// Test all combinations!
	for pIdx, params := range qParamsArr {
		for vIdx, vars := range varsArr {
			_, err := extractHealInitParams(vars, params, bytes.NewReader([]byte(body)))
			isErrCase := false
			if pIdx < 4 || vIdx < 1 {
				isErrCase = true
			}

			if err != ErrNone && !isErrCase {
				t.Errorf("Got unexpected error: %v %v %v", pIdx, vIdx, err)
			} else if err == ErrNone && isErrCase {

    void* pred_;

    friend class DeadnessAnalysis;
  };

  virtual absl::StatusOr<DeadnessPredicate> GetPredicateFor(Node* n,
                                                            int oidx) const = 0;

  // Prints out the internal state of this instance.  For debugging purposes
  // only.
  virtual void Print() const = 0;
  virtual ~DeadnessAnalysis();

  TF_ASSERT_OK(ComputePredicates(*root.graph(), &predicate_map));

  EXPECT_EQ(predicate_map[ControlOutputFor(id_0)], "bidx:0=0");
  EXPECT_EQ(predicate_map[ControlOutputFor(id_1)], "(~bidx:0=0 & bidx:0=1)");
  EXPECT_EQ(predicate_map[ControlOutputFor(id_2)], "(~bidx:0=0 & ~bidx:0=1)");
}

}  // namespace

* `frozenset`:
    * Em requisições e respostas, será tratado da mesma forma que um `set`:
        * Nas requisições, uma lista será lida, eliminando duplicadas e convertendo-a em um `set`.
        * Nas respostas, o `set` será convertido para uma `list`.
        * O esquema gerado vai especificar que os valores do `set` são unicos (usando o `uniqueItems` do JSON Schema).

		if r.Add() != 0 {
			ldr.Errorf(s, "PLT call with non-zero addend (%v)", r.Add())
		}
		addpltsym(target, ldr, syms, targ)
		su := ldr.MakeSymbolUpdater(s)
		su.SetRelocSym(rIdx, syms.PLT)
		su.SetRelocAdd(rIdx, int64(ldr.SymPlt(targ)))
		return true
	}

	return false
}

func elfreloc1(ctxt *ld.Link, out *ld.OutBuf, ldr *loader.Loader, s loader.Sym, r loader.ExtReloc, ri int, sectoff int64) bool {

		if *ld.FlagTextAddr == -1 {
			*ld.FlagTextAddr = ld.Rnd(0x10000, *ld.FlagRound) + int64(ld.HEADR)
		}
	}
}

func adddynrel(target *ld.Target, ldr *loader.Loader, syms *ld.ArchSyms, s loader.Sym, r loader.Reloc, rIdx int) bool {
	ld.Exitf("adddynrel currently unimplemented for MIPS")
	return false

		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)

		return f
	}

	missingBinaries := false
	mappingLocs := map[*profile.Mapping][]*profile.Location{}
	for _, l := range prof.Location {
		mappingLocs[l.Mapping] = append(mappingLocs[l.Mapping], l)
	}
	for midx, m := range prof.Mapping {
		locs := mappingLocs[m]
		if len(locs) == 0 {
			// The mapping is dangling and has no locations pointing to it.
			continue
		}

(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