}
	}

	min := datap.textAddr(datap.ftab[0].entryoff)
	max := datap.textAddr(datap.ftab[nftab].entryoff)
	if datap.minpc != min || datap.maxpc != max {
		println("minpc=", hex(datap.minpc), "min=", hex(min), "maxpc=", hex(datap.maxpc), "max=", hex(max))
		throw("minpc or maxpc invalid")
	}

	for _, modulehash := range datap.modulehashes {
		if modulehash.linktimehash != *modulehash.runtimehash {

	slice(pcln.pclntab, uint64(ldr.SymSize(pcln.pclntab)))

	// The ftab slice
	slice(pcln.pclntab, uint64(pcln.nfunc+1))

	// findfunctab
	moduledata.AddAddr(ctxt.Arch, pcln.findfunctab)
	// minpc, maxpc
	moduledata.AddAddr(ctxt.Arch, pcln.firstFunc)
	moduledata.AddAddrPlus(ctxt.Arch, pcln.lastFunc, ldr.SymSize(pcln.lastFunc))
	// pointers to specific parts of the module

	"LSLW",
	"LSSL",
	"LSSQ",
	"LSSW",
	"LTR",
	"LZCNTL",
	"LZCNTQ",
	"LZCNTW",
	"MASKMOVOU",
	"MASKMOVQ",
	"MAXPD",
	"MAXPS",
	"MAXSD",
	"MAXSS",
	"MFENCE",
	"MINPD",
	"MINPS",
	"MINSD",
	"MINSS",
	"MONITOR",
	"MOVAPD",
	"MOVAPS",
	"MOVB",
	"MOVBEL",
	"MOVBEQ",
	"MOVBEW",
	"MOVBLSX",
	"MOVBLZX",
	"MOVBQSX",
	"MOVBQZX",
	"MOVBWSX",

		// where the 0x80 bit indicates that the integer continues.

		if dbg {
			ctxt.Logf("%6x %6d %v\n", uint64(p.Pc), val, p)
		}

		if started {
			pcdelta := (p.Pc - pc) / int64(ctxt.Arch.MinLC)
			n := binary.PutUvarint(buf, uint64(pcdelta))
			dst = append(dst, buf[:n]...)
			pc = p.Pc
		}

		delta := val - oldval
		n := binary.PutVarint(buf, int64(delta))
		dst = append(dst, buf[:n]...)

  %mini = "tf.Identity"(%min) : (tensor<f32>) -> tensor<f32>
  %maxi = "tf.Identity"(%max) : (tensor<f32>) -> tensor<f32>
  %minc = "tf.Cast"(%mini) : (tensor<f32>) -> tensor<f32>
  %maxc = "tf.Cast"(%maxi) : (tensor<f32>) -> tensor<f32>
  %rst = "tf.FakeQuantWithMinMaxVars"(%in, %minc, %maxc) {num_bits = 5, narrow_range = false} : (tensor<8xf32>, tensor<f32>, tensor<f32>) -> tensor<8xf32>
  func.return %rst : tensor<8xf32>

  %mini = "tf.Identity"(%min) : (tensor<f32>) -> tensor<f32>
  %maxi = "tf.Identity"(%max) : (tensor<f32>) -> tensor<f32>
  %minc = "tf.Cast"(%mini) : (tensor<f32>) -> tensor<f32>
  %maxc = "tf.Cast"(%maxi) : (tensor<f32>) -> tensor<f32>
  %rst = "tf.FakeQuantWithMinMaxVars"(%in, %minc, %maxc) {num_bits = 3, narrow_range = false} : (tensor<8xf32>, tensor<f32>, tensor<f32>) -> tensor<8xf32>
  func.return %rst : tensor<8xf32>

	// check.
	//
	// Walk through SP adjustments in function, consuming relocs
	// and following calls.
	maxLocalHeight := 0
	relocs, ri := ldr.Relocs(sym), 0
	pcsp := obj.NewPCIter(uint32(ctxt.Arch.MinLC))
	for pcsp.Init(ldr.Data(ldr.Pcsp(sym))); !pcsp.Done; pcsp.Next() {
		// pcsp.value is in effect for [pcsp.pc, pcsp.nextpc).
		height := int(pcsp.Value)
		if height > maxLocalHeight {
			maxLocalHeight = height
		}

}

// bv describes the memory starting at address scanp.
// Adjust any pointers contained therein.
func adjustpointers(scanp unsafe.Pointer, bv *bitvector, adjinfo *adjustinfo, f funcInfo) {
	minp := adjinfo.old.lo
	maxp := adjinfo.old.hi
	delta := adjinfo.delta
	num := uintptr(bv.n)
	// If this frame might contain channel receive slots, use CAS
	// to adjust pointers. If the slot hasn't been received into

		t.Errorf("nil map received")
	}
}

func TestOverflow(t *testing.T) {
	type inputT struct {
		Maxi int64
		Mini int64
		Maxu uint64
		Maxf float64
		Minf float64
		Maxc complex128
		Minc complex128
	}
	var it inputT
	var err error
	b := new(bytes.Buffer)
	enc := NewEncoder(b)
	dec := NewDecoder(b)

	// int8
	b.Reset()
	it = inputT{
		Maxi: math.MaxInt8 + 1,
	}

		}

		// Write header.
		// Keep in sync with runtime/symtab.go:pcHeader and package debug/gosym.
		header.SetUint32(ctxt.Arch, 0, 0xfffffff1)
		header.SetUint8(ctxt.Arch, 6, uint8(ctxt.Arch.MinLC))
		header.SetUint8(ctxt.Arch, 7, uint8(ctxt.Arch.PtrSize))
		off := header.SetUint(ctxt.Arch, 8, uint64(state.nfunc))
		off = header.SetUint(ctxt.Arch, off, uint64(state.nfiles))
		if off != textStartOff {