continue
			}
			if !reflect.DeepEqual(ranges, subprograms[i].ranges) {
				t.Errorf("%s: subprogram %d ranges are %x, expected %x", test.filename, i, ranges, subprograms[i].ranges)
			}
			i++
		}

		if i < len(subprograms) {
			t.Errorf("%s: saw only %d subprograms, expected %d", test.filename, i, len(subprograms))
		}
	}
}

func Test64Bit(t *testing.T) {

includes interface definition files associated with source files for
the work, and the source code for shared libraries and dynamically
linked subprograms that the work is specifically designed to require,
such as by intimate data communication or control flow between those
subprograms and other parts of the work.

  The Corresponding Source need not include anything that users

	// with respect to the start of the parent subprogram DIE.
	var offsets []int32

	// Scopes/vars
	if len(s.Scopes) > 0 {
		// For abstract subprogram DIEs we want to flatten out scope info:
		// lexical scope DIEs contain range and/or hi/lo PC attributes,
		// which we explicitly don't want for the abstract subprogram DIE.
		pvars := inlinedVarTable(&s.InlCalls)

includes interface definition files associated with source files for
the work, and the source code for shared libraries and dynamically
linked subprograms that the work is specifically designed to require,
such as by intimate data communication or control flow between those
subprograms and other parts of the work.

  The Corresponding Source need not include anything that users

// DWARF subprogram DIEs.
//
// In most cases when one DWARF DIE has to refer to another DWARF DIE,
// the target of the reference has an LSym, which makes it easy to use
// the existing relocation mechanism. For DWARF inlined routine DIEs,
// however, the subprogram DIE has to refer to a child
// parameter/variable DIE of the abstract subprogram. This child DIE

			}
		}
		rdr.SkipChildren()
	}
	f.Close()
}

// processParams examines the formal parameter children of subprogram
// DIE "die" using the explorer "ex" and returns a string that
// captures the name, order, and classification of the subprogram's
// input and output parameters. For example, for the go function
//
//	func foo(i1 int, f1 float64) (string, bool) {
//

	// exit.
	if _, err := pty.Write([]byte{'\n'}); err != nil {
		t.Fatalf("writing %q to pty: %v", "\n", err)
	}

	t.Logf("Waiting for exit...")

	if err = cmd.Wait(); err != nil {
		t.Errorf("subprogram failed: %v", err)
	}
}

// GO_TEST_TERMINAL_SIGNALS=1 subprocess above.
func runSessionLeader(t *testing.T, pause time.Duration) {
	// "Attempts to use tcsetpgrp() from a process which is a

	return die
}

// dwarfVisitFunction takes a function (text) symbol and processes the
// subprogram DIE for the function and picks up any other DIEs
// (absfns, types) that it references.
func (d *dwctxt) dwarfVisitFunction(fnSym loader.Sym, unit *sym.CompilationUnit) {
	// The DWARF subprogram DIE symbol is listed as an aux sym
	// of the text (fcn) symbol, so ask the loader to retrieve it,

// targeted by the relocation.
// Most relocations in DWARF data tend to be section-relative, but
// some target non-section symbols (for example, low_PC attrs on
// subprogram or compilation unit DIEs that target function symbols).
func canApplyRelocation(sym *Symbol) bool {
	return sym.Section != SHN_UNDEF && sym.Section < SHN_LORESERVE
}

	}
	fmt.Fprintf(os.Stderr, "cmd/link: while reading object for '%v': duplicate symbol '%s', previous def at '%v', with mismatched payload: %s\n", r.unit.Lib, name, rdup.unit.Lib, reason)

	// For the moment, allow DWARF subprogram DIEs for
	// auto-generated wrapper functions. What seems to happen
	// here is that we get different line numbers on formal
	// params; I am guessing that the pos is being inherited