continue
			}
			if !ldr.AttrReachable(rr.Xsym) {
				ldr.Errorf(s, "unreachable reloc %d (%s) target %v", r.Type(), sym.RelocName(ctxt.Arch, r.Type()), ldr.SymName(rr.Xsym))
			}
			if !thearch.Machoreloc1(ctxt.Arch, out, ldr, s, rr, int64(uint64(ldr.SymValue(s)+int64(r.Off()))-sect.Vaddr)) {
				ldr.Errorf(s, "unsupported obj reloc %d (%s)/%d to %s", r.Type(), sym.RelocName(ctxt.Arch, r.Type()), r.Siz(), ldr.SymName(r.Sym()))
			}

			continue
		}
		if _, ok := globalMapInitLsyms[tgt]; !ok {
			continue
		}
		if base.Debug.WrapGlobalMapDbg > 1 {
			fmt.Fprintf(os.Stderr, "=-= weakify fn %v reloc %d %+v\n", fn, i,
				fn.LSym.R[i])
		}
		// set the R_WEAK bit, leave rest of reloc type intact
		fn.LSym.R[i].Type |= objabi.R_WEAK
	}
}

// StackOffset returns the stack location of a LocalSlot relative to the

					relocs := d.ldr.Relocs(idx)
					for i := 0; i < relocs.Count(); i++ {
						reloc := relocs.At(i)
						if reloc.Type() == objabi.R_USEIFACE {
							d.defgotype(reloc.Sym())
						}
					}
				}
			}
			continue
		}
		// Skip file local symbols (this includes static tmps, stack

	var rel obj.Reloc

	v := vaddr(ctxt, p, a, &rel)
	if rel.Siz != 0 {
		if rel.Siz != 4 {
			ctxt.Diag("bad reloc")
		}
		r := obj.Addrel(cursym)
		*r = rel
		r.Off = int32(p.Pc + int64(ab.Len()))
	}

	ab.PutInt32(int32(v))
}

func vaddr(ctxt *obj.Link, p *obj.Prog, a *obj.Addr, r *obj.Reloc) int64 {
	if r != nil {
		*r = obj.Reloc{}
	}

// linking is in effect, it may not be  possible to completely resolve
// the address/offset for a symbol, in which case the goal is to lay
// the groundwork for turning a given relocation into an external reloc
// (to be applied by the external linker). For more on how relocations
// work in general, see
//
//	"Linkers and Loaders", by John R. Levine (Morgan Kaufmann, 1999), ch. 7
//

				// plugin. See #62430 for more details.
				if d.ctxt.canUsePlugins && r.Type().IsDirectCall() {
					convertWeakToStrong = true
				}
				if !convertWeakToStrong {
					// skip this reloc
					continue
				}
			}
			t := r.Type()
			switch t {
			case objabi.R_METHODOFF:
				if i+2 >= relocs.Count() {
					panic("expect three consecutive R_METHODOFF relocs")
				}

        assertEquals("reloc-gid", pom.getValue("distributionManagement/relocation/groupId"));
        assertEquals("reloc-aid", pom.getValue("distributionManagement/relocation/artifactId"));
        assertEquals("reloc-version", pom.getValue("distributionManagement/relocation/version"));
        assertEquals("project-reloc-msg", pom.getValue("distributionManagement/relocation/message"));

	fninfo := fsym.Func()
	pc := &fninfo.Pcln
	if flag&traverseAux == 0 {
		// NB: should it become necessary to walk aux sym reloc references
		// without walking the aux syms themselves, this can be changed.
		panic("should not be here")
	}
	for _, d := range pc.Funcdata {
		if d != nil {
			fn(fsym, d)
		}
	}

// It represents Go symbols in a flat pkg+"."+name namespace.
type LSym struct {
	Name string
	Type objabi.SymKind
	Attribute

	Size   int64
	Gotype *LSym
	P      []byte
	R      []Reloc

	Extra *interface{} // *FuncInfo, *VarInfo, *FileInfo, or *TypeInfo, if present

	Pkg    string
	PkgIdx int32
	SymIdx int32
}

// A FuncInfo contains extra fields for STEXT symbols.

			}
			esr := ElfSymForReloc(ctxt, rr.Xsym)
			if esr == 0 {
				ldr.Errorf(s, "reloc %d (%s) to non-elf symbol %s (outer=%s) %d (%s)", r.Type(), sym.RelocName(ctxt.Arch, r.Type()), ldr.SymName(r.Sym()), ldr.SymName(rr.Xsym), ldr.SymType(r.Sym()), ldr.SymType(r.Sym()).String())
			}
			if !ldr.AttrReachable(rr.Xsym) {
				ldr.Errorf(s, "unreachable reloc %d (%s) target %v", r.Type(), sym.RelocName(ctxt.Arch, r.Type()), ldr.SymName(rr.Xsym))
			}