if err != nil || v.OverflowFloat(n) {
				d.saveError(&UnmarshalTypeError{Value: "number " + string(item), Type: v.Type(), Offset: int64(d.readIndex())})
				break
			}
			v.SetFloat(n)
		}
	}
	return nil
}

// The xxxInterface routines build up a value to be stored
// in an empty interface. They are not strictly necessary,

			for i := 0; i < len(str); i++ {
				v.Index(i).SetUint(uint64(str[i]))
			}
		case reflect.Float32, reflect.Float64:
			s.SkipSpace()
			s.notEOF()
			v.SetFloat(s.convertFloat(s.floatToken(), v.Type().Bits()))
		case reflect.Complex64, reflect.Complex128:
			v.SetComplex(s.scanComplex(verb, v.Type().Bits()))
		default:
			s.errorString("can't scan type: " + val.Type().String())

		{name: "SETNE", argLength: 1, reg: readflags, asm: "SETNE"}, // extract != condition from arg0
		{name: "SETL", argLength: 1, reg: readflags, asm: "SETLT"},  // extract signed < condition from arg0
		{name: "SETLE", argLength: 1, reg: readflags, asm: "SETLE"}, // extract signed <= condition from arg0

    return failure();
  }

  for (Operation& inner_op : quantized_func.getBody().front().getOperations()) {
    if (!inner_op.hasAttr(kAttrMapAttribute)) continue;
    inner_op.setLoc(main_op->getLoc());
  }
  return success();
}

// Get the corresponding quantized function name from the given function name.
std::string GetQuantizedFunctionName(StringRef func_name,

	case Complex128:
		*(*complex128)(v.ptr) = x
	}
}

// SetFloat sets v's underlying value to x.
// It panics if v's Kind is not [Float32] or [Float64], or if [Value.CanSet] returns false.
func (v Value) SetFloat(x float64) {
	v.mustBeAssignable()
	switch k := v.kind(); k {
	default:
		panic(&ValueError{"reflect.Value.SetFloat", v.kind()})
	case Float32:
		*(*float32)(v.ptr) = float32(x)
	case Float64:

#ifdef GOOS_windows
	CALL	runtime·wintls(SB)
#endif
	// set up ldt 7 to point at m0.tls
	// ldt 1 would be fine on Linux, but on OS X, 7 is as low as we can go.
	// the entry number is just a hint.  setldt will set up GS with what it used.
	MOVL	$7, 0(SP)
	LEAL	runtime·m0+m_tls(SB), AX
	MOVL	AX, 4(SP)
	MOVL	$32, 8(SP)	// sizeof(tls array)
	CALL	runtime·setldt(SB)
	RET

TEXT runtime·emptyfunc(SB),0,$0-0

			v.SetUint(132)
		case Uint8:
			v.SetUint(8)
		case Uint16:
			v.SetUint(16)
		case Uint32:
			v.SetUint(32)
		case Uint64:
			v.SetUint(64)
		case Float32:
			v.SetFloat(256.25)
		case Float64:
			v.SetFloat(512.125)
		case Complex64:
			v.SetComplex(532.125 + 10i)
		case Complex128:
			v.SetComplex(564.25 + 1i)
		case String:
			v.SetString("stringy cheese")
		case Bool:

		// for writing the entire PLT.  We just need to
		// reserve 8 bytes for each PLT entry and generate a
		// JMP_SLOT dynamic relocation for it.
		//
		// TODO(austin): ABI v1 is different
		ldr.SetPlt(s, int32(plt.Size()))

		plt.Grow(plt.Size() + 8)
		plt.SetSize(plt.Size() + 8)

		rela.AddAddrPlus(ctxt.Arch, plt.Sym(), int64(ldr.SymPlt(s)))

	if ldr.SymGot(s) >= 0 {
		return
	}

	Adddynsym(ldr, target, syms, s)
	got := ldr.MakeSymbolUpdater(syms.GOT)
	ldr.SetGot(s, int32(got.Size()))
	got.AddUint(target.Arch, 0)

	if target.IsElf() {
		if target.Arch.PtrSize == 8 {
			rela := ldr.MakeSymbolUpdater(syms.Rela)

			}

			// make dynimport JMP table for PE object files.
			tplt := int32(rel.Size())
			ctxt.loader.SetPlt(targ, tplt)

			if su == nil {
				su = ctxt.loader.MakeSymbolUpdater(s)
			}
			r.SetSym(rel.Sym())
			r.SetAdd(int64(tplt))

			// jmp *addr
			switch ctxt.Arch.Family {
			default: