if ldr.SymType(s) == sym.STEXT {
				addsym(s)
			}
		}
		for n := range Segtext.Sections[1:] {
			s := ldr.Lookup(fmt.Sprintf("runtime.text.%d", n+1), 0)
			if s != 0 {
				addsym(s)
			} else {
				break
			}
		}
		if !ctxt.DynlinkingGo() {
			s := ldr.Lookup("runtime.etext", 0)
			if ldr.SymType(s) == sym.STEXT {
				addsym(s)
			}
		}
	}

	// Add text symbols.

	// Add special runtime.text and runtime.etext symbols.
	s := ldr.Lookup("runtime.text", 0)
	if ldr.SymType(s) == sym.STEXT {
		addsym(s)
	}
	s = ldr.Lookup("runtime.etext", 0)
	if ldr.SymType(s) == sym.STEXT {
		addsym(s)
	}

	// Add text symbols.
	for _, s := range ctxt.Textp {
		addsym(s)
	}

	shouldBeInSymbolTable := func(s loader.Sym) bool {
		if ldr.AttrNotInSymbolTable(s) {
			return false
		}

// data or relocations).
func addDummyObjSym(t *testing.T, ldr *Loader, or *oReader, name string) Sym {
	idx := uint32(len(ldr.objSyms))
	st := loadState{l: ldr}
	return st.addSym(name, 0, or, idx, nonPkgDef, &goobj.Sym{})
}

func mkLoader() *Loader {
	er := ErrorReporter{}
	ldr := NewLoader(0, &er)
	er.ldr = ldr
	return ldr
}

func TestAddMaterializedSymbol(t *testing.T) {
	ldr := mkLoader()

                    if (isWindowsSdk(sdkDir)) {
                        LOGGER.debug("Found Windows SDK {} at {}", version, sdkDir);
                        addSdk(sdkDir, version, name);
                    } else {
                        LOGGER.debug("Ignoring candidate Windows SDK directory {} as it does not look like a Windows SDK installation.", sdkDir);
                    }

var Anames = []string{
	obj.A_ARCHSPECIFIC: "AAA",
	"AAD",
	"AAM",
	"AAS",
	"ADCB",
	"ADCL",
	"ADCQ",
	"ADCW",
	"ADCXL",
	"ADCXQ",
	"ADDB",
	"ADDL",
	"ADDPD",
	"ADDPS",
	"ADDQ",
	"ADDSD",
	"ADDSS",
	"ADDSUBPD",
	"ADDSUBPS",
	"ADDW",
	"ADJSP",
	"ADOXL",
	"ADOXQ",
	"AESDEC",
	"AESDECLAST",
	"AESENC",
	"AESENCLAST",
	"AESIMC",
	"AESKEYGENASSIST",
	"ANDB",
	"ANDL",
	"ANDNL",

// Other attributes should be left untouched.
// CHECK-SAME: attributes {tf.entry_function = {inputs = "add_x:0,add_y:0", outputs = "add:0"}}

// Test the newly created "main" function.
// CHECK: func.func @main(%[[ARG0:.*]]: tensor<1xf32> {tf_saved_model.index_path = ["add_x:0"]}, %[[ARG1:.*]]: tensor<1xf32> {tf_saved_model.index_path = ["add_y:0"]})
// CHECK-SAME: -> (tensor<1xf32> {tf_saved_model.index_path = ["add:0"]})

	res := []model.AddressInfo{}
	type kindindex struct {
		k     kind.Kind
		index int
	}
	addrm := map[netip.Addr]kindindex{}
	for _, wl := range a.workloads.List() {
		overwrite := -1
		write := true
		for _, addr := range wl.Addresses {
			a := byteIPToAddr(addr)
			if existing, f := addrm[a]; f {
				// This address was already found. We want unique addresses in the result.
				// Pod > WorkloadEntry

	ADDS	$0x10001000100011, R6, RSP                       // ERROR "illegal destination register"
	ADDSW	$0xff, R6, RSP                                   // ERROR "illegal destination register"
	ADDSW	$0xffff0, R6, RSP                                // ERROR "illegal destination register"
	ADDSW	$0x1000100010001000, R6, RSP                     // ERROR "illegal destination register"

Roland Shoemaker <******@****.***> 1634241721 -0700

	c := float64(7)
	// amd64: `ADDSD\t8\([A-Z]+[0-9]*\)\([A-Z]+[0-9]*\*8\), X[0-9]+`
	c += a[i+1]
	// amd64: `SUBSD\t16\([A-Z]+[0-9]*\)\([A-Z]+[0-9]*\*8\), X[0-9]+`
	c -= a[i+2]
	// amd64: `MULSD\t24\([A-Z]+[0-9]*\)\([A-Z]+[0-9]*\*8\), X[0-9]+`
	c *= a[i+3]
	// amd64: `DIVSD\t32\([A-Z]+[0-9]*\)\([A-Z]+[0-9]*\*8\), X[0-9]+`
	c /= a[i+4]

	d := float32(8)
	// amd64: `ADDSS\t4\([A-Z]+[0-9]*\)\([A-Z]+[0-9]*\*4\), X[0-9]+`