Rsymndx uint32 // Index into symbol table
	Rsize   uint8  // Sign and reloc bit len
	Rtype   uint8  // Toc relocation type
}

type Reloc64 struct {
	Rvaddr  uint64 // (virtual) address of reference
	Rsymndx uint32 // Index into symbol table
	Rsize   uint8  // Sign and reloc bit len
	Rtype   uint8  // Toc relocation type
}

const (
	R_POS = 0x00 // A(sym) Positive Relocation

)

// NodeType decides the responsibility of the proxy serves in the mesh
type NodeType string

const (
	// SidecarProxy type is used for sidecar proxies in the application containers
	SidecarProxy NodeType = "sidecar"

	// Router type is used for standalone proxies acting as L7/L4 routers
	Router NodeType = "router"

	// Waypoint type is used for waypoint proxies
	Waypoint NodeType = "waypoint"

}

type Reloc struct {
	VirtualAddress   uint64
	Symbol           *Symbol
	Signed           bool
	InstructionFixed bool
	Length           uint8
	Type             uint8
}

// ImportedSymbol holds information about an imported XCOFF symbol.
type ImportedSymbol struct {
	Name    string
	Library string
}

// FileHeader holds information about an XCOFF file header.
type FileHeader struct {

3. **Type of interception**: Either BYTECODE_UPGRADE for property upgrades or INSTRUMENTATION for cc instrumentation: we want to use only instrumentation interceptors in some cases and that is why you need to define a type
4. **Annotations to define interception type**, like if this is an instance or static method, if we should intercept Groovy or just Java etc.
5. **Return type **of original call

	printf := func(format string, args ...any) {
		_, err := fmt.Fprintf(b, format, args...)
		if err != nil {
			t.Fatalf("Writing to %s: %v", large, err)
		}
	}

	printf("package large\n\ntype T struct {\n")
	for i := 0; i < 1000; i++ {
		printf("f%d int `tag:\"", i)
		for j := 0; j < 100; j++ {
			printf("t%d=%d,", j, j)
		}
		printf("\"`\n")
	}
	printf("}\n")

				continue
			}
			if n1.Op() != ir.OTYPE {
				base.ErrorfAt(ncase.Pos(), errors.NotAType, "%L is not a type", n1)
				continue
			}
			if !n1.Type().IsInterface() {
				why := ImplementsExplain(n1.Type(), t)
				if why != "" {
					base.ErrorfAt(ncase.Pos(), errors.ImpossibleAssert, "impossible type switch case: %L cannot have dynamic type %v (%s)", guard.X, n1.Type(), why)
				}
				continue
			}

func f2b([]byte, (int), *float)
func f3b(a, b *int, c []float)
func f4b(...*complex)
func f5b(a s1a, b ...[]complex)
//
type s1a struct { int }
type s2a struct { byte; int; s1a }
type s3a struct { a, b int; c float }
//
type s1b struct { *int }
type s2b struct { byte; int; *float }
type s3b struct { a, b *s3b; c []float }
`, 0)
	if err != nil {
		t.Fatal(err)
	}

	want := "int " + // f1a

// license that can be found in the LICENSE file.

// Runtime type representation.

package runtime

import (
	"internal/abi"
	"unsafe"
)

type nameOff = abi.NameOff
type typeOff = abi.TypeOff
type textOff = abi.TextOff

type _type = abi.Type

// rtype is a wrapper that allows us to define additional methods.
type rtype struct {
	*abi.Type // embedding is okay here (unlike reflect) because none of this is public

			except Exception as e:
				print("Can't parse ", obj, ": ", e)
				continue

			if obj['data'] == 0:
				dtype = "nil"
			else:
				dtype = iface_dtype(obj)

			if dtype is None:
				print("Not an interface: ", obj.type)
				continue

			print("{0}: {1}".format(obj.type, dtype))

# TODO: print interface's methods and dynamic type's func pointers thereof.

	return s[i+1:]
}

func toRType(t *abi.Type) rtype {
	return rtype{t}
}

func elem(t *abi.Type) *abi.Type {
	et := t.Elem()
	if et != nil {
		return et
	}
	panic("reflect: Elem of invalid type " + toRType(t).String())
}

func (t rtype) Elem() Type {
	return toType(elem(t.common()))
}

func (t rtype) In(i int) Type {
	tt := t.Type.FuncType()
	if tt == nil {