imports  map[string]*types.Package // package path -> package object
	typeList []types.Type              // type number -> type
	typeData []string                  // unparsed type data (v3 and later)
	fixups   []fixupRecord             // fixups to apply at end of parsing
	initdata InitData                  // package init priority data

		panic(err)
	}
	return ip
}

type parseAddrError struct {
	in  string // the string given to ParseAddr
	msg string // an explanation of the parse failure
	at  string // optionally, the unparsed portion of in at which the error occurred.
}

func (err parseAddrError) Error() string {
	q := strconv.Quote
	if err.at != "" {
		return "ParseAddr(" + q(err.in) + "): " + err.msg + " (at " + q(err.at) + ")"

		if len(name) > 0 && name[0] == '_' {
			name = name[1:]
		}
		for len(name) > 0 && isDigit(name[0]) {
			name = name[1:]
		}
		if len(name) > 0 && name[0] != '.' {
			return nil, errors.New("unparsed characters at end of mangled name")
		}
		a = &Special{Prefix: "invocation function for block in ", Val: a}
		return a, nil
	}

	const prefix = "_GLOBAL_"
	if strings.HasPrefix(name, prefix) {

		default:
			args = append(args, a)
		}
	}
	return
}

// parseValue parses a parenthesized value from a rule.
// The value can be from the match or the result side.
// It returns the op and unparsed strings for typ, auxint, and aux restrictions and for all args.
// oparch is the architecture that op is located in, or "" for generic.

// certificate structs in this file.
//
// Notably, we include issuer as an asn1.RawValue, mirroring the behavior of
// tbsCertificate and allowing raw (unparsed) subjects to be passed cleanly.
type certificateList struct {
	TBSCertList        tbsCertificateList
	SignatureAlgorithm pkix.AlgorithmIdentifier
	SignatureValue     asn1.BitString
}

        assertThat(InetAddresses.toAddrString(parsed)).contains("%");
        if (isNumeric) {
          assertEquals(Integer.parseInt(scopeId), parsed.getScopeId());
        } else {
          assertEquals(scopeId, parsed.getScopedInterface().getName());
        }
        Inet6Address reparsed =
            (Inet6Address) InetAddresses.forString(InetAddresses.toAddrString(parsed));
        assertEquals(reparsed, parsed);

				opts.endTime = parsed.endTime().Sub(parsed.startTime())
			}
			opts.focusGoroutine = goid
			opts.goroutines = trace.RelatedGoroutinesV2(parsed.events, goid)
		} else if taskids := r.FormValue("focustask"); taskids != "" {
			taskid, err := strconv.ParseUint(taskids, 10, 64)
			if err != nil {
				log.Printf("failed to parse focustask parameter %q: %v", taskids, err)
				return
			}
			task, ok := parsed.summary.Tasks[trace.TaskID(taskid)]

		lost := parsed.size - parsed.valid
		pct := float64(lost) / float64(parsed.size) * 100
		log.Printf("Lost %.2f%% of the latest trace data due to error (%s of %s)", pct, byteCount(lost), byteCount(parsed.size))
	}

	log.Print("Splitting trace for viewer...")
	ranges, err := splitTrace(parsed)
	if err != nil {
		logAndDie(err)
	}

	log.Printf("Opening browser. Trace viewer is listening on %s", addr)

        Type3Message parsed = new Type3Message(t3.toByteArray());

        assertEquals(domain, parsed.getDomain());
        assertEquals(user, parsed.getUser());
        assertEquals(workstation, parsed.getWorkstation());

        assertArrayEquals(lmResponse, parsed.getLMResponse());
        assertArrayEquals(ntResponse, parsed.getNTResponse());
    }

	cmd := &cobra.Command{}
	var testInt int
	flag.IntVar(&testInt, "testint", defaultInt, "test int flag")
	AddFlags(cmd)

	testName := "Initialize int Flag"
	if !flag.Parsed() {
		t.Errorf("%s: flag.Parsed() returns false, should be true", testName)
	}

	cmd.Flags().VisitAll(func(f *pflag.Flag) {
		if f.Name != "testint" {
			t.Errorf("%s: pflag name error. Actual %s, Expected %s", testName, f.Name, "testint")