idx]
	ret := make([]*dwarf.Entry, len(sl))
	for i, k := range sl {
		ret[i] = ex.entryFromIdx(k)
	}
	return ret
}

        threads.times { idx ->
            buildTestFixture.withBuildInSubDir()
            singleProjectBuild("build$idx") {
                buildFile << """
System.out.println 'this is stdout: $idx'
System.err.println 'this is stderr: $idx'
logger.lifecycle 'this is lifecycle: $idx'
"""
            }
        }

        then:
        threads.times { idx ->
            concurrent.start {

// Table return the table name of the index.
func (idx Index) Table() string {
	return idx.TableName
}

// Name return the name of the index.
func (idx Index) Name() string {
	return idx.NameValue
}

// Columns return the columns of the index
func (idx Index) Columns() []string {
	return idx.ColumnList
}

// PrimaryKey returns the index is primary key or not.
func (idx Index) PrimaryKey() (isPrimaryKey bool, ok bool) {

			for _, index := range fieldIndexes {
				idx := indexes[index.Name]
				idx.Name = index.Name
				if idx.Class == "" {
					idx.Class = index.Class
				}
				if idx.Type == "" {
					idx.Type = index.Type
				}
				if idx.Where == "" {
					idx.Where = index.Where
				}
				if idx.Comment == "" {
					idx.Comment = index.Comment
				}
				if idx.Option == "" {
					idx.Option = index.Option
				}

        builder.put(domain, PublicSuffixType.fromCode(c));
      }
    }

    idx++;

    if (c != '?' && c != ',') {
      while (idx < encodedLen) {
        // Read all the children
        idx += doParseTrieToBuilder(stack, encoded, idx, builder);

        if (encoded.charAt(idx) == '?' || encoded.charAt(idx) == ',') {
          // An extra '?' or ',' after a child node indicates the end of all children of this node.