fmt.Fprintf(w, "$%d", a.Offset)
		} else {
			fmt.Fprintf(w, "$%d-%d", a.Offset, a.Val.(int32))
		}

	case TYPE_FCONST:
		str := fmt.Sprintf("%.17g", a.Val.(float64))
		// Make sure 1 prints as 1.0
		if !strings.ContainsAny(str, ".e") {
			str += ".0"
		}
		fmt.Fprintf(w, "$(%s)", str)

	case TYPE_SCONST:
		fmt.Fprintf(w, "$%q", a.Val.(string))

	case TYPE_ADDR:
		io.WriteString(w, "$")

		portScheduler = "10259"
	}
	urlFormat := "https://127.0.0.1:%s/healthz"
	return []controlPlaneComponent{
		{name: "kube-apiserver", url: fmt.Sprintf(urlFormat, portAPIServer)},
		{name: "kube-controller-manager", url: fmt.Sprintf(urlFormat, portKCM)},
		{name: "kube-scheduler", url: fmt.Sprintf(urlFormat, portScheduler)},
	}
}

// WaitForControlPlaneComponents waits for all control plane components to report "ok" on /healthz

		if err != nil {
			return err
		}

		ns := annotateAssembly(insts, sns, s.file)

		fmt.Fprintf(w, "ROUTINE ======================== %s\n", s.sym.Name[0])
		for _, name := range s.sym.Name[1:] {
			fmt.Fprintf(w, "    AKA ======================== %s\n", name)
		}
		fmt.Fprintf(w, "%10s %10s (flat, cum) %s of Total\n",
			rpt.formatValue(flatSum), rpt.formatValue(cumSum),

		divisor = 1 << 10
	case b < 1<<30:
		suffix = "MiB"
		divisor = 1 << 20
	case b < 1<<40:
		suffix = "GiB"
		divisor = 1 << 30
	}
	if divisor == 1 {
		return fmt.Sprintf("%d %s", b, suffix)
	}
	return fmt.Sprintf("%.1f %s", float64(b)/float64(divisor), suffix)

		sub.hasSub.Store(true)
	}

	if b.chatty != nil {
		labelsOnce.Do(func() {
			fmt.Printf("goos: %s\n", runtime.GOOS)
			fmt.Printf("goarch: %s\n", runtime.GOARCH)
			if b.importPath != "" {
				fmt.Printf("pkg: %s\n", b.importPath)
			}
			if cpu := sysinfo.CPUName(); cpu != "" {
				fmt.Printf("cpu: %s\n", cpu)
			}
		})

		if !hideStdoutForTesting {
			if b.chatty.json {

	// Declare the coverage struct as a package-level variable.
	fmt.Fprintf(w, "\nvar %s = struct {\n", *varVar)
	fmt.Fprintf(w, "\tCount     [%d]uint32\n", len(f.blocks))
	fmt.Fprintf(w, "\tPos       [3 * %d]uint32\n", len(f.blocks))
	fmt.Fprintf(w, "\tNumStmt   [%d]uint16\n", len(f.blocks))
	fmt.Fprintf(w, "} {\n")

	// Initialize the position array field.
	fmt.Fprintf(w, "\tPos: [3 * %d]uint32{\n", len(f.blocks))

						break
					}
					if time.Since(startTime) > waitTimeout {
						errorMsg := fmt.Sprintf("timed out while waiting for waypoint %v/%v", gw.Namespace, gw.Name)
						if err != nil {
							errorMsg += fmt.Sprintf(": %s", err)
						}
						return fmt.Errorf(errorMsg)
					}
				}
			}
			fmt.Fprintf(cmd.OutOrStdout(), "waypoint %v/%v applied\n", gw.Namespace, gw.Name)

				fmt.Fprintf(h, "%v", meta.Erasure.Distribution)
			}

			if meta.IsRemote() {
				// ILM transition fields
				fmt.Fprint(h, meta.TransitionStatus)
				fmt.Fprint(h, meta.TransitionTier)
				fmt.Fprint(h, meta.TransitionedObjName)
				fmt.Fprint(h, meta.TransitionVersionID)
			}

			// If metadata says encrypted, ask for it in quorum.
			if etyp, ok := crypto.IsEncrypted(meta.Metadata); ok {
				fmt.Fprint(h, etyp)

				// they should have explicit permission to the detailed checks.
				fmt.Fprintf(&individualCheckOutput, "[-]%s failed: reason withheld\n", check.Name())
				// but we do want detailed information for our log
				fmt.Fprintf(&failedVerboseLogOutput, "[-]%s failed: %v\n", check.Name(), err)
				failedChecks = append(failedChecks, check.Name())
			} else {

		r := e.Range()
		fmt.Fprintf(&sb, " Name=%q Scope=%s", r.Name, r.Scope)
		if kind == EventRangeEnd {
			fmt.Fprintf(&sb, " Attributes=[")
			for i, attr := range e.RangeAttributes() {
				if i != 0 {
					fmt.Fprintf(&sb, " ")
				}
				fmt.Fprintf(&sb, "%q=%s", attr.Name, valueAsString(attr.Value))
			}
			fmt.Fprintf(&sb, "]")
		}
	case EventTaskBegin, EventTaskEnd: