}
			} else {
				aoffset := c.autosize
				// LDP -8(RSP), (R29, R30)
				p.As = ALDP
				p.From.Type = obj.TYPE_MEM
				p.From.Offset = -8
				p.From.Reg = REGSP
				p.To.Type = obj.TYPE_REGREG
				p.To.Reg = REGFP
				p.To.Offset = REGLINK

				// ADD $aoffset, RSP, RSP
				q = newprog()
				q.As = AADD
				q.From.Type = obj.TYPE_CONST
				q.From.Offset = int64(aoffset)
				q.To.Type = obj.TYPE_REG

	Lnimpid  uint32 // Number of import file IDs
	Lstlen   uint32 // Length of string table
	Limpoff  uint64 // Offset to start of import file IDs
	Lstoff   uint64 // Offset to start of string table
	Lsymoff  uint64 // Offset to start of symbol table
	Lrldoff  uint64 // Offset to start of relocation entries
}

const (
	LDHDRSZ_32 = 32
	LDHDRSZ_64 = 56
)

// Loader Symbol.

			return true
		}
	}

	return false
}

func offoverlap(sa, sb *Sch) bool {
	if sa.soffset < sb.soffset {
		if sa.soffset+int32(sa.size) > sb.soffset {
			return true
		}
		return false
	}
	if sb.soffset+int32(sb.size) > sa.soffset {
		return true
	}
	return false
}

/*
 * test 2 adjacent instructions

//
// Deprecated: No longer returned.
type ReadError struct {
	Offset int64 // byte offset where error occurred
	Err    error // error returned by underlying Read
}

func (e *ReadError) Error() string {
	return "flate: read error at offset " + strconv.FormatInt(e.Offset, 10) + ": " + e.Err.Error()
}

// A WriteError reports an error encountered while writing output.
//

	if isvaluelit(n) {
		s.initplan(n)
		q := s.Plans[n]
		for _, qe := range q.E {
			// qe is a copy; we are not modifying entries in q.E
			qe.Xoffset += xoffset
			p.E = append(p.E, qe)
		}
		return
	}

	// add to plan
	p.E = append(p.E, Entry{Xoffset: xoffset, Expr: n})
}

func (s *Schedule) staticAssignInlinedCall(l *ir.Name, loff int64, call *ir.InlinedCallExpr, typ *types.Type) bool {

		return nil, err
	}

	offset := 0
	// First import file ID is the default LIBPATH value
	libpath := cstring(table[offset:])
	f.LibraryPaths = strings.Split(libpath, ":")
	offset += len(libpath) + 3 // 3 null bytes
	all := make([]string, 0)
	for i := 1; i < int(nimpid); i++ {
		impidpath := cstring(table[offset:])
		offset += len(impidpath) + 1
		impidbase := cstring(table[offset:])

// Helper macros for PRECALC, which does precomputations
#define PRECALC_0(OFFSET) \
	VMOVDQU   OFFSET(R10),X0

#define PRECALC_1(OFFSET) \
	VINSERTI128 $1, OFFSET(R13), Y0, Y0

#define PRECALC_2(YREG) \
	VPSHUFB Y10, Y0, YREG

#define PRECALC_4(YREG,K_OFFSET) \
	VPADDD K_OFFSET(R8), YREG, Y0

#define PRECALC_7(OFFSET) \
	VMOVDQU Y0, (OFFSET*2)(R14)


// Message scheduling pre-compute for rounds 0-15

	zone := &l.zone[tx[lo].index]
	name = zone.name
	offset = zone.offset
	start = tx[lo].when
	// end = maintained during the search
	isDST = zone.isDST

	// If we're at the end of the known zone transitions,
	// try the extend string.
	if lo == len(tx)-1 && l.extend != "" {
		if ename, eoffset, estart, eend, eisDST, ok := tzset(l.extend, start, sec); ok {
			return ename, eoffset, estart, eend, eisDST
		}
	}

	return

	t.quantum = uint32(t.Data[6])
	t.ptrsize = uint32(t.Data[7])

	offset := func(word uint32) uint64 {
		return t.uintptr(t.Data[8+word*t.ptrsize:])
	}
	data := func(word uint32) []byte {
		return t.Data[offset(word):]
	}

	switch possibleVersion {
	case ver118, ver120:
		t.nfunctab = uint32(offset(0))
		t.nfiletab = uint32(offset(1))

	if et == types.TINT64 {
		tHi = x.typs.Int32
	}
	tLo = x.typs.UInt32
	return
}

// offsetFrom creates an offset from a pointer, simplifying chained offsets and offsets from SP
func (x *expandState) offsetFrom(b *Block, from *Value, offset int64, pt *types.Type) *Value {
	ft := from.Type
	if offset == 0 {
		if ft == pt {
			return from
		}