}

// NewRat creates a new [Rat] with numerator a and denominator b.
func NewRat(a, b int64) *Rat {
	return new(Rat).SetFrac64(a, b)
}

// SetFloat64 sets z to exactly f and returns z.
// If f is not finite, SetFloat returns nil.
func (z *Rat) SetFloat64(f float64) *Rat {
	const expMask = 1<<11 - 1
	bits := math.Float64bits(f)
	mantissa := bits & (1<<52 - 1)
	exp := int((bits >> 52) & expMask)
	switch exp {

func decFloat32(i *decInstr, state *decoderState, value reflect.Value) {
	value.SetFloat(float32FromBits(state.decodeUint(), i.ovfl))
}

// decFloat64 decodes an unsigned integer, treats it as a 64-bit floating-point
// number, and stores it in value.
func decFloat64(i *decInstr, state *decoderState, value reflect.Value) {
	value.SetFloat(float64FromBits(state.decodeUint()))
}

		rela.AddUint64(target.Arch, 0)

		ldr.SetPlt(s, int32(plt.Size()-16))
	} else if target.IsDarwin() {
		ld.AddGotSym(target, ldr, syms, s, 0)

		sDynid := ldr.SymDynid(s)
		lep := ldr.MakeSymbolUpdater(syms.LinkEditPLT)
		lep.AddUint32(target.Arch, uint32(sDynid))

		plt := ldr.MakeSymbolUpdater(syms.PLT)
		ldr.SetPlt(s, int32(plt.Size()))

		// adrp x16, GOT

            }
        }

        if (mojo instanceof Mojo) {
            Logger mojoLogger = LoggerFactory.getLogger(mojoDescriptor.getImplementation());
            ((Mojo) mojo).setLog(new MojoLogWrapper(mojoLogger));
        }

        if (mojo instanceof Contextualizable) {
            pluginValidationManager.reportPluginMojoValidationIssue(

	plt.SetUint32(target.Arch, plt.Size()-4, 0x000e3e03) // ld      t3,0(t3)
	plt.AddUint32(target.Arch, 0x000e0367)               // jalr    t1,t3
	plt.AddUint32(target.Arch, 0x00000001)               // nop

	ldr.SetPlt(s, int32(plt.Size()-16))

	// add to got.plt: pointer to plt[0]
	gotplt.AddAddrPlus(target.Arch, plt.Sym(), 0)

	// rela
	rela.AddAddrPlus(target.Arch, gotplt.Sym(), gotplt.Size()-8)
	sDynid := ldr.SymDynid(s)

  Block& entry = entry_func_op->getRegion(0).front();
  for (auto [arg, arg_type, arg_loc] :
       llvm::zip_equal(entry.getArguments(), arg_types, arg_locs)) {
    arg.setType(arg_type);
    arg.setLoc(arg_loc);
  }
}

// Creates a UniformQuantize op and sets it as return op.
// The requantize scale and zero point should be determined from the

	panic("not reached")
}

func (s *state) evalFloat(typ reflect.Type, n parse.Node) reflect.Value {
	s.at(n)
	if n, ok := n.(*parse.NumberNode); ok && n.IsFloat {
		value := reflect.New(typ).Elem()
		value.SetFloat(n.Float64)
		return value
	}
	s.errorf("expected float; found %s", n)
	panic("not reached")
}

func (s *state) evalComplex(typ reflect.Type, n parse.Node) reflect.Value {

			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