// 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)

// 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

// 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
}