val.SetLen(n)
			return err
		}
		return nil
	}

	if val.Type() == attrType {
		val.Set(reflect.ValueOf(attr))
		return nil
	}

	return copyValue(val, []byte(attr.Value))
}

var (
	attrType            = reflect.TypeFor[Attr]()
	unmarshalerType     = reflect.TypeFor[Unmarshaler]()
	unmarshalerAttrType = reflect.TypeFor[UnmarshalerAttr]()

	AttrMacroInfo      Attr = 0x43
	AttrNamelistItem   Attr = 0x44
	AttrPriority       Attr = 0x45
	AttrSegment        Attr = 0x46
	AttrSpecification  Attr = 0x47
	AttrStaticLink     Attr = 0x48
	AttrType           Attr = 0x49
	AttrUseLocation    Attr = 0x4A
	AttrVarParam       Attr = 0x4B
	AttrVirtuality     Attr = 0x4C
	AttrVtableElemLoc  Attr = 0x4D
	// The following are new in DWARF 3.
	AttrAllocated     Attr = 0x4E

		}, len(s)
	}

	attrName := strings.ToLower(string(s[i:j]))
	if c.element == elementScript && attrName == "type" {
		attr = attrScriptType
	} else {
		switch attrType(attrName) {
		case contentTypeURL:
			attr = attrURL
		case contentTypeCSS:
			attr = attrStyle
		case contentTypeJS:
			attr = attrScript
		case contentTypeSrcset:
			attr = attrSrcset
		}
	}

					i, _ := strconv.Atoi(name[len(bvarprefix):])
					bvarDIE[i] = e
				}
			}
		}
	}

	typedieof := func(e *dwarf.Entry) dwarf.Offset {
		return e.Val(dwarf.AttrType).(dwarf.Offset)
	}

	if off := typedieof(ptrastructTypeDIE); off != astructTypeDIE.Offset {
		t.Errorf("type attribute of *main.astruct references %#x, not main.astruct DIE at %#x\n", off, astructTypeDIE.Offset)
	}

						{Attr: dwarf.AttrDeclFile, Val: int64(7), Class: dwarf.ClassConstant},
						{Attr: dwarf.AttrDeclLine, Val: int64(236), Class: dwarf.ClassConstant},
						{Attr: dwarf.AttrType, Val: dwarf.Offset(0xb7f), Class: dwarf.ClassReference},
						{Attr: dwarf.AttrDataMemberLoc, Val: []byte{0x23, 0x0}, Class: dwarf.ClassExprLoc},
					},
				},
			},
			{
				entryNumber: 204,

		n := val.Len()
		for i := 0; i < n; i++ {
			if err := p.marshalAttr(start, name, val.Index(i)); err != nil {
				return err
			}
		}
		return nil
	}

	if val.Type() == attrType {
		start.Attr = append(start.Attr, val.Interface().(Attr))
		return nil
	}

	s, b, err := p.marshalSimple(val.Type(), val)
	if err != nil {
		return err
	}
	if b != nil {
		s = string(b)

// Receives a composite DictionaryAttr and returns the value of the Attribute
// with the key `attr_name` as the type provided by `attr_type`.
class GetCompositeAttributeAs<string attr_name, string attr_type>:
  NativeCodeCall<"$0.get(\"" # attr_name # "\").dyn_cast<" # attr_type # ">()">;

// Receives a composite DictionaryAttr and returns the value of the Attribute
// with the key `attr_name` as a DenseIntElementsAttr.

			// refer to it via "C.<name>", so skip these vars
			//
			// See issue 53000 for more context.
			if name == "" {
				break
			}
			typOff, _ := e.Val(dwarf.AttrType).(dwarf.Offset)
			if typOff == 0 {
				if e.Val(dwarf.AttrSpecification) != nil {
					// Since we are reading all the DWARF,
					// assume we will see the variable elsewhere.
					break
				}

// Returns a <string, bool> pair. The string is the C++ type name to be used for
// attr_type when defining an object of that type. The bool is a flag to
// indicate whether to treat the type as const when accepting the C++ type as an
// argument to a function.
std::pair<StringPiece, bool> AttrTypeName(StringPiece attr_type);

StringPiece ListElementTypeName(StringPiece attr_type);

bool IsCPPKeyword(StringPiece name);

      if (arg_def->getDef()->isSubClassOf(attr_type)) {
        StringRef arg_name = arg_values->getArgNameStr(i);
        // Already handle this case in flatbuffer_import.cc.
        if ((option_name == "LSTMOptions" ||
             option_name == "UnidirectionalSequenceLSTMOptions") &&
            arg_name.take_back(12) == "intermediate")
          continue;
        StringRef attr_type = mlir::tblgen::Attribute(arg_def).getAttrDefName();