afterParallel = true
			}
		}
	}

	return stmts
}

// unlabel returns the inner statement for the possibly labeled statement stmt,
// stripping any (possibly nested) *ast.LabeledStmt wrapper.
//
// The second result reports whether stmt was an *ast.LabeledStmt.
func unlabel(stmt ast.Stmt) (ast.Stmt, bool) {
	labeled := false
	for {
		labelStmt, ok := stmt.(*ast.LabeledStmt)

	assert.NoError(t, err)

	// wait for an update events
	// total 3 update at before unlabel point: 1. init ns reconcile 2. ns label reconcile 3. pod annotation update
	mt.Assert(EventTotals.Name(), map[string]string{"type": "update"}, monitortest.AtLeast(4))

	waitForMockCalls()

	assertPodNotAnnotated(t, client, pod)

	// patch a test label to emulate a POD update event

	for _, wh := range whs {
		nsMatched, nsLabel := extractMatchedSelectorInfo(wh.NamespaceSelector, nsLabels)
		podMatched, podLabel := extractMatchedSelectorInfo(wh.ObjectSelector, podLabels)
		if nsMatched && podMatched {
			if nsLabel != "" && podLabel != "" {
				return fmt.Sprintf("Namespace label %s matches, and pod label %s matches", nsLabel, podLabel), true
			} else if nsLabel != "" {

!define System(e_alias, e_label, e_descr) rectangle "==e_label\n\n e_descr" <<system>> as e_alias

!define System_Ext(e_alias, e_label) rectangle "==e_label" <<external_system>> as e_alias
!define System_Ext(e_alias, e_label, e_descr) rectangle "==e_label\n\n e_descr" <<external_system>> as e_alias

' Boundaries
' ##################################

!define Rel_Down(e_from,e_to, e_label, e_techn) Rel_D(e_from,e_to, e_label, e_techn)

!define Rel_U(e_from,e_to, e_label) Rel_(e_from,e_to, e_label, "-UP->")
!define Rel_U(e_from,e_to, e_label, e_techn) Rel_(e_from,e_to, e_label, e_techn, "-UP->")
!define Rel_Up(e_from,e_to, e_label) Rel_U(e_from,e_to, e_label)
!define Rel_Up(e_from,e_to, e_label, e_techn) Rel_U(e_from,e_to, e_label, e_techn)

!define Component(e_alias, e_label, e_techn) rectangle "==e_label\n//<size:TECHN_FONT_SIZE>[e_techn]</size>//" <<component>> as e_alias
!define Component(e_alias, e_label, e_techn, e_descr) rectangle "==e_label\n//<size:TECHN_FONT_SIZE>[e_techn]</size>//\n\n e_descr" <<component>> as e_alias

' Boundaries
' ##################################

GoStart dt=3 g=57 g_seq=12
GoLabel dt=2 label_string=2
GoBlock dt=1049 reason_string=15 stack=5
GoUnblock dt=23 g=58 g_seq=7 stack=0
GoStart dt=8 g=58 g_seq=8
GoLabel dt=1 label_string=2
GoBlock dt=1126 reason_string=15 stack=5
GoUnblock dt=12 g=53 g_seq=3 stack=0
GoStart dt=5 g=53 g_seq=4
GoLabel dt=1 label_string=2
GoBlock dt=1751 reason_string=15 stack=5
GoUnblock dt=12 g=53 g_seq=5 stack=0
GoStart dt=6 g=53 g_seq=6
GoLabel dt=3 label_string=2

	var values []string
	values = append(values, s.Label[k]...)
	numLabels := s.NumLabel[k]
	numUnits := s.NumUnit[k]
	if len(numLabels) != len(numUnits) && len(numUnits) != 0 {
		return values
	}
	for i, numLabel := range numLabels {
		var value string
		if len(numUnits) != 0 {
			value = measurement.ScaledLabel(numLabel, numUnits[i], outputUnit)
		} else {

    out_labels = equation[arrow_pos + 1 :]

    # 2. Create sample shapes.
    label_to_size = {'a': 4, 'b': 32, 'c': 64, 'd': 128, 'e': 8}
    x_shape = [label_to_size.get(x_label) for x_label in x_labels]
    y_shape = [label_to_size.get(y_label) for y_label in y_labels]
    bias_shape = None
    if use_bias:
      bias_shape = [label_to_size.get(out_label) for out_label in out_labels]
      bias_shape = bias_shape[-1:]

Rob Pike <******@****.***> 1330061064 +1100