// that p will contain a complete header block.
	if d.saveBuf.Len() == 0 {
		d.buf = p
	} else {
		d.saveBuf.Write(p)
		d.buf = d.saveBuf.Bytes()
		d.saveBuf.Reset()
	}

	for len(d.buf) > 0 {
		err = d.parseHeaderFieldRepr()
		if err == errNeedMore {
			// Extra paranoia, making sure saveBuf won't
			// get too large. All the varint and string

	name  string // Name of .debug_type section.
	cache Type   // Cache the type, nil to start.
}

// Parse a .debug_types section.
func (d *Data) parseTypes(name string, types []byte) error {
	b := makeBuf(d, unknownFormat{}, name, 0, types)
	for len(b.data) > 0 {
		base := b.off
		n, dwarf64 := b.unitLength()
		if n != Offset(uint32(n)) {
			b.error("type unit length overflow")
			return b.err
		}
		hdroff := b.off

					bigVal = bigVal.Sub(bigVal, big.NewInt(80))
				}
				numBuf = bigVal.Append(numBuf, 10)
				b.Write(numBuf)
				numBuf = numBuf[:0]
				val = 0
				start = i + 1
				overflow = false
			}
			continue
		}
		val <<= bitsPerByte
		val |= uint64(curVal)
		if valEnd {
			if start == 0 {
				if val < 80 {
					b.Write(strconv.AppendUint(numBuf, val/40, 10))
					b.WriteByte('.')

                        // Using internal class to verify https://github.com/gradle/gradle/issues/17619
                        public static class Implementation implements ${nameOf<Plugin<*>>()}<${nameOf<Project>()}> {
                            @Override public void apply(${nameOf<Project>()} target) {}
                        }
                    }
                    """
                )
            }
        }

			}
			if b.err != nil {
				return nil
			}
			var b1 buf
			if fmt == formStrp {
				b1 = makeBuf(b.dwarf, b.format, "str", 0, b.dwarf.str)
			} else {
				if len(b.dwarf.lineStr) == 0 {
					b.error("DW_FORM_line_strp with no .debug_line_str section")
					return nil
				}
				b1 = makeBuf(b.dwarf, b.format, "line_str", 0, b.dwarf.lineStr)
			}
			b1.skip(int(off))
			val = b1.string()

	// Count units.
	nunit := 0
	b := makeBuf(d, unknownFormat{}, "info", 0, d.info)
	for len(b.data) > 0 {
		len, _ := b.unitLength()
		if len != Offset(uint32(len)) {
			b.error("unit length overflow")
			break
		}
		b.skip(int(len))
		if len > 0 {
			nunit++
		}
	}
	if b.err != nil {
		return nil, b.err
	}

	// Again, this time writing them down.
	b = makeBuf(d, unknownFormat{}, "info", 0, d.info)

	}
	m := ut.Methods()[0]
	mname := t.(*rtype).nameOff(m.Name)
	if *mname.DataChecked(0, "name flag field")&(1<<2) == 0 {
		panic("method name does not have pkgPath *string")
	}
	return mname.Bytes
}

type OtherPkgFields struct {
	OtherExported   int
	otherUnexported int
}

func IsExported(t Type) bool {
	typ := t.(*rtype)
	n := typ.nameOff(typ.t.Str)
	return n.IsExported()
}

	// versions of types with GC programs.
	// These types need to be deallocated when the underlying object
	// is freed.
	TFlagUnrolledBitmap TFlag = 1 << 4
)

// NameOff is the offset to a name from moduledata.types.  See resolveNameOff in runtime.
type NameOff int32

// TypeOff is the offset to a type from moduledata.types.  See resolveTypeOff in runtime.
type TypeOff int32

	_ "unsafe" // for linkname
)

// inlinedCall is the encoding of entries in the FUNCDATA_InlTree table.
type inlinedCall struct {
	funcID    abi.FuncID // type of the called function
	_         [3]byte
	nameOff   int32 // offset into pclntab for name of called function
	parentPc  int32 // position of an instruction whose source position is the call site (offset from entry)

        String extension = avs.getExtension() != null ? avs.getExtension() : avs.getType();
        return new DefaultIvyArtifactName(
            nameOf(target),
            avs.getType(),
            extension,
            avs.getClassifier()
        );
    }

    private static String nameOf(ComponentSelector target) {
        if (target instanceof ModuleComponentSelector) {